From 7df285fa60a95bd7b618adb2e387293a33251044 Mon Sep 17 00:00:00 2001 From: steinermg <45241575+steinermg@users.noreply.github.com> Date: Thu, 19 Sep 2024 17:09:22 -0400 Subject: [PATCH] Issue #15854 - Update preload_database.sql (#144) --- preload_database.sql | 1530 +++++++++++++++++++++++++----------------- 1 file changed, 928 insertions(+), 602 deletions(-) diff --git a/preload_database.sql b/preload_database.sql index 31f102e..952b3aa 100644 --- a/preload_database.sql +++ b/preload_database.sql @@ -99,6 +99,8 @@ INSERT INTO "fill_value" VALUES(14,'99'); INSERT INTO "fill_value" VALUES(15,'9999'); INSERT INTO "fill_value" VALUES(16,'9999999'); INSERT INTO "fill_value" VALUES(17,'empty'); +INSERT INTO "fill_value" VALUES(18,'-1.00E+08'); +INSERT INTO "fill_value" VALUES(19,'-1.00E+09'); CREATE TABLE function_type ( id INTEGER NOT NULL, value VARCHAR(250) NOT NULL, @@ -1002,6 +1004,8 @@ INSERT INTO "nominal_depth" VALUES(882,'RS03INT1','MJ03C','10-TRHPHA301',1520); INSERT INTO "nominal_depth" VALUES(883,'RS03INT2','MJ03D','05-OBSSPA305',1527); INSERT INTO "nominal_depth" VALUES(884,'RS03INT2','MJ03D','06-BOTPTA303',1527); INSERT INTO "nominal_depth" VALUES(885,'RS03INT2','MJ03D','12-VEL3DB304',1527); +INSERT INTO "nominal_depth" VALUES(886,'RS01SBPS','PC01A','06-VADCPB101',200); +INSERT INTO "nominal_depth" VALUES(887,'RS03AXPS','PC03A','06-VADCPB301',200); CREATE TABLE parameter ( id INTEGER NOT NULL, name VARCHAR(250) NOT NULL, @@ -1031,38 +1035,38 @@ CREATE TABLE parameter ( FOREIGN KEY(data_product_type_id) REFERENCES data_product_type (id), CHECK (visible IN (0, 1)) ); -INSERT INTO "parameter" VALUES(1,'conductivity','conductivity',9,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,NULL,NULL,'CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); -INSERT INTO "parameter" VALUES(2,'pressure','pressure',9,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,NULL,NULL,'PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(3,'salinity','salinity',9,1,NULL,10,7,'Practical Salinity','sea_water_practical_salinity',3,NULL,NULL,'PRACSAL_L2','Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',3,2,1); -INSERT INTO "parameter" VALUES(4,'temperature','temperature',9,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,'TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); -INSERT INTO "parameter" VALUES(5,'density','density',8,1,NULL,119,7,'Seawater Density','sea_water_density',3,27,'{"lat": "CC_lat", "p": "dpi_PRESWAT_L1", "SP": "dpi_PRACSAL_L2", "lon": "CC_lon", "t": "dpi_TEMPWAT_L1"}','DENSITY_L2','Seawater Density is defined as mass per unit volume and is calculated from the conductivity, temperature and depth of a seawater sample using the TEOS-10 equation.',3,2,1); -INSERT INTO "parameter" VALUES(6,'temp','temp',9,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,'TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(1,'conductivity','sea_water_electrical_conductivity',9,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,NULL,NULL,'CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(2,'pressure','sea_water_pressure',9,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,NULL,NULL,'PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(3,'salinity','sea_water_practical_salinity',9,1,NULL,10,7,'Practical Salinity','sea_water_practical_salinity',3,NULL,NULL,'PRACSAL_L2','Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',3,2,1); +INSERT INTO "parameter" VALUES(4,'temperature','sea_water_temperature',9,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,'TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(5,'density','sea_water_density',8,1,NULL,119,7,'Seawater Density','sea_water_density',3,27,'{"lat": "CC_lat", "p": "dpi_PRESWAT_L1", "SP": "dpi_PRACSAL_L2", "lon": "CC_lon", "t": "dpi_TEMPWAT_L1"}','DENSITY_L2','Seawater Density is defined as mass per unit volume and is calculated from the conductivity, temperature and depth of a seawater sample using the TEOS-10 equation.',3,2,1); +INSERT INTO "parameter" VALUES(6,'temp','sea_water_temperature',9,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,'TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); INSERT INTO "parameter" VALUES(7,'time','time',9,2,NULL,195,7,'Time, UTC','time',NULL,NULL,NULL,NULL,'Time, UTC',NULL,NULL,1); -INSERT INTO "parameter" VALUES(8,'lat','lat',9,1,NULL,94,7,'Latitude','latitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); -INSERT INTO "parameter" VALUES(9,'lon','lon',9,1,NULL,93,7,'Longitude','longitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); +INSERT INTO "parameter" VALUES(8,'lat','lat',9,1,NULL,234,7,'Latitude','latitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); +INSERT INTO "parameter" VALUES(9,'lon','lon',9,1,NULL,233,7,'Longitude','longitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); INSERT INTO "parameter" VALUES(10,'port_timestamp','port_timestamp',9,2,NULL,195,7,'Port Timestamp, UTC',NULL,NULL,NULL,NULL,NULL,'Port timestamp, UTC',NULL,NULL,0); INSERT INTO "parameter" VALUES(11,'driver_timestamp','driver_timestamp',9,2,NULL,195,7,'Driver Timestamp, UTC',NULL,NULL,NULL,NULL,NULL,'Driver timestamp, UTC',NULL,NULL,0); INSERT INTO "parameter" VALUES(12,'internal_timestamp','internal_timestamp',9,2,NULL,195,7,'Internal Timestamp, UTC',NULL,NULL,NULL,NULL,NULL,'Internal timestamp, UTC',NULL,NULL,0); -INSERT INTO "parameter" VALUES(13,'practical_salinity','practical_salinity',8,1,NULL,10,7,'Practical Salinity','sea_water_practical_salinity',4,26,'{"p": "dpi_PRESWAT_L1", "c": "dpi_CONDWAT_L1", "t": "dpi_TEMPWAT_L1"}','PRACSAL_L2','Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',3,2,1); -INSERT INTO "parameter" VALUES(14,'dissolved_oxygen','dissolved_oxygen',8,1,NULL,219,7,'DO from Onboard Calculation - Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,61,'{"DO": "dpi_DOCONCS_L1", "SP": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "lon": "CC_lon", "P": ["PD2606", "dpi_PRESWAT_L1", "PD17"], "T": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "lat": "CC_lat"}','DOXYGEN_L2','Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This data product is corrected for salinity, temperature, and depth.',3,2,1); +INSERT INTO "parameter" VALUES(13,'practical_salinity','sea_water_practical_salinity',8,1,NULL,10,7,'Practical Salinity','sea_water_practical_salinity',4,26,'{"p": "dpi_PRESWAT_L1", "c": "dpi_CONDWAT_L1", "t": "dpi_TEMPWAT_L1"}','PRACSAL_L2','Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',3,2,1); +INSERT INTO "parameter" VALUES(14,'dissolved_oxygen','dissolved_oxygen',8,1,NULL,247,7,'DO from Onboard Calculation - Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,61,'{"DO": "dpi_DOCONCS_L1", "SP": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "lon": "CC_lon", "P": ["PD2606", "dpi_PRESWAT_L1", "PD17"], "T": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "lat": "CC_lat"}','DOXYGEN_L2','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This data product is corrected for salinity, temperature, and pressure.',3,2,1); INSERT INTO "parameter" VALUES(15,'checksum','checksum',9,4,NULL,10,7,'Checksum',NULL,0,NULL,NULL,NULL,'Checksum',NULL,NULL,1); -INSERT INTO "parameter" VALUES(16,'preferred_timestamp','preferred_timestamp',9,6,NULL,10,17,'Preferred Timestamp',NULL,NULL,NULL,NULL,NULL,'Timestamp preferred as official record.',NULL,NULL,0); +INSERT INTO "parameter" VALUES(16,'preferred_timestamp','preferred_timestamp',9,6,NULL,NULL,17,'Preferred Timestamp',NULL,NULL,NULL,NULL,NULL,'Timestamp preferred as official record.',NULL,NULL,0); INSERT INTO "parameter" VALUES(17,'ct_depth','ct_depth',8,1,NULL,10,7,'CT Depth',NULL,NULL,16,'{"x": "CC_depth_of_conductivity_and_temperature_measurements_m"}',NULL,'Depth of conductivity and temperature instrument.',NULL,NULL,0); -INSERT INTO "parameter" VALUES(18,'salinity_corrected_nitrate','salinity_corrected_nitrate',8,1,NULL,218,7,'Nitrate Concentration - Temp and Sal Corrected',NULL,NULL,109,'{"ctd_t": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "di": "CC_di", "frame_type": "PD311", "cal_temp": "CC_cal_temp", "wl": "CC_wl", "eswa": "CC_eswa", "data_in": "PD332", "wllower": "CC_lower_wavelength_limit_for_spectra_fit", "wlupper": "CC_upper_wavelength_limit_for_spectra_fit", "eno3": "CC_eno3", "ctd_sp": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "dark_value": ["PD330", "PD2325"]}','NITRTSC_L2','Temperature and salinity corrected dissolved nitrate concentration.',3,2,1); +INSERT INTO "parameter" VALUES(18,'salinity_corrected_nitrate','salinity_corrected_nitrate',8,1,NULL,246,7,'Nitrate Concentration - Temp and Sal Corrected',NULL,NULL,109,'{"ctd_t": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "di": "CC_di", "frame_type": "PD311", "cal_temp": "CC_cal_temp", "wl": "CC_wl", "eswa": "CC_eswa", "data_in": "PD332", "wllower": "CC_lower_wavelength_limit_for_spectra_fit", "wlupper": "CC_upper_wavelength_limit_for_spectra_fit", "eno3": "CC_eno3", "ctd_sp": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "dark_value": ["PD330", "PD2325"]}','NITRTSC_L2','Temperature and salinity corrected dissolved nitrate concentration.',3,2,1); INSERT INTO "parameter" VALUES(19,'beam_attenuation','beam_attenuation',8,1,NULL,127,7,'Optical Beam Attenuation Coefficient',NULL,6,51,'{"tc_arr": "CC_tcarray", "PS": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "T": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "traw": "PD590", "tbins": "CC_tbins", "cref": "PD595", "csig": "PD597", "tcal": "CC_tcal", "coff": "CC_ccwo", "cwl": "CC_cwlngth"}','OPTATTN_L2','The Optical Beam Attenuation Coefficient is the rate that the intensity of a beam of light will decrease in response to the combined effects of absorption and scatter as a function of propagation distance. The Attenuation Coefficient results from the spectral beam attenuation of the combination of all seawater impurities including all particulate and dissolved matter of optical importance.',3,2,1); INSERT INTO "parameter" VALUES(20,'optical_absorption','optical_absorption',8,1,NULL,127,7,'Optical Absorption Coefficient',NULL,6,52,'{"aref": "PD596", "PS": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "aoff": "CC_acwo", "asig": "PD598", "cpd_ts": "dpi_OPTATTN_L2", "T": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "traw": "PD590", "awl": "CC_awlngth", "cwl": "CC_cwlngth", "tbins": "CC_tbins", "tcal": "CC_tcal", "ta_arr": "CC_taarray"}','OPTABSN_L2','Optical Absorption Coefficient is the rate that the intensity of a beam of light will decrease in response to the absorption (removal) of light energy as a function of propagation distance. The Optical Absorption Coefficient reflects the absorption coefficient for the combination of all seawater impurities including all particulate and dissolved matter of optical importance.',3,2,1); INSERT INTO "parameter" VALUES(21,'seawater_scattering_coefficient','seawater_scattering_coefficient',8,1,NULL,127,7,'Total Scattering Coefficient of Pure Seawater',NULL,4,97,'{"delta": "CC_depolarization_ratio", "theta": "CC_scattering_angle", "wlngth": "CC_measurement_wavelength", "degC": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "psu": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"]}',NULL,'Total scattering coefficient of pure seawater.',3,2,1); -INSERT INTO "parameter" VALUES(22,'fluorometric_chlorophyll_a','fluorometric_chlorophyll_a',8,1,NULL,217,7,'Chlorophyll-a Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',6,80,'{"counts_dark": "CC_dark_counts_chlorophyll_a", "scale_factor": "CC_scale_factor_chlorophyll_a", "counts_output": "dpi_CHLAFLO_L0"}','CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength of light the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass as it is a dominant photosynthetic pigment.',3,1,1); +INSERT INTO "parameter" VALUES(22,'fluorometric_chlorophyll_a','fluorometric_chlorophyll_a',8,1,NULL,243,7,'Chlorophyll-a Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',6,80,'{"counts_dark": "CC_dark_counts_chlorophyll_a", "scale_factor": "CC_scale_factor_chlorophyll_a", "counts_output": "dpi_CHLAFLO_L0"}','CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength of light the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass as it is a dominant photosynthetic pigment.',3,1,1); INSERT INTO "parameter" VALUES(23,'fluorometric_cdom','fluorometric_cdom',8,1,NULL,181,7,'CDOM Concentration',NULL,6,79,'{"counts_dark": "CC_dark_counts_cdom", "scale_factor": "CC_scale_factor_cdom", "counts_output": "PD1143"}','CDOMFLO_L1','Fluorometric CDOM Concentration is a measure of how much light has been re-emitted (fluoresced) from colored organic compounds found in the colored dissolved organic matter (CDOM) in seawater. Examples of CDOM include tannins (polyphenols that bind to proteins and other large molecules) or lignins (polymers of phenolic acids) from decaying plant material and byproducts from the decomposition of animals. It accounts for the tea-like color in seawater. CDOM is not particulate, but seawater can contain both CDOM and turbidity.',3,1,1); INSERT INTO "parameter" VALUES(24,'total_volume_scattering_coefficient','total_volume_scattering_coefficient',8,1,NULL,128,7,'Total Volume Scattering Coefficient',NULL,6,81,'{"counts_dark": "CC_dark_counts_volume_scatter", "scale_factor": "CC_scale_factor_volume_scatter", "counts_output": "dpi_FLUBSCT_L0"}','FLUBSCT_L1','Total Volume Scattering Coefficient values represent the volume scattering from particles and the molecular scattering from water at a given wavelength of light and the default angle of 117 degrees for the ECO meter.',NULL,1,1); INSERT INTO "parameter" VALUES(25,'optical_backscatter','optical_backscatter',8,1,NULL,127,7,'Optical Backscatter',NULL,4,78,'{"beta": "dpi_FLUBSCT_L1", "degC": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "theta": "CC_scattering_angle", "wlngth": "CC_measurement_wavelength", "xfactor": "CC_angular_resolution", "psu": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"]}','FLUBSCT_L2','Optical Backscatter (Red Wavelengths) is a measure of the amount of red light (630-740 nm wavelengths) scattered in the backward direction due to suspended matter within seawater, providing a proxy for turbidity and suspended solids.',3,2,1); -INSERT INTO "parameter" VALUES(27,'input_voltage','input_voltage',9,1,NULL,209,8,'Instrument Input Voltage',NULL,9,NULL,NULL,NULL,'Instrument input voltage.',2,0,0); +INSERT INTO "parameter" VALUES(27,'input_voltage','input_voltage',9,1,NULL,40,18,'Instrument Input Voltage',NULL,9,NULL,NULL,NULL,'Instrument input voltage.',2,0,0); INSERT INTO "parameter" VALUES(28,'elapsed_time','elapsed_time',9,2,NULL,191,1,'Time Since Reset',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(29,'pressure_temp','pressure_temp',9,1,NULL,225,5,'Pressure Sensor Internal Temperature',NULL,NULL,NULL,NULL,NULL,'The temperature at the pressure sensor (inside the housing, but isolated from housing and the electronics.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(29,'pressure_temp','pressure_temp',9,1,NULL,232,5,'Pressure Sensor Internal Temperature',NULL,NULL,NULL,NULL,NULL,'The temperature at the pressure sensor (inside the housing, but isolated from housing and the electronics) used to calculate CTD output parameters.',1,1,1); INSERT INTO "parameter" VALUES(73,'sample_number','sample_number',9,4,NULL,66,5,'Sample Number',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,0); INSERT INTO "parameter" VALUES(74,'sample_type','sample_type',9,6,NULL,10,17,'Sample Type From Instrument',NULL,0,NULL,NULL,NULL,'Sample type from instrument, which in this case should always be pressure.',NULL,NULL,1); INSERT INTO "parameter" VALUES(77,'timestamp','timestamp',9,6,NULL,10,17,'Timestamp',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(93,'date_time_string','date_time_string',9,6,NULL,10,17,'Date and Time String',NULL,0,NULL,NULL,NULL,'A date and time string produced for each sample record.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(93,'date_time_string','date_time_string',9,6,NULL,NULL,17,'Date and Time String',NULL,0,NULL,NULL,NULL,'A date and time string produced for each sample record.',NULL,NULL,1); INSERT INTO "parameter" VALUES(94,'absolute_pressure','absolute_pressure',9,1,NULL,184,7,'Seafloor Pressure',NULL,4,NULL,NULL,'SFLPRES_L0','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric). This specific instance is the Level 0 unprocessed data product.',4,0,1); INSERT INTO "parameter" VALUES(96,'ptemp_frequency','ptemp_frequency',9,1,NULL,24,7,'Pressure Temperature Frequency',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(97,'n_avg_band','n_avg_band',9,3,NULL,10,5,'Number of Averaging Bands',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -1091,15 +1095,15 @@ INSERT INTO "parameter" VALUES(120,'operational_current','operational_current',9 INSERT INTO "parameter" VALUES(121,'battery_voltage_main','battery_voltage_main',9,1,NULL,40,7,'Main Battery Voltage',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(122,'battery_voltage_lithium','battery_voltage_lithium',9,1,NULL,40,7,'Lithium Battery Voltage',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(123,'last_sample_absolute_press','last_sample_absolute_press',9,1,NULL,184,7,'Last Measured Absolute Pressure',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(124,'last_sample_temp','last_sample_temp',9,1,NULL,225,7,'Last Measured Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(124,'last_sample_temp','last_sample_temp',9,1,NULL,232,7,'Last Measured Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(126,'tide_measurement_interval','tide_measurement_interval',9,3,NULL,161,5,'Tide Sampling Interval',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(127,'tide_measurement_duration','tide_measurement_duration',9,3,NULL,191,5,'Tide Sampling Duration',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(128,'wave_samples_between_tide_measurements','wave_samples_between_tide_measurements',9,3,NULL,10,5,'Sample Waves Every N Tide Samples',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(129,'wave_samples_per_burst','wave_samples_per_burst',9,3,NULL,10,5,'Wave Samples Per Burst',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(130,'wave_samples_scans_per_second','wave_samples_scans_per_second',9,1,NULL,10,7,'Scans Per Second',NULL,2,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(131,'wave_samples_duration','wave_samples_duration',9,1,NULL,191,7,'Wave Sampling Duration',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(132,'logging_start_time','logging_start_time',9,6,NULL,10,17,'Logging Start Time',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(133,'logging_stop_time','logging_stop_time',9,6,NULL,10,17,'Logging Stop Time',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(132,'logging_start_time','logging_start_time',9,6,NULL,NULL,17,'Logging Start Time',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(133,'logging_stop_time','logging_stop_time',9,6,NULL,NULL,17,'Logging Stop Time',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(134,'tide_samples_per_day','tide_samples_per_day',9,3,NULL,66,5,'Number of Tide Samples Per Day',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(135,'wave_bursts_per_day','wave_bursts_per_day',9,3,NULL,66,5,'Number of Wave Bursts Per Day',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(136,'memory_endurance','memory_endurance',9,1,NULL,78,7,'Expected Memory Endurance',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -1144,72 +1148,72 @@ INSERT INTO "parameter" VALUES(185,'cond_coeff_ctcor','cond_coeff_ctcor',9,1,NUL INSERT INTO "parameter" VALUES(186,'cond_coeff_cpcor','cond_coeff_cpcor',9,1,NULL,10,7,'Conductivity Coefficient PCor',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(187,'cond_coeff_cslope','cond_coeff_cslope',9,1,NULL,10,7,'Conductivity Coefficient Slope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(188,'par','par',9,8,NULL,67,10,'PAR Measurement',NULL,0,NULL,NULL,'OPTPARW_L0','Photosynthetically Active Radiation (PAR) unprocessed sensor reading.',4,0,1); -INSERT INTO "parameter" VALUES(189,'voltage_out','voltage_out',9,1,NULL,209,8,'Instrument Output Voltage',NULL,7,NULL,NULL,NULL,'Instrument output voltage.',2,0,0); -INSERT INTO "parameter" VALUES(190,'temperature_volts','temperature_volts',9,1,NULL,209,8,'Internal Temperature Raw Voltage',NULL,5,NULL,NULL,NULL,'Raw analog voltage of instrument internal temperature sensor.',2,0,0); -INSERT INTO "parameter" VALUES(191,'par_measured','par_measured',9,1,NULL,220,8,'Measured Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,NULL,NULL,'OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); -INSERT INTO "parameter" VALUES(192,'par_counts_output','par_counts_output',8,1,NULL,220,8,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,83,'{"a1": "CC_a1", "a0": "CC_a0", "Im": "CC_Im", "counts_output": "PD188"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); -INSERT INTO "parameter" VALUES(193,'temperature','temperature',9,4,NULL,67,7,'Seawater Temperature Measurement',NULL,0,NULL,NULL,'TEMPWAT_L0','Seawater temperature unprocessed measurement near the sensor.',4,0,1); -INSERT INTO "parameter" VALUES(194,'conductivity','conductivity',9,4,NULL,67,7,'Seawater Conductivity Measurement',NULL,0,NULL,NULL,'CONDWAT_L0','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater. This is the unprocessed data that are output directly from the sensor which are then converted to salinity in S m-1.',4,0,1); -INSERT INTO "parameter" VALUES(195,'pressure','pressure',9,4,NULL,67,7,'Seawater Pressure Measurement',NULL,0,NULL,NULL,'PRESWAT_L0','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor. This is the unprocessed data that are output directly from the sensor which are then converted to pressure in dbar.',4,0,1); -INSERT INTO "parameter" VALUES(196,'pressure_temp','pressure_temp',9,4,NULL,67,7,'Seawater Pressure Measurement',NULL,0,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor. This is the unprocessed data that are output directly from the sensor which are then converted to pressure in dbar.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(197,'oxygen','oxygen',9,4,NULL,67,7,'DO Measurement',NULL,0,NULL,NULL,'DOCONCS-CNT_L0','Dissolved Oxygen (DO) unprocessed measurement from the Stable Response Dissolved Oxygen Instrument.',4,0,1); -INSERT INTO "parameter" VALUES(198,'ctd_time','ctd_time',9,4,NULL,199,7,'Time, UTC',NULL,0,NULL,NULL,NULL,'Time in seconds since 2000-01-01.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(199,'pump_current','pump_current',9,1,NULL,133,7,'Pump Current',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(200,'ext_v01_current','ext_v01_current',9,1,NULL,133,7,'Current From External Voltage Sensors 0 & 1',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(201,'serial_current','serial_current',9,1,NULL,133,7,'Auxiliary Serial Instrument Current',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(202,'logging_status','logging_status',9,6,NULL,10,17,'Logging Status Category',NULL,0,NULL,NULL,NULL,'{0:''not logging'', 1:''logging'', 2:''waiting to start at ...'', 3:''unknown'',-99:''empty''}',NULL,NULL,1); -INSERT INTO "parameter" VALUES(203,'num_samples','num_samples',9,4,NULL,67,5,'Number of Samples',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(204,'mem_free','mem_free',9,4,NULL,51,5,'Available Memory',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(205,'sample_interval','sample_interval',9,3,NULL,191,5,'Sampling Interval',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(211,'battery_cutoff','battery_cutoff',9,1,NULL,40,7,'Battery Cutoff Voltage',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(212,'pressure_sensor_type','pressure_sensor_type',9,6,NULL,10,17,'Pressure Sensor Type Category',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(213,'sbe38','sbe38',5,5,NULL,10,3,'External SBE38 Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(215,'wetlabs','wetlabs',5,5,NULL,10,3,'External Wetlabs Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(216,'optode','optode',5,5,NULL,10,3,'External Optode Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(217,'gas_tension_device','gas_tension_device',5,5,NULL,10,3,'External Gas Tension Device Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(218,'ext_volt_0','ext_volt_0',5,5,NULL,10,3,'External Voltage 0 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(219,'ext_volt_1','ext_volt_1',5,5,NULL,10,3,'External Voltage 1 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(220,'ext_volt_2','ext_volt_2',5,5,NULL,10,3,'External Voltage 2 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(221,'ext_volt_3','ext_volt_3',5,5,NULL,10,3,'External Voltage 3 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(222,'ext_volt_4','ext_volt_4',5,5,NULL,10,3,'External Voltage 4 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(223,'ext_volt_5','ext_volt_5',5,5,NULL,10,3,'External Voltage 5 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(224,'echo_characters','echo_characters',5,5,NULL,10,3,'Echo Characters Flag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(225,'output_format','output_format',9,6,NULL,10,17,'Data Output Format Category',NULL,0,NULL,NULL,NULL,'The output format of the data sample record. The set of values is: ''raw Hex'', ''converted Hex'', ''raw decimal'', ''converted decimal'', or ''converted XML UVIC''',NULL,NULL,1); -INSERT INTO "parameter" VALUES(229,'temp_coeff_offset','temp_coeff_offset',9,1,NULL,10,7,'Temperature Coefficient Offset',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(231,'press_coeff_pa0','press_coeff_pa0',9,1,NULL,10,7,'Pressure Coefficient PA0',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(232,'press_coeff_pa1','press_coeff_pa1',9,1,NULL,10,7,'Pressure Coefficient PA1',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(233,'press_coeff_pa2','press_coeff_pa2',9,1,NULL,10,7,'Pressure Coefficient PA2',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(234,'press_coeff_ptempa0','press_coeff_ptempa0',9,1,NULL,10,7,'Pressure Coefficient PTempA0',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(235,'press_coeff_ptempa1','press_coeff_ptempa1',9,1,NULL,10,7,'Pressure Coefficient PTempA1',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(236,'press_coeff_ptempa2','press_coeff_ptempa2',9,1,NULL,10,7,'Pressure Coefficient PTempA2',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(237,'press_coeff_ptca0','press_coeff_ptca0',9,1,NULL,10,7,'Pressure Coefficient PTCA0',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(238,'press_coeff_ptca1','press_coeff_ptca1',9,1,NULL,10,7,'Pressure Coefficient PTCA1',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(239,'press_coeff_ptca2','press_coeff_ptca2',9,1,NULL,10,7,'Pressure Coefficient PTCA2',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(240,'press_coeff_ptcb0','press_coeff_ptcb0',9,1,NULL,10,7,'Pressure Coefficient PTCB0',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(241,'press_coeff_ptcb1','press_coeff_ptcb1',9,1,NULL,10,7,'Pressure Coefficient PTCB1',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(242,'press_coeff_ptcb2','press_coeff_ptcb2',9,1,NULL,10,7,'Pressure Coefficient PTCB2',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(243,'ext_volt0_slope','ext_volt0_slope',9,1,NULL,10,7,'External Voltage Sensor 0 Slope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(244,'ext_volt0_offset','ext_volt0_offset',9,1,NULL,10,7,'External Voltage Sensor 0 Offset',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(245,'ext_volt1_slope','ext_volt1_slope',9,1,NULL,10,7,'External Voltage Sensor 1 Slope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(246,'ext_volt1_offset','ext_volt1_offset',9,1,NULL,10,7,'External Voltage Sensor 1 Offset',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(247,'ext_volt2_slope','ext_volt2_slope',9,1,NULL,10,7,'External Voltage Sensor 2 Slope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(248,'ext_volt2_offset','ext_volt2_offset',9,1,NULL,10,7,'External Voltage Sensor 2 Offset',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(249,'ext_volt3_slope','ext_volt3_slope',9,1,NULL,10,7,'External Voltage Sensor 3 Slope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(250,'ext_volt3_offset','ext_volt3_offset',9,1,NULL,10,7,'External Voltage Sensor 3 Offset',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(251,'ext_volt4_slope','ext_volt4_slope',9,1,NULL,10,7,'External Voltage Sensor 4 Slope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(252,'ext_volt4_offset','ext_volt4_offset',9,1,NULL,10,7,'External Voltage Sensor 4 Offset',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(253,'ext_volt5_slope','ext_volt5_slope',9,1,NULL,10,7,'External Voltage Sensor 5 Slope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(254,'ext_volt5_offset','ext_volt5_offset',9,1,NULL,10,7,'External Voltage Sensor 5 Offset',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(255,'ext_freq_sf','ext_freq_sf',9,1,NULL,10,7,'External Frequency Channel',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(256,'press_coeff_pslope','press_coeff_pslope',9,1,NULL,10,7,'Pressure Coefficient Pslope',NULL,6,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(257,'temp_sensor_serial_number','temp_sensor_serial_number',9,6,NULL,10,17,'Temperature Sensor Serial Number',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(258,'cond_sensor_serial_number','cond_sensor_serial_number',9,6,NULL,10,17,'Conductivity Sensor Serial Number',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(259,'command_set_version','command_set_version',9,6,NULL,10,7,'Command Set Version',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(261,'assembly_number','assembly_number',3,6,NULL,10,17,'PC Board Assembly Number',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(263,'num_events','num_events',9,4,NULL,67,7,'Number of Events',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(264,'samples_free','samples_free',9,4,NULL,67,7,'Number of Samples Free',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(265,'sample_length','sample_length',9,4,NULL,51,7,'Bytes Per Sample',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(267,'output_executed_tag','output_executed_tag',5,5,NULL,10,3,'Output Executed Tag',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(189,'voltage_out','voltage_out',9,1,NULL,40,18,'Instrument Output Voltage',NULL,7,NULL,NULL,NULL,'Instrument output voltage.',2,0,0); +INSERT INTO "parameter" VALUES(190,'temperature_volts','temperature_volts',9,1,NULL,40,18,'Internal Temperature Raw Voltage',NULL,5,NULL,NULL,NULL,'Raw analog voltage of instrument internal temperature sensor.',2,0,0); +INSERT INTO "parameter" VALUES(191,'par_measured','par_measured',9,1,NULL,248,18,'Measured Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,NULL,NULL,'OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); +INSERT INTO "parameter" VALUES(192,'par_counts_output','par_counts_output',8,1,NULL,248,18,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,83,'{"a1": "CC_a1", "a0": "CC_a0", "Im": "CC_Im", "counts_output": "PD188"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); +INSERT INTO "parameter" VALUES(193,'temperature','temperature',9,4,NULL,67,7,'Unprocessed (L0) Seawater Temperature',NULL,0,NULL,NULL,'TEMPWAT_L0','Unprocessed seawater temperature measurement in counts.',4,0,1); +INSERT INTO "parameter" VALUES(194,'conductivity','conductivity',9,4,NULL,67,7,'Unprocessed (L0) Seawater Conductivity',NULL,0,NULL,NULL,'CONDWAT_L0','Unprocessed conductivity data that are output directly from the sensor. Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',4,0,1); +INSERT INTO "parameter" VALUES(195,'pressure','pressure',9,4,NULL,67,7,'Unprocessed (L0) Seawater Pressure',NULL,0,NULL,NULL,'PRESWAT_L0','Unprocessed pressure data that are output directly from the sensor. Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',4,0,1); +INSERT INTO "parameter" VALUES(196,'pressure_temp','pressure_temp',9,4,NULL,67,7,'Internal Pressure Sensor Temperature',NULL,0,NULL,NULL,NULL,'Unprocessed temperature from the pressure sensor (inside the housing, but isolated from housing and the electronics) used to calculate CTD output parameters.',4,0,1); +INSERT INTO "parameter" VALUES(197,'oxygen','oxygen',9,4,NULL,67,7,'Unprocessed (L0) DO Measurement',NULL,0,NULL,NULL,'DOCONCS-CNT_L0','Unprocessed Dissolved Oxygen (DO) measurement from the Stable Response Dissolved Oxygen Instrument.',4,0,1); +INSERT INTO "parameter" VALUES(198,'ctd_time','ctd_time',9,4,NULL,199,7,'Time, UTC',NULL,0,NULL,NULL,NULL,'Time in seconds since 2000-01-01.',2,NULL,1); +INSERT INTO "parameter" VALUES(199,'pump_current','pump_current',9,1,NULL,133,7,'Pump Current',NULL,1,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(200,'ext_v01_current','ext_v01_current',9,1,NULL,133,7,'Current From External Voltage Sensors 0 & 1',NULL,1,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(201,'serial_current','serial_current',9,1,NULL,133,7,'Auxiliary Serial Instrument Current',NULL,1,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(202,'logging_status','logging_status',9,6,NULL,10,17,'Logging Status Category',NULL,0,NULL,NULL,NULL,'{0:''not logging'', 1:''logging'', 2:''waiting to start at ...'', 3:''unknown'',-99:''empty''}',2,NULL,1); +INSERT INTO "parameter" VALUES(203,'num_samples','num_samples',9,4,NULL,67,5,'Number of Samples',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(204,'mem_free','mem_free',9,4,NULL,51,5,'Available Memory',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(205,'sample_interval','sample_interval',9,3,NULL,191,5,'Sampling Interval',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(211,'battery_cutoff','battery_cutoff',9,1,NULL,40,7,'Battery Cutoff Voltage',NULL,1,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(212,'pressure_sensor_type','pressure_sensor_type',9,6,NULL,10,17,'Pressure Sensor Type Category',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(213,'sbe38','sbe38',5,5,NULL,10,3,'External SBE38 Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(215,'wetlabs','wetlabs',5,5,NULL,10,3,'External Wetlabs Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(216,'optode','optode',5,5,NULL,10,3,'External Optode Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(217,'gas_tension_device','gas_tension_device',5,5,NULL,10,3,'External Gas Tension Device Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(218,'ext_volt_0','ext_volt_0',5,5,NULL,10,3,'External Voltage 0 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(219,'ext_volt_1','ext_volt_1',5,5,NULL,10,3,'External Voltage 1 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(220,'ext_volt_2','ext_volt_2',5,5,NULL,10,3,'External Voltage 2 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(221,'ext_volt_3','ext_volt_3',5,5,NULL,10,3,'External Voltage 3 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(222,'ext_volt_4','ext_volt_4',5,5,NULL,10,3,'External Voltage 4 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(223,'ext_volt_5','ext_volt_5',5,5,NULL,10,3,'External Voltage 5 Sensor Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(224,'echo_characters','echo_characters',5,5,NULL,10,3,'Echo Characters Flag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(225,'output_format','output_format',9,6,NULL,10,17,'Data Output Format Category',NULL,0,NULL,NULL,NULL,'The output format of the data sample record. The set of values is: ''raw Hex'', ''converted Hex'', ''raw decimal'', ''converted decimal'', or ''converted XML UVIC''',2,NULL,1); +INSERT INTO "parameter" VALUES(229,'temp_coeff_offset','temp_coeff_offset',9,1,NULL,10,7,'Temperature Coefficient Offset',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(231,'press_coeff_pa0','press_coeff_pa0',9,1,NULL,10,7,'Pressure Coefficient PA0',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(232,'press_coeff_pa1','press_coeff_pa1',9,1,NULL,10,7,'Pressure Coefficient PA1',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(233,'press_coeff_pa2','press_coeff_pa2',9,1,NULL,10,7,'Pressure Coefficient PA2',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(234,'press_coeff_ptempa0','press_coeff_ptempa0',9,1,NULL,10,7,'Pressure Coefficient PTempA0',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(235,'press_coeff_ptempa1','press_coeff_ptempa1',9,1,NULL,10,7,'Pressure Coefficient PTempA1',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(236,'press_coeff_ptempa2','press_coeff_ptempa2',9,1,NULL,10,7,'Pressure Coefficient PTempA2',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(237,'press_coeff_ptca0','press_coeff_ptca0',9,1,NULL,10,7,'Pressure Coefficient PTCA0',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(238,'press_coeff_ptca1','press_coeff_ptca1',9,1,NULL,10,7,'Pressure Coefficient PTCA1',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(239,'press_coeff_ptca2','press_coeff_ptca2',9,1,NULL,10,7,'Pressure Coefficient PTCA2',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(240,'press_coeff_ptcb0','press_coeff_ptcb0',9,1,NULL,10,7,'Pressure Coefficient PTCB0',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(241,'press_coeff_ptcb1','press_coeff_ptcb1',9,1,NULL,10,7,'Pressure Coefficient PTCB1',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(242,'press_coeff_ptcb2','press_coeff_ptcb2',9,1,NULL,10,7,'Pressure Coefficient PTCB2',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(243,'ext_volt0_slope','ext_volt0_slope',9,1,NULL,10,7,'External Voltage Sensor 0 Slope',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(244,'ext_volt0_offset','ext_volt0_offset',9,1,NULL,10,7,'External Voltage Sensor 0 Offset',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(245,'ext_volt1_slope','ext_volt1_slope',9,1,NULL,10,7,'External Voltage Sensor 1 Slope',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(246,'ext_volt1_offset','ext_volt1_offset',9,1,NULL,10,7,'External Voltage Sensor 1 Offset',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(247,'ext_volt2_slope','ext_volt2_slope',9,1,NULL,10,7,'External Voltage Sensor 2 Slope',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(248,'ext_volt2_offset','ext_volt2_offset',9,1,NULL,10,7,'External Voltage Sensor 2 Offset',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(249,'ext_volt3_slope','ext_volt3_slope',9,1,NULL,10,7,'External Voltage Sensor 3 Slope',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(250,'ext_volt3_offset','ext_volt3_offset',9,1,NULL,10,7,'External Voltage Sensor 3 Offset',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(251,'ext_volt4_slope','ext_volt4_slope',9,1,NULL,10,7,'External Voltage Sensor 4 Slope',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(252,'ext_volt4_offset','ext_volt4_offset',9,1,NULL,10,7,'External Voltage Sensor 4 Offset',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(253,'ext_volt5_slope','ext_volt5_slope',9,1,NULL,10,7,'External Voltage Sensor 5 Slope',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(254,'ext_volt5_offset','ext_volt5_offset',9,1,NULL,10,7,'External Voltage Sensor 5 Offset',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(255,'ext_freq_sf','ext_freq_sf',9,1,NULL,10,7,'External Frequency Channel',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(256,'press_coeff_pslope','press_coeff_pslope',9,1,NULL,10,7,'Pressure Coefficient Pslope',NULL,6,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(257,'temp_sensor_serial_number','temp_sensor_serial_number',9,6,NULL,10,17,'Temperature Sensor Serial Number',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(258,'cond_sensor_serial_number','cond_sensor_serial_number',9,6,NULL,10,17,'Conductivity Sensor Serial Number',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(259,'command_set_version','command_set_version',9,6,NULL,10,7,'Command Set Version',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(261,'assembly_number','assembly_number',3,6,NULL,10,17,'PC Board Assembly Number',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(263,'num_events','num_events',9,4,NULL,67,7,'Number of Events',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(264,'samples_free','samples_free',9,4,NULL,67,7,'Number of Samples Free',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(265,'sample_length','sample_length',9,4,NULL,51,7,'Bytes Per Sample',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(267,'output_executed_tag','output_executed_tag',5,5,NULL,10,3,'Output Executed Tag',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); INSERT INTO "parameter" VALUES(268,'set_timeout','set_timeout',9,4,NULL,175,7,'Set Timeout',NULL,0,NULL,NULL,NULL,'Not determined at this time',NULL,NULL,1); INSERT INTO "parameter" VALUES(269,'set_timeout_max','set_timeout_max',9,4,NULL,175,7,'Set Timeout, Max',NULL,0,NULL,NULL,NULL,'Not determined at this time',NULL,NULL,1); INSERT INTO "parameter" VALUES(270,'set_timeout_icd','set_timeout_icd',9,4,NULL,175,7,'Set Timeout ICD',NULL,0,NULL,NULL,NULL,'Not determined at this time',NULL,NULL,1); @@ -1253,15 +1257,15 @@ INSERT INTO "parameter" VALUES(311,'frame_type','frame_type',9,6,NULL,10,17,'Fra INSERT INTO "parameter" VALUES(312,'serial_number','serial_number',9,6,NULL,10,17,'Serial Number',NULL,0,NULL,NULL,NULL,'Serial Number',NULL,NULL,1); INSERT INTO "parameter" VALUES(313,'date_of_sample','date_of_sample',9,4,NULL,10,5,'Date of Sample',NULL,0,NULL,NULL,NULL,'Date of Sample',NULL,NULL,1); INSERT INTO "parameter" VALUES(314,'time_of_sample','time_of_sample',9,2,NULL,107,7,'Time of Sample',NULL,NULL,NULL,NULL,NULL,'Time of Sample',NULL,NULL,1); -INSERT INTO "parameter" VALUES(315,'nitrate_concentration','nitrate_concentration',9,1,NULL,214,7,'Dissolved Nitrate Concentration',NULL,NULL,NULL,NULL,'NITRDIS_L1','Dissolved Nitrate Concentration, uncorrected for temperature and salinity effects.',3,1,1); +INSERT INTO "parameter" VALUES(315,'nitrate_concentration','nitrate_concentration',9,1,NULL,246,7,'Dissolved Nitrate Concentration',NULL,NULL,NULL,NULL,'NITRDIS_L1','Dissolved Nitrate Concentration, uncorrected for temperature and salinity effects.',3,1,1); INSERT INTO "parameter" VALUES(316,'aux_fitting_1','aux_fitting_1',9,1,NULL,10,7,'Aux Fitting 1',NULL,4,NULL,NULL,NULL,'Aux Fitting 1',NULL,NULL,1); INSERT INTO "parameter" VALUES(317,'aux_fitting_2','aux_fitting_2',9,1,NULL,10,7,'Aux Fitting 2',NULL,4,NULL,NULL,NULL,'Aux Fitting 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(318,'aux_fitting_3','aux_fitting_3',9,1,NULL,10,7,'Aux Fitting 3',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(319,'rms_error','rms_error',9,1,NULL,214,7,'RMS Error',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(320,'temp_interior','temp_interior',9,1,NULL,225,7,'Interior Temperature',NULL,4,NULL,NULL,NULL,'Interior Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(321,'temp_spectrometer','temp_spectrometer',9,1,NULL,225,7,'Spectrometer Temperature',NULL,4,NULL,NULL,NULL,'Spectrometer Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(322,'temp_lamp','temp_lamp',9,1,NULL,225,7,'Lamp Temperature',NULL,4,NULL,NULL,NULL,'Lamp Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(324,'humidity','humidity',9,1,NULL,1,7,'Internal Humidity',NULL,4,NULL,NULL,NULL,'Humidity',NULL,NULL,1); +INSERT INTO "parameter" VALUES(319,'rms_error','rms_error',9,1,NULL,246,7,'RMS Error',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(320,'temp_interior','temp_interior',9,1,NULL,232,7,'Interior Temperature',NULL,4,NULL,NULL,NULL,'Interior Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(321,'temp_spectrometer','temp_spectrometer',9,1,NULL,232,7,'Spectrometer Temperature',NULL,4,NULL,NULL,NULL,'Spectrometer Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(322,'temp_lamp','temp_lamp',9,1,NULL,232,7,'Lamp Temperature',NULL,4,NULL,NULL,NULL,'Lamp Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(324,'humidity','humidity',9,1,NULL,179,7,'Internal Humidity',NULL,4,NULL,NULL,NULL,'Humidity',NULL,NULL,1); INSERT INTO "parameter" VALUES(325,'voltage_lamp','voltage_lamp',9,1,NULL,40,7,'Lamp Voltage',NULL,4,NULL,NULL,NULL,'Lamp Voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(326,'voltage_analog','voltage_analog',9,1,NULL,40,7,'Analog Voltage',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(327,'voltage_main','voltage_main',9,1,NULL,40,7,'Main Voltage',NULL,4,NULL,NULL,NULL,'Main Voltage',NULL,NULL,1); @@ -1348,17 +1352,17 @@ INSERT INTO "parameter" VALUES(425,'hydrogen_x1','hydrogen_x1',9,1,NULL,40,7,'Hy INSERT INTO "parameter" VALUES(426,'hydrogen_x5','hydrogen_x5',9,1,NULL,40,7,'Hydrogen Sensor 25x Gain',NULL,3,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(427,'eh_sensor','eh_sensor',9,1,NULL,40,7,'Vent Fluid Oxidation Reduction-Potential Measurement',NULL,3,NULL,NULL,'TRHPHVO_L0','Oxidation-Reduction Potential Measurement is the tendency of a vent fluid, and the chemical species within it, to acquire electrons (i.e. be reduced). The more positive the potential, the greater the affinity for electrons and tendency to be reduced. Used to calculate Vent Fluid Oxidation-Reduction Potential (ORP).',NULL,0,1); INSERT INTO "parameter" VALUES(428,'ref_temp_volts','ref_temp_volts',9,1,NULL,40,7,'Reference Thermistor Temperature Measurement',NULL,3,NULL,NULL,'TRHPHVS_L0','The Reference Thermistor Temperature is measured by the Temperature-Resistivity Probe Instrument and used to calculate Vent Fluid Temperature from TRHPH.',4,0,1); -INSERT INTO "parameter" VALUES(429,'ref_temp_degc','ref_temp_degc',9,1,NULL,225,7,'Reference Thermistor Temperature',NULL,3,NULL,NULL,NULL,'Calculated reference thermistor temperature measured in degrees Celcius.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(429,'ref_temp_degc','ref_temp_degc',9,1,NULL,232,7,'Reference Thermistor Temperature',NULL,3,NULL,NULL,NULL,'Calculated reference thermistor temperature measured in degrees Celcius.',NULL,NULL,1); INSERT INTO "parameter" VALUES(430,'resistivity_temp_volts','resistivity_temp_volts',9,1,NULL,40,7,'Thermocouple Temperature Measurement',NULL,3,NULL,NULL,'TRHPHVC_L0','Thermocouple Temperature is measured by the Temperature-Resistivity Probe Instrument and is used to calculate Vent Fluid Temperature from TRHPH.',4,0,1); -INSERT INTO "parameter" VALUES(431,'resistivity_temp_degc','resistivity_temp_degc',9,1,NULL,225,7,'Resistivity Temperature',NULL,3,NULL,NULL,NULL,'Calculated thermocouple temperature measured in degrees Celcius.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(431,'resistivity_temp_degc','resistivity_temp_degc',9,1,NULL,232,7,'Resistivity Temperature',NULL,3,NULL,NULL,NULL,'Calculated thermocouple temperature measured in degrees Celcius.',NULL,NULL,1); INSERT INTO "parameter" VALUES(432,'battery_voltage','battery_voltage',9,1,NULL,40,7,'Battery Voltage',NULL,3,NULL,NULL,NULL,'Instrument battery voltage reported in volts.',NULL,NULL,1); INSERT INTO "parameter" VALUES(433,'error_code','error_code',9,7,NULL,10,10,'Error Code',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(434,'analog1','analog1',9,7,NULL,10,10,'Analog 1',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(436,'heading','heading',9,1,NULL,95,7,'Instrument Heading',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(437,'pitch','pitch',9,1,NULL,95,7,'Instrument Pitch','platform_pitch_angle',1,NULL,NULL,NULL,'The rotated angle about the pitch-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(438,'roll','roll',9,1,NULL,95,7,'Instrument Roll','platform_roll_angle',1,NULL,NULL,NULL,'The rotated angle about the roll-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(437,'pitch','pitch',9,1,NULL,95,7,'Instrument Pitch','platform_pitch_angle',1,NULL,NULL,NULL,'The rotated angle about the pitch-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(438,'roll','roll',9,1,NULL,95,7,'Instrument Roll','platform_roll_angle',1,NULL,NULL,NULL,'The rotated angle about the roll-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); INSERT INTO "parameter" VALUES(439,'status','status',9,10,NULL,10,10,'Status',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(440,'temperature','temperature',9,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',2,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(440,'temperature','temperature',9,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',2,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(441,'velocity_beam1','velocity_beam1',9,3,NULL,168,5,'Eastward Mean Point Seawater Velocity',NULL,NULL,NULL,NULL,'VELPTMN-VLE_L0','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the eastward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',4,0,1); INSERT INTO "parameter" VALUES(442,'velocity_beam2','velocity_beam2',9,3,NULL,168,5,'Northward Mean Point Seawater Velocity',NULL,NULL,NULL,NULL,'VELPTMN-VLN_L0','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the northward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',4,0,1); INSERT INTO "parameter" VALUES(443,'velocity_beam3','velocity_beam3',9,3,NULL,168,5,'Upward Mean Point Seawater Velocity',NULL,NULL,NULL,NULL,'VELPTMN-VLU_L0','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the upward component of mean point seawater velocity.',4,0,1); @@ -1402,7 +1406,7 @@ INSERT INTO "parameter" VALUES(481,'receive_length','receive_length',9,7,NULL,67 INSERT INTO "parameter" VALUES(482,'time_between_pings','time_between_pings',9,7,NULL,67,10,'Time Between Pings',NULL,0,NULL,NULL,NULL,'Time Between Pings (Counts)',NULL,NULL,1); INSERT INTO "parameter" VALUES(483,'time_between_bursts','time_between_bursts',9,7,NULL,67,10,'Time Between Bursts',NULL,0,NULL,NULL,NULL,'Time Between Burst Sequences (Counts)',NULL,NULL,1); INSERT INTO "parameter" VALUES(484,'number_pings','number_pings',9,3,NULL,10,5,'Number of Pings',NULL,0,NULL,NULL,NULL,'Number Of Beam Sequences Per Burst',NULL,NULL,1); -INSERT INTO "parameter" VALUES(485,'average_interval','average_interval',9,3,NULL,191,5,'Average Interval',NULL,0,NULL,NULL,NULL,'Average Interval In Seconds For Vector: Average interval = 512/Sampling Rate',NULL,NULL,1); +INSERT INTO "parameter" VALUES(485,'average_interval','average_interval',9,3,NULL,191,5,'Average Interval',NULL,0,NULL,NULL,NULL,'Average Interval In Seconds For Vector: Average interval = 512/Sampling Rate',NULL,NULL,1); INSERT INTO "parameter" VALUES(487,'profile_type','profile_type',6,5,28,10,4,'Profile Type',NULL,0,NULL,NULL,NULL,'Profile (0=Single, 1=Continuous)',NULL,NULL,1); INSERT INTO "parameter" VALUES(488,'mode_type','mode_type',6,5,21,10,4,'Mode Type',NULL,0,NULL,NULL,NULL,'Mode (0=Burst, 1=Continuous)',NULL,NULL,1); INSERT INTO "parameter" VALUES(489,'power_level_tcm1','power_level_tcm1',9,5,NULL,10,4,'Power Level Tcm1',NULL,0,NULL,NULL,NULL,'Power Level (0=1, 1=2, 0=3, 1=4)',NULL,NULL,1); @@ -1442,7 +1446,7 @@ INSERT INTO "parameter" VALUES(522,'file_comments','file_comments',9,6,NULL,10,1 INSERT INTO "parameter" VALUES(523,'wave_data_rate','wave_data_rate',6,5,1,24,4,'Wave Data Rate',NULL,0,NULL,NULL,NULL,'Data Rate (0=1 Hz, 1=2 Hz)',NULL,NULL,1); INSERT INTO "parameter" VALUES(524,'wave_cell_position','wave_cell_position',6,5,23,10,4,'Wave Cell Position',NULL,0,NULL,NULL,NULL,'Wave Cell Position (0=Fixed, 1=Dynamic)',NULL,NULL,1); INSERT INTO "parameter" VALUES(525,'dynamic_position_type','dynamic_position_type',6,5,26,10,4,'Dynamic Position Type',NULL,0,NULL,NULL,NULL,'Type Of Dynamic Position (0=% Of Mean Pressure, 1=Pct Of Min Re)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(526,'percent_wave_cell_position','percent_wave_cell_position',9,4,NULL,10,9,'Percent Wave Cell Position',NULL,0,NULL,NULL,NULL,'percentage for wave cell positioning (=32767x#%/100) (# means number of)',NULL,NULL,1); +INSERT INTO "parameter" VALUES(526,'percent_wave_cell_position','percent_wave_cell_position',9,4,NULL,10,19,'Percent Wave Cell Position',NULL,0,NULL,NULL,NULL,'percentage for wave cell positioning (=32767x#%/100) (# means number of)',NULL,NULL,1); INSERT INTO "parameter" VALUES(527,'wave_transmit_pulse','wave_transmit_pulse',9,3,NULL,10,5,'Wave Transmit Pulse',NULL,0,NULL,NULL,NULL,'Wave Transmit Pulse',NULL,NULL,1); INSERT INTO "parameter" VALUES(528,'fixed_wave_blanking_distance','fixed_wave_blanking_distance',9,7,NULL,67,10,'Fixed Wave Blanking Distance',NULL,0,NULL,NULL,NULL,'Fixed Wave Blanking Distance (Counts)',NULL,NULL,1); INSERT INTO "parameter" VALUES(529,'wave_measurement_cell_size','wave_measurement_cell_size',9,7,NULL,122,10,'Wave Measurement Cell Size',NULL,0,NULL,NULL,NULL,'Wave Measurement Cell Size',NULL,NULL,1); @@ -1502,7 +1506,7 @@ INSERT INTO "parameter" VALUES(598,'a_signal_counts','a_signal_counts',3,7,NULL, INSERT INTO "parameter" VALUES(600,'persistor_cf_serial_number','persistor_cf_serial_number',9,6,NULL,10,17,'Persistor, CF Card Serial Number',NULL,0,NULL,NULL,NULL,'Persistor Compact Flash card serial number',NULL,NULL,1); INSERT INTO "parameter" VALUES(601,'persistor_cf_bios_version','persistor_cf_bios_version',9,6,NULL,10,7,'Persistor, Bios Version',NULL,0,NULL,NULL,NULL,'Persistor CF card installed BIOS version',NULL,NULL,1); INSERT INTO "parameter" VALUES(602,'persistor_cf_picodos_version','persistor_cf_picodos_version',9,6,NULL,10,7,'Persistor, Picodos Version',NULL,0,NULL,NULL,NULL,'Persistor CF card installed PicoDOS version',NULL,NULL,1); -INSERT INTO "parameter" VALUES(604,'tmpsf_cal_coeffs','tmpsf_cal_coeffs',3,2,NULL,225,7,'Seawater Temperature Array in Spatial Grid','sea_water_temperature',5,NULL,NULL,NULL,'Seawater Temperature Array in Spatial Grid refers to the array of temperature measurements made by 24 thermistors positioned in a spatial array.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(604,'tmpsf_cal_coeffs','tmpsf_cal_coeffs',3,2,NULL,232,7,'Seawater Temperature Array in Spatial Grid','sea_water_temperature',5,NULL,NULL,NULL,'Seawater Temperature Array in Spatial Grid refers to the array of temperature measurements made by 24 thermistors positioned in a spatial array.',NULL,NULL,1); INSERT INTO "parameter" VALUES(605,'header_id','header_id',9,10,NULL,10,11,'Header ID',NULL,0,NULL,NULL,NULL,'Stores the header identification byte ("7F")',NULL,NULL,1); INSERT INTO "parameter" VALUES(606,'data_source_id','data_source_id',9,10,NULL,10,11,'Data Source ID',NULL,0,NULL,NULL,NULL,'Stores the data source ID. Always "7F" for the Workhorse ADCP',NULL,NULL,1); INSERT INTO "parameter" VALUES(607,'num_bytes','num_bytes',9,7,NULL,10,13,'Number of Bytes',NULL,0,NULL,NULL,NULL,'Number of bytes in current ensemble up to, but not including, the 2 byte checksum.',NULL,NULL,1); @@ -1568,9 +1572,9 @@ INSERT INTO "parameter" VALUES(668,'bit_result_demod_0','bit_result_demod_0',5,5 INSERT INTO "parameter" VALUES(669,'bit_result_timing','bit_result_timing',5,5,NULL,10,4,'BIT Result, Timing',NULL,0,NULL,NULL,NULL,'Built-in Test (BIT) functions, timing card error',NULL,NULL,1); INSERT INTO "parameter" VALUES(670,'speed_of_sound','speed_of_sound',9,7,NULL,123,13,'Speed of Sound',NULL,0,NULL,NULL,NULL,'Contains either manual or calculated speed of sound',NULL,NULL,1); INSERT INTO "parameter" VALUES(671,'transducer_depth','transducer_depth',9,7,NULL,98,13,'Transducer Depth',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured depth of transducer below the water surface.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(672,'heading','heading',9,7,NULL,83,13,'Heading',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured heading of the ADCP.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(673,'pitch','pitch',9,3,NULL,83,5,'Pitch',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured pitch of the ADCP.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(674,'roll','roll',9,3,NULL,83,5,'Roll',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured roll of the ADCP.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(672,'heading','heading',9,7,NULL,56,13,'Heading',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured heading of the ADCP.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(673,'pitch','pitch',9,3,NULL,56,5,'Pitch',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured pitch of the ADCP.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(674,'roll','roll',9,3,NULL,56,5,'Roll',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured roll of the ADCP.',NULL,NULL,1); INSERT INTO "parameter" VALUES(675,'salinity','salinity',9,7,NULL,10,13,'Transducer Salinity',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured (calculated from external conductivity sensor) salinity at the transducer face.',NULL,NULL,1); INSERT INTO "parameter" VALUES(676,'temperature','temperature',9,3,NULL,54,5,'Transducer Temperature',NULL,0,NULL,NULL,NULL,'Contains either the manual or measured temperature at the transducer face.',NULL,NULL,1); INSERT INTO "parameter" VALUES(677,'mpt_minutes','mpt_minutes',9,10,NULL,161,11,'MPT Minutes',NULL,0,NULL,NULL,NULL,'Minimum pre-ping wait time (MPT) between ping groups in the ensemble in minutes',NULL,NULL,1); @@ -1631,7 +1635,7 @@ INSERT INTO "parameter" VALUES(732,'percent_good_4beam','percent_good_4beam',3,1 INSERT INTO "parameter" VALUES(738,'sample_period','sample_period',9,1,NULL,191,7,'Sample Period',NULL,3,NULL,NULL,NULL,'Sample Period',NULL,NULL,1); INSERT INTO "parameter" VALUES(739,'samples_per_burst','samples_per_burst',9,4,NULL,67,7,'Samples Per Burst',NULL,0,NULL,NULL,NULL,'Samples per Burst',NULL,NULL,1); INSERT INTO "parameter" VALUES(741,'bin_to_si_conversion','bin_to_si_conversion',9,1,NULL,10,7,'Binary to SI Conversion Factor',NULL,7,NULL,NULL,NULL,'Binary to SI Conversion Factor',NULL,NULL,1); -INSERT INTO "parameter" VALUES(742,'seawater_temperature','seawater_temperature',9,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(742,'seawater_temperature','seawater_temperature',9,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(743,'checksum','checksum',9,7,NULL,10,13,'Checksum',NULL,0,NULL,NULL,NULL,'Contains a modulo 65535 checksum. Checksum is the calculated by summing all bytes in output buffer, excluding checksum',NULL,NULL,1); INSERT INTO "parameter" VALUES(744,'wave_header_id','wave_header_id',9,7,NULL,10,13,'Wave Header ID',NULL,0,NULL,NULL,NULL,'Stores the header identification byte ("7f79")',NULL,NULL,1); INSERT INTO "parameter" VALUES(745,'checksum_offset','checksum_offset',9,7,NULL,10,13,'Checksum Offset',NULL,0,NULL,NULL,NULL,'offset to checksum',NULL,NULL,1); @@ -1671,9 +1675,9 @@ INSERT INTO "parameter" VALUES(788,'velocity_po_error_flag','velocity_po_error_f INSERT INTO "parameter" VALUES(789,'velocity_po_up_flag','velocity_po_up_flag',5,5,NULL,10,4,'Velocity PO Up Flag',NULL,0,NULL,NULL,NULL,'Selected velocity componets to be output in PD12 data, dependent on EX settings. Upward velocity.',NULL,NULL,1); INSERT INTO "parameter" VALUES(790,'velocity_po_north_flag','velocity_po_north_flag',5,5,NULL,10,4,'Velocity PO North Flag',NULL,0,NULL,NULL,NULL,'Selected velocity componets to be output in PD12 data, dependent on EX settings. North velocity.',NULL,NULL,1); INSERT INTO "parameter" VALUES(791,'velocity_po_east_flag','velocity_po_east_flag',5,5,NULL,10,4,'Velocity PO East Flag',NULL,0,NULL,NULL,NULL,'Selected velocity componets to be output in PD12 data, dependent on EX settings. Eastward velocity.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(792,'subsampling_parameter','subsampling_parameter',9,10,NULL,10,11,'Subsampling Parameter',NULL,0,NULL,NULL,NULL,'Bin selection for PD12 stat output. Beginning with the bin specified by the parameter start_bin, every nth bin defined by the subsampling parameter will be outputted until the total number of bins specified by the parameter num_bins have been outputted.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(793,'start_bin','start_bin',9,10,NULL,10,11,'Start Bin',NULL,0,NULL,NULL,NULL,'Bin selection for PD12 stat output. Beginning with the bin specified by the parameter start_bin, every nth bin defined by the subsampling parameter will be outputted until the total number of bins specified by the parameter num_bins have been outputted.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(794,'num_bins','num_bins',9,10,NULL,10,11,'Number of Bins',NULL,0,NULL,NULL,NULL,'Bin selection for PD12 stat output. Beginning with the bin specified by the parameter start_bin, every nth bin defined by the subsampling parameter will be outputted until the total number of bins specified by the parameter num_bins have been outputted.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(792,'subsampling_parameter','subsampling_parameter',9,10,NULL,10,11,'Subsampling Parameter',NULL,0,NULL,NULL,NULL,'Bin selection for PD12 stat output. Beginning with the bin specified by the parameter start_bin, every nth bin defined by the subsampling parameter will be outputted until the total number of bins specified by the parameter num_bins have been outputted.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(793,'start_bin','start_bin',9,10,NULL,10,11,'Start Bin',NULL,0,NULL,NULL,NULL,'Bin selection for PD12 stat output. Beginning with the bin specified by the parameter start_bin, every nth bin defined by the subsampling parameter will be outputted until the total number of bins specified by the parameter num_bins have been outputted.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(794,'num_bins','num_bins',9,10,NULL,10,11,'Number of Bins',NULL,0,NULL,NULL,NULL,'Bin selection for PD12 stat output. Beginning with the bin specified by the parameter start_bin, every nth bin defined by the subsampling parameter will be outputted until the total number of bins specified by the parameter num_bins have been outputted.',NULL,NULL,1); INSERT INTO "parameter" VALUES(795,'fluxgate_calibration_timestamp','fluxgate_calibration_timestamp',9,2,NULL,195,7,'Fluxgate Calibration Timestamp, UTC',NULL,6,NULL,NULL,NULL,'Fluxgate calibration date and time stamp in seconds since Jan 01, 1900',NULL,NULL,1); INSERT INTO "parameter" VALUES(796,'s_inverse_bx','s_inverse_bx',3,1,NULL,10,7,'S Inverse Bx',NULL,NULL,NULL,NULL,NULL,'Active fluxgate S inverse calibration matrices: Bx',NULL,NULL,1); INSERT INTO "parameter" VALUES(797,'s_inverse_by','s_inverse_by',3,1,NULL,10,7,'S Inverse By',NULL,NULL,NULL,NULL,NULL,'Active fluxgate S inverse calibration matrices: By',NULL,NULL,1); @@ -1681,7 +1685,7 @@ INSERT INTO "parameter" VALUES(798,'s_inverse_bz','s_inverse_bz',3,1,NULL,10,7,' INSERT INTO "parameter" VALUES(799,'s_inverse_err','s_inverse_err',3,1,NULL,10,7,'S Inverse Error',NULL,NULL,NULL,NULL,NULL,'Active fluxgate S inverse calibration matrices: Error',NULL,NULL,1); INSERT INTO "parameter" VALUES(800,'coil_offset','coil_offset',3,1,NULL,10,7,'Coil Offset',NULL,NULL,NULL,NULL,NULL,'Active fluxgate coil offset calibration matrix',NULL,NULL,1); INSERT INTO "parameter" VALUES(801,'electrical_null','electrical_null',9,1,NULL,10,7,'Electrical Null',NULL,NULL,NULL,NULL,NULL,'Active fluxgate electrical null calibration value',NULL,NULL,1); -INSERT INTO "parameter" VALUES(802,'tilt_calibration_timestamp','tilt_calibration_timestamp',9,2,NULL,195,7,'Tilt Calibration Timestamp, UTC',NULL,6,NULL,NULL,NULL,'Tilt calibration date and time stamp in seconds since Jan 01, 1900',NULL,NULL,1); +INSERT INTO "parameter" VALUES(802,'tilt_calibration_timestamp','tilt_calibration_timestamp',9,2,NULL,195,7,'Tilt Calibration Timestamp, UTC',NULL,6,NULL,NULL,NULL,'Tilt calibration date and time stamp in seconds since Jan 01, 1900',NULL,NULL,1); INSERT INTO "parameter" VALUES(803,'roll_up_down','roll_up_down',3,1,NULL,10,7,'Roll Up Down',NULL,NULL,NULL,NULL,NULL,'Tilt calibration matrices: Up',NULL,NULL,1); INSERT INTO "parameter" VALUES(804,'pitch_up_down','pitch_up_down',3,1,NULL,10,7,'Pitch Up Down',NULL,NULL,NULL,NULL,NULL,'Tilt calibration matrices: Down',NULL,NULL,1); INSERT INTO "parameter" VALUES(805,'offset_up_down','offset_up_down',3,1,NULL,10,7,'Offset Up Down',NULL,NULL,NULL,NULL,NULL,'Tilt calibration matrices: Offset',NULL,NULL,1); @@ -1696,7 +1700,7 @@ INSERT INTO "parameter" VALUES(814,'pressure_coeff_c3','pressure_coeff_c3',9,1,N INSERT INTO "parameter" VALUES(815,'pressure_coeff_c2','pressure_coeff_c2',9,1,NULL,10,7,'Pressure Coefficient C2',NULL,NULL,NULL,NULL,NULL,'Pressure sensor coefficients: C2',NULL,NULL,1); INSERT INTO "parameter" VALUES(816,'pressure_coeff_c1','pressure_coeff_c1',9,1,NULL,10,7,'Pressure Coefficient C1',NULL,NULL,NULL,NULL,NULL,'Pressure sensor coefficients: C1',NULL,NULL,1); INSERT INTO "parameter" VALUES(817,'pressure_coeff_offset','pressure_coeff_offset',9,1,NULL,10,7,'Pressure Coefficient Offset',NULL,NULL,NULL,NULL,NULL,'Pressure sensor coefficients: Offset',NULL,NULL,1); -INSERT INTO "parameter" VALUES(818,'temperature_sensor_offset','temperature_sensor_offset',9,1,NULL,225,7,'Temperature Sensor Offset',NULL,NULL,NULL,NULL,NULL,'Temperature sensor offset',NULL,NULL,1); +INSERT INTO "parameter" VALUES(818,'temperature_sensor_offset','temperature_sensor_offset',9,1,NULL,232,7,'Temperature Sensor Offset',NULL,NULL,NULL,NULL,NULL,'Temperature sensor offset',NULL,NULL,1); INSERT INTO "parameter" VALUES(819,'cpu_firmware','cpu_firmware',9,6,NULL,10,17,'CPU Firmware',NULL,0,NULL,NULL,NULL,'CPU board firmware',NULL,NULL,1); INSERT INTO "parameter" VALUES(820,'boot_code_required','boot_code_required',9,6,NULL,10,17,'Boot Code Required',NULL,0,NULL,NULL,NULL,'Required boot code',NULL,NULL,1); INSERT INTO "parameter" VALUES(821,'boot_code_actual','boot_code_actual',9,6,NULL,10,17,'Boot Code Actual',NULL,0,NULL,NULL,NULL,'Installed boot code',NULL,NULL,1); @@ -1711,77 +1715,77 @@ INSERT INTO "parameter" VALUES(829,'date_time_array','date_time_array',3,5,NULL, INSERT INTO "parameter" VALUES(831,'battery_voltage_mv','battery_voltage_mv',9,4,NULL,144,7,'Battery Voltage',NULL,0,NULL,NULL,NULL,'Instrument battery voltage returned in mV',NULL,NULL,1); INSERT INTO "parameter" VALUES(832,'identification_string','identification_string',9,6,NULL,10,17,'Identification String',NULL,0,NULL,NULL,NULL,'Instrument identification string',NULL,NULL,1); INSERT INTO "parameter" VALUES(833,'absolute_pressure_burst','absolute_pressure_burst',3,1,NULL,184,7,'Seafloor Pressure',NULL,NULL,NULL,NULL,'SFLPRES_L0','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric). This specific instance is the Level 0 unprocessed data product.',4,0,1); -INSERT INTO "parameter" VALUES(835,'oxy_calphase','oxy_calphase',9,4,NULL,67,7,'Calibrated Phase',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(836,'oxy_temp','oxy_temp',9,4,NULL,67,7,'DOSTA Temperature',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(835,'oxy_calphase','oxy_calphase',9,4,NULL,67,7,'Calibrated Phase',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(836,'oxy_temp','oxy_temp',9,4,NULL,67,7,'DOSTA Temperature',NULL,0,NULL,NULL,NULL,NULL,1,NULL,1); INSERT INTO "parameter" VALUES(837,'sensor_id','sensor_id',9,6,NULL,10,17,'Sensor ID',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(838,'time_sync_flag','time_sync_flag',9,6,NULL,10,17,'Time Sync Flag',NULL,0,NULL,NULL,NULL,'Either ''V'' or ''P''',NULL,NULL,1); -INSERT INTO "parameter" VALUES(839,'lily_x_tilt','lily_x_tilt',9,1,NULL,224,7,'High-Resolution X-Tilt',NULL,NULL,NULL,NULL,'BOTTILT-XTLT_L0','Seafloor High-Resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. X-tilt is the magnitude of tilt since the last re-leveling of the sensor and is output by the High-resolution Tiltmeter (LILY) on board the BOTPT instrument. Positive X-tilt means the positive x-axis is in the direction of downward tilt.',4,0,1); -INSERT INTO "parameter" VALUES(840,'lily_y_tilt','lily_y_tilt',9,1,NULL,224,7,'High-Resolution Y-Tilt',NULL,NULL,NULL,NULL,'BOTTILT-YTLT_L0','Seafloor High-Resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. Y-tilt is the magnitude of tilt since the last re-leveling of the sensor and is output by the High-resolution Tiltmeter (LILY) on board the BOTPT instrument. Positive Y-tilt means the positive y-axis is in the direction of downward tilt.',4,0,1); +INSERT INTO "parameter" VALUES(839,'lily_x_tilt','lily_x_tilt',9,1,NULL,252,7,'High-Resolution X-Tilt',NULL,NULL,NULL,NULL,'BOTTILT-XTLT_L0','Seafloor High-Resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. X-tilt is the magnitude of tilt since the last re-leveling of the sensor and is output by the High-resolution Tiltmeter (LILY) on board the BOTPT instrument. Positive X-tilt means the positive x-axis is in the direction of downward tilt.',4,0,1); +INSERT INTO "parameter" VALUES(840,'lily_y_tilt','lily_y_tilt',9,1,NULL,252,7,'High-Resolution Y-Tilt',NULL,NULL,NULL,NULL,'BOTTILT-YTLT_L0','Seafloor High-Resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. Y-tilt is the magnitude of tilt since the last re-leveling of the sensor and is output by the High-resolution Tiltmeter (LILY) on board the BOTPT instrument. Positive Y-tilt means the positive y-axis is in the direction of downward tilt.',4,0,1); INSERT INTO "parameter" VALUES(841,'compass_direction','compass_direction',9,1,NULL,95,7,'High-Resolution Compass Direction',NULL,NULL,NULL,NULL,'BOTTILT-SCMP_L0','The sensor compass direction is output by the High-resolution Tiltmeter (LILY) on board the BOTPT instrument and represents the heading of the negative y-axis direction of the tiltmeter measured in degrees counter-clockwise from north, unorrected for calibration offsets and magnetic declination.',4,0,1); INSERT INTO "parameter" VALUES(842,'supply_voltage','supply_voltage',9,1,NULL,40,7,'High-Resolution Tiltmeter Voltage',NULL,NULL,NULL,NULL,'TLTVOLT','The auxiliary data product LILY Tiltmeter Voltage is the voltage supplied to the Applied Geomechanics LILY Self-leveling Borehole Tiltmeter sensor.',1,NULL,1); -INSERT INTO "parameter" VALUES(843,'press_trans_temp','press_trans_temp',9,2,NULL,225,7,'Nano-Resolution Pressure Transducer Temperature',NULL,NULL,NULL,NULL,'NPTTEMP','Nano-resolution Pressure Transducer Temperature is the internal transducer temperature that is used for onboard temperature-compensation of the pressure measurements produced by the BOTPT instrument.',1,NULL,1); +INSERT INTO "parameter" VALUES(843,'press_trans_temp','press_trans_temp',9,2,NULL,232,7,'Nano-Resolution Pressure Transducer Temperature',NULL,NULL,NULL,NULL,'NPTTEMP','Nano-resolution Pressure Transducer Temperature is the internal transducer temperature that is used for onboard temperature-compensation of the pressure measurements produced by the BOTPT instrument.',1,NULL,1); INSERT INTO "parameter" VALUES(844,'heat_x_tilt','heat_x_tilt',9,3,NULL,95,5,'Coarse-Resolution X-Tilt',NULL,0,NULL,NULL,'CRTTILT-XTLT','The auxiliary data product HEAT Coarse-resolution X-Tilt is the sensor tilt in the X direction measured by the ADXL327 Coarse-resolution Tiltmeter sensor integrated with the manual-leveling mechanism on the BOTPT instrument.',1,NULL,1); INSERT INTO "parameter" VALUES(845,'heat_y_tilt','heat_y_tilt',9,3,NULL,95,5,'Coarse-Resolution Y-Tilt',NULL,0,NULL,NULL,'CRTTILT-YTLT','The auxiliary data product HEAT Coarse-resolution Y-Tilt is the sensor tilt in the Y direction measured by the ADXL327 Coarse-resolution Tiltmeter sensor integrated with the manual-leveling mechanism on the BOTPT instrument.',1,NULL,1); INSERT INTO "parameter" VALUES(846,'iris_x_tilt','iris_x_tilt',9,1,NULL,95,7,'Low-Resolution X-Tilt',NULL,NULL,NULL,NULL,'LRTTILT-XTLT','The auxiliary data product IRIS Low-resolution X-Tilt is the sensor tilt in the X direction.',1,NULL,1); INSERT INTO "parameter" VALUES(847,'iris_y_tilt','iris_y_tilt',9,1,NULL,95,7,'Low-Resolution Y-Tilt',NULL,NULL,NULL,NULL,'LRTTILT-YTLT','The auxiliary data product IRIS Low-resolution Y-Tilt is the sensor tilt in the Y direction.',1,NULL,1); -INSERT INTO "parameter" VALUES(848,'bottom_pressure','bottom_pressure',9,1,NULL,185,7,'Bottom Pressure',NULL,4,NULL,NULL,'BOTPRES_L1','Seafloor Pressure is a measure of the force on the seafloor exerted by the weight of the overlying water column plus the weight of the atmosphere. Nano-resolution Bottom Pressure measurements are seafloor pressure measurements with very high sample rate and accuracy. This high resolution provides sufficient precision to enable the measurement of the rise and fall of the seafloor.',3,1,1); -INSERT INTO "parameter" VALUES(849,'lily_temp','lily_temp',9,1,NULL,225,7,'High-Resolution Tiltmeter Temperature',NULL,NULL,NULL,NULL,'TLTTEMP','The auxiliary data product LILY Tiltmeter Temperature is the temperature internal to the Applied Geomechanics LILY High-resolution Self-leveling Borehole Tiltmeter sensor. This is considered engineering data that also has scientific value.',1,NULL,1); -INSERT INTO "parameter" VALUES(850,'iris_temp','iris_temp',9,1,NULL,225,7,'Low-Resolution Tiltmeter Temperature',NULL,NULL,NULL,NULL,'LRTTEMP','The auxiliary data product IRIS Tiltmeter Temperature is the temperature internal to the IRIS Low-resolution Tiltmeter sensor on the BOTPT instrument. This is considered engineering data that also has scientific value.',1,NULL,1); -INSERT INTO "parameter" VALUES(851,'heat_temp','heat_temp',9,3,NULL,225,5,'HEAT Tiltmeter Temperature',NULL,0,NULL,NULL,'CRTTEMP','The auxiliary data product Coarse-resolution Tiltmeter Temperature (or HEAT Internal TiltmeterTemperature) is the internal temperature of the coarse-resolution tiltmeter (ADXL327) sensor on the BOTPT instrument. This is considered engineering data that also has scientific value.',1,NULL,1); +INSERT INTO "parameter" VALUES(848,'bottom_pressure','bottom_pressure',9,1,NULL,184,7,'Bottom Pressure',NULL,4,NULL,NULL,'BOTPRES_L1','Seafloor Pressure is a measure of the force on the seafloor exerted by the weight of the overlying water column plus the weight of the atmosphere. Nano-resolution Bottom Pressure measurements are seafloor pressure measurements with very high sample rate and accuracy. This high resolution provides sufficient precision to enable the measurement of the rise and fall of the seafloor.',3,1,1); +INSERT INTO "parameter" VALUES(849,'lily_temp','lily_temp',9,1,NULL,232,7,'High-Resolution Tiltmeter Temperature',NULL,NULL,NULL,NULL,'TLTTEMP','The auxiliary data product LILY Tiltmeter Temperature is the temperature internal to the Applied Geomechanics LILY High-resolution Self-leveling Borehole Tiltmeter sensor. This is considered engineering data that also has scientific value.',1,NULL,1); +INSERT INTO "parameter" VALUES(850,'iris_temp','iris_temp',9,1,NULL,232,7,'Low-Resolution Tiltmeter Temperature',NULL,NULL,NULL,NULL,'LRTTEMP','The auxiliary data product IRIS Tiltmeter Temperature is the temperature internal to the IRIS Low-resolution Tiltmeter sensor on the BOTPT instrument. This is considered engineering data that also has scientific value.',1,NULL,1); +INSERT INTO "parameter" VALUES(851,'heat_temp','heat_temp',9,3,NULL,232,5,'HEAT Tiltmeter Temperature',NULL,0,NULL,NULL,'CRTTEMP','The auxiliary data product Coarse-resolution Tiltmeter Temperature (or HEAT Internal TiltmeterTemperature) is the internal temperature of the coarse-resolution tiltmeter (ADXL327) sensor on the BOTPT instrument. This is considered engineering data that also has scientific value.',1,NULL,1); INSERT INTO "parameter" VALUES(863,'ingestion_timestamp','ingestion_timestamp',9,2,NULL,195,5,'Ingestion Timestamp, UTC',NULL,NULL,NULL,NULL,NULL,'The NTP Timestamp for when the granule was ingested',NULL,NULL,0); INSERT INTO "parameter" VALUES(869,'beam_1_velocity','beam_1_velocity',3,3,NULL,168,2,'Beam 1 Velocity Profile',NULL,0,NULL,NULL,'VELPROF-B1_L0','Unprocessed velocity profile from beam 1.',4,0,1); INSERT INTO "parameter" VALUES(870,'beam_2_velocity','beam_2_velocity',3,3,NULL,168,2,'Beam 2 Velocity Profile',NULL,0,NULL,NULL,'VELPROF-B2_L0','Unprocessed velocity profile from beam 2.',4,0,1); INSERT INTO "parameter" VALUES(871,'beam_3_velocity','beam_3_velocity',3,3,NULL,168,2,'Beam 3 Velocity Profile',NULL,0,NULL,NULL,'VELPROF-B3_L0','Unprocessed velocity profile from beam 3.',4,0,1); INSERT INTO "parameter" VALUES(872,'beam_4_velocity','beam_4_velocity',3,3,NULL,168,2,'Beam 4 Velocity Profile',NULL,0,NULL,NULL,'VELPROF-B4_L0','Unprocessed velocity profile from beam 4.',4,0,1); -INSERT INTO "parameter" VALUES(873,'percent_good_beam1','percent_good_beam1',3,10,NULL,1,11,'Beam 1 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 1.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(874,'percent_good_beam2','percent_good_beam2',3,10,NULL,1,11,'Beam 2 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 2.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(875,'percent_good_beam3','percent_good_beam3',3,10,NULL,1,11,'Beam 3 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 3.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(876,'percent_good_beam4','percent_good_beam4',3,10,NULL,1,11,'Beam 4 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 4.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(873,'percent_good_beam1','percent_good_beam1',3,10,NULL,179,11,'Beam 1 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 1.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(874,'percent_good_beam2','percent_good_beam2',3,10,NULL,179,11,'Beam 2 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 2.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(875,'percent_good_beam3','percent_good_beam3',3,10,NULL,179,11,'Beam 3 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 3.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(876,'percent_good_beam4','percent_good_beam4',3,10,NULL,179,11,'Beam 4 Percent Good',NULL,0,NULL,NULL,'VELPROF-PCG','Percent good is the fraction of data that has passed quality criteria such as low correlation, large error velocity, and false target threshold. This instance is for beam 4.',NULL,NULL,1); INSERT INTO "parameter" VALUES(877,'real_time_clock','real_time_clock',3,3,NULL,10,5,'Real Time Clock Array',NULL,0,NULL,NULL,NULL,'Elements of the real-time clock array are: Year, Month, Day, Hour, Minute, Seconds, Hundredths. Units are standard time units, applied to each element respectively (year, month, day, hour, minutes, seconds, cseconds).',NULL,NULL,1); INSERT INTO "parameter" VALUES(878,'eastward_turbulent_velocity','eastward_turbulent_velocity',8,1,NULL,123,7,'Eastward Turbulent Point Seawater Velocity','eastward_sea_water_velocity',3,53,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD539", "timestamp": "PD11", "v": "PD540"}','VELPTTU-VLE_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the eastward component of turbulent seawater velocity relative to true North.',3,1,1); INSERT INTO "parameter" VALUES(879,'northward_turbulent_velocity','northward_turbulent_velocity',8,1,NULL,123,7,'Northward Turbulent Point Seawater Velocity','northward_sea_water_velocity',3,54,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD539", "timestamp": "PD11", "v": "PD540"}','VELPTTU-VLN_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the northward component of turbulent seawater velocity relative to true North.',3,1,1); INSERT INTO "parameter" VALUES(880,'upward_turbulent_velocity','upward_turbulent_velocity',8,1,NULL,123,7,'Upward Turbulent Point Seawater Velocity','upward_sea_water_velocity',3,57,'{"w": "PD541"}','VELPTTU-VLU_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the upward component of turbulent seawater velocity.',3,1,1); -INSERT INTO "parameter" VALUES(881,'calibration_temp','calibration_temp',9,1,NULL,225,7,'Calibration Temperature',NULL,NULL,NULL,NULL,NULL,'Average temperature during the calibration',NULL,NULL,1); +INSERT INTO "parameter" VALUES(881,'calibration_temp','calibration_temp',9,1,NULL,232,7,'Calibration Temperature',NULL,NULL,NULL,NULL,NULL,'Average temperature during the calibration',NULL,NULL,1); INSERT INTO "parameter" VALUES(891,'seafloor_pressure','seafloor_pressure',8,1,NULL,80,7,'Seafloor Pressure','sea_water_pressure_at_sea_floor',4,6,'{"p_psia": "PD94"}','SFLPRES_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); INSERT INTO "parameter" VALUES(902,'eastward_beam_seawater_velocity','eastward_beam_seawater_velocity',8,1,NULL,123,7,'Eastward Seawater Velocity','eastward_sea_water_velocity',4,28,'{"vf": "PD617", "h": "PD672", "b3": "PD871", "lon": "CC_lon", "b4": "PD872", "p": "PD673", "pg4": "PD876", "r": "PD674", "pg2": "PD874", "b1": "PD869", "b2": "PD870", "pg1": "PD873", "lat": "CC_lat", "dt": "PD10", "pg3": "PD875"}','VELPROF-VLE_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the eastward seawater velocity component for which magnetic variation is accounted.',3,1,1); INSERT INTO "parameter" VALUES(903,'northward_beam_seawater_velocity','northward_beam_seawater_velocity',8,1,NULL,123,7,'Northward Seawater Velocity','northward_sea_water_velocity',4,29,'{"vf": "PD617", "h": "PD672", "b3": "PD871", "lon": "CC_lon", "b4": "PD872", "p": "PD673", "pg4": "PD876", "r": "PD674", "pg2": "PD874", "b1": "PD869", "b2": "PD870", "pg1": "PD873", "lat": "CC_lat", "dt": "PD10", "pg3": "PD875"}','VELPROF-VLN_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the northward seawater velocity component for which magnetic variation is accounted.',3,1,1); INSERT INTO "parameter" VALUES(904,'upward_seawater_velocity','upward_seawater_velocity',8,1,NULL,123,7,'Upward Seawater Velocity','upward_sea_water_velocity',4,30,'{"vf": "PD617", "h": "PD672", "b3": "PD871", "b4": "PD872", "p": "PD673", "pg4": "PD876", "r": "PD674", "pg2": "PD874", "b1": "PD869", "b2": "PD870", "pg1": "PD873", "pg3": "PD875"}','VELPROF-VLU_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the upward seawater velocity component.',3,1,1); INSERT INTO "parameter" VALUES(905,'beam_error_velocity','beam_error_velocity',8,1,NULL,123,7,'Error Seawater Velocity',NULL,4,31,'{"b3": "PD871", "b4": "PD872", "pg4": "PD876", "pg2": "PD874", "b1": "PD869", "b2": "PD870", "pg1": "PD873", "pg3": "PD875"}','VELPROF-EVL_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the error seawater velocity component.',3,1,1); -INSERT INTO "parameter" VALUES(908,'seawater_temperature','seawater_temperature',8,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,35,'{"a1": "CC_a1", "a0": "CC_a0", "a3": "CC_a3", "a2": "CC_a2", "t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); -INSERT INTO "parameter" VALUES(909,'seawater_pressure','seawater_pressure',8,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,36,'{"pa0": "CC_pa0", "ptca1": "CC_ptca1", "p0": "PD195", "pa1": "CC_pa1", "pa2": "CC_pa2", "t0": "PD196", "ptempa2": "CC_ptempa2", "ptca0": "CC_ptca0", "ptempa0": "CC_ptempa0", "ptempa1": "CC_ptempa1", "offset": "CC_offset", "ptcb0": "CC_ptcb0", "ptcb1": "CC_ptcb1", "ptcb2": "CC_ptcb2", "ptca2": "CC_ptca2"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(910,'seawater_conductivity','seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,37,'{"p1": "dpi_PRESWAT_L1", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD908", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(908,'seawater_temperature','sea_water_temperature',8,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,35,'{"a1": "CC_a1", "a0": "CC_a0", "a3": "CC_a3", "a2": "CC_a2", "t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(909,'seawater_pressure','sea_water_pressure',8,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,36,'{"pa0": "CC_pa0", "ptca1": "CC_ptca1", "p0": "PD195", "pa1": "CC_pa1", "pa2": "CC_pa2", "t0": "PD196", "ptempa2": "CC_ptempa2", "ptca0": "CC_ptca0", "ptempa0": "CC_ptempa0", "ptempa1": "CC_ptempa1", "offset": "CC_offset", "ptcb0": "CC_ptcb0", "ptcb1": "CC_ptcb1", "ptcb2": "CC_ptcb2", "ptca2": "CC_ptca2"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(910,'seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,37,'{"p1": "dpi_PRESWAT_L1", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD908", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); INSERT INTO "parameter" VALUES(925,'cycle_rate','cycle_rate',9,10,NULL,191,10,'Cycle Rate',NULL,0,NULL,NULL,NULL,'Cycle rate, computed by device',NULL,NULL,1); INSERT INTO "parameter" VALUES(926,'absorbance_ratio_434','absorbance_ratio_434',8,1,NULL,67,7,'Optical Absorbance Ratio at 434 Nm',NULL,0,39,'{"light": "PD357"}','CO2ABS1-SAMP_L0','The Optical Absorbance ratio at 434 nm collected during the measurement cycle and used to calculate the PCO2WAT data product.',4,0,1); INSERT INTO "parameter" VALUES(927,'absorbance_ratio_620','absorbance_ratio_620',8,1,NULL,67,7,'Optical Absorbance Ratio at 620 Nm',NULL,0,40,'{"light": "PD357"}','CO2ABS2-SAMP_L0','The Optical Absorbance ratio at 620 nm collected during the measurement cycle and used to calculate the PCO2WAT data product.',4,0,1); INSERT INTO "parameter" VALUES(928,'absorbance_blank_434','absorbance_blank_434',8,1,NULL,10,7,'Optical Absorbance Ratio at 434 Nm - Blank',NULL,4,39,'{"light": "PD2712"}','CO2ABS1-BLNK_L0','The Optical Absorbance ratio at 434 nm collected during the blank cycle and used to calculate the PCO2WAT data product.',4,0,1); INSERT INTO "parameter" VALUES(929,'absorbance_blank_620','absorbance_blank_620',8,1,NULL,10,7,'Optical Absorbance Ratio at 620 Nm - Blank',NULL,4,40,'{"light": "PD2712"}','CO2ABS2-BLNK_L0','The Optical Absorbance ratio at 620 nm collected during the blank cycle and used to calculate the PCO2WAT data product.',4,0,1); -INSERT INTO "parameter" VALUES(930,'pco2w_thermistor_temperature','pco2w_thermistor_temperature',8,1,NULL,225,7,'Thermistor Temperature',NULL,4,43,'{"traw": "PD359"}','CO2THRM_L1','This is the Thermistor Temperature measurement, used to calculate the L1 PCO2WAT Partial Pressure of CO2 in Seawater data product.',3,1,1); -INSERT INTO "parameter" VALUES(931,'pco2_seawater','pco2_seawater',8,1,NULL,216,7,'pCO2 Seawater',NULL,4,44,'{"a434blank": "dpi_CO2ABS1-BLNK_L0", "therm": "PD359", "ea620": "CC_ea620", "light": "PD357", "ea434": "CC_ea434", "calt": "CC_calt", "eb434": "CC_eb434", "mtype": "PD355", "a620blank": "dpi_CO2ABS2-BLNK_L0", "eb620": "CC_eb620", "cala": "CC_cala", "calb": "CC_calb", "calc": "CC_calc"}','PCO2WAT_L1','Partial Pressure of CO2 in Seawater provides a measure of the amount of CO2 and HCO3 in seawater. Specifically, it refers to the pressure that would be exerted by CO2 if all other gases were removed. Partial pressure of a gas dissolved in seawater is understood as the partial pressure in air that the gas would exert in a hypothetical air volume in equilibrium with that seawater. NOTE: the following calibration coefficients in the parameterfunctionmap are deprecated: "ea434", "eb434", "ea620", "eb620". Those arguments are still present in the function declaration, but they are completely unused and can be supplied with an arbitrary fill value.',3,1,1); +INSERT INTO "parameter" VALUES(930,'pco2w_thermistor_temperature','pco2w_thermistor_temperature',8,1,NULL,232,7,'Thermistor Temperature',NULL,4,43,'{"sami_bits": "CC_sami_bits", "traw": "PD359"}','CO2THRM_L1','This is the Thermistor Temperature measurement, used to calculate the L1 PCO2WAT Partial Pressure of CO2 in Seawater data product.',3,1,1); +INSERT INTO "parameter" VALUES(931,'pco2_seawater','pco2_seawater',8,1,NULL,242,7,'pCO2 Seawater','partial_pressure_of_carbon_dioxide_in_sea_water',4,44,'{"a434blank": "dpi_CO2ABS1-BLNK_L0", "therm": "PD930", "ea620": "CC_ea620", "light": "PD357", "ea434": "CC_ea434", "calt": "CC_calt", "eb434": "CC_eb434", "mtype": "PD355", "a620blank": "dpi_CO2ABS2-BLNK_L0", "eb620": "CC_eb620", "cala": "CC_cala", "calb": "CC_calb", "calc": "CC_calc"}','PCO2WAT_L1','Partial Pressure of CO2 in Seawater provides a measure of the amount of CO2 and HCO3 in seawater. Specifically, it refers to the pressure that would be exerted by CO2 if all other gases were removed. Partial pressure of a gas dissolved in seawater is understood as the partial pressure in air that the gas would exert in a hypothetical air volume in equilibrium with that seawater. NOTE: the following calibration coefficients in the parameterfunctionmap are deprecated: "ea434", "eb434", "ea620", "eb620". Those arguments are still present in the function declaration, but they are completely unused and can be supplied with an arbitrary fill value.',3,1,1); INSERT INTO "parameter" VALUES(932,'thermistor_start','thermistor_start',9,3,NULL,67,5,'Thermistor Resistivity at Start of Measurement',NULL,0,NULL,NULL,NULL,'Starting thermistor value',NULL,NULL,1); INSERT INTO "parameter" VALUES(933,'reference_light_measurements','reference_light_measurements',3,3,NULL,67,5,'Array of Reference Light Measurements',NULL,0,NULL,NULL,NULL,'Array of reference light measurements',NULL,NULL,1); INSERT INTO "parameter" VALUES(935,'thermistor_end','thermistor_end',9,3,NULL,67,5,'Thermistor Resistivity at End of Measurement',NULL,0,NULL,NULL,NULL,'Thermistor resistivity with a DC volt range of 0 to 5',NULL,NULL,1); INSERT INTO "parameter" VALUES(936,'signal_intensity_434','signal_intensity_434',8,1,NULL,67,7,'Optical Absorbance Signal Intensity at 434 nm',NULL,0,45,'{"light": "PD2708"}','PH434SI_L0','Signal intensity at 434nm ranging from 0 to 4096 (corresponds to a direct current volt range of 0 to 5)',4,0,1); INSERT INTO "parameter" VALUES(937,'signal_intensity_578','signal_intensity_578',8,1,NULL,67,7,'Optical Absorbance Signal Intensity at 578 Nm',NULL,0,46,'{"light": "PD2708"}','PH578SI_L0','Signal intensity at 578nm ranging from 0 to 4096 (corresponds to a direct current volt range of 0 to 5)',4,0,1); -INSERT INTO "parameter" VALUES(938,'phsen_thermistor_temperature','phsen_thermistor_temperature',8,1,NULL,40,7,'Thermistor Temperature at End of Measurement',NULL,4,47,'{"traw": "PD935"}','ABSTHRM_L1','Thermistor Temperature refers to the internal instrument temperature of the pH sensor, as measured by the thermistor (in volts). It is used to determine salinity and temperature dependent molar absorptivities in the seawater sample in order to make an accurate pH estimation.',3,1,1); -INSERT INTO "parameter" VALUES(939,'ph_seawater','ph_seawater',8,1,NULL,10,7,'pH','sea_water_ph_reported_on_total_scale',4,48,'{"ind_slp": "CC_ind_slp", "therm": "PD938", "light": "PD2708", "ea434": "CC_ea434", "eb434": "CC_eb434", "psal": "dpi_PRACSAL_L2", "ea578": "CC_ea578", "ind_off": "CC_ind_off", "ref": "PD933", "eb578": "CC_eb578"}','PHWATER_L1','pH is a measurement of the concentration of hydrogen ions in a solution. pH ranges from acidic to basic on a scale from 0 to 14 with 7 being neutral.',3,1,1); -INSERT INTO "parameter" VALUES(940,'estimated_oxygen_concentration','estimated_oxygen_concentration',9,1,NULL,218,7,'DO',NULL,3,NULL,NULL,'DOCONCS_L1','Dissolved Oxygen (DO) Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for temperature from a collocated CTD.',3,1,1); -INSERT INTO "parameter" VALUES(941,'estimated_oxygen_saturation','estimated_oxygen_saturation',9,1,NULL,179,7,'Dissolved Oxygen Saturation',NULL,3,NULL,NULL,NULL,'Oxygen saturation is the percentage of dissolved oxygen relative to the absolute solubility of oxygen at a particular water temperature.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(942,'optode_temperature','optode_temperature',9,1,NULL,225,7,'Optode Temperature',NULL,3,NULL,NULL,NULL,'Oxygen sensor ambient temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(943,'calibrated_phase','calibrated_phase',9,1,NULL,95,7,'Calibrated Phase Difference',NULL,3,NULL,NULL,'DOCONCS-DEG_L0','Calibrated phase difference, used to calculate temperature compensated oxygen concentration.',4,0,1); -INSERT INTO "parameter" VALUES(944,'temp_compensated_phase','temp_compensated_phase',9,1,NULL,95,7,'Temperature Compensated Phase',NULL,3,NULL,NULL,NULL,'Temerature compensated phase.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(945,'blue_phase','blue_phase',9,1,NULL,95,7,'Blue Light Phase',NULL,3,NULL,NULL,NULL,'Phase measurement with blue excitation.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(946,'red_phase','red_phase',9,1,NULL,95,7,'Red Light Phase',NULL,3,NULL,NULL,NULL,'Phase measurement with red excitation.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(938,'phsen_thermistor_temperature','phsen_thermistor_temperature',8,1,NULL,40,7,'Thermistor Temperature at End of Measurement',NULL,4,47,'{"sami_bits": "CC_sami_bits", "traw": "PD935"}','ABSTHRM_L1','Thermistor Temperature refers to the internal instrument temperature of the pH sensor, as measured by the thermistor (in volts). It is used to determine salinity and temperature dependent molar absorptivities in the seawater sample in order to make an accurate pH estimation.',3,1,1); +INSERT INTO "parameter" VALUES(939,'ph_seawater','ph_seawater',8,1,NULL,10,7,'pH','sea_water_ph_reported_on_total_scale',4,48,'{"ind_slp": "CC_ind_slp", "therm": "PD938", "light": "PD2708", "ea434": "CC_ea434", "eb434": "CC_eb434", "psal": "dpi_PRACSAL_L2", "ea578": "CC_ea578", "ind_off": "CC_ind_off", "ref": "PD933", "eb578": "CC_eb578"}','PHWATER_L2','pH is a measurement of the concentration of hydrogen ions in a solution. pH ranges from acidic to basic on a scale from 0 to 14 with 7 being neutral. The OOI pH algorithm was updated to use an L2 product (PRACSAL) from a nearby CTD instead of a calibration coefficient. This changed the data product type from L1 to L2.',3,2,1); +INSERT INTO "parameter" VALUES(940,'estimated_oxygen_concentration','estimated_oxygen_concentration',9,1,NULL,246,7,'Dissolved Oxygen','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',3,NULL,NULL,'DOCONCS_L1','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for temperature from a collocated CTD.',3,1,1); +INSERT INTO "parameter" VALUES(941,'estimated_oxygen_saturation','estimated_oxygen_saturation',9,1,NULL,179,7,'Dissolved Oxygen Saturation',NULL,3,NULL,NULL,NULL,'Oxygen saturation is the percentage of dissolved oxygen relative to the absolute solubility of oxygen at the associated water temperature. ',NULL,NULL,1); +INSERT INTO "parameter" VALUES(942,'optode_temperature','optode_temperature',9,1,NULL,232,7,'Optode Temperature',NULL,3,NULL,NULL,NULL,'Ambient temperature of the oxygen sensor as measured by the oxygen sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(943,'calibrated_phase','calibrated_phase',9,1,NULL,95,7,'Calibrated Phase Difference',NULL,3,NULL,NULL,'DOCONCS-DEG_L0','Calibrated phase difference, used to calculate temperature compensated oxygen concentration. The phase difference is the difference between the phase obtained with blue light and the reference phase obtained with red light.',4,0,1); +INSERT INTO "parameter" VALUES(944,'temp_compensated_phase','temp_compensated_phase',9,1,NULL,95,7,'Temperature Compensated Phase',NULL,3,NULL,NULL,NULL,'Temperature compensated phase, used to calculate temperature compensated oxygen concentration. ',NULL,NULL,1); +INSERT INTO "parameter" VALUES(945,'blue_phase','blue_phase',9,1,NULL,95,7,'Blue Light Phase',NULL,3,NULL,NULL,NULL,'Phase measurement with blue light excitation.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(946,'red_phase','red_phase',9,1,NULL,95,7,'Red Light Phase',NULL,3,NULL,NULL,NULL,'Phase measurement with red light excitation.',NULL,NULL,1); INSERT INTO "parameter" VALUES(947,'blue_amplitude','blue_amplitude',9,1,NULL,144,7,'Blue Light Amplitude',NULL,1,NULL,NULL,NULL,'Amplitude measurement with blue excitation.',NULL,NULL,1); INSERT INTO "parameter" VALUES(948,'red_amplitude','red_amplitude',9,1,NULL,144,7,'Red Light Amplitude',NULL,1,NULL,NULL,NULL,'Amplitude measurement with red excitation.',NULL,NULL,1); INSERT INTO "parameter" VALUES(949,'raw_temperature','raw_temperature',9,1,NULL,144,7,'Thermistor Voltage',NULL,1,NULL,NULL,NULL,'Raw temperature, voltage from thermistor.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(950,'uncorrected_do','uncorrected_do',9,1,NULL,218,7,'DO - Temp Corrected',NULL,NULL,NULL,NULL,'DOCONCS_L1','Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen (DO) Instrument connected through a CTD via a digital connection. This data product is corrected internally for temperature.',3,1,1); -INSERT INTO "parameter" VALUES(951,'uncorrected_do','uncorrected_do',8,1,NULL,218,7,'DO - Temp Corrected',NULL,NULL,59,'{"conc_coef": "CC_conc_coef", "calphase": "dpi_DOCONCS-DEG_L0", "csv": "CC_csv", "temp": ["PD942", "PD3793", "PD8041"]}','DOCONCS_L1','Dissolved oxygen concentration from the stable response Dissolved Oxygen (DO) instrument connected through a CTD via an analog and digital connection. This data product is corrected for temperature.',3,1,1); -INSERT INTO "parameter" VALUES(952,'uncorrected_do','uncorrected_do',8,1,NULL,218,7,'DO - Temp Corrected',NULL,NULL,60,'{"o2_counts": "PD197"}','DOCONCS_L1','Dissolved oxygen concentration from an autonomous stable response Dissolved Oxygen (DO) instrument connected directly to a mooring DCL or a junction box . This instrument is configured for digital output of oxygen concentration to CTD. This data product is corrected internally for temperature.',3,1,1); -INSERT INTO "parameter" VALUES(953,'dissolved_oxygen','dissolved_oxygen',9,1,NULL,219,7,'Dissolved Oxygen Concentration',NULL,4,NULL,NULL,NULL,'Calculated oxygen concentration',NULL,NULL,1); +INSERT INTO "parameter" VALUES(950,'uncorrected_do','uncorrected_do',9,1,NULL,246,7,'Dissolved Oxygen - Temp Corrected','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',NULL,NULL,NULL,'DOCONCS_L1','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument is connected through a CTD via a digital connection. This data product is corrected internally for temperature as measured by the DO thermistor.',3,1,1); +INSERT INTO "parameter" VALUES(951,'uncorrected_do','uncorrected_do',8,1,NULL,246,7,'Dissolved Oxygen - Temp Corrected','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',NULL,59,'{"conc_coef": "CC_conc_coef", "calphase": "dpi_DOCONCS-DEG_L0", "csv": "CC_csv", "temp": ["PD942", "PD3793", "PD8041"]}','DOCONCS_L1','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument is connected through a CTD via an analog and digital connection. This data product is corrected internally for temperature as measured by the DO thermistor.',3,1,1); +INSERT INTO "parameter" VALUES(952,'uncorrected_do','uncorrected_do',8,1,NULL,246,7,'Dissolved Oxygen - Temp Corrected','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',NULL,60,'{"o2_counts": "PD197"}','DOCONCS_L1','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument is connected directly to a mooring DCL or a junction box and is configured for digital output of oxygen concentration to CTD. This data product is corrected internally for temperature as measured by the DO thermistor.',3,1,1); +INSERT INTO "parameter" VALUES(953,'dissolved_oxygen','dissolved_oxygen',9,1,NULL,247,7,'Dissolved Oxygen - Pressure Temp Sal Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,NULL,NULL,NULL,'Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This data product is corrected for salinity, temperature, and pressure.',NULL,NULL,1); INSERT INTO "parameter" VALUES(960,'upward_earth_seawater_velocity','upward_earth_seawater_velocity',8,1,NULL,123,7,'Upward Seawater Velocity','upward_sea_water_velocity',4,128,'{"w": "PD716"}','VELPROF-VLU_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the upward seawater velocity component.',3,1,1); INSERT INTO "parameter" VALUES(961,'earth_error_velocity','earth_error_velocity',8,1,NULL,123,7,'Error Velocity',NULL,4,129,'{"e": "PD717"}','VELPROF-ERR_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the error component.',3,1,1); -INSERT INTO "parameter" VALUES(964,'ctd_tc_oxygen','ctd_tc_oxygen',8,1,NULL,218,7,'DO from Onboard Calculation',NULL,4,60,'{"o2_counts": "PD197"}','DOCONCS_L1','Dissolved Oxygen (DO) Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater.',3,1,1); -INSERT INTO "parameter" VALUES(965,'vent_fluid_temperaure','vent_fluid_temperaure',8,1,NULL,225,7,'Vent Fluid Absolute Temperature',NULL,4,63,'{"ts_slope": "CC_ts_slope", "tc_slope": "CC_tc_slope", "V_tc": "PD430", "V_ts": "PD428"}','TRHPHTE-ABS_L1','Vent Fluid Absolute Temperature refers to temperature calculated from the Temperature-Resistivity Probe Instrument (TRHPH) Thermistor and Thermocouple. It is calculated using response curves from Thermocouple and Thermistor Temperature (in volts) that are adjusted to the custom instrument design and corrected by laboratory calibration.',3,1,1); +INSERT INTO "parameter" VALUES(964,'ctd_tc_oxygen','ctd_tc_oxygen',8,1,NULL,246,7,'DO from Onboard Calculation','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',4,60,'{"o2_counts": "PD197"}','DOCONCS_L1','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument is connected through a CTD. This data product is corrected internally for temperature as measured by the DO thermistor.',3,1,1); +INSERT INTO "parameter" VALUES(965,'vent_fluid_temperature','vent_fluid_temperature',8,1,NULL,232,7,'Vent Fluid Absolute Temperature',NULL,4,63,'{"ts_slope": "CC_ts_slope", "tc_slope": "CC_tc_slope", "V_tc": "PD430", "V_ts": "PD428"}','TRHPHTE-ABS_L1','Vent Fluid Absolute Temperature refers to temperature calculated from the Temperature-Resistivity Probe Instrument (TRHPH) Thermistor and Thermocouple. It is calculated using response curves from Thermocouple and Thermistor Temperature (in volts) that are adjusted to the custom instrument design and corrected by laboratory calibration.',3,1,1); INSERT INTO "parameter" VALUES(966,'vent_fluid_chloride_conc','vent_fluid_chloride_conc',8,1,NULL,171,7,'Vent Fluid Chloride Concentration',NULL,4,64,'{"V_R3": "PD423", "V_R2": "PD422", "V_R1": "PD421", "T": "PD965"}','TRHPHCC_L2','Vent Fluid Chloride Concentration (Cl-) is calculated using resistivity and temperature measured by a Hydrothermal Vent Fluid Temperature and Resistivity sensor placed in a high-temperature hydrothermal vent.',3,2,1); INSERT INTO "parameter" VALUES(967,'vent_fluid_orp','vent_fluid_orp',8,1,NULL,144,7,'Vent Fluid Oxidation-Reduction Potential',NULL,4,65,'{"offset": "CC_offset", "gain": "CC_gain", "V": "PD427"}','TRHPHEH_L1','Vent Fluid Oxidation-Reduction Potential (ORP) is a measure of the tendency of a vent fluid, and the chemical species within it, to acquire electrons (i.e. be reduced). The more positive the potential, the greater the affinity for electrons and tendency to be reduced.',3,1,1); INSERT INTO "parameter" VALUES(969,'velocity_offset_a','velocity_offset_a',9,4,NULL,67,7,'Beam-A Velocity Offset',NULL,0,NULL,NULL,NULL,'Calibrated velocity offset for acoustic beam A in 2s complement Hexidecimal',NULL,NULL,1); @@ -1796,33 +1800,33 @@ INSERT INTO "parameter" VALUES(977,'compass_scale_factor_1','compass_scale_facto INSERT INTO "parameter" VALUES(978,'compass_scale_factor_2','compass_scale_factor_2',9,1,NULL,10,7,'Compass Scale Factor 2',NULL,3,NULL,NULL,NULL,'Calibrated compass scale factor 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(979,'tilt_offset_pitch','tilt_offset_pitch',9,3,NULL,144,5,'Pitch Offset',NULL,0,NULL,NULL,NULL,'Calibrated pitch offset',NULL,NULL,1); INSERT INTO "parameter" VALUES(980,'tilt_offset_roll','tilt_offset_roll',9,3,NULL,144,5,'Roll Offset',NULL,0,NULL,NULL,NULL,'Calibrated roll offset',NULL,NULL,1); -INSERT INTO "parameter" VALUES(981,'burst_interval_days','burst_interval_days',9,3,NULL,71,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Days component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(982,'burst_interval_hours','burst_interval_hours',9,3,NULL,107,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Hours component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(983,'burst_interval_minutes','burst_interval_minutes',9,3,NULL,161,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Minutes component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(984,'burst_interval_seconds','burst_interval_seconds',9,3,NULL,191,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Seconds component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(992,'zero_a2d','zero_a2d',9,4,NULL,67,5,'Zero A/D',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(993,'current_a2d','current_a2d',9,4,NULL,67,5,'Current A/D',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(981,'burst_interval_days','burst_interval_days',9,3,NULL,71,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Days component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(982,'burst_interval_hours','burst_interval_hours',9,3,NULL,107,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Hours component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(983,'burst_interval_minutes','burst_interval_minutes',9,3,NULL,161,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Minutes component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(984,'burst_interval_seconds','burst_interval_seconds',9,3,NULL,191,5,'Burst Interval',NULL,0,NULL,NULL,NULL,'Seconds component of the burst interval. Burst interval = days+hours+minutes+seconds.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(992,'zero_a2d','zero_a2d',9,4,NULL,67,5,'Zero A/D',NULL,NULL,NULL,NULL,NULL,'Raw blank absorbance measurement in the infrared range and reported by the instrument in counts. Measurement is updated every 12 hours.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(993,'current_a2d','current_a2d',9,4,NULL,67,5,'Current A/D',NULL,NULL,NULL,NULL,NULL,'Raw absorbance measurement of CO2 in the infrared range and reported by the instrument in counts.',NULL,NULL,1); INSERT INTO "parameter" VALUES(994,'measured_air_co2','measured_air_co2',9,1,NULL,183,7,'CO2 Mole Fraction in Atmosphere',NULL,3,NULL,NULL,'XCO2ATM_L0','CO2 Mole Fraction in Atmosphere is the measured amount of CO2 in a sample of air. Mole fraction refers to its units - how many moles of CO2 there are per million moles of air (i.e. ppm).',4,0,1); INSERT INTO "parameter" VALUES(995,'measured_water_co2','measured_water_co2',9,1,NULL,183,7,'CO2 Mole Fraction in Surface Sea Water',NULL,3,NULL,NULL,'XCO2SSW_L0','CO2 Mole Fraction in Surface Sea Water is the measured amount of CO2 in the sample of seawater. Mole fraction refers to its units - how many moles of CO2 there are per million moles of air (i.e. ppm).',4,0,1); -INSERT INTO "parameter" VALUES(996,'avg_irga_temperature','avg_irga_temperature',9,1,NULL,225,7,'Average IRGA Temperature',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(996,'avg_irga_temperature','avg_irga_temperature',9,1,NULL,232,7,'Average IRGA Temperature',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(997,'humidity','humidity',9,1,NULL,149,7,'Humidity',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(998,'humidity_temperature','humidity_temperature',9,1,NULL,225,7,'Humidity Sensor Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(998,'humidity_temperature','humidity_temperature',9,1,NULL,232,7,'Humidity Sensor Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(999,'gas_stream_pressure','gas_stream_pressure',9,3,NULL,149,5,'Gas Stream Pressure',NULL,NULL,NULL,NULL,'PRESAIR_L0','PCO2A Gas Stream Pressure is the pressure of the internal gas volume of the pCO2 Air-Sea instrument. This data product is used to calculate Partial Pressure of CO2 in Air and Surface Seawater.',4,0,1); -INSERT INTO "parameter" VALUES(1000,'irga_detector_temperature','irga_detector_temperature',9,1,NULL,225,7,'IRGA Detector Instrument',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1001,'irga_source_temperature','irga_source_temperature',9,1,NULL,225,7,'IRGA Source Temperature',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1002,'partial_pressure_co2_atm','partial_pressure_co2_atm',8,1,NULL,216,7,'pCO2 Atmosphere',NULL,3,67,'{"p": "PD999", "xCO2": "PD994"}','PCO2ATM_L1','Partial Pressure of CO2 in Atmosphere refers to the pressure that would be exerted by CO2 if all other gases in the atmosphere were removed. pCO2 in the air is determined optically by measuring the absorbance by CO2 in the infrared range.',3,1,1); -INSERT INTO "parameter" VALUES(1003,'partial_pressure_co2_ssw','partial_pressure_co2_ssw',8,1,NULL,216,7,'pCO2 Surface Seawater',NULL,3,67,'{"p": "PD999", "xCO2": "PD995"}','PCO2SSW_L1','Partial Pressure of CO2 in Surface Seawater refers to the pressure that would be exerted by CO2 if all other gases were removed. Partial pressure of a gas dissolved in seawater is understood as the partial pressure in air that the gas would exert in a hypothetical air volume in equilibrium with that seawater. pCO2 in surface seawater is determined optically by measuring the infrared absorbance level of CO2.',3,1,1); +INSERT INTO "parameter" VALUES(1000,'irga_detector_temperature','irga_detector_temperature',9,1,NULL,232,7,'IRGA Detector Temperature',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1001,'irga_source_temperature','irga_source_temperature',9,1,NULL,232,7,'IRGA Source Temperature',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1002,'partial_pressure_co2_atm','partial_pressure_co2_atm',8,1,NULL,242,7,'pCO2 Atmosphere','surface_partial_pressure_of_carbon_dioxide_in_air',3,67,'{"p": "PD999", "xCO2": "PD994"}','PCO2ATM_L1','Partial Pressure of CO2 in Atmosphere refers to the pressure that would be exerted by CO2 if all other gases in the atmosphere were removed. pCO2 in the air is determined optically by measuring the absorbance by CO2 in the infrared range.',3,1,1); +INSERT INTO "parameter" VALUES(1003,'partial_pressure_co2_ssw','partial_pressure_co2_ssw',8,1,NULL,242,7,'pCO2 Surface Seawater','surface_partial_pressure_of_carbon_dioxide_in_sea_water',3,67,'{"p": "PD999", "xCO2": "PD995"}','PCO2SSW_L1','Partial Pressure of CO2 in Surface Seawater refers to the pressure that would be exerted by CO2 if all other gases were removed. Partial pressure of a gas dissolved in seawater is understood as the partial pressure in air that the gas would exert in a hypothetical air volume in equilibrium with that seawater. pCO2 in surface seawater is determined optically by measuring the infrared absorbance level of CO2.',3,1,1); INSERT INTO "parameter" VALUES(1005,'product_number','product_number',9,7,NULL,10,10,'Product Number',NULL,0,NULL,NULL,NULL,'Aanderaa product/model number.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1029,'enable_text','enable_text',5,5,NULL,10,4,'Enable Text',NULL,0,NULL,NULL,NULL,'Reveals if the instrument has enabled an informational text display at startup.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1048,'temperature1','temperature1',9,1,NULL,225,7,'Vent Fluid Temperature 01',NULL,2,NULL,NULL,'TEMPVNT_L1','Vent Fluid Temperature is measured continuously at the sample inlet of the Hydrothermal Vent Fluid Interactive Sampler (RASFL) instrument. This data product includes temperature measurements made by resistance platinum detectors at three locations: two in a low temperature vent and one at a nearby high temperature vent. Locations of the detectors can be found in the metadata.',3,1,1); -INSERT INTO "parameter" VALUES(1049,'temperature2','temperature2',9,1,NULL,225,7,'Vent Fluid Temperature 02',NULL,2,NULL,NULL,'TEMPVNT_L1','Vent Fluid Temperature is measured continuously at the sample inlet of the Hydrothermal Vent Fluid Interactive Sampler (RASFL) instrument. This data product includes temperature measurements made by resistance platinum detectors at three locations: two in a low temperature vent and one at a nearby high temperature vent. Locations of the detectors can be found in the metadata.',3,1,1); -INSERT INTO "parameter" VALUES(1050,'temperature3','temperature3',9,1,NULL,225,7,'Vent Fluid Temperature 03',NULL,2,NULL,NULL,'TEMPVNT_L1','Vent Fluid Temperature is measured continuously at the sample inlet of the Hydrothermal Vent Fluid Interactive Sampler (RASFL) instrument. This data product includes temperature measurements made by resistance platinum detectors at three locations: two in a low temperature vent and one at a nearby high temperature vent. Locations of the detectors can be found in the metadata.',3,1,1); +INSERT INTO "parameter" VALUES(1048,'temperature1','temperature1',9,1,NULL,232,7,'Vent Fluid Temperature 01','sea_water_temperature',2,NULL,NULL,'TEMPVNT_L1','Vent Fluid Temperature is measured continuously at the sample inlet of the Hydrothermal Vent Fluid Interactive Sampler (RASFL) instrument. This data product includes temperature measurements made by resistance platinum detectors at three locations: two in a low temperature vent and one at a nearby high temperature vent. Locations of the detectors can be found in the metadata.',3,1,1); +INSERT INTO "parameter" VALUES(1049,'temperature2','temperature2',9,1,NULL,232,7,'Vent Fluid Temperature 02','sea_water_temperature',2,NULL,NULL,'TEMPVNT_L1','Vent Fluid Temperature is measured continuously at the sample inlet of the Hydrothermal Vent Fluid Interactive Sampler (RASFL) instrument. This data product includes temperature measurements made by resistance platinum detectors at three locations: two in a low temperature vent and one at a nearby high temperature vent. Locations of the detectors can be found in the metadata.',3,1,1); +INSERT INTO "parameter" VALUES(1050,'temperature3','temperature3',9,1,NULL,232,7,'Vent Fluid Temperature 03','sea_water_temperature',2,NULL,NULL,'TEMPVNT_L1','Vent Fluid Temperature is measured continuously at the sample inlet of the Hydrothermal Vent Fluid Interactive Sampler (RASFL) instrument. This data product includes temperature measurements made by resistance platinum detectors at three locations: two in a low temperature vent and one at a nearby high temperature vent. Locations of the detectors can be found in the metadata.',3,1,1); INSERT INTO "parameter" VALUES(1051,'barometric_pressure','barometric_pressure',9,1,NULL,149,7,'Barometric Pressure',NULL,2,NULL,NULL,'BARPRES_L0','Barometric Pressure is a measure of the weight of the column of air above the sensor. It is also commonly referred to as atmospheric pressure.',4,0,1); -INSERT INTO "parameter" VALUES(1052,'relative_humidity','relative_humidity',9,1,NULL,1,7,'Relative Humidity','relative_humidity',3,NULL,NULL,'RELHUMI_L1',NULL,3,1,1); -INSERT INTO "parameter" VALUES(1053,'air_temperature','air_temperature',9,1,NULL,225,7,'Air Temperature','air_temperature',3,NULL,NULL,'TEMPAIR_L1','Air Temperature refers to the temperature of the air surrounding the sensor; this is also referred to as bulk temperature.',3,1,1); +INSERT INTO "parameter" VALUES(1052,'relative_humidity','relative_humidity',9,1,NULL,179,7,'Relative Humidity','relative_humidity',3,NULL,NULL,'RELHUMI_L1',NULL,3,1,1); +INSERT INTO "parameter" VALUES(1053,'air_temperature','air_temperature',9,1,NULL,232,7,'Air Temperature','air_temperature',3,NULL,NULL,'TEMPAIR_L1','Air Temperature refers to the temperature of the air surrounding the sensor; this is also referred to as bulk temperature.',3,1,1); INSERT INTO "parameter" VALUES(1054,'longwave_irradiance','longwave_irradiance',9,1,NULL,42,7,'Downwelling Longwave Irradiance','downwelling_longwave_flux_in_air',1,NULL,NULL,'LONGIRR_L1',NULL,3,1,1); INSERT INTO "parameter" VALUES(1055,'precipitation','precipitation',9,1,NULL,165,7,'Precipitation','lwe_thickness_of_precipitation_amount',2,NULL,NULL,'PRECIPM_L1',NULL,3,1,1); -INSERT INTO "parameter" VALUES(1056,'sea_surface_temperature','sea_surface_temperature',9,1,NULL,225,7,'Sea Surface Temperature','sea_surface_temperature',3,NULL,NULL,'TEMPSRF_L1','Sea Surface Temperature is the temperature of the seawater near the ocean surface.',3,1,1); +INSERT INTO "parameter" VALUES(1056,'sea_surface_temperature','sea_surface_temperature',9,1,NULL,232,7,'Sea Surface Temperature','sea_surface_temperature',3,NULL,NULL,'TEMPSRF_L1','Sea Surface Temperature is the temperature of the seawater near the ocean surface.',3,1,1); INSERT INTO "parameter" VALUES(1057,'sea_surface_conductivity','sea_surface_conductivity',9,1,NULL,38,7,'Sea Surface Conductivity',NULL,4,NULL,NULL,'CONDSRF_L1',NULL,3,1,1); INSERT INTO "parameter" VALUES(1058,'shortwave_irradiance','shortwave_irradiance',9,1,NULL,42,7,'Downwelling Shortwave Irradiance','downwelling_shortwave_flux_in_air',1,NULL,NULL,'SHRTIRR_L1',NULL,3,1,1); INSERT INTO "parameter" VALUES(1059,'eastward_wind_velocity','eastward_wind_velocity',9,1,NULL,123,7,'Mean Wind Velocity - Eastward relative to Magnetic North',NULL,2,NULL,NULL,'WINDAVG-VLE_L0',NULL,4,0,1); @@ -1851,9 +1855,9 @@ INSERT INTO "parameter" VALUES(1081,'flowrate','flowrate',9,1,NULL,139,7,'Flowra INSERT INTO "parameter" VALUES(1082,'minimum_flowrate','minimum_flowrate',9,1,NULL,139,7,'Minimum Flowrate',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1083,'elapsed_time','elapsed_time',9,3,NULL,191,5,'Elapsed Time Since Start of Sample',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1084,'sampling_status_code','sampling_status_code',9,5,17,10,4,'Sampling Status Code',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1085,'vel3d_c_eastward_turbulent_velocity','vel3d_c_eastward_turbulent_velocity',8,1,NULL,123,7,'Eastward Turbulent Point Seawater Velocity','eastward_sea_water_velocity',3,55,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD551", "timestamp": "PD11", "v": "PD552"}','VELPTTU-VLE_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the eastward component of turbulent seawater velocity relative to true North.',3,1,1); -INSERT INTO "parameter" VALUES(1086,'vel3d_c_northward_turbulent_velocity','vel3d_c_northward_turbulent_velocity',8,1,NULL,123,7,'Northward Turbulent Point Seawater Velocity','northward_sea_water_velocity',3,56,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD551", "timestamp": "PD11", "v": "PD552"}','VELPTTU-VLN_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the northward component of turbulent seawater velocity relative to true North.',3,1,1); -INSERT INTO "parameter" VALUES(1087,'vel3d_c_upward_turbulent_velocity','vel3d_c_upward_turbulent_velocity',8,1,NULL,123,7,'Upward Turbulent Point Seawater Velocity','upward_sea_water_velocity',3,58,'{"w": "PD553"}','VELPTTU-VLU_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the upward component of turbulent seawater velocity.',3,1,1); +INSERT INTO "parameter" VALUES(1085,'vel3d_c_eastward_turbulent_velocity','vel3d_c_eastward_turbulent_velocity',8,1,NULL,123,7,'Eastward Turbulent Point Seawater Velocity','eastward_sea_water_velocity',3,55,'{"status_code": "PD568", "v": "PD552", "lon": "CC_lon", "u": "PD551", "timestamp": "PD11", "lat": "CC_lat"}','VELPTTU-VLE_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the eastward component of turbulent seawater velocity relative to true North.',3,1,1); +INSERT INTO "parameter" VALUES(1086,'vel3d_c_northward_turbulent_velocity','vel3d_c_northward_turbulent_velocity',8,1,NULL,123,7,'Northward Turbulent Point Seawater Velocity','northward_sea_water_velocity',3,56,'{"status_code": "PD568", "v": "PD552", "lon": "CC_lon", "u": "PD551", "timestamp": "PD11", "lat": "CC_lat"}','VELPTTU-VLN_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the northward component of turbulent seawater velocity relative to true North.',3,1,1); +INSERT INTO "parameter" VALUES(1087,'vel3d_c_upward_turbulent_velocity','vel3d_c_upward_turbulent_velocity',8,1,NULL,123,7,'Upward Turbulent Point Seawater Velocity','upward_sea_water_velocity',3,58,'{"status_code": "PD568", "w": "PD553"}','VELPTTU-VLU_L1','Turbulent Point Water Velocity is the measurement of current velocity, which can be used to derive turbulence data. Current velocity is measured within a 1 cm3 box by transmitting a sound pulse from the center transducer. The instrument measures the Doppler shift introduced by the reflections from particles suspended in the water, which is picked up by the 3 receivers that surround the center transducer. This data product is the upward component of turbulent seawater velocity.',3,1,1); INSERT INTO "parameter" VALUES(1088,'transmit_pulse_length_2nd','transmit_pulse_length_2nd',9,7,NULL,67,10,'Transmit Pulse Length',NULL,0,NULL,NULL,NULL,'transmit pulse length (counts) second lag',NULL,NULL,1); INSERT INTO "parameter" VALUES(1089,'instrument_id','instrument_id',9,6,NULL,10,17,'Instrument ID',NULL,0,NULL,NULL,NULL,'SAT + instrument type',NULL,NULL,1); INSERT INTO "parameter" VALUES(1091,'timer','timer',9,2,NULL,191,7,'Elapsed Time Since Initialization',NULL,2,NULL,NULL,NULL,'number of seconds that have passed since the end of the initialization sequence.',NULL,NULL,1); @@ -1892,17 +1896,17 @@ INSERT INTO "parameter" VALUES(1130,'measure_to_pump_on','measure_to_pump_on',9, INSERT INTO "parameter" VALUES(1131,'number_measurements','number_measurements',9,10,NULL,67,10,'Number of Measurements',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1132,'salinity_delay','salinity_delay',9,10,NULL,67,10,'Salinity Delay',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1133,'corrected_compass_direction','corrected_compass_direction',8,1,NULL,95,7,'Seafloor High-Resolution Corrected Compass Direction',NULL,0,71,'{"scmp": "PD841", "sn": "PD312"}','BOTTILT-CCMP','Seafloor High-resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. Seafloor High-resolution Corrected Compass Direction is the compass direction of the positive Y-tilt axis (in degrees, clockwise from North) after corrections for calibration offsets and magnetic declination.',3,1,1); -INSERT INTO "parameter" VALUES(1134,'seafloor_tilt_magnitude','seafloor_tilt_magnitude',8,1,NULL,224,7,'Seafloor High-Resolution Tilt Magnitude',NULL,3,72,'{"x_tilt": "PD839", "y_tilt": "PD840"}','BOTTILT-TMAG_L1','Seafloor High-resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. Seafloor High-resolution Tilt Magnitude is the magnitude of the seafloor tilt since the last re-leveling of the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(1134,'seafloor_tilt_magnitude','seafloor_tilt_magnitude',8,1,NULL,252,7,'Seafloor High-Resolution Tilt Magnitude',NULL,3,72,'{"x_tilt": "PD839", "y_tilt": "PD840"}','BOTTILT-TMAG_L1','Seafloor High-resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. Seafloor High-resolution Tilt Magnitude is the magnitude of the seafloor tilt since the last re-leveling of the sensor.',3,1,1); INSERT INTO "parameter" VALUES(1135,'seafloor_tilt_direction','seafloor_tilt_direction',8,1,NULL,95,7,'Seafloor High-Resolution Tilt Direction',NULL,0,73,'{"x_tilt": "PD839", "ccmp": "PD1133", "y_tilt": "PD840"}','BOTTILT-TDIR_L1','Seafloor High-resolution Tilt measurements are very precise measurements of seafloor tilt, measured in micro-radians. This high resolution enables the measurement of the "tilting" of the seafloor as it deforms in response to uplifting mantle at the summit of Axial Volcano. Seafloor High-resolution Corrected Tilt Direction is the corrected direction (in degrees clockwise from North) of the seafloor downward tilt since the last re-leveling of the sensor.',3,1,1); INSERT INTO "parameter" VALUES(1136,'date_string','date_string',9,6,NULL,10,17,'Measurement Date, UTC',NULL,NULL,NULL,NULL,NULL,'Measurement date in string format.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1137,'time_string','time_string',9,6,NULL,10,17,'Measurement Time, UTC',NULL,NULL,NULL,NULL,NULL,'Measurement time in string format',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1138,'measurement_wavelength_beta','measurement_wavelength_beta',9,7,NULL,177,10,'Measurement Wavelength, Scattering',NULL,NULL,NULL,NULL,NULL,'Wavelength used by sensor for its scattering measurement.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1138,'measurement_wavelength_beta','measurement_wavelength_beta',9,7,NULL,177,10,'Measurement Wavelength, Scattering',NULL,NULL,NULL,NULL,NULL,'Wavelength used by sensor for its scattering measurement.',1,NULL,1); INSERT INTO "parameter" VALUES(1139,'raw_signal_beta','raw_signal_beta',9,7,NULL,67,10,'Optical Backscatter Measurement',NULL,NULL,NULL,NULL,'FLUBSCT_L0','Optical backscatter unprocessed measurement output from the sensor.',4,0,1); -INSERT INTO "parameter" VALUES(1140,'measurement_wavelength_chl','measurement_wavelength_chl',9,7,NULL,177,10,'Measurement Wavelength, Chlorophyll',NULL,NULL,NULL,NULL,NULL,'Wavelength used by sensor for its chlorophyll measurement .',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1140,'measurement_wavelength_chl','measurement_wavelength_chl',9,7,NULL,177,10,'Measurement Wavelength, Chlorophyll',NULL,NULL,NULL,NULL,NULL,'Wavelength used by sensor for its chlorophyll measurement .',1,NULL,1); INSERT INTO "parameter" VALUES(1141,'raw_signal_chl','raw_signal_chl',9,7,NULL,67,10,'Chlorophyll-a Measurement',NULL,NULL,NULL,NULL,'CHLAFLO_L0','Fluorometric chlorophyll-a unprocessed measurement output from the sensor.',4,0,1); -INSERT INTO "parameter" VALUES(1142,'measurement_wavelength_cdom','measurement_wavelength_cdom',9,7,NULL,177,10,'Measurement Wavelength, CDOM',NULL,NULL,NULL,NULL,NULL,'Wavelength used by sensor for its cdom measurement.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1142,'measurement_wavelength_cdom','measurement_wavelength_cdom',9,7,NULL,177,10,'Measurement Wavelength, CDOM',NULL,NULL,NULL,NULL,NULL,'Wavelength used by sensor for its cdom measurement.',1,NULL,1); INSERT INTO "parameter" VALUES(1143,'raw_signal_cdom','raw_signal_cdom',9,7,NULL,67,10,'CDOM Measurement',NULL,NULL,NULL,NULL,'CDOMFLO_L0','Fluorometric CDOM unprocessed measurement output from the sensor.',4,0,1); -INSERT INTO "parameter" VALUES(1144,'raw_internal_temp','raw_internal_temp',9,7,NULL,67,10,'Raw Internal Temperature',NULL,NULL,NULL,NULL,NULL,'Raw internal instrument thermistor signal output.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1144,'raw_internal_temp','raw_internal_temp',9,7,NULL,67,10,'Raw Internal Temperature',NULL,NULL,NULL,NULL,NULL,'Raw internal instrument thermistor signal output.',4,0,1); INSERT INTO "parameter" VALUES(1145,'signal_1_scale_factor','signal_1_scale_factor',9,1,NULL,129,7,'Signal 1 (Scattering) Scale Factor',NULL,2,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1146,'signal_1_offset','signal_1_offset',9,7,NULL,67,13,'Signal 1 (Scattering) Offset',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1147,'signal_2_scale_factor','signal_2_scale_factor',9,1,NULL,205,7,'Signal 2 (Chlorophyll) Scale Factor',NULL,2,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -1929,10 +1933,10 @@ INSERT INTO "parameter" VALUES(1171,'bt_eastward_velocity','bt_eastward_velocity INSERT INTO "parameter" VALUES(1172,'bt_northward_velocity','bt_northward_velocity',9,3,NULL,168,2,'BT Bottom Northward Velocity',NULL,0,NULL,NULL,NULL,'Northward bottom-tracked velocity',NULL,NULL,1); INSERT INTO "parameter" VALUES(1173,'bt_upward_velocity','bt_upward_velocity',9,3,NULL,168,2,'BT Bottom Upward Velocity',NULL,0,NULL,NULL,NULL,'Upward bottom-tracked velocity',NULL,NULL,1); INSERT INTO "parameter" VALUES(1174,'bt_error_velocity','bt_error_velocity',9,3,NULL,168,2,'BT Bottom Error Velocity',NULL,0,NULL,NULL,NULL,'Error bottom-tracked velocity',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1175,'bt_beam1_correlation','bt_beam1_correlation',9,10,NULL,67,10,'BT Bottom Beam 1 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1176,'bt_beam2_correlation','bt_beam2_correlation',9,10,NULL,67,10,'BT Bottom Beam 2 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1177,'bt_beam3_correlation','bt_beam3_correlation',9,10,NULL,67,10,'BT Bottom Beam 3 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1178,'bt_beam4_correlation','bt_beam4_correlation',9,10,NULL,67,10,'BT Bottom Beam 4 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1175,'bt_beam1_correlation','bt_beam1_correlation',9,10,NULL,67,10,'BT Bottom Beam 1 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1176,'bt_beam2_correlation','bt_beam2_correlation',9,10,NULL,67,10,'BT Bottom Beam 2 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1177,'bt_beam3_correlation','bt_beam3_correlation',9,10,NULL,67,10,'BT Bottom Beam 3 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1178,'bt_beam4_correlation','bt_beam4_correlation',9,10,NULL,67,10,'BT Bottom Beam 4 Correlation',NULL,0,NULL,NULL,NULL,'Contains the correlation magnitude in relation to the sea bot-tom (or surface) as determined by each beam. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); INSERT INTO "parameter" VALUES(1179,'bt_beam1_eval_amp','bt_beam1_eval_amp',9,10,NULL,67,10,'BT Bottom Beam 1 Evaluation Amplitude',NULL,0,NULL,NULL,NULL,'Contains the evaluation amplitude of the matching filter used in determining the strength of the bottom echo. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); INSERT INTO "parameter" VALUES(1180,'bt_beam2_eval_amp','bt_beam2_eval_amp',9,10,NULL,67,10,'BT Bottom Beam 2 Evaluation Amplitude',NULL,0,NULL,NULL,NULL,'Contains the evaluation amplitude of the matching filter used in determining the strength of the bottom echo. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); INSERT INTO "parameter" VALUES(1181,'bt_beam3_eval_amp','bt_beam3_eval_amp',9,10,NULL,67,10,'BT Bottom Beam 3 Evaluation Amplitude',NULL,0,NULL,NULL,NULL,'Contains the evaluation amplitude of the matching filter used in determining the strength of the bottom echo. Scaling: LSD = 1 count; Range = 0 to 255 counts',NULL,NULL,1); @@ -2024,10 +2028,10 @@ INSERT INTO "parameter" VALUES(1266,'m_climb_tot_time','m_climb_tot_time',9,1,NU INSERT INTO "parameter" VALUES(1267,'m_console_cd','m_console_cd',9,5,NULL,10,4,'State of RF Modem Carrier Detect',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1268,'m_console_on','m_console_on',9,5,NULL,10,4,'Power State of RF Modem',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1269,'m_cop_tickle','m_cop_tickle',9,5,NULL,10,4,'COP Is Tickled',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1270,'m_coulomb_amphr','m_coulomb_amphr',9,1,NULL,45,NULL,'Measured Integrated Current',NULL,4,NULL,NULL,NULL,'Measured Integrated current, i.e. energy',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1270,'m_coulomb_amphr','m_coulomb_amphr',9,1,NULL,228,NULL,'Measured Integrated Current',NULL,4,NULL,NULL,NULL,'Measured Integrated current, i.e. energy',NULL,NULL,1); INSERT INTO "parameter" VALUES(1271,'m_coulomb_amphr_raw','m_coulomb_amphr_raw',9,1,NULL,10,NULL,'Raw Integrated Current',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1272,'m_coulomb_amphr_total','m_coulomb_amphr_total',9,1,NULL,45,NULL,'Measured Total Persistant Current',NULL,4,NULL,NULL,NULL,'Measured total persistant amp-hours(Ah).',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1273,'m_coulomb_current','m_coulomb_current',9,1,NULL,44,NULL,'Measured Instantaneous Current',NULL,4,NULL,NULL,NULL,'Measured instantaneous current in amps.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1272,'m_coulomb_amphr_total','m_coulomb_amphr_total',9,1,NULL,228,NULL,'Measured Total Persistant Current',NULL,4,NULL,NULL,NULL,'Measured total persistant amp-hours(Ah).',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1273,'m_coulomb_current','m_coulomb_current',9,1,NULL,14,NULL,'Measured Instantaneous Current',NULL,4,NULL,NULL,NULL,'Measured instantaneous current in amps.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1274,'m_coulomb_current_raw','m_coulomb_current_raw',9,1,NULL,10,NULL,'Raw Coulomb Current',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1275,'m_cycle_number','m_cycle_number',9,1,NULL,10,NULL,'Measured Cycle Number',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1276,'m_depth','m_depth',9,1,NULL,122,NULL,'Measured Depth',NULL,4,NULL,NULL,NULL,'Measured depth in meters.',NULL,NULL,1); @@ -2089,8 +2093,8 @@ INSERT INTO "parameter" VALUES(1331,'m_gps_ignored_lat','m_gps_ignored_lat',9,2, INSERT INTO "parameter" VALUES(1332,'m_gps_ignored_lon','m_gps_ignored_lon',9,2,NULL,95,NULL,'GPS Ignored Longitude',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1333,'m_gps_invalid_lat','m_gps_invalid_lat',9,2,NULL,95,NULL,'GPS Invalid Latitude',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1334,'m_gps_invalid_lon','m_gps_invalid_lon',9,2,NULL,95,NULL,'GPS Invalid Longitude',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1335,'m_gps_lat','m_gps_lat',9,1,NULL,94,NULL,'Measured GPS Latitude','latitude',4,NULL,NULL,NULL,'Measured GPS latitude in decimal degrees. If this variable lacks necessary data, consider expanding the download timeframe to at least 12 hours.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1336,'m_gps_lon','m_gps_lon',9,1,NULL,93,NULL,'Measured GPS Longitude','longitude',4,NULL,NULL,NULL,'Measured GPS longitude in decimal degrees. If this variable lacks necessary data, consider expanding the download timeframe to at least 12 hours.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1335,'m_gps_lat','m_gps_lat',9,1,NULL,234,NULL,'Measured GPS Latitude','latitude',4,NULL,NULL,NULL,'Measured GPS latitude in decimal degrees. If this variable lacks necessary data, consider expanding the download timeframe to at least 12 hours.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1336,'m_gps_lon','m_gps_lon',9,1,NULL,233,NULL,'Measured GPS Longitude','longitude',4,NULL,NULL,NULL,'Measured GPS longitude in decimal degrees. If this variable lacks necessary data, consider expanding the download timeframe to at least 12 hours.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1337,'m_gps_mag_var','m_gps_mag_var',9,1,NULL,186,NULL,'GPS Mag Var',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1338,'m_gps_num_satellites','m_gps_num_satellites',9,1,NULL,10,NULL,'GPS Number of Satellites',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1339,'m_gps_on','m_gps_on',9,5,NULL,10,4,'GPS On',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2141,7 +2145,7 @@ INSERT INTO "parameter" VALUES(1383,'m_leak','m_leak',9,5,NULL,10,4,'Leak',NULL, INSERT INTO "parameter" VALUES(1384,'m_leakdetect_voltage','m_leakdetect_voltage',9,1,NULL,40,NULL,'Leak Detect Voltage',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1385,'m_leakdetect_voltage_forward','m_leakdetect_voltage_forward',9,1,NULL,40,NULL,'Leak Detect Voltage Forward',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1386,'m_leak_forward','m_leak_forward',9,5,NULL,10,4,'Leak Forward',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1387,'m_lithium_battery_relative_charge','m_lithium_battery_relative_charge',9,1,NULL,1,NULL,'Lithium Battery Relative Charge, %',NULL,4,NULL,NULL,NULL,'Relative cumulative charge',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1387,'m_lithium_battery_relative_charge','m_lithium_battery_relative_charge',9,1,NULL,179,NULL,'Lithium Battery Relative Charge, %',NULL,4,NULL,NULL,NULL,'Relative cumulative charge',NULL,NULL,1); INSERT INTO "parameter" VALUES(1388,'m_lithium_battery_status','m_lithium_battery_status',9,1,NULL,10,NULL,'Lithium Battery Status',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1389,'m_lithium_battery_time_to_charge','m_lithium_battery_time_to_charge',9,1,NULL,161,NULL,'Lithium Battery Time to Charge',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1390,'m_lithium_battery_time_to_discharge','m_lithium_battery_time_to_discharge',9,1,NULL,161,NULL,'Lithium Battery Time to Discharge',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2155,16 +2159,16 @@ INSERT INTO "parameter" VALUES(1397,'m_num_half_yos_in_segment','m_num_half_yos_ INSERT INTO "parameter" VALUES(1398,'m_pitch','m_pitch',9,1,NULL,186,NULL,'Measured Pitch',NULL,4,NULL,NULL,NULL,'The measured pitch of the glider in radians. >0 is nose up.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1399,'m_pitch_energy','m_pitch_energy',9,1,NULL,25,NULL,'Pitch Energy',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1400,'m_pitch_error','m_pitch_error',9,1,NULL,186,NULL,'Pitch Error',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1401,'m_present_secs_into_mission','m_present_secs_into_mission',9,1,NULL,191,NULL,'Elapsed Mission Time',NULL,4,NULL,NULL,NULL,'Secs since mission started',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1402,'m_present_time','m_present_time',9,2,NULL,198,NULL,'Time at the Start of the Cycle',NULL,4,NULL,NULL,NULL,'Secs since 1970 @ start of cycle',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1401,'m_present_secs_into_mission','m_present_secs_into_mission',9,1,NULL,191,NULL,'Elapsed Mission Time',NULL,4,NULL,NULL,NULL,'Seconds since mission started.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1402,'m_present_time','m_present_time',9,2,NULL,198,NULL,'Time at the Start of the Cycle',NULL,4,NULL,NULL,NULL,'Seconds since 1970-01-01 at the start of cycle.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1403,'m_pressure','m_pressure',9,1,NULL,47,NULL,'Seawater Pressure',NULL,4,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1404,'m_pressure_raw_voltage_sample0','m_pressure_raw_voltage_sample0',9,1,NULL,40,NULL,'Pressure Raw Voltage Sample 0',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1405,'m_pressure_raw_voltage_sample19','m_pressure_raw_voltage_sample19',9,1,NULL,40,NULL,'Pressure Raw Voltage Sample19',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1406,'m_pressure_voltage','m_pressure_voltage',9,1,NULL,40,NULL,'Pressure Voltage',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1407,'m_raw_altitude','m_raw_altitude',9,1,NULL,122,NULL,'Raw Altitude',NULL,4,NULL,NULL,NULL,'Height above bottom, unfiltered',NULL,NULL,1); INSERT INTO "parameter" VALUES(1408,'m_raw_altitude_rejected','m_raw_altitude_rejected',9,5,NULL,10,4,'Raw Altitude Rejected',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1409,'m_roll','m_roll',9,1,NULL,186,NULL,'Roll',NULL,4,NULL,NULL,NULL,'Glider roll in radians, >0 is port wing up',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1410,'m_science_clothesline_lag','m_science_clothesline_lag',9,1,NULL,191,NULL,'Science Clothesline Lag',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1409,'m_roll','m_roll',9,1,NULL,186,NULL,'Roll',NULL,4,NULL,NULL,NULL,'Glider roll in radians, >0 is port wing up',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1410,'calibrated_phase','m_science_clothesline_lag',9,1,NULL,191,NULL,'Science Clothesline Lag',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1411,'m_science_on','m_science_on',9,5,NULL,10,4,'Science On',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1412,'m_science_ready_for_consci','m_science_ready_for_consci',9,5,NULL,10,4,'Clothesline Ready for Consci',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1413,'m_science_sent_some_data','m_science_sent_some_data',9,1,NULL,10,NULL,'Science Sent Some Data',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2187,9 +2191,9 @@ INSERT INTO "parameter" VALUES(1429,'m_tcm3_poll_time','m_tcm3_poll_time',9,1,NU INSERT INTO "parameter" VALUES(1430,'m_tcm3_recv_start_time','m_tcm3_recv_start_time',9,1,NULL,175,NULL,'TCM3 Recv Start Time',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1431,'m_tcm3_recv_stop_time','m_tcm3_recv_stop_time',9,1,NULL,175,NULL,'TCM3 Recv Stop Time',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1432,'m_tcm3_stddeverr','m_tcm3_stddeverr',9,1,NULL,203,NULL,'TCM3 Standard Deviation Error',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1433,'m_tcm3_xcoverage','m_tcm3_xcoverage',9,1,NULL,1,NULL,'TCM3 X Coverage, %',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1434,'m_tcm3_ycoverage','m_tcm3_ycoverage',9,1,NULL,1,NULL,'TCM3 Y Coverage, %',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1435,'m_tcm3_zcoverage','m_tcm3_zcoverage',9,1,NULL,1,NULL,'TCM3 Z Coverage, %',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1433,'m_tcm3_xcoverage','m_tcm3_xcoverage',9,1,NULL,179,NULL,'TCM3 X Coverage, %',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1434,'m_tcm3_ycoverage','m_tcm3_ycoverage',9,1,NULL,179,NULL,'TCM3 Y Coverage, %',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1435,'m_tcm3_zcoverage','m_tcm3_zcoverage',9,1,NULL,179,NULL,'TCM3 Z Coverage, %',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1436,'m_thermal_acc_pres','m_thermal_acc_pres',9,1,NULL,47,NULL,'Thermal Acc Pressure',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1437,'m_thermal_acc_pres_voltage','m_thermal_acc_pres_voltage',9,1,NULL,40,NULL,'Thermal Acc Pressure Voltage',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1438,'m_thermal_acc_vol','m_thermal_acc_vol',9,1,NULL,138,NULL,'Thermal Acc Volume',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2203,9 +2207,9 @@ INSERT INTO "parameter" VALUES(1445,'m_tot_horz_dist','m_tot_horz_dist',9,1,NULL INSERT INTO "parameter" VALUES(1446,'m_tot_num_inflections','m_tot_num_inflections',9,1,NULL,10,NULL,'Number of Inflections',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1447,'m_tot_on_time','m_tot_on_time',9,1,NULL,71,NULL,'Powered on Time',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1448,'m_vacuum','m_vacuum',9,1,NULL,112,NULL,'Vacuum',NULL,4,NULL,NULL,NULL,'Internal glider pressure in Hg',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1449,'m_vehicle_temp','m_vehicle_temp',9,1,NULL,225,NULL,'Vehicle Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1449,'m_vehicle_temp','m_vehicle_temp',9,1,NULL,232,NULL,'Vehicle Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1450,'m_veh_overheat','m_veh_overheat',9,5,NULL,10,4,'Vehicle Over Heat',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1451,'m_veh_temp','m_veh_temp',9,1,NULL,225,NULL,'Veh Temperture',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1451,'m_veh_temp','m_veh_temp',9,1,NULL,232,NULL,'Veh Temperture',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1452,'m_vmg_to_wpt','m_vmg_to_wpt',9,1,NULL,123,NULL,'VMG to WPT',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1453,'m_vx_lmc','m_vx_lmc',9,1,NULL,123,NULL,'VX Lmc',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1454,'m_vy_lmc','m_vy_lmc',9,1,NULL,123,NULL,'VY Lmc',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2214,7 +2218,7 @@ INSERT INTO "parameter" VALUES(1456,'m_water_delta_vx','m_water_delta_vx',9,1,NU INSERT INTO "parameter" VALUES(1457,'m_water_delta_vy','m_water_delta_vy',9,1,NULL,123,NULL,'Water Delta VY',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1458,'m_water_depth','m_water_depth',9,1,NULL,122,NULL,'Seawater Depth',NULL,4,NULL,NULL,NULL,'Measured depth (m_depth) + measured altitude (m_altitude). -1 == unknown.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1459,'m_water_pressure','m_water_pressure',9,1,NULL,47,NULL,'Seawater Pressure',NULL,4,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1460,'m_water_temp','m_water_temp',9,1,NULL,225,NULL,'Seawater Temperature',NULL,4,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1460,'m_water_temp','m_water_temp',9,1,NULL,232,NULL,'Seawater Temperature',NULL,4,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1461,'m_water_vx','m_water_vx',9,1,NULL,123,NULL,'Seawater Velocity - X Component',NULL,4,NULL,NULL,NULL,'Measured water velocity: X component in m/s. LMC coordinate system.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1462,'m_water_vy','m_water_vy',9,1,NULL,123,NULL,'Seawater Velocity - Y Component',NULL,4,NULL,NULL,NULL,'Measured water velocity: Y component in m/s. LMC coordinate system.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1463,'m_why_started','m_why_started',9,5,NULL,10,4,'How GliderDos Started',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2224,10 +2228,10 @@ INSERT INTO "parameter" VALUES(1466,'x_last_wpt_lat','x_last_wpt_lat',9,1,NULL,9 INSERT INTO "parameter" VALUES(1467,'x_last_wpt_lon','x_last_wpt_lon',9,1,NULL,95,NULL,'X Last WPT Longitude',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1468,'x_system_clock_adjusted','x_system_clock_adjusted',9,1,NULL,191,NULL,'System Clock Adjusted',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1469,'sci_bsipar_is_installed','sci_bsipar_is_installed',9,5,NULL,10,4,'Bsipar Is Installed',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1470,'sci_bsipar_par','sci_bsipar_par',9,1,NULL,220,NULL,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,NULL,NULL,'OPTPARW_L0','Unscaled Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,0,1); +INSERT INTO "parameter" VALUES(1470,'sci_bsipar_par','sci_bsipar_par',9,1,NULL,248,NULL,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,NULL,NULL,'OPTPARW_L0','Unscaled Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,0,1); INSERT INTO "parameter" VALUES(1471,'sci_bsipar_sensor_volts','sci_bsipar_sensor_volts',9,1,NULL,40,NULL,'PAR Sensor Voltage',NULL,4,NULL,NULL,'OPTPARW_L0','Photosynthetically Active Radiation (PAR) unprocessed sensor reading.',4,0,1); INSERT INTO "parameter" VALUES(1472,'sci_bsipar_supply_volts','sci_bsipar_supply_volts',9,1,NULL,40,NULL,'Bsipar Supply Volts',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1473,'sci_bsipar_temp','sci_bsipar_temp',9,1,NULL,225,NULL,'PAR Sensor Temperature',NULL,4,NULL,NULL,NULL,'Temperature recorded by the glider Biospherical PAR sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1473,'sci_bsipar_temp','sci_bsipar_temp',9,1,NULL,232,NULL,'PAR Sensor Temperature',NULL,4,NULL,NULL,NULL,'Temperature recorded by the glider Biospherical PAR sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1475,'sci_ctd41cp_is_installed','sci_ctd41cp_is_installed',9,5,NULL,10,4,'Ctd41cp Is Installed',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1476,'sci_ctd41cp_timestamp','sci_ctd41cp_timestamp',9,2,NULL,198,NULL,'Ctd41cp Timestamp',NULL,4,NULL,NULL,NULL,'CTD41CP Timestamp in seconds since January 01, 1970. UTC',NULL,NULL,1); INSERT INTO "parameter" VALUES(1477,'sci_flbbcd_bb_ref','sci_flbbcd_bb_ref',9,1,NULL,10,NULL,'FLBBCD BB Ref',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2238,7 +2242,7 @@ INSERT INTO "parameter" VALUES(1481,'sci_flbbcd_cdom_sig','sci_flbbcd_cdom_sig', INSERT INTO "parameter" VALUES(1482,'sci_flbbcd_cdom_units','sci_flbbcd_cdom_units',9,1,NULL,181,NULL,'CDOM Concentration',NULL,4,NULL,NULL,'CDOMFLO_L1','Fluorometric CDOM Concentration is a measure of how much light has been re-emitted (fluoresced) from colored organic compounds found in the colored dissolved organic matter (CDOM) in seawater. Examples of CDOM include tannins (polyphenols that bind to proteins and other large molecules) or lignins (polymers of phenolic acids) from decaying plant material and byproducts from the decomposition of animals. It accounts for the tea-like color in seawater. CDOM is not particulate, but seawater can contain both CDOM and turbidity.',3,1,1); INSERT INTO "parameter" VALUES(1483,'sci_flbbcd_chlor_ref','sci_flbbcd_chlor_ref',9,1,NULL,10,NULL,'FLBBCD Chlorophyll Ref',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1484,'sci_flbbcd_chlor_sig','sci_flbbcd_chlor_sig',9,1,NULL,10,NULL,'FLBBCD Chlorophyll Sig',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1485,'sci_flbbcd_chlor_units','sci_flbbcd_chlor_units',9,1,NULL,217,NULL,'Chlorophyll-a Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',4,NULL,NULL,'CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength of light the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass as it is a dominant photosynthetic pigment.',3,1,1); +INSERT INTO "parameter" VALUES(1485,'sci_flbbcd_chlor_units','sci_flbbcd_chlor_units',9,1,NULL,243,NULL,'Chlorophyll-a Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',4,NULL,NULL,'CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength of light the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass as it is a dominant photosynthetic pigment.',3,1,1); INSERT INTO "parameter" VALUES(1486,'sci_flbbcd_is_installed','sci_flbbcd_is_installed',9,5,NULL,10,4,'FLORD/FLORT Is Installed',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1487,'sci_flbbcd_therm','sci_flbbcd_therm',9,1,NULL,10,NULL,'FLBBCD Therm',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1488,'sci_flbbcd_timestamp','sci_flbbcd_timestamp',9,2,NULL,198,NULL,'FLBBCD Timestamp',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -2247,38 +2251,38 @@ INSERT INTO "parameter" VALUES(1490,'sci_m_disk_usage','sci_m_disk_usage',9,1,NU INSERT INTO "parameter" VALUES(1491,'sci_m_free_heap','sci_m_free_heap',9,1,NULL,51,NULL,'Free Heap',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1492,'sci_m_min_free_heap','sci_m_min_free_heap',9,1,NULL,51,NULL,'Free Heap - Minimum',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1493,'sci_m_min_spare_heap','sci_m_min_spare_heap',9,1,NULL,51,NULL,'Sci M Min Spare Heap',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1494,'sci_m_present_secs_into_mission','sci_m_present_secs_into_mission',9,1,NULL,191,NULL,'Elapsed Mission Time Based on Science Derived Start Times',NULL,4,NULL,NULL,NULL,'Secs since mission started. Based on Science derived start time.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1495,'sci_m_present_time','sci_m_present_time',9,2,NULL,198,NULL,'Science Derived Time at the Start of the CycleC',NULL,4,NULL,NULL,NULL,'Written by science on every cycle their notion of time, secs since 1970',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1494,'sci_m_present_secs_into_mission','sci_m_present_secs_into_mission',9,1,NULL,191,NULL,'Elapsed Mission Time Based on Science Derived Start Times',NULL,4,NULL,NULL,NULL,'Seconds since mission started. Based on Science derived start time.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1495,'sci_m_present_time','sci_m_present_time',9,2,NULL,198,NULL,'Science Derived Time at the Start of the Cycle',NULL,4,NULL,NULL,NULL,'Seconds since 1970-01-01 at the start of cycle as written by science based on their notion of time.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1496,'sci_m_science_on','sci_m_science_on',9,5,NULL,10,4,'Sci M Science On',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1497,'sci_m_spare_heap','sci_m_spare_heap',9,1,NULL,51,NULL,'Sci M Spare Heap',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1502,'sci_oxy3835_wphase_is_installed','sci_oxy3835_wphase_is_installed',9,5,NULL,10,4,'DOSTA Is Installed',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1510,'sci_oxy4_c1amp','sci_oxy4_c1amp',9,1,NULL,10,NULL,'Sci Oxy4330f C1 Amp',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1511,'sci_oxy4_c1rph','sci_oxy4_c1rph',9,1,NULL,10,NULL,'Sci Oxy4330f C1 Rph',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1512,'sci_oxy4_c2amp','sci_oxy4_c2amp',9,1,NULL,10,NULL,'Sci Oxy4330f C2 Amp',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1513,'sci_oxy4_c2rph','sci_oxy4_c2rph',9,1,NULL,10,NULL,'Sci Oxy4330f C2 Rph',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1514,'sci_oxy4_calphase','sci_oxy4_calphase',9,1,NULL,95,NULL,'Optode Calibrated Phase',NULL,4,NULL,NULL,'DOCONCS-DEG_L0',NULL,4,0,1); +INSERT INTO "parameter" VALUES(1510,'sci_oxy4_c1amp','sci_oxy4_c1amp',9,1,NULL,144,NULL,'Blue Light Amplitude',NULL,4,NULL,NULL,NULL,'Amplitude measurement with blue excitation light from the Fast Response Dissolved Oxygen Instrument.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1511,'sci_oxy4_c1rph','sci_oxy4_c1rph',9,1,NULL,95,NULL,'Blue Light Phase',NULL,4,NULL,NULL,NULL,'Phase measurement with blue excitation light from the Fast Response Dissolved Oxygen Instrument.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1512,'sci_oxy4_c2amp','sci_oxy4_c2amp',9,1,NULL,144,NULL,'Red Light Amplitude',NULL,4,NULL,NULL,NULL,'Amplitude measurement with red excitation light from the Fast Response Dissolved Oxygen Instrument.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1513,'sci_oxy4_c2rph','sci_oxy4_c2rph',9,1,NULL,95,NULL,'Red Light Phase',NULL,4,NULL,NULL,NULL,'Phase measurement with red excitation light from the Fast Response Dissolved Oxygen Instrument.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1514,'sci_oxy4_calphase','sci_oxy4_calphase',9,1,NULL,95,NULL,'Calibrated Phase Difference',NULL,4,NULL,NULL,'DOCONCS-DEG_L0','Calibrated phase difference, used to calculate temperature compensated oxygen concentration. The phase difference is the difference between the phase obtained with blue light and the reference phase obtained with red light.',4,0,1); INSERT INTO "parameter" VALUES(1515,'sci_oxy4_is_installed','sci_oxy4_is_installed',9,5,NULL,10,4,'Sci Oxy4330f Is Installed',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1516,'sci_oxy4_oxygen','sci_oxy4_oxygen',9,1,NULL,218,NULL,'DO',NULL,4,NULL,NULL,'DOCONCS_L1','Dissolved Oxygen (DO) Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature from a collocated CTD.',3,1,1); -INSERT INTO "parameter" VALUES(1517,'sci_oxy4_rawtemp','sci_oxy4_rawtemp',9,1,NULL,10,NULL,'Oxy4330f Raw Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1518,'sci_oxy4_saturation','sci_oxy4_saturation',9,1,NULL,179,NULL,'Dissolved Oxygen Saturation',NULL,4,NULL,NULL,NULL,'Oxygen saturation is the percentage of dissolved oxygen relative to the absolute solubility of oxygen at a particular water temperature.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1519,'sci_oxy4_tcphase','sci_oxy4_tcphase',9,1,NULL,10,NULL,'Sci Oxy4330f TC Phase',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1520,'sci_oxy4_temp','sci_oxy4_temp',9,1,NULL,10,NULL,'Sci Oxy4330f Temperature',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1521,'sci_oxy4_timestamp','sci_oxy4_timestamp',9,2,NULL,10,NULL,'Sci Oxy4330f Timestamp',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1516,'sci_oxy4_oxygen','sci_oxy4_oxygen',9,1,NULL,246,NULL,'Dissolved Oxygen - Temp Corrected','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',4,NULL,NULL,'DOCONCS_L1','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature from a collocated CTD.',3,1,1); +INSERT INTO "parameter" VALUES(1517,'sci_oxy4_rawtemp','sci_oxy4_rawtemp',9,1,NULL,144,NULL,'Thermistor voltage',NULL,4,NULL,NULL,NULL,'Integrated thermistor voltage output from the Fast Response Dissolved Oxygen Instrument.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1518,'sci_oxy4_saturation','sci_oxy4_saturation',9,1,NULL,179,NULL,'Dissolved Oxygen Saturation',NULL,4,NULL,NULL,NULL,'Dissolved Oxygen saturation is the percentage of dissolved oxygen relative to the absolute solubility of oxygen at a particular water temperature.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1519,'sci_oxy4_tcphase','sci_oxy4_tcphase',9,1,NULL,95,NULL,'Temperature Compensated Phase',NULL,4,NULL,NULL,NULL,'Temperature compensated phase, used to calculate temperature compensated oxygen concentration. ',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1520,'sci_oxy4_temp','sci_oxy4_temp',9,1,NULL,231,NULL,'Temperature',NULL,4,NULL,NULL,NULL,'Seawater temperature from the Fast Response Dissolved Oxygen (DO) Instrument integrated thermistor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1521,'sci_oxy4_timestamp','sci_oxy4_timestamp',9,2,NULL,10,NULL,'Sci Oxy4330f Timestamp',NULL,4,NULL,NULL,NULL,'Timestamp of the Stable Response DO Instrument measurement.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1522,'sci_reqd_heartbeat','sci_reqd_heartbeat',9,1,NULL,191,NULL,'Reqd Heartbeat',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1523,'sci_software_ver','sci_software_ver',9,1,NULL,10,NULL,'Sci Software Version',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1524,'sci_wants_comms','sci_wants_comms',9,5,NULL,10,4,'Science Computer Wants Direct Comms',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1525,'sci_wants_surface','sci_wants_surface',9,5,NULL,10,4,'Science Wants to Surface',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1526,'sci_water_cond','sci_water_cond',9,1,NULL,38,NULL,'Seawater Conductivity','sea_water_electrical_conductivity',4,NULL,NULL,'CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); -INSERT INTO "parameter" VALUES(1527,'sci_water_pressure','sci_water_pressure',9,1,NULL,47,NULL,'Seawater Pressure',NULL,4,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(1528,'sci_water_temp','sci_water_temp',9,1,NULL,225,NULL,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,'TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(1526,'sci_water_cond','sea_water_electrical_conductivity',9,1,NULL,38,NULL,'Seawater Conductivity','sea_water_electrical_conductivity',4,NULL,NULL,'CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(1527,'sci_water_pressure','sci_water_pressure',9,1,NULL,47,NULL,'Seawater Pressure',NULL,4,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',4,1,1); +INSERT INTO "parameter" VALUES(1528,'sci_water_temp','sea_water_temperature',9,1,NULL,232,NULL,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,'TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); INSERT INTO "parameter" VALUES(1529,'sci_x_disk_files_removed','sci_x_disk_files_removed',9,1,NULL,10,NULL,'Number of Files Removed',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1530,'sci_x_sent_data_files','sci_x_sent_data_files',9,1,NULL,10,NULL,'Number of Log Files Sent via Last Zmodem Batch',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1533,'sci_dvl_is_installed','sci_dvl_is_installed',9,5,NULL,10,4,'DVL Is Installed',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(1537,'sci_flbb_bb_units','sci_flbb_bb_units',9,1,NULL,128,NULL,'Total Volume Scattering Coefficient',NULL,4,NULL,NULL,'FLUBSCT_L1','Total Volume Scattering Coefficient values represent the volume scattering from particles and the molecular scattering from water at a given wavelength of light and the default angle of 117 degrees for the ECO meter.',NULL,1,1); -INSERT INTO "parameter" VALUES(1538,'sci_flbb_chlor_units','sci_flbb_chlor_units',9,1,NULL,217,NULL,'Chlorophyll-a Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',4,NULL,NULL,'CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength of light the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass as it is a dominant photosynthetic pigment.',3,1,1); -INSERT INTO "parameter" VALUES(1552,'conductivity','conductivity',9,1,NULL,143,7,'Seawater Conductivity Measurement','sea_water_electrical_conductivity',4,NULL,NULL,NULL,'Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater. This is the unprocessed data in mS cm-1 that are output directly from the sensor which are then converted to salinity in S m-1.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1556,'lat','lat',9,2,NULL,94,5,'Latitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); -INSERT INTO "parameter" VALUES(1557,'lon','lon',9,2,NULL,93,5,'Longitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); +INSERT INTO "parameter" VALUES(1538,'sci_flbb_chlor_units','sci_flbb_chlor_units',9,1,NULL,243,NULL,'Chlorophyll-a Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',4,NULL,NULL,'CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength of light the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass as it is a dominant photosynthetic pigment.',3,1,1); +INSERT INTO "parameter" VALUES(1552,'conductivity','sea_water_electrical_conductivity',9,1,NULL,143,7,'Seawater Conductivity Measurement','sea_water_electrical_conductivity',4,NULL,NULL,NULL,'Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater. This is the unprocessed data in mS cm-1 that are output directly from the sensor which are then converted to salinity in S m-1.',3,1,1); +INSERT INTO "parameter" VALUES(1556,'lat','lat',9,2,NULL,234,5,'Latitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); +INSERT INTO "parameter" VALUES(1557,'lon','lon',9,2,NULL,233,5,'Longitude',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,0); INSERT INTO "parameter" VALUES(1558,'inductive_id','inductive_id',9,10,NULL,10,10,'Inductive ID',NULL,0,NULL,NULL,NULL,'Inductive id used to distinguish devices using inductive communications.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1559,'record_time_1904_uint32','record_time_1904_uint32',9,8,NULL,197,16,'Record Time Since 1904-01-01',NULL,0,NULL,NULL,NULL,'The record time in seconds since 01-01-1904.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1567,'adcps_pd12_eastward_seawater_velocity','adcps_pd12_eastward_seawater_velocity',8,1,NULL,123,7,'Eastward Seawater Velocity','eastward_sea_water_velocity',4,49,'{"lon": "CC_lon", "u": "PD714", "v": "PD715", "lat": "CC_lat", "dt": "PD7", "z": "CC_depth"}','VELPROF-VLE_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the eastward seawater velocity component for which magnetic variation is accounted.',3,1,1); @@ -2294,7 +2298,7 @@ INSERT INTO "parameter" VALUES(1581,'wfp_indicator','wfp_indicator',9,4,NULL,10, INSERT INTO "parameter" VALUES(1582,'wfp_ramp_status','wfp_ramp_status',9,3,NULL,10,5,'Ramp Status',NULL,0,NULL,NULL,NULL,'Defined Status',NULL,NULL,1); INSERT INTO "parameter" VALUES(1583,'wfp_profile_status','wfp_profile_status',9,3,NULL,10,5,'Profile Status',NULL,0,NULL,NULL,NULL,'Defined Status',NULL,NULL,1); INSERT INTO "parameter" VALUES(1584,'wfp_sensor_stop','wfp_sensor_stop',9,8,NULL,198,16,'Sensor Stop Time',NULL,0,NULL,NULL,NULL,'Time of Sensor Stop in Seconds since Jan 1 1970 UTC',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1585,'wfp_profile_stop','wfp_profile_stop',9,8,NULL,198,16,'Profile Stop Time',NULL,0,NULL,NULL,NULL,'Time of Profile Stop in Seconds since Jan 1 1970 UTC',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1585,'wfp_profile_stop','wfp_profile_stop',9,8,NULL,198,16,'Profile Stop Time',NULL,0,NULL,NULL,NULL,'Time of Profile Stop in Seconds since Jan 1 1970 UTC',NULL,NULL,1); INSERT INTO "parameter" VALUES(1586,'wfp_prof_current','wfp_prof_current',9,1,NULL,133,7,'Profile Current',NULL,4,NULL,NULL,NULL,'profile current',NULL,NULL,1); INSERT INTO "parameter" VALUES(1587,'wfp_prof_voltage','wfp_prof_voltage',9,1,NULL,40,7,'Profile Voltage',NULL,4,NULL,NULL,NULL,'profile voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(1588,'wfp_prof_pressure','wfp_prof_pressure',9,1,NULL,80,7,'Profile Pressure',NULL,4,NULL,NULL,NULL,'profile pressure',NULL,NULL,1); @@ -2358,7 +2362,7 @@ INSERT INTO "parameter" VALUES(1650,'adcps_jln_records','adcps_jln_records',9,8, INSERT INTO "parameter" VALUES(1651,'adcps_jln_length','adcps_jln_length',9,8,NULL,10,10,'Length',NULL,0,NULL,NULL,NULL,'Length in bytes',NULL,NULL,1); INSERT INTO "parameter" VALUES(1652,'adcps_jln_events','adcps_jln_events',9,8,NULL,10,10,'Number of Event',NULL,0,NULL,NULL,NULL,'Number of modem events',NULL,NULL,1); INSERT INTO "parameter" VALUES(1653,'adcps_jln_samples_written','adcps_jln_samples_written',9,8,NULL,10,10,'Samples Written',NULL,0,NULL,NULL,NULL,'Samples Written',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1657,'parad_k_par','parad_k_par',8,1,NULL,220,7,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',2,82,'{"output": "PD1578", "scale_wet": "CC_scale_wet", "dark_offset": "CC_dark_offset"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); +INSERT INTO "parameter" VALUES(1657,'parad_k_par','parad_k_par',8,1,NULL,248,7,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',2,82,'{"output": "PD1578", "scale_wet": "CC_scale_wet", "dark_offset": "CC_dark_offset"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); INSERT INTO "parameter" VALUES(1658,'rte_time','rte_time',9,6,NULL,10,17,'Measurement Date',NULL,NULL,NULL,NULL,NULL,'Measurement date in string format.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1659,'cg_eng_platform_time','cg_eng_platform_time',9,6,NULL,10,17,'Cg Eng Platform',NULL,NULL,NULL,NULL,NULL,'Time the status file was written',NULL,NULL,1); INSERT INTO "parameter" VALUES(1660,'cg_eng_platform_utime','cg_eng_platform_utime',9,2,NULL,191,7,'Cg Eng Platform Utime',NULL,3,NULL,NULL,NULL,'Time stamp in the buoy time when the file was created.',NULL,NULL,1); @@ -2426,9 +2430,9 @@ INSERT INTO "parameter" VALUES(1721,'cg_eng_mpic_main_v','cg_eng_mpic_main_v',9, INSERT INTO "parameter" VALUES(1722,'cg_eng_mpic_main_c','cg_eng_mpic_main_c',9,1,NULL,133,7,'Cg Eng Mpic Main C',NULL,0,NULL,NULL,NULL,'Master PIC current',NULL,NULL,1); INSERT INTO "parameter" VALUES(1723,'cg_eng_mpic_bat_v','cg_eng_mpic_bat_v',9,1,NULL,40,7,'Cg Eng Mpic Bat V',NULL,0,NULL,NULL,NULL,'Master PIC battery voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(1724,'cg_eng_mpic_bat_c','cg_eng_mpic_bat_c',9,1,NULL,133,7,'Cg Eng Mpic Bat C',NULL,0,NULL,NULL,NULL,'Master PIC battery current.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1725,'cg_eng_mpic_temp1','cg_eng_mpic_temp1',9,1,NULL,225,7,'Cg Eng Mpic Temp1',NULL,1,NULL,NULL,NULL,'Master PIC temperature at two measurement locations.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1726,'cg_eng_mpic_temp2','cg_eng_mpic_temp2',9,1,NULL,225,7,'Cg Eng Mpic Temp2',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(1727,'cg_eng_mpic_humid','cg_eng_mpic_humid',9,1,NULL,1,7,'Cg Eng Mpic Humd',NULL,1,NULL,NULL,NULL,'Master PIC humidity',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1725,'cg_eng_mpic_temp1','cg_eng_mpic_temp1',9,1,NULL,232,7,'Cg Eng Mpic Temp1',NULL,1,NULL,NULL,NULL,'Master PIC temperature at two measurement locations.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1726,'cg_eng_mpic_temp2','cg_eng_mpic_temp2',9,1,NULL,232,7,'Cg Eng Mpic Temp2',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(1727,'cg_eng_mpic_humid','cg_eng_mpic_humid',9,1,NULL,179,7,'Cg Eng Mpic Humd',NULL,1,NULL,NULL,NULL,'Master PIC humidity',NULL,NULL,1); INSERT INTO "parameter" VALUES(1728,'cg_eng_mpic_press','cg_eng_mpic_press',9,1,NULL,184,7,'Cg Eng Mpic Press',NULL,1,NULL,NULL,NULL,'Master PIC pressure',NULL,NULL,1); INSERT INTO "parameter" VALUES(1729,'cg_eng_mpic_gf_ena','cg_eng_mpic_gf_ena',9,4,NULL,10,7,'Cg Eng Mpic GF ENA',NULL,0,NULL,NULL,NULL,'Master PIC ground fault enable flag.',NULL,NULL,1); INSERT INTO "parameter" VALUES(1730,'cg_eng_mpic_gflt1','cg_eng_mpic_gflt1',9,1,NULL,201,7,'Cg Eng Mpic Gflt1',NULL,1,NULL,NULL,NULL,'Measured at: SBD',NULL,NULL,1); @@ -2467,8 +2471,8 @@ INSERT INTO "parameter" VALUES(1762,'cg_eng_gps_date','cg_eng_gps_date',9,8,NULL INSERT INTO "parameter" VALUES(1763,'cg_eng_gps_time','cg_eng_gps_time',9,8,NULL,67,10,'Cg Eng GPS Time',NULL,0,NULL,NULL,NULL,'GPS Time (numerical format)',NULL,NULL,1); INSERT INTO "parameter" VALUES(1764,'cg_eng_gps_latstr','cg_eng_gps_latstr',9,6,NULL,10,17,'Cg Eng GPS Latstr',NULL,NULL,NULL,NULL,NULL,'GPS Latitude (string format)',NULL,NULL,1); INSERT INTO "parameter" VALUES(1765,'cg_eng_gps_lonstr','cg_eng_gps_lonstr',9,6,NULL,10,17,'Cg Eng GPS Lonstr',NULL,NULL,NULL,NULL,NULL,'GPS Longitude (string format)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1766,'cg_eng_gps_lat','cg_eng_gps_lat',9,2,NULL,94,7,'Cg Eng GPS Lat',NULL,6,NULL,NULL,NULL,'GPS Latitude (numerical)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1767,'cg_eng_gps_lon','cg_eng_gps_lon',9,2,NULL,93,7,'Cg Eng GPS Lon',NULL,6,NULL,NULL,NULL,'GPS Longitude (numerical)',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1766,'cg_eng_gps_lat','cg_eng_gps_lat',9,2,NULL,234,7,'Cg Eng GPS Lat',NULL,6,NULL,NULL,NULL,'GPS Latitude (numerical)',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1767,'cg_eng_gps_lon','cg_eng_gps_lon',9,2,NULL,233,7,'Cg Eng GPS Lon',NULL,6,NULL,NULL,NULL,'GPS Longitude (numerical)',NULL,NULL,1); INSERT INTO "parameter" VALUES(1768,'cg_eng_gps_spd','cg_eng_gps_spd',9,1,NULL,28,7,'Cg Eng GPS Spd',NULL,2,NULL,NULL,NULL,'GPS Speed',NULL,NULL,1); INSERT INTO "parameter" VALUES(1769,'cg_eng_gps_cog','cg_eng_gps_cog',9,1,NULL,95,7,'Cg Eng GPS Cog',NULL,2,NULL,NULL,NULL,'GPS course over ground',NULL,NULL,1); INSERT INTO "parameter" VALUES(1770,'cg_eng_gps_fix','cg_eng_gps_fix',9,4,NULL,67,7,'Cg Eng GPS Fix',NULL,0,NULL,NULL,NULL,'GPS fix quality',NULL,NULL,1); @@ -2660,11 +2664,11 @@ INSERT INTO "parameter" VALUES(1955,'cg_eng_dmgrstatus_halted','cg_eng_dmgrstatu INSERT INTO "parameter" VALUES(1956,'cg_eng_dmgrstatus_failed','cg_eng_dmgrstatus_failed',9,4,NULL,67,10,'Cg Eng Dmgrstatus Failed',NULL,0,NULL,NULL,NULL,'Number of Failed Port Agents',NULL,NULL,1); INSERT INTO "parameter" VALUES(1957,'cg_eng_dmgrstatus_map','cg_eng_dmgrstatus_map',9,6,NULL,10,17,'Cg Eng Dmgrstatus Map',NULL,NULL,NULL,NULL,NULL,'Active Port Map',NULL,NULL,1); INSERT INTO "parameter" VALUES(1958,'cg_eng_dmgrstatus_update','cg_eng_dmgrstatus_update',9,1,NULL,191,7,'Cg Eng Dmgrstatus Update',NULL,3,NULL,NULL,NULL,'Time of last update',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1959,'ctdpf_ckl_seawater_pressure','ctdpf_ckl_seawater_pressure',8,1,NULL,80,5,'Seawater Pressure','sea_water_pressure',NULL,86,'{"p0": "PD195"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(1960,'ctdpf_ckl_seawater_temperature','ctdpf_ckl_seawater_temperature',8,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,85,'{"t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); -INSERT INTO "parameter" VALUES(1961,'ctdpf_ckl_seawater_conductivity','ctdpf_ckl_seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_conductivity',4,84,'{"c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); -INSERT INTO "parameter" VALUES(1964,'dofst_k_oxygen','dofst_k_oxygen',9,8,NULL,24,10,'DO Measurement',NULL,0,NULL,NULL,'DOCONCF_L0','Dissolved Oxygen (DO) unprocessed measurement from the Fast Response (Fastrep) Dissolved Oxygen Instrument.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(1965,'dofst_k_oxygen_l2','dofst_k_oxygen_l2',8,1,NULL,219,7,'DO - Pressure Temp Sal Corrected (CTD)','moles_of_oxygen_per_unit_mass_in_sea_water',4,88,'{"A": "CC_residual_temperature_correction_factor_a", "Soc": "CC_oxygen_signal_slope", "B": "CC_residual_temperature_correction_factor_b", "E": "CC_residual_temperature_correction_factor_e", "SP": "dpi_PRACSAL_L2", "lon": "CC_longitude", "C": "CC_residual_temperature_correction_factor_c", "Foffset": "CC_frequency_offset", "P": "PD1959", "frequency": "PD1964", "T": "PD1960", "lat": "CC_latitude"}','DOCONCF_L2','Dissolved Oxygen (DO) Concentration from the Fast Response (Fastrep) Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on shallow coastal profilers through rapid oxygen gradients.This data product is corrected for salinity- temperature- and depth from a collocated CTD.',3,2,1); +INSERT INTO "parameter" VALUES(1959,'ctdpf_ckl_seawater_pressure','sea_water_pressure',8,1,NULL,80,5,'Seawater Pressure','sea_water_pressure',NULL,86,'{"p0": "PD195"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(1960,'ctdpf_ckl_seawater_temperature','sea_water_temperature',8,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,85,'{"t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(1961,'ctdpf_ckl_seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_conductivity',4,84,'{"c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(1964,'dofst_k_oxygen','dofst_k_oxygen',9,8,NULL,24,10,'Raw Frequency',NULL,0,NULL,NULL,'DOCONCF_L0','Dissolved Oxygen (DO) unprocessed frequency measurement from the Fast Response (Fastrep) DO Instrument.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(1965,'dofst_k_oxygen_l2','dofst_k_oxygen_l2',8,1,NULL,247,7,'Dissolved Oxygen - Pressure Temp Sal Corrected (CTD)','moles_of_oxygen_per_unit_mass_in_sea_water',4,88,'{"A": "CC_residual_temperature_correction_factor_a", "Soc": "CC_oxygen_signal_slope", "B": "CC_residual_temperature_correction_factor_b", "E": "CC_residual_temperature_correction_factor_e", "SP": "dpi_PRACSAL_L2", "lon": "CC_longitude", "C": "CC_residual_temperature_correction_factor_c", "Foffset": "CC_frequency_offset", "P": "PD1959", "frequency": "PD1964", "T": "PD1960", "lat": "CC_latitude"}','DOCONCF_L2','Dissolved Oxygen (DO) concentration from the Fast Response (Fastrep) DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on shallow coastal profilers through rapid oxygen gradients.This data product is corrected for salinity, temperature, and depth from a collocated CTD.',3,2,1); INSERT INTO "parameter" VALUES(1973,'cg_eng_port_dlog1_lc','cg_eng_port_dlog1_lc',9,4,NULL,191,7,'Cg Eng Port Dlog1 LD',NULL,0,NULL,NULL,NULL,'Time (in number of seconds) since last communicated with the instrument (-1 = never)',NULL,NULL,1); INSERT INTO "parameter" VALUES(1974,'cg_eng_port_dlog2_lc','cg_eng_port_dlog2_lc',9,4,NULL,191,7,'Cg Eng Port Dlog2 LD',NULL,0,NULL,NULL,NULL,'Time (in number of seconds) since last communicated with the instrument (-1 = never)',NULL,NULL,1); INSERT INTO "parameter" VALUES(1975,'cg_eng_port_dlog3_lc','cg_eng_port_dlog3_lc',9,4,NULL,191,7,'Cg Eng Port Dlog3 LD',NULL,0,NULL,NULL,NULL,'Time (in number of seconds) since last communicated with the instrument (-1 = never)',NULL,NULL,1); @@ -2703,12 +2707,12 @@ INSERT INTO "parameter" VALUES(2015,'vel3d_k_corr2','vel3d_k_corr2',9,5,NULL,67, INSERT INTO "parameter" VALUES(2016,'vel3d_k_str_id','vel3d_k_str_id',9,10,NULL,67,10,'String ID, 0-15',NULL,0,NULL,NULL,NULL,'String ID, 0-15',NULL,NULL,1); INSERT INTO "parameter" VALUES(2017,'vel3d_k_string','vel3d_k_string',9,6,NULL,10,17,'String',NULL,NULL,NULL,NULL,NULL,'String',NULL,NULL,1); INSERT INTO "parameter" VALUES(2021,'sensor_available_speed','sensor_available_speed',5,5,NULL,10,4,'Sensor Available Speed',NULL,0,NULL,NULL,NULL,'False = sensor not available, True = sensor installed/available',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2022,'dosta_ln_optode_oxygen','dosta_ln_optode_oxygen',9,1,NULL,202,7,'Dissolved Oxygen Concentration',NULL,0,NULL,NULL,'DOCONCS_L1','Oxygen Reading',3,1,1); -INSERT INTO "parameter" VALUES(2023,'dosta_ln_optode_temperature','dosta_ln_optode_temperature',9,1,NULL,225,7,'Temperature',NULL,4,NULL,NULL,NULL,'Temperature Reading',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2022,'dosta_ln_optode_oxygen','dosta_ln_optode_oxygen',9,1,NULL,246,7,'Dissolved Oxygen - Temp Corrected','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',0,NULL,NULL,'DOCONCS_L1','Dissolved Oxygen (DO) concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument is connected through a CTD via a digital connection. This data product is corrected interally for temperature as measured by the DO thermistor.',3,1,1); +INSERT INTO "parameter" VALUES(2023,'dosta_ln_optode_temperature','dosta_ln_optode_temperature',9,1,NULL,232,7,'Optode Temperature',NULL,4,NULL,NULL,NULL,'Ambient temperature of the oxygen sensor as measured by the oxygen sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2024,'flord_wfp_chlorophyll','flord_wfp_chlorophyll',9,7,NULL,67,10,'Raw Chlorophyll Measurement',NULL,NULL,NULL,NULL,NULL,'Raw Chlorophyll Measurement',NULL,NULL,1); INSERT INTO "parameter" VALUES(2025,'flord_wfp_turbidity','flord_wfp_turbidity',9,7,NULL,67,10,'Raw Turbidity Measurement',NULL,NULL,NULL,NULL,NULL,'Raw Turbidity',NULL,NULL,1); INSERT INTO "parameter" VALUES(2026,'flord_wfp_temperature','flord_wfp_temperature',9,7,NULL,67,10,'Raw Temperature Measurement',NULL,NULL,NULL,NULL,NULL,'Raw Temperature Measurement',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2027,'wfp_decimation_factor','wfp_decimation_factor',9,7,NULL,10,10,'Decimation Factor',NULL,0,NULL,NULL,NULL,'C file decimation factor',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2027,'wfp_decimation_factor','wfp_decimation_factor',9,7,NULL,10,10,'Decimation Factor',NULL,0,NULL,NULL,NULL,'C file decimation factor',2,NULL,1); INSERT INTO "parameter" VALUES(2028,'trhph_system_info','trhph_system_info',9,6,NULL,10,17,'High Level System Information',NULL,NULL,NULL,NULL,NULL,'Standard string that indicates high-level system information.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2029,'trhph_eprom_status','trhph_eprom_status',5,5,10,10,4,'Eprom Memory Status',NULL,0,NULL,NULL,NULL,'Indicates Eprom Memory has been setup with parameters.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2030,'trhph_cycle_time','trhph_cycle_time',9,5,NULL,67,4,'Cycle Time',NULL,0,NULL,NULL,NULL,'The time in seconds or minutes to cycle between data points',NULL,NULL,1); @@ -2752,14 +2756,14 @@ INSERT INTO "parameter" VALUES(2071,'sysconfig_beam_config','sysconfig_beam_conf INSERT INTO "parameter" VALUES(2173,'sio_controller_id','sio_controller_id',9,8,NULL,10,16,'SIO Controller Id',NULL,NULL,NULL,NULL,NULL,'sio controller id',NULL,NULL,1); INSERT INTO "parameter" VALUES(2174,'sio_controller_timestamp','sio_controller_timestamp',9,8,NULL,198,16,'SIO Controller Time',NULL,NULL,NULL,NULL,NULL,'sio controller timestamp, seconds since 1970-01-01',NULL,NULL,1); INSERT INTO "parameter" VALUES(2175,'sio_eng_voltage','sio_eng_voltage',9,1,NULL,40,7,'SIO Eng Voltage',NULL,4,NULL,NULL,NULL,'sio eng voltage, V',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2176,'sio_eng_temperature','sio_eng_temperature',9,1,NULL,225,7,'SIO Eng Temperature Celsius',NULL,4,NULL,NULL,NULL,'sio eng temperature, degrees Celsius',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2176,'sio_eng_temperature','sio_eng_temperature',9,1,NULL,232,7,'SIO Eng Temperature Celsius',NULL,4,NULL,NULL,NULL,'sio eng temperature, degrees Celsius',NULL,NULL,1); INSERT INTO "parameter" VALUES(2177,'sio_eng_on_time','sio_eng_on_time',9,8,NULL,191,16,'SIO Eng on Time',NULL,NULL,NULL,NULL,NULL,'sio eng on time, seconds',NULL,NULL,1); INSERT INTO "parameter" VALUES(2178,'sio_eng_number_of_wakeups','sio_eng_number_of_wakeups',9,8,NULL,10,16,'SIO Eng Number of Wakeups',NULL,NULL,NULL,NULL,NULL,'sio eng number of wakeups',NULL,NULL,1); INSERT INTO "parameter" VALUES(2179,'sio_eng_clock_drift','sio_eng_clock_drift',9,4,NULL,191,7,'SIO Eng Clock Drift',NULL,NULL,NULL,NULL,NULL,'sio eng clock drift, seconds',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2180,'adcp_ambient_temp','adcp_ambient_temp',9,1,NULL,225,7,'Ambient Temperature',NULL,2,NULL,NULL,NULL,'ADCP Ancillary System Data produced in response to the "PT2" command.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2181,'adcp_attitude_temp','adcp_attitude_temp',9,1,NULL,225,7,'Attitude Temperature',NULL,2,NULL,NULL,NULL,'ADCP Ancillary System Data produced in response to the "PT2" command.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2180,'adcp_ambient_temp','adcp_ambient_temp',9,1,NULL,232,7,'Ambient Temperature',NULL,2,NULL,NULL,NULL,'ADCP Ancillary System Data produced in response to the "PT2" command.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2181,'adcp_attitude_temp','adcp_attitude_temp',9,1,NULL,232,7,'Attitude Temperature',NULL,2,NULL,NULL,NULL,'ADCP Ancillary System Data produced in response to the "PT2" command.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2182,'adcp_internal_moisture','adcp_internal_moisture',9,6,NULL,10,17,'Internal Moisture',NULL,NULL,NULL,NULL,NULL,'ADCP Ancillary System Data produced in response to the "PT2" command.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2183,'adcp_transmit_current','adcp_transmit_current',9,1,NULL,15,7,'Transmit Current',NULL,NULL,NULL,NULL,NULL,'ADCP Transmit Path produced in response to the "PT4" command.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2183,'adcp_transmit_current','adcp_transmit_current',9,1,NULL,14,7,'Transmit Current',NULL,NULL,NULL,NULL,NULL,'ADCP Transmit Path produced in response to the "PT4" command.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2184,'adcp_transmit_voltage','adcp_transmit_voltage',9,1,NULL,40,7,'Transmit Voltage',NULL,NULL,NULL,NULL,NULL,'ADCP Transmit Path produced in response to the "PT4" command.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2185,'adcp_transmit_impedance','adcp_transmit_impedance',9,1,NULL,33,7,'Transmit Impedance',NULL,NULL,NULL,NULL,NULL,'ADCP Transmit Path produced in response to the "PT4" command.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2186,'adcp_transmit_test_results','adcp_transmit_test_results',9,6,NULL,10,17,'Transmit Test Results',NULL,NULL,NULL,NULL,NULL,'ADCP Transmit Path produced in response to the "PT4" command.',NULL,NULL,1); @@ -2813,35 +2817,35 @@ INSERT INTO "parameter" VALUES(2272,'adcps_jln_upward_seawater_velocity2','adcps INSERT INTO "parameter" VALUES(2273,'adcps_jln_error_velocity2','adcps_jln_error_velocity2',8,1,NULL,123,7,'Error Seawater Velocity',NULL,4,129,'{"e": "PD717"}','VELPROF-EVL_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the error component.',3,1,1); INSERT INTO "parameter" VALUES(2274,'adcps_jln_eastward_seawater_velocity2','adcps_jln_eastward_seawater_velocity2',8,1,NULL,123,7,'Eastward Seawater Velocity','eastward_sea_water_velocity',4,49,'{"lon": "CC_longitude", "u": "PD714", "v": "PD715", "lat": "CC_latitude", "dt": "PD7", "z": "PD1639"}','VELPROF-VLE_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the eastward seawater velocity component for which magnetic variation is accounted.',3,1,1); INSERT INTO "parameter" VALUES(2275,'adcps_jln_northward_seawater_velocity2','adcps_jln_northward_seawater_velocity2',8,1,NULL,123,7,'Northward Seawater Velocity','northward_sea_water_velocity',4,50,'{"lon": "CC_longitude", "u": "PD714", "v": "PD715", "lat": "CC_latitude", "dt": "PD7", "z": "PD1639"}','VELPROF-VLN_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the northward seawater velocity component for which magnetic variation is accounted.',3,1,1); -INSERT INTO "parameter" VALUES(2276,'strain_pressure_sensor_serial_number','strain_pressure_sensor_serial_number',9,6,NULL,10,17,'Strain Pressure Sensor Serial Number',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2277,'volt0_type','volt0_type',9,6,NULL,10,17,'Volt 0 Type',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2278,'volt0_serial_number','volt0_serial_number',9,6,NULL,10,17,'Volt 0 Serial Number',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2279,'volt1_type','volt1_type',9,6,NULL,10,17,'Volt 1 Type',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2280,'volt1_serial_number','volt1_serial_number',9,6,NULL,10,17,'Volt 1 Serial Number',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2293,'profiles','profiles',9,4,NULL,67,10,'Profiles',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2294,'scans_to_average','scans_to_average',9,3,NULL,67,10,'Scans to Average',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2295,'min_cond_freq','min_cond_freq',9,3,NULL,67,10,'Minimum Conductivity Frequency',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2296,'pump_delay','pump_delay',9,3,NULL,67,10,'Pump Delay',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2297,'auto_run','auto_run',5,5,NULL,10,3,'Auto Run',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2298,'ignore_switch','ignore_switch',5,5,NULL,10,3,'Ignore Switch',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2299,'battery_type','battery_type',9,6,NULL,10,17,'Battery Type',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2300,'sbe63','sbe63',5,5,NULL,10,3,'SBE63 Pressure Sensor Flag',NULL,NULL,NULL,NULL,NULL,'SBE63 pressure sensor flag (Installed?: yes or no)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2301,'calphase','calphase',9,1,NULL,95,7,'Calibrated Phase',NULL,3,NULL,NULL,NULL,'Calibrated phase',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2302,'enable_temperature','enable_temperature',5,5,NULL,NULL,3,'Inclusion of Temperature in the Output',NULL,NULL,NULL,NULL,NULL,'Inclusion of Temperature in the output',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2304,'enable_humiditycomp','enable_humiditycomp',5,5,NULL,NULL,3,'Enable Humidity Compensation for Vapor Pressure',NULL,NULL,NULL,NULL,NULL,'Enable compensation for vapor pressure,-disable only for use in dry air or external humidity compensation',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2305,'enable_airsaturation','enable_airsaturation',5,5,NULL,NULL,3,'Enable Air Saturation',NULL,NULL,NULL,NULL,NULL,'Controls inclusion of air saturation(%) in the output',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2306,'enable_rawdata','enable_rawdata',5,5,NULL,NULL,3,'Enable Raw Data',NULL,NULL,NULL,NULL,NULL,'Controls inclusion of raw data in the output string',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2307,'analog_output','analog_output',9,6,NULL,10,17,'Analog Output',NULL,NULL,NULL,NULL,NULL,'Controls which parameter is presented at analog Output 1; O2Concentration, AirSaturation, CalPhase, Fixed1, Fixed2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2308,'interval','interval',9,1,NULL,194,3,'Interval',NULL,3,NULL,NULL,NULL,'Sampling Interval in seconds',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2310,'ext_volt0','ext_volt0',9,4,NULL,67,9,'External Voltage Reading From Oxygen Sensor',NULL,NULL,NULL,NULL,NULL,'SBE43 voltage reading',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2311,'profiler_timestamp','profiler_timestamp',9,2,NULL,198,16,'Surface-Piercing Profiler Timestamp, UTC',NULL,0,NULL,NULL,NULL,'Timestamp in seconds since January 01, 1970 UTC.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2312,'last_character_controller_id','last_character_controller_id',9,6,NULL,10,17,'Last Character Controller ID',NULL,NULL,NULL,NULL,NULL,'Last character of the controller''s ID',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2313,'day_of_year_number','day_of_year_number',9,7,NULL,10,15,'Day of Year Number',NULL,NULL,NULL,NULL,NULL,'1/1 is 0, 2/1 is 32, etc...',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2314,'fraction_of_day','fraction_of_day',9,7,NULL,10,15,'Fraction of Day',NULL,NULL,NULL,NULL,NULL,'midnight is 0, noon is 5000, 13:30 is 5625, etc...',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2315,'source_file','source_file',9,6,NULL,10,17,'Source File',NULL,NULL,NULL,NULL,NULL,'Full path to the source file',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2316,'processing_time','processing_time',9,6,NULL,10,17,'Processing Time',NULL,NULL,NULL,NULL,NULL,'Timestamp for when the source file was processed to ASCII',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2317,'preprocessing_software_version','preprocessing_software_version',9,6,NULL,10,17,'Preprocessing Software Version',NULL,NULL,NULL,NULL,NULL,'Version of the preprocessing SW',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2318,'start_date','start_date',9,6,NULL,10,17,'Start Date',NULL,NULL,NULL,NULL,NULL,'Date the profile started',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2276,'strain_pressure_sensor_serial_number','strain_pressure_sensor_serial_number',9,6,NULL,10,17,'Strain Pressure Sensor Serial Number',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2277,'volt0_type','volt0_type',9,6,NULL,10,17,'Volt 0 Type',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2278,'volt0_serial_number','volt0_serial_number',9,6,NULL,10,17,'Volt 0 Serial Number',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2279,'volt1_type','volt1_type',9,6,NULL,10,17,'Volt 1 Type',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2280,'volt1_serial_number','volt1_serial_number',9,6,NULL,10,17,'Volt 1 Serial Number',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2293,'profiles','profiles',9,4,NULL,67,10,'Profiles',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2294,'scans_to_average','scans_to_average',9,3,NULL,67,10,'Scans to Average',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2295,'min_cond_freq','min_cond_freq',9,3,NULL,67,10,'Minimum Conductivity Frequency',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2296,'pump_delay','pump_delay',9,3,NULL,67,10,'Pump Delay',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2297,'auto_run','auto_run',5,5,NULL,10,3,'Auto Run',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2298,'ignore_switch','ignore_switch',5,5,NULL,10,3,'Ignore Switch',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2299,'battery_type','battery_type',9,6,NULL,10,17,'Battery Type',NULL,NULL,NULL,NULL,NULL,NULL,2,NULL,1); +INSERT INTO "parameter" VALUES(2300,'sbe63','sbe63',5,5,NULL,10,3,'SBE63 Pressure Sensor Flag',NULL,NULL,NULL,NULL,NULL,'SBE63 pressure sensor flag (Installed?: yes or no)',2,NULL,1); +INSERT INTO "parameter" VALUES(2301,'calphase','calphase',9,1,NULL,95,7,'Calibrated Phase',NULL,3,NULL,NULL,NULL,'Calibrated phase',2,NULL,1); +INSERT INTO "parameter" VALUES(2302,'enable_temperature','enable_temperature',5,5,NULL,NULL,3,'Inclusion of Temperature in the Output',NULL,NULL,NULL,NULL,NULL,'Inclusion of Temperature in the output',2,NULL,1); +INSERT INTO "parameter" VALUES(2304,'enable_humiditycomp','enable_humiditycomp',5,5,NULL,NULL,3,'Enable Humidity Compensation for Vapor Pressure',NULL,NULL,NULL,NULL,NULL,'Enable compensation for vapor pressure, disable only for use in dry air or external humidity compensation',2,NULL,1); +INSERT INTO "parameter" VALUES(2305,'enable_airsaturation','enable_airsaturation',5,5,NULL,NULL,3,'Enable Air Saturation',NULL,NULL,NULL,NULL,NULL,'Controls inclusion of air saturation (%) in the output',2,NULL,1); +INSERT INTO "parameter" VALUES(2306,'enable_rawdata','enable_rawdata',5,5,NULL,NULL,3,'Enable Raw Data',NULL,NULL,NULL,NULL,NULL,'Controls inclusion of raw data in the output string',2,NULL,1); +INSERT INTO "parameter" VALUES(2307,'analog_output','analog_output',9,6,NULL,10,17,'Analog Output',NULL,NULL,NULL,NULL,NULL,'Controls which parameter is presented at analog Output 1; O2Concentration, AirSaturation, CalPhase, Fixed1, Fixed2',2,NULL,1); +INSERT INTO "parameter" VALUES(2308,'interval','interval',9,1,NULL,194,3,'Interval',NULL,3,NULL,NULL,NULL,'Sampling Interval in seconds',2,NULL,1); +INSERT INTO "parameter" VALUES(2310,'ext_volt0','ext_volt0',9,4,NULL,67,19,'External Voltage Reading From Oxygen Sensor',NULL,NULL,NULL,NULL,NULL,'SBE43 voltage reading',2,NULL,1); +INSERT INTO "parameter" VALUES(2311,'profiler_timestamp','profiler_timestamp',9,2,NULL,198,16,'Surface-Piercing Profiler Timestamp, UTC',NULL,0,NULL,NULL,NULL,'Timestamp in seconds since January 01, 1970 UTC.',2,NULL,1); +INSERT INTO "parameter" VALUES(2312,'last_character_controller_id','last_character_controller_id',9,6,NULL,10,17,'Last Character Controller ID',NULL,NULL,NULL,NULL,NULL,'Last character of the controller''s ID',2,NULL,1); +INSERT INTO "parameter" VALUES(2313,'day_of_year_number','day_of_year_number',9,7,NULL,10,15,'Day of Year Number',NULL,NULL,NULL,NULL,NULL,'1/1 is 0, 2/1 is 32, etc...',2,NULL,1); +INSERT INTO "parameter" VALUES(2314,'fraction_of_day','fraction_of_day',9,7,NULL,10,15,'Fraction of Day',NULL,NULL,NULL,NULL,NULL,'midnight is 0, noon is 5000, 13:30 is 5625, etc.',2,NULL,1); +INSERT INTO "parameter" VALUES(2315,'source_file','source_file',9,6,NULL,10,17,'Source File',NULL,NULL,NULL,NULL,NULL,'Full path to the source file',2,NULL,1); +INSERT INTO "parameter" VALUES(2316,'processing_time','processing_time',9,6,NULL,10,17,'Processing Time',NULL,NULL,NULL,NULL,NULL,'Timestamp for when the source file was processed to ASCII',2,NULL,1); +INSERT INTO "parameter" VALUES(2317,'preprocessing_software_version','preprocessing_software_version',9,6,NULL,10,17,'Preprocessing Software Version',NULL,NULL,NULL,NULL,NULL,'Version of the preprocessing SW',2,NULL,1); +INSERT INTO "parameter" VALUES(2318,'start_date','start_date',9,6,NULL,10,17,'Start Date',NULL,NULL,NULL,NULL,NULL,'Date the profile started',2,NULL,1); INSERT INTO "parameter" VALUES(2319,'channel_array','channel_array',3,8,NULL,67,10,'Downwelling Spectral Irradiance Measurement',NULL,0,NULL,NULL,'SPECTIR_L0','This data product is the Downwelling Spectral Irrandiance unprocessed measurements from the following wavebands: 1 = 412nm, 2 = 443nm, 3 = 490nm, 4 = 510nm, 5 = 555nm, 6 = 620nm, 7 = 683nm..',4,0,1); INSERT INTO "parameter" VALUES(2320,'nutnr_nitrogen_in_nitrate','nutnr_nitrogen_in_nitrate',9,1,NULL,153,7,'Nitrogen in Nitrate',NULL,NULL,NULL,NULL,NULL,'Nitrogen in Nitrate',NULL,NULL,1); INSERT INTO "parameter" VALUES(2321,'nutnr_absorbance_at_254_nm','nutnr_absorbance_at_254_nm',9,1,NULL,10,7,'Absorbance at 254 Nm',NULL,NULL,NULL,NULL,NULL,'Absorbance at 254 nm',NULL,NULL,1); @@ -2858,7 +2862,7 @@ INSERT INTO "parameter" VALUES(2331,'nutnr_fit_rmse','nutnr_fit_rmse',9,1,NULL,1 INSERT INTO "parameter" VALUES(2332,'nutnr_sensor_type','nutnr_sensor_type',9,6,NULL,10,17,'Sensor Type',NULL,NULL,NULL,NULL,NULL,'Sensor Type',NULL,NULL,1); INSERT INTO "parameter" VALUES(2333,'nutnr_sensor_version','nutnr_sensor_version',9,6,NULL,10,17,'Sensor Version',NULL,NULL,NULL,NULL,NULL,'Sensor Version',NULL,NULL,1); INSERT INTO "parameter" VALUES(2334,'nutnr_integrated_wiper','nutnr_integrated_wiper',9,6,NULL,10,17,'Integrated Wiper',NULL,NULL,NULL,NULL,NULL,'Integrated Wiper',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2335,'nutnr_ext_power_port','nutnr_ext_power_port',9,6,NULL,10,17,'External Power Port',NULL,NULL,NULL,NULL,NULL,'External Power Port',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2335,'nutnr_ext_power_port','nutnr_ext_power_port',9,6,NULL,NULL,17,'External Power Port',NULL,NULL,NULL,NULL,NULL,'External Power Port',NULL,NULL,1); INSERT INTO "parameter" VALUES(2336,'nutnr_lamp_shutter','nutnr_lamp_shutter',9,6,NULL,10,17,'Lamp Shutter',NULL,NULL,NULL,NULL,NULL,'Lamp Shutter',NULL,NULL,1); INSERT INTO "parameter" VALUES(2337,'nutnr_reference_detector','nutnr_reference_detector',9,6,NULL,10,17,'Reference Detector',NULL,NULL,NULL,NULL,NULL,'Reference Detector',NULL,NULL,1); INSERT INTO "parameter" VALUES(2338,'nutnr_wiper_protector','nutnr_wiper_protector',9,6,NULL,10,17,'Wiper Protector',NULL,NULL,NULL,NULL,NULL,'Wiper Protector',NULL,NULL,1); @@ -2884,8 +2888,8 @@ INSERT INTO "parameter" VALUES(2360,'nutnr_timeresl','nutnr_timeresl',9,6,NULL,1 INSERT INTO "parameter" VALUES(2361,'nutnr_log_file_type','nutnr_log_file_type',9,6,NULL,10,17,'Log File Type',NULL,NULL,NULL,NULL,NULL,'Log File Type',NULL,NULL,1); INSERT INTO "parameter" VALUES(2362,'nutnr_acqcount','nutnr_acqcount',9,7,NULL,67,10,'Acquisition Counter',NULL,NULL,NULL,NULL,NULL,'Acquisition Counter',NULL,NULL,1); INSERT INTO "parameter" VALUES(2363,'nutnr_cntcount','nutnr_cntcount',9,7,NULL,67,10,'Continuous Counter',NULL,NULL,NULL,NULL,NULL,'Continuous Counter',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2364,'nutnr_dac_nitrate_min','nutnr_dac_nitrate_min',9,1,NULL,213,7,'DAC Minimum Nitrate',NULL,NULL,NULL,NULL,NULL,'DAC Minimum Nitrate',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2365,'nutnr_dac_nitrate_max','nutnr_dac_nitrate_max',9,1,NULL,213,7,'DAC Maximum Nitrate',NULL,NULL,NULL,NULL,NULL,'DAC Maximum Nitrate',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2364,'nutnr_dac_nitrate_min','nutnr_dac_nitrate_min',9,1,NULL,245,7,'DAC Minimum Nitrate',NULL,NULL,NULL,NULL,NULL,'DAC Minimum Nitrate',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2365,'nutnr_dac_nitrate_max','nutnr_dac_nitrate_max',9,1,NULL,245,7,'DAC Maximum Nitrate',NULL,NULL,NULL,NULL,NULL,'DAC Maximum Nitrate',NULL,NULL,1); INSERT INTO "parameter" VALUES(2366,'nutnr_data_wavelength_low','nutnr_data_wavelength_low',9,1,NULL,177,7,'Data Wavelength Low',NULL,NULL,NULL,NULL,NULL,'Data Wavelength Low',NULL,NULL,1); INSERT INTO "parameter" VALUES(2370,'nutnr_msg_level','nutnr_msg_level',9,6,NULL,10,17,'Message Level',NULL,NULL,NULL,NULL,NULL,'Message Level',NULL,NULL,1); INSERT INTO "parameter" VALUES(2371,'nutnr_msg_file_size','nutnr_msg_file_size',9,10,NULL,30,10,'Message File Size',NULL,NULL,NULL,NULL,NULL,'Message File Size',NULL,NULL,1); @@ -2912,7 +2916,7 @@ INSERT INTO "parameter" VALUES(2391,'nutnr_apf_timeout','nutnr_apf_timeout',9,1, INSERT INTO "parameter" VALUES(2392,'nutnr_lamp_stability_time','nutnr_lamp_stability_time',9,10,NULL,191,10,'Lamp Stability Time',NULL,NULL,NULL,NULL,NULL,'Lamp Stability Time',NULL,NULL,1); INSERT INTO "parameter" VALUES(2393,'nutnr_ref_min_lamp_on','nutnr_ref_min_lamp_on',9,7,NULL,191,10,'Reference Minute at Lamp-On',NULL,NULL,NULL,NULL,NULL,'Reference Minute at Lamp-On',NULL,NULL,1); INSERT INTO "parameter" VALUES(2394,'nutnr_skip_sleep','nutnr_skip_sleep',9,6,NULL,10,17,'Skip Sleep at Start',NULL,NULL,NULL,NULL,NULL,'Skip Sleep at Start',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2395,'nutnr_lamp_switchoff_temp','nutnr_lamp_switchoff_temp',9,10,NULL,225,10,'Lamp Switch-Off Temperature',NULL,NULL,NULL,NULL,NULL,'Lamp Switch-Off Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2395,'nutnr_lamp_switchoff_temp','nutnr_lamp_switchoff_temp',9,10,NULL,232,10,'Lamp Switch-Off Temperature',NULL,NULL,NULL,NULL,NULL,'Lamp Switch-Off Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(2396,'nutnr_spec_integration_period','nutnr_spec_integration_period',9,7,NULL,175,10,'Spectrometer Integration Period',NULL,NULL,NULL,NULL,NULL,'Spectrometer Integration Period',NULL,NULL,1); INSERT INTO "parameter" VALUES(2397,'nutnr_dark_avg','nutnr_dark_avg',9,10,NULL,10,10,'Dark Averages',NULL,NULL,NULL,NULL,NULL,'Dark Averages',NULL,NULL,1); INSERT INTO "parameter" VALUES(2398,'nutnr_light_avg','nutnr_light_avg',9,10,NULL,10,10,'Light Averages',NULL,NULL,NULL,NULL,NULL,'Light Averages',NULL,NULL,1); @@ -2976,17 +2980,17 @@ INSERT INTO "parameter" VALUES(2457,'massp_pressure_p2','massp_pressure_p2',9,3, INSERT INTO "parameter" VALUES(2458,'massp_pressure_p3','massp_pressure_p3',9,3,NULL,116,5,'Pressure From Sensor P3',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2459,'massp_pressure_p4','massp_pressure_p4',9,3,NULL,116,5,'Pressure From Sensor P4',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2460,'massp_housing_pressure','massp_housing_pressure',9,3,NULL,116,5,'Pressure in the Housing',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2461,'massp_housing_humidity','massp_housing_humidity',9,3,NULL,1,5,'Housing Humidity',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2462,'massp_temp_main_control','massp_temp_main_control',9,3,NULL,96,5,'Temperature of the Main Control Board',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2463,'massp_temp_main_rough','massp_temp_main_rough',9,3,NULL,96,5,'Temperature of the Main Roughing Pump',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2464,'massp_temp_sec_rough','massp_temp_sec_rough',9,3,NULL,96,5,'Temperature of the Secondary Roughing Pump',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2465,'massp_temp_main_24v','massp_temp_main_24v',9,3,NULL,96,5,'Temperature of the Main 24V DC/DC Converter',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2466,'massp_temp_sec_24v','massp_temp_sec_24v',9,3,NULL,96,5,'Temperature of the Secondary 24V DC/DC Converter',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2467,'massp_temp_analyzer','massp_temp_analyzer',9,3,NULL,96,5,'Temperature of the Analyzer',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2468,'massp_temp_nafion','massp_temp_nafion',9,3,NULL,96,5,'Temperature of the Nafion Drier Thermal Insulation',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2469,'massp_temp_ion','massp_temp_ion',9,3,NULL,96,5,'Temperature of the Ionisation Chamber',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2461,'massp_housing_humidity','massp_housing_humidity',9,3,NULL,179,5,'Housing Humidity',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2462,'massp_temp_main_control','massp_temp_main_control',9,3,NULL,232,5,'Temperature of the Main Control Board',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2463,'massp_temp_main_rough','massp_temp_main_rough',9,3,NULL,232,5,'Temperature of the Main Roughing Pump',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2464,'massp_temp_sec_rough','massp_temp_sec_rough',9,3,NULL,232,5,'Temperature of the Secondary Roughing Pump',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2465,'massp_temp_main_24v','massp_temp_main_24v',9,3,NULL,232,5,'Temperature of the Main 24V DC/DC Converter',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2466,'massp_temp_sec_24v','massp_temp_sec_24v',9,3,NULL,232,5,'Temperature of the Secondary 24V DC/DC Converter',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2467,'massp_temp_analyzer','massp_temp_analyzer',9,3,NULL,232,5,'Temperature of the Analyzer',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2468,'massp_temp_nafion','massp_temp_nafion',9,3,NULL,232,5,'Temperature of the Nafion Drier Thermal Insulation',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2469,'massp_temp_ion','massp_temp_ion',9,3,NULL,232,5,'Temperature of the Ionisation Chamber',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2470,'massp_ph_meter_value','massp_ph_meter_value',9,3,NULL,10,5,'pH Meter Value',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2471,'massp_inlet_temp_value','massp_inlet_temp_value',9,3,NULL,96,5,'External Temperature at the Inlet',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2471,'massp_inlet_temp_value','massp_inlet_temp_value',9,3,NULL,232,5,'External Temperature at the Inlet',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2472,'massp_ph_meter_status','massp_ph_meter_status',9,3,NULL,10,5,'Status of the pH Analog Signal',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2473,'massp_inlet_temp_status','massp_inlet_temp_status',9,3,NULL,10,5,'Status of the External Temperature MicroLAN',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2474,'massp_power_relay_turbo','massp_power_relay_turbo',9,5,NULL,10,4,'Turbo Pump Power Relay Status',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -3017,15 +3021,15 @@ INSERT INTO "parameter" VALUES(2498,'massp_cal_bag3_minutes','massp_cal_bag3_min INSERT INTO "parameter" VALUES(2499,'massp_nafion_heater_status','massp_nafion_heater_status',9,5,NULL,10,4,'Nafion Heater Settings',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2500,'massp_nafion_heater1_power','massp_nafion_heater1_power',9,5,NULL,10,4,'Nafion Heater1 Power Setting',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2501,'massp_nafion_heater2_power','massp_nafion_heater2_power',9,5,NULL,10,4,'Nafion Heater2 Power Setting',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2502,'massp_nafion_core_temp','massp_nafion_core_temp',9,5,NULL,97,4,'Nafion Core Temperature',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2502,'massp_nafion_core_temp','massp_nafion_core_temp',9,5,NULL,232,4,'Nafion Core Temperature',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2503,'massp_nafion_elapsed_time','massp_nafion_elapsed_time',9,3,NULL,194,5,'Nafion Regeneration Time Elapsed',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2504,'massp_ion_chamber_heater_status','massp_ion_chamber_heater_status',9,5,NULL,10,4,'Ion Chamber Heater Settings',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2505,'massp_ion_chamber_heater1_status','massp_ion_chamber_heater1_status',9,5,NULL,10,4,'Ion Chamber Heater1 Status',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2506,'massp_ion_chamber_heater2_status','massp_ion_chamber_heater2_status',9,5,NULL,10,4,'Ion Chamber Heater2 Status',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2507,'massp_turbo_drive_current','massp_turbo_drive_current',9,3,NULL,52,5,'Current Used by Turbopump Motor',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2508,'massp_turbo_drive_voltage','massp_turbo_drive_voltage',9,3,NULL,53,5,'Voltage at Turbopump Motor',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2509,'massp_turbo_bearing_temperature','massp_turbo_bearing_temperature',9,3,NULL,96,5,'Temperature of Turbopump Bearing',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2510,'massp_turbo_motor_temperature','massp_turbo_motor_temperature',9,3,NULL,96,5,'Temperature of Turbopump Bearing',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2509,'massp_turbo_bearing_temperature','massp_turbo_bearing_temperature',9,3,NULL,232,5,'Temperature of Turbopump Bearing',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2510,'massp_turbo_motor_temperature','massp_turbo_motor_temperature',9,3,NULL,232,5,'Temperature of Turbopump Bearing',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2511,'massp_turbo_rotation_speed','massp_turbo_rotation_speed',9,3,NULL,190,5,'Rotational Speed of the Turbopump',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2512,'massp_rga_device_id','massp_rga_device_id',9,6,NULL,10,17,'RGA ID String',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2513,'massp_rga_electron_energy','massp_rga_electron_energy',9,5,NULL,101,4,'Electron Energy',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -3043,12 +3047,12 @@ INSERT INTO "parameter" VALUES(2524,'massp_rga_readings_per_scan','massp_rga_rea INSERT INTO "parameter" VALUES(2525,'massp_scan_data','massp_scan_data',3,4,NULL,13,7,'Array of Measurements Representing One Scan of the RGA',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2526,'hpies_data_valid','hpies_data_valid',5,10,NULL,10,10,'Data Valid',NULL,NULL,NULL,NULL,NULL,'indicates if the data is valid (CRC matches data)',NULL,NULL,1); INSERT INTO "parameter" VALUES(2527,'hpies_ver','hpies_ver',9,10,NULL,10,10,'Version Number',NULL,NULL,NULL,NULL,NULL,'two-digit version number',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2528,'hpies_type','hpies_type',9,6,NULL,10,17,'Data Type',NULL,NULL,NULL,NULL,NULL,'"E" for EF data -"C" for calibration data -"f" for motor data in forward direction -"r" for motor data in reverse direction',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2529,'hpies_dest','hpies_dest',9,6,NULL,10,17,'Pinched Tube',NULL,NULL,NULL,NULL,NULL,'"a" for pinching the "A" tubes -"b" for pinching the "B" tubes',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2528,'hpies_type','hpies_type',9,6,NULL,10,17,'Data Type',NULL,NULL,NULL,NULL,NULL,'"E" for EF data + "C" for calibration data + "f" for motor data in forward direction + "r" for motor data in reverse direction',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2529,'hpies_dest','hpies_dest',9,6,NULL,10,17,'Pinched Tube',NULL,NULL,NULL,NULL,NULL,'"a" for pinching the "A" tubes + "b" for pinching the "B" tubes',NULL,NULL,1); INSERT INTO "parameter" VALUES(2530,'hpies_ibeg','hpies_ibeg',9,7,NULL,10,10,'Index Begin',NULL,NULL,NULL,NULL,NULL,'index of first A/D buffer value',NULL,NULL,1); INSERT INTO "parameter" VALUES(2531,'hpies_iend','hpies_iend',9,7,NULL,10,10,'Index End',NULL,NULL,NULL,NULL,NULL,'index+1 of last A/D buffer value',NULL,NULL,1); INSERT INTO "parameter" VALUES(2532,'hpies_hcno','hpies_hcno',9,7,NULL,10,10,'Half Cycle Number',NULL,NULL,NULL,NULL,NULL,'half-cycle number which increments',NULL,NULL,1); @@ -3078,14 +3082,14 @@ INSERT INTO "parameter" VALUES(2556,'hpies_hcno','hpies_hcno',9,10,NULL,10,10,'H INSERT INTO "parameter" VALUES(2557,'hpies_hcno_last_cal','hpies_hcno_last_cal',9,10,NULL,10,10,'Half Cycle Number Last Calibration',NULL,NULL,NULL,NULL,NULL,'Half cycle number of last calibration',NULL,NULL,1); INSERT INTO "parameter" VALUES(2558,'hpies_hcno_last_comp','hpies_hcno_last_comp',9,10,NULL,10,10,'Half Cycle Number Last Compass Value',NULL,NULL,NULL,NULL,NULL,'Half cycle number of last compass value',NULL,NULL,1); INSERT INTO "parameter" VALUES(2559,'hpies_ofile','hpies_ofile',9,6,NULL,10,17,'Current Output Filename',NULL,NULL,NULL,NULL,NULL,'Current output filename',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2560,'hpies_ifok','hpies_ifok',9,6,NULL,10,17,'File Write Status',NULL,NULL,NULL,NULL,NULL,'File write status "NG" on error, "OK" if still appending',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2560,'hpies_ifok','hpies_ifok',9,6,NULL,10,17,'File Write Status',NULL,NULL,NULL,NULL,NULL,'File write status "NG" on error, "OK" if still appending',NULL,NULL,1); INSERT INTO "parameter" VALUES(2561,'hpies_compass_fwrite_attempted','hpies_compass_fwrite_attempted',9,10,NULL,10,10,'Compass Records',NULL,NULL,NULL,NULL,NULL,'Number of compass records written to ',NULL,NULL,1); INSERT INTO "parameter" VALUES(2562,'hpies_compass_fwrite_ofp_null','hpies_compass_fwrite_ofp_null',9,10,NULL,10,10,'Compass Write Attempts OFile Corrupt',NULL,NULL,NULL,NULL,NULL,'Number of attempts to write compass data when is corrupt',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2563,'hpies_mot_pwr_count','hpies_mot_pwr_count',9,10,NULL,10,10,'Motor Power Count',NULL,NULL,NULL,NULL,NULL,'Up/down counter of motor power on/off. Should be zero.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2564,'hpies_start_motor_count','hpies_start_motor_count',9,8,NULL,10,10,'Start Motor Count',NULL,NULL,NULL,NULL,NULL,'Number of main service loops while motor current is being sampled.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2563,'hpies_mot_pwr_count','hpies_mot_pwr_count',9,10,NULL,10,10,'Motor Power Count',NULL,NULL,NULL,NULL,NULL,'Up/down counter of motor power on/off. Should be zero.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2564,'hpies_start_motor_count','hpies_start_motor_count',9,8,NULL,10,10,'Start Motor Count',NULL,NULL,NULL,NULL,NULL,'Number of main service loops while motor current is being sampled.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2565,'hpies_compass_port_open_errs','hpies_compass_port_open_errs',9,10,NULL,10,10,'Compass Port Open Failures',NULL,NULL,NULL,NULL,NULL,'Number of failures to open the compass serial port.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2566,'hpies_compass_port_nerr','hpies_compass_port_nerr',9,10,NULL,10,10,'Compass Port Read Decode Errors',NULL,NULL,NULL,NULL,NULL,'This should be incremented when there are read or decode errors from the compass. Always zero (never changed in code). Will be fixed to indicate read error count',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2567,'hpies_tuport_compass_null_count','hpies_tuport_compass_null_count',9,10,NULL,10,10,'Compass Port Closed Count',NULL,NULL,NULL,NULL,NULL,'Number of times compass port is found closed when trying to read it.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2566,'hpies_compass_port_nerr','hpies_compass_port_nerr',9,10,NULL,10,10,'Compass Port Read Decode Errors',NULL,NULL,NULL,NULL,NULL,'This should be incremented when there are read or decode errors from the compass. Always zero (never changed in code). Will be fixed to indicate read error count',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2567,'hpies_tuport_compass_null_count','hpies_tuport_compass_null_count',9,10,NULL,10,10,'Compass Port Closed Count',NULL,NULL,NULL,NULL,NULL,'Number of times compass port is found closed when trying to read it.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2568,'hpies_irq2_count','hpies_irq2_count',9,10,NULL,10,10,'IRQ2 Interrupt Count',NULL,NULL,NULL,NULL,NULL,'Number of interrupt requests on IRQ2 line of 68332.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2569,'hpies_spurious_count','hpies_spurious_count',9,10,NULL,10,10,'Spurious Count',NULL,NULL,NULL,NULL,NULL,'Number of spurious interrupts to the 68332.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2570,'hpies_spsr_unknown_count','hpies_spsr_unknown_count',9,10,NULL,10,10,'SPSR Unknown Count',NULL,NULL,NULL,NULL,NULL,'Number of times the SPSR register bits 5 and 6 are set.',NULL,NULL,1); @@ -3093,21 +3097,21 @@ INSERT INTO "parameter" VALUES(2571,'hpies_pitperiod_zero_count','hpies_pitperio INSERT INTO "parameter" VALUES(2572,'hpies_adc_raw_overflow_count','hpies_adc_raw_overflow_count',9,10,NULL,10,10,'ADC Raw Overflow Count',NULL,NULL,NULL,NULL,NULL,'Number of times the analog to digital converter circular buffer overflows.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2573,'hpies_max7317_add_queue_errs','hpies_max7317_add_queue_errs',9,10,NULL,10,10,'Max7317 Add Queue Errors',NULL,NULL,NULL,NULL,NULL,'Number of times the max7317 queue overflows.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2574,'hpies_wsrun_rtc_pinch_end_nerr','hpies_wsrun_rtc_pinch_end_nerr',9,10,NULL,10,10,'Water Switch Pinch Timing Errors',NULL,NULL,NULL,NULL,NULL,'Number of times water switch pinch timing is incorrect.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2575,'hpies_ies_timestamp','hpies_ies_timestamp',9,9,NULL,194,10,'IES Timestamp',NULL,NULL,NULL,NULL,NULL,'IES instrument time in elapsed seconds since midnight Jan 1, 1970. Based on the Bliley oscillator - very stable',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2575,'hpies_ies_timestamp','hpies_ies_timestamp',9,9,NULL,194,10,'IES Timestamp',NULL,NULL,NULL,NULL,NULL,'IES instrument time in elapsed seconds since midnight Jan 1, 1970. Based on the Bliley oscillator - very stable',NULL,NULL,1); INSERT INTO "parameter" VALUES(2576,'hpies_n_travel_times','hpies_n_travel_times',9,10,NULL,10,10,'Number of Travel Times',NULL,NULL,NULL,NULL,NULL,'Number of travel times should be 4 (if not, the corresponding travel time fields will not be populated)',NULL,NULL,1); INSERT INTO "parameter" VALUES(2577,'hpies_travel_time1','hpies_travel_time1',9,8,NULL,12,10,'Round-Trip Acoustic Travel Time 1',NULL,NULL,NULL,NULL,'IESRATT_L0','1st Round-trip acoustic travel time (RATT) measurement in 10 useconds.',4,0,1); INSERT INTO "parameter" VALUES(2578,'hpies_travel_time2','hpies_travel_time2',9,8,NULL,12,10,'Round-Trip Acoustic Travel Time 2',NULL,NULL,NULL,NULL,'IESRATT_L0','2nd Round-trip acoustic travel time (RATT) measurement in 10 useconds.',4,0,1); INSERT INTO "parameter" VALUES(2579,'hpies_travel_time3','hpies_travel_time3',9,8,NULL,12,10,'Round-Trip Acoustic Travel Time 3',NULL,NULL,NULL,NULL,'IESRATT_L0','3rd Round-trip acoustic travel time (RATT) measurement in 10 useconds.',4,0,1); INSERT INTO "parameter" VALUES(2580,'hpies_travel_time4','hpies_travel_time4',9,8,NULL,12,10,'Round-Trip Acoustic Travel Time 4',NULL,NULL,NULL,NULL,'IESRATT_L0','4th Round-trip acoustic travel time (RATT) measurement in 10 useconds.',4,0,1); INSERT INTO "parameter" VALUES(2581,'hpies_pressure','hpies_pressure',9,8,NULL,5,10,'Seafloor Pressure',NULL,NULL,NULL,NULL,'IESPRES_L0','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric). This specific instance is the Level 0 unprocessed data product.',4,0,1); -INSERT INTO "parameter" VALUES(2582,'hpies_temperature','hpies_temperature',9,8,NULL,8,10,'Seawater Temperature',NULL,NULL,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2583,'hpies_bliley_temperature','hpies_bliley_temperature',9,8,NULL,8,10,'Bliley Oscillator Temperature',NULL,NULL,NULL,NULL,NULL,'Bliley oscillator temperature in millidegrees Celsius. L0 Metadata',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2582,'hpies_temperature','hpies_temperature',9,8,NULL,226,10,'Seawater Temperature',NULL,NULL,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2583,'hpies_bliley_temperature','hpies_bliley_temperature',9,8,NULL,226,10,'Bliley Oscillator Temperature',NULL,NULL,NULL,NULL,NULL,'Bliley oscillator temperature in millidegrees Celsius. L0 Metadata',NULL,NULL,1); INSERT INTO "parameter" VALUES(2584,'hpies_bliley_frequency','hpies_bliley_frequency',9,1,NULL,24,6,'Bliley Oscillator Frequency',NULL,NULL,NULL,NULL,NULL,'Bliley oscillator frequency in Hz. Send alert if not within 200 Hz of 4 MHz (as it probably means that the pressure data is no good). L0 Metadata',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2585,'hpies_data_validity','hpies_data_validity',5,10,NULL,10,10,'Data Validity',NULL,NULL,NULL,NULL,NULL,'indicates CRC passed Combined data validity for all four status lines',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2585,'hpies_data_validity','hpies_data_validity',5,10,NULL,10,10,'Data Validity',NULL,NULL,NULL,NULL,NULL,'indicates CRC passed Combined data validity for all four status lines',NULL,NULL,1); INSERT INTO "parameter" VALUES(2586,'hpies_status_travel_times','hpies_status_travel_times',3,8,NULL,12,10,'Status Travel Times',NULL,NULL,NULL,NULL,NULL,'list of travel times (24)',NULL,NULL,1); INSERT INTO "parameter" VALUES(2587,'hpies_status_pressures','hpies_status_pressures',3,7,NULL,6,10,'Status Pressures',NULL,NULL,NULL,NULL,NULL,'list of depths (6); pressure and temperature readings are paired in the status string',NULL,NULL,1); INSERT INTO "parameter" VALUES(2588,'hpies_status_temperatures','hpies_status_temperatures',3,7,NULL,7,10,'Status Temperatures',NULL,NULL,NULL,NULL,NULL,'list of temperature readings (6)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2589,'hpies_status_pressure_frequencies','hpies_status_pressure_frequencies',3,8,NULL,137,10,'Status Pressure Frequencies',NULL,NULL,NULL,NULL,NULL,'list of pressure frequencies (6).. pressure and temperature frequencies are paired in the status string',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2589,'hpies_status_pressure_frequencies','hpies_status_pressure_frequencies',3,8,NULL,137,10,'Status Pressure Frequencies',NULL,NULL,NULL,NULL,NULL,'list of pressure frequencies (6).. pressure and temperature frequencies are paired in the status string',NULL,NULL,1); INSERT INTO "parameter" VALUES(2590,'hpies_status_temperature_frequencies','hpies_status_temperature_frequencies',3,8,NULL,137,10,'Status Temperature Frequencies',NULL,NULL,NULL,NULL,NULL,'list of pressure frequencies (6)',NULL,NULL,1); INSERT INTO "parameter" VALUES(2591,'hpies_backup_battery_voltage','hpies_backup_battery_voltage',9,1,NULL,40,6,'Backup Battery Voltage',NULL,NULL,NULL,NULL,NULL,'battery voltage of the backup battery',NULL,NULL,1); INSERT INTO "parameter" VALUES(2592,'hpies_release_drain','hpies_release_drain',9,1,NULL,135,6,'Release Battery Drain',NULL,NULL,NULL,NULL,NULL,'current drain on the release battery',NULL,NULL,1); @@ -3123,7 +3127,7 @@ INSERT INTO "parameter" VALUES(2601,'hpies_last_pressure','hpies_last_pressure', INSERT INTO "parameter" VALUES(2602,'hpies_last_temperature','hpies_last_temperature',9,1,NULL,24,6,'Last Temperature',NULL,NULL,NULL,NULL,NULL,'last temperature sensor raw data value',NULL,NULL,1); INSERT INTO "parameter" VALUES(2603,'hpies_ies_clock_error','hpies_ies_clock_error',9,1,NULL,24,6,'IES Clock Error',NULL,NULL,NULL,NULL,NULL,'IES clock crystal error from 32768 Hz',NULL,NULL,1); INSERT INTO "parameter" VALUES(2604,'hpies_rsn_timestamp','hpies_rsn_timestamp',9,9,NULL,194,10,'RSN Timestamp',NULL,NULL,NULL,NULL,NULL,'RSN network time in elapsed seconds since midnight Jan 1, 1970',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2605,'dcl_controller_timestamp','dcl_controller_timestamp',9,6,NULL,10,17,'DCL Controller Timestamp',NULL,0,NULL,NULL,NULL,'Timestamp from the DCL controller',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2605,'dcl_controller_timestamp','dcl_controller_timestamp',9,6,NULL,NULL,17,'DCL Controller Timestamp',NULL,0,NULL,NULL,NULL,'Timestamp from the DCL controller',NULL,NULL,1); INSERT INTO "parameter" VALUES(2606,'pressure_depth','pressure',9,1,NULL,80,7,'CTD Seawater Pressure','sea_water_pressure',3,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure reported is the CTD pressure recorded at the time of the sensor reading.',3,NULL,1); INSERT INTO "parameter" VALUES(2607,'velpt_pressure','velpt_pressure',9,1,NULL,80,7,'VELPT Pressure',NULL,3,NULL,NULL,NULL,'Pressure measured by the VELPT-J instrumnet.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2608,'velocity_beam1_m_s','velocity_beam1_m_s',9,1,NULL,123,7,'Velocity Beam1 or X or East Coordinates',NULL,4,NULL,NULL,NULL,'velocity beam1 or X or East coordinates (m/s)',NULL,NULL,1); @@ -3133,24 +3137,24 @@ INSERT INTO "parameter" VALUES(2611,'on_seconds','on_seconds',9,1,NULL,191,7,'Po INSERT INTO "parameter" VALUES(2612,'year','year',9,7,NULL,212,10,'Year',NULL,0,NULL,NULL,NULL,'The year of the sample',NULL,NULL,1); INSERT INTO "parameter" VALUES(2613,'day_of_year','day_of_year',9,7,NULL,10,10,'Day of Year Number',NULL,NULL,NULL,NULL,NULL,'The day of the year of the sample',NULL,NULL,1); INSERT INTO "parameter" VALUES(2614,'ctd_time_uint32','ctd_time_uint32',9,8,NULL,198,10,'Time, CTD',NULL,0,NULL,NULL,NULL,'Time in seconds since 1970-01-01 from a co-located CTD.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2615,'ctd_psu','ctd_psu',9,1,NULL,10,7,'Practical Salinity','sea_water_practical_salinity',3,NULL,NULL,NULL,'Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2616,'ctd_temp','ctd_temp',9,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2617,'ctd_dbar','ctd_dbar',9,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2622,'suspect_timestamp','suspect_timestamp',5,5,NULL,10,4,'Suspect Timestamp',NULL,0,NULL,NULL,NULL,'Flag indicating a potential inaccuracy in the timestamp. No - 0, Yes - 1',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2623,'trhph_thermistor_temp','trhph_thermistor_temp',8,1,NULL,225,7,'Thermistor Reference Temperature',NULL,0,108,'{"V_ts": "PD428"}','TRHPHTE_REF_L1','Thermistor Reference Temperature from TRHPH is an intermediate data product that is important for monitoring and troubleshooting the instrument. It is engineering data that should not be confused with scientific data as it does not represent a scientifically meaningful environmental temperature.',3,1,1); -INSERT INTO "parameter" VALUES(2624,'thsph_temp_th','thsph_temp_th',8,1,NULL,225,7,'Vent Fluid Absolute Temperature - High',NULL,2,99,'{"tc_rawdec_H": "PD2264", "e2l_H": "CC_e2l_H", "l2s_H": "CC_l2s_H", "ts_rawdec_r": "PD2266", "l2s_r": "CC_l2s_r", "s2v_r": "CC_s2v_r", "e2l_r": "CC_e2l_r"}','THSPHTE-TH_L1','The Vent Fluid Absolute Temperature is the calibrated sum of the Thermocouple temperature and the Reference Thermistor temperature. This data product is a measurement of the high temperature fluid near the vent.',3,1,1); -INSERT INTO "parameter" VALUES(2625,'thsph_temp_tl','thsph_temp_tl',8,1,NULL,225,7,'Vent Fluid Absolute Temperature - Low',NULL,2,100,'{"tc_rawdec_L": "PD2265", "e2l_L": "CC_e2l_L", "ts_rawdec_r": "PD2266", "l2s_L": "CC_l2s_L", "l2s_r": "CC_l2s_r", "s2v_r": "CC_s2v_r", "e2l_r": "CC_e2l_r"}','THSPHTE-TL_L1','The Vent Fluid Absolute Temperature is the calibrated sum of the Thermocouple temperature and the Reference Thermistor temperature. This data product is a measurement of the low temperature fluid near the vent.',3,1,1); -INSERT INTO "parameter" VALUES(2626,'thsph_temp_tch','thsph_temp_tch',8,1,NULL,225,7,'Vent Fluid Thermocouple Temperature - High',NULL,2,101,'{"l2s_H": "CC_l2s_H", "tc_rawdec_H": "PD2264", "e2l_H": "CC_e2l_H"}','THSPHTE-TCH_L1','Vent Fluid Temperature is measured at the sample inlet of the Hydrothermal Vent Fluid In-situ Chemistry (THSPH) instrument. There are temperature measurements at two locations: one in high temperature vent fluid and one in low temperature fluid near the vent. This data product is the thermocouple temperature measurement of the high temperature vent fluid. Exact locations can be found in the metadata.',NULL,1,1); -INSERT INTO "parameter" VALUES(2627,'thsph_temp_tcl','thsph_temp_tcl',8,1,NULL,225,7,'Vent Fluid Thermocouple Temperature - Low',NULL,2,102,'{"tc_rawdec_L": "PD2265", "e2l_L": "CC_e2l_L", "l2s_L": "CC_l2s_L"}','THSPHTE-TCL_L1','Vent Fluid Temperature is measured at the sample inlet of the Hydrothermal Vent Fluid In-situ Chemistry (THSPH) instrument. There are temperature measurements at two locations: one in high temperature vent fluid and one in low temperature fluid near the vent. This data product is the thermocouple temperature measurement of the low temperature fluid near the vent. Exact locations can be found in the metadata.',NULL,1,1); -INSERT INTO "parameter" VALUES(2628,'thsph_temp_int','thsph_temp_int',8,1,NULL,225,7,'Internal Board Thermistor Temperature',NULL,2,103,'{"l2s_b": "CC_l2s_b", "ts_rawdec_b": "PD2267", "e2l_b": "CC_e2l_b"}','THSPHTE-INT_L1','Thermistor temperature inside the electronics pressure housing.',NULL,1,1); -INSERT INTO "parameter" VALUES(2629,'thsph_temp_ref','thsph_temp_ref',8,1,NULL,225,7,'Reference Thermistor Temperature',NULL,2,104,'{"l2s_r": "CC_l2s_r", "ts_rawdec_r": "PD2266", "e2l_r": "CC_e2l_r"}','THSPHTE-REF_L1','Reference Thermistor Temperature at the electrical cold-junction in the sensor wand.',NULL,1,1); +INSERT INTO "parameter" VALUES(2615,'ctd_psu','sea_water_practical_salinity',9,1,NULL,10,7,'Practical Salinity','sea_water_practical_salinity',3,NULL,NULL,NULL,'Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2616,'ctd_temp','sea_water_temperature',9,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2617,'ctd_dbar','sea_water_pressure',9,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2622,'suspect_timestamp','suspect_timestamp',5,5,NULL,10,4,'Suspect Timestamp',NULL,0,NULL,NULL,NULL,'Flag indicating a potential inaccuracy in the timestamp. No - 0, Yes - 1',2,NULL,1); +INSERT INTO "parameter" VALUES(2623,'trhph_thermistor_temp','trhph_thermistor_temp',8,1,NULL,232,7,'Thermistor Reference Temperature',NULL,0,108,'{"V_ts": "PD428"}','TRHPHTE_REF_L1','Thermistor Reference Temperature from TRHPH is an intermediate data product that is important for monitoring and troubleshooting the instrument. It is engineering data that should not be confused with scientific data as it does not represent a scientifically meaningful environmental temperature.',3,1,1); +INSERT INTO "parameter" VALUES(2624,'thsph_temp_th','thsph_temp_th',8,1,NULL,232,7,'Vent Fluid Absolute Temperature - High',NULL,2,99,'{"tc_rawdec_H": "PD2264", "e2l_H": "CC_e2l_H", "l2s_H": "CC_l2s_H", "ts_rawdec_r": "PD2266", "l2s_r": "CC_l2s_r", "s2v_r": "CC_s2v_r", "e2l_r": "CC_e2l_r"}','THSPHTE-TH_L1','The Vent Fluid Absolute Temperature is the calibrated sum of the Thermocouple temperature and the Reference Thermistor temperature. This data product is a measurement of the high temperature fluid near the vent.',3,1,1); +INSERT INTO "parameter" VALUES(2625,'thsph_temp_tl','thsph_temp_tl',8,1,NULL,232,7,'Vent Fluid Absolute Temperature - Low',NULL,2,100,'{"tc_rawdec_L": "PD2265", "e2l_L": "CC_e2l_L", "ts_rawdec_r": "PD2266", "l2s_L": "CC_l2s_L", "l2s_r": "CC_l2s_r", "s2v_r": "CC_s2v_r", "e2l_r": "CC_e2l_r"}','THSPHTE-TL_L1','The Vent Fluid Absolute Temperature is the calibrated sum of the Thermocouple temperature and the Reference Thermistor temperature. This data product is a measurement of the low temperature fluid near the vent.',3,1,1); +INSERT INTO "parameter" VALUES(2626,'thsph_temp_tch','thsph_temp_tch',8,1,NULL,232,7,'Vent Fluid Thermocouple Temperature - High',NULL,2,101,'{"l2s_H": "CC_l2s_H", "tc_rawdec_H": "PD2264", "e2l_H": "CC_e2l_H"}','THSPHTE-TCH_L1','Vent Fluid Temperature is measured at the sample inlet of the Hydrothermal Vent Fluid In-situ Chemistry (THSPH) instrument. There are temperature measurements at two locations: one in high temperature vent fluid and one in low temperature fluid near the vent. This data product is the thermocouple temperature measurement of the high temperature vent fluid. Exact locations can be found in the metadata.',NULL,1,1); +INSERT INTO "parameter" VALUES(2627,'thsph_temp_tcl','thsph_temp_tcl',8,1,NULL,232,7,'Vent Fluid Thermocouple Temperature - Low',NULL,2,102,'{"tc_rawdec_L": "PD2265", "e2l_L": "CC_e2l_L", "l2s_L": "CC_l2s_L"}','THSPHTE-TCL_L1','Vent Fluid Temperature is measured at the sample inlet of the Hydrothermal Vent Fluid In-situ Chemistry (THSPH) instrument. There are temperature measurements at two locations: one in high temperature vent fluid and one in low temperature fluid near the vent. This data product is the thermocouple temperature measurement of the low temperature fluid near the vent. Exact locations can be found in the metadata.',NULL,1,1); +INSERT INTO "parameter" VALUES(2628,'thsph_temp_int','thsph_temp_int',8,1,NULL,232,7,'Internal Board Thermistor Temperature',NULL,2,103,'{"l2s_b": "CC_l2s_b", "ts_rawdec_b": "PD2267", "e2l_b": "CC_e2l_b"}','THSPHTE-INT_L1','Thermistor temperature inside the electronics pressure housing.',NULL,1,1); +INSERT INTO "parameter" VALUES(2629,'thsph_temp_ref','thsph_temp_ref',8,1,NULL,232,7,'Reference Thermistor Temperature',NULL,2,104,'{"l2s_r": "CC_l2s_r", "ts_rawdec_r": "PD2266", "e2l_r": "CC_e2l_r"}','THSPHTE-REF_L1','Reference Thermistor Temperature at the electrical cold-junction in the sensor wand.',NULL,1,1); INSERT INTO "parameter" VALUES(2630,'thsph_ph','thsph_ph',8,1,NULL,10,5,'Vent Fluid pH - Measured Chloride',NULL,0,110,'{"counts_ysz": "PD2260", "e2l_ysz": "CC_e2l_ysz", "counts_agcl": "PD2261", "arr_agcl": "CC_arr_agcl", "arr_tac": "CC_arr_tac", "chl": "PD966", "arr_hgo": "CC_arr_hgo", "arr_tbc3": "CC_arr_tbc3", "arr_tbc2": "CC_arr_tbc2", "arr_tbc1": "CC_arr_tbc1", "e2l_agcl": "CC_e2l_agcl", "temperature": "PD2624"}','THSPHPH-PH_L2','In-situ pH at high temperature location, using measured [Cl-] from TRHPH and a working reference AgCl electrode. Unitless.',3,2,1); INSERT INTO "parameter" VALUES(2631,'thsph_ph_acl','thsph_ph_acl',8,1,NULL,10,5,'Vent Fluid pH - Assumed Chloride',NULL,0,111,'{"counts_ysz": "PD2260", "e2l_ysz": "CC_e2l_ysz", "counts_agcl": "PD2261", "arr_agcl": "CC_arr_agcl", "arr_tac": "CC_arr_tac", "arr_hgo": "CC_arr_hgo", "arr_tbc3": "CC_arr_tbc3", "arr_tbc2": "CC_arr_tbc2", "arr_tbc1": "CC_arr_tbc1", "e2l_agcl": "CC_e2l_agcl", "temperature": "PD2624"}','THSPHPH-PH-ACL_L2','In-situ pH at high temperature location, using assumed [Cl-] from a physical sample and a working reference AgCl electrode. Unitless.',3,2,1); INSERT INTO "parameter" VALUES(2632,'thsph_ph_noref','thsph_ph_noref',8,1,NULL,10,5,'Vent Fluid pH - Measured Chloride - No Reference AgCl',NULL,0,112,'{"counts_ysz": "PD2260", "e2l_ysz": "CC_e2l_ysz", "temperature": "PD2624", "arr_tac": "CC_arr_tac", "chl": "PD966", "arr_hgo": "CC_arr_hgo", "arr_agclref": "CC_arr_agclref", "arr_tbc3": "CC_arr_tbc3", "arr_tbc2": "CC_arr_tbc2", "arr_tbc1": "CC_arr_tbc1", "arr_agcl": "CC_arr_agcl"}','THSPHPH-PH-NOREF_L2','In-situ pH at high temperature location, using measured [Cl-] from TRHPH and a derived value for the AgCl electrode. Unitless.',3,2,1); INSERT INTO "parameter" VALUES(2633,'thsph_ph_noref_acl','thsph_ph_noref_acl',8,1,NULL,10,5,'Vent Fluid pH - Assumed Chloride - No Reference AgCl',NULL,0,113,'{"counts_ysz": "PD2260", "e2l_ysz": "CC_e2l_ysz", "temperature": "PD2624", "arr_tac": "CC_arr_tac", "arr_hgo": "CC_arr_hgo", "arr_agclref": "CC_arr_agclref", "arr_tbc3": "CC_arr_tbc3", "arr_tbc2": "CC_arr_tbc2", "arr_tbc1": "CC_arr_tbc1", "arr_agcl": "CC_arr_agcl"}','THSPHPH-PH-NOREF-ACL_L2','In-situ pH at high temperature location, using an assumed [Cl-] from a physical sample and a derived value for the AgCl electrode. Unitless.',3,2,1); INSERT INTO "parameter" VALUES(2634,'thsph_sulfide','thsph_sulfide',8,1,NULL,171,7,'Hydrogen Sulfide Concentration',NULL,4,114,'{"arr_eh2sg": "CC_arr_eh2sg", "counts_hs": "PD2263", "arr_logkfh2g": "CC_arr_logkfh2g", "e2l_ysz": "CC_e2l_ysz", "arr_yh2sg": "CC_arr_yh2sg", "temperature": "PD2624", "counts_ysz": "PD2260", "arr_hgo": "CC_arr_hgo", "e2l_hs": "CC_e2l_hs"}','THSPHHS-H2S_L2',NULL,3,2,1); INSERT INTO "parameter" VALUES(2635,'thsph_hydrogen','thsph_hydrogen',8,1,NULL,171,7,'Hydrogen Concentration',NULL,4,115,'{"counts_h2": "PD2262", "counts_ysz": "PD2260", "arr_logkfh2g": "CC_arr_logkfh2g", "e2l_ysz": "CC_e2l_ysz", "temperature": "PD2624", "arr_hgo": "CC_arr_hgo", "e2l_h2": "CC_e2l_h2"}','THSPHHC-H2_L2','In-situ dissolved hydrogen concentration at the high temperature location.',3,2,1); -INSERT INTO "parameter" VALUES(2636,'phsen_battery_volts','phsen_battery_volts',8,1,NULL,40,7,'Battery Voltage',NULL,4,98,'{"braw": "PD358"}',NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2636,'phsen_battery_volts','phsen_battery_volts',8,1,NULL,40,7,'Battery Voltage',NULL,4,98,'{"sami_bits": "CC_sami_bits", "braw": "PD358"}',NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2637,'parad_telbaud','parad_telbaud',9,4,NULL,50,7,'Telemetry Baud Rate',NULL,NULL,NULL,NULL,NULL,'Telemetry baud rate',NULL,NULL,1); INSERT INTO "parameter" VALUES(2638,'parad_maxrate','parad_maxrate',9,1,NULL,24,7,'Max Sampling Rate',NULL,3,NULL,NULL,NULL,'Maximum sampling rate in Hz',NULL,NULL,1); INSERT INTO "parameter" VALUES(2639,'parad_firmware','parad_firmware',9,6,NULL,10,17,'Instrument Firmware',NULL,0,NULL,NULL,NULL,'Instrument Firmware',NULL,NULL,1); @@ -3159,7 +3163,7 @@ INSERT INTO "parameter" VALUES(2641,'battery_number_uint8','battery_number_uint8 INSERT INTO "parameter" VALUES(2642,'battery_voltage_flt32','battery_voltage_flt32',9,1,NULL,40,7,'Battery Voltage',NULL,3,NULL,NULL,NULL,'Battery voltage.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2643,'gps_adjustment','gps_adjustment',9,4,NULL,10,7,'GPS Adjustment Value',NULL,0,NULL,NULL,NULL,'GPS Adjustment Value',NULL,NULL,1); INSERT INTO "parameter" VALUES(2644,'velocity_flt32','velocity_flt32',9,1,NULL,123,7,'Velocity',NULL,3,NULL,NULL,NULL,'Velocity, m/s',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2645,'spkir_downwelling_vector','spkir_downwelling_vector',8,1,NULL,215,7,'Downwelling Spectral Irradiance',NULL,4,95,'{"counts": "PD1093", "scale": "CC_scale", "immersion_factor": "CC_immersion_factor", "offset": "CC_offset"}','SPECTIR_L1','Downwelling Spectral Irradiance is the measure of electromagnetic radiation per unit area received (i.e. incident) by a sensor within the seawater column. Downwelling spectral irradiance is calculated from measurements made across 7 specific- pre-defined wavebands as follows: 1 = 412nm, 2 = 443nm, 3 = 490nm, 4 = 510nm, 5 = 555nm, 6 = 620nm, 7 = 683nm.',3,1,1); +INSERT INTO "parameter" VALUES(2645,'spkir_downwelling_vector','spkir_downwelling_vector',8,1,NULL,241,7,'Downwelling Spectral Irradiance',NULL,4,95,'{"counts": "PD1093", "scale": "CC_scale", "immersion_factor": "CC_immersion_factor", "offset": "CC_offset"}','SPECTIR_L1','Downwelling Spectral Irradiance is the measure of electromagnetic radiation per unit area received (i.e. incident) by a sensor within the seawater column. Downwelling spectral irradiance is calculated from measurements made across 7 specific- pre-defined wavebands as follows: 1 = 412nm, 2 = 443nm, 3 = 490nm, 4 = 510nm, 5 = 555nm, 6 = 620nm, 7 = 683nm.',3,1,1); INSERT INTO "parameter" VALUES(2646,'encoder_counts','encoder_counts',9,4,NULL,67,16,'Encoder Counts',NULL,0,NULL,NULL,NULL,'Keeps track of the net rotation done by the winch axle',NULL,NULL,1); INSERT INTO "parameter" VALUES(2647,'current_flt32','current_flt32',9,1,NULL,14,7,'Winch Current',NULL,3,NULL,NULL,NULL,'Current drawn by the winch motor. Sign reflects direction of motor motion (+ is rope spooled on, - is rope spooled off)',NULL,NULL,1); INSERT INTO "parameter" VALUES(2648,'winch_velocity','winch_velocity',9,1,NULL,68,7,'Winch Velocity',NULL,3,NULL,NULL,NULL,'Winch encoder counts per second',NULL,NULL,1); @@ -3176,22 +3180,22 @@ INSERT INTO "parameter" VALUES(2661,'camds_focus_position','camds_focus_position INSERT INTO "parameter" VALUES(2662,'camds_zoom_position','camds_zoom_position',9,5,NULL,10,4,'Zoom Position',NULL,NULL,NULL,NULL,NULL,'Zoom',NULL,NULL,1); INSERT INTO "parameter" VALUES(2663,'camds_iris_position','camds_iris_position',9,5,NULL,10,4,'Iris Position',NULL,NULL,NULL,NULL,NULL,'Iris',NULL,NULL,1); INSERT INTO "parameter" VALUES(2664,'camds_gain','camds_gain',9,5,NULL,10,4,'Gain',NULL,NULL,NULL,NULL,NULL,'Gain',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2665,'camds_resolution','camds_resolution',9,5,NULL,10,4,'Resolution',NULL,NULL,NULL,NULL,NULL,'Image resolution as a divider of the full image resolution. Hex number to convert to string: -0x1 = Full resolution -0x2 = 1/2 Resolution -0x4 = 1/4 Resolution -0x8 = 1/8 Resolution',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2665,'camds_resolution','camds_resolution',9,5,NULL,10,4,'Resolution',NULL,NULL,NULL,NULL,NULL,'Image resolution as a divider of the full image resolution. Hex number to convert to string: + 0x1 = Full resolution + 0x2 = 1/2 Resolution + 0x4 = 1/4 Resolution + 0x8 = 1/8 Resolution',NULL,NULL,1); INSERT INTO "parameter" VALUES(2666,'camds_brightness','camds_brightness',9,5,NULL,10,4,'Brightness',NULL,NULL,NULL,NULL,NULL,'Brightness of the lamp 1-100.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2667,'camds_temp','camds_temp',9,5,NULL,21,4,'Temperature',NULL,NULL,NULL,NULL,NULL,'Temperature. Range is 0 to 80 degrees and there are no decimal places. Accuracy is +/- 1.0 degrees.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2667,'camds_temp','camds_temp',9,5,NULL,232,4,'Temperature',NULL,NULL,NULL,NULL,NULL,'Temperature. Range is 0 to 80 degrees and there are no decimal places. Accuracy is +/- 1.0 degrees.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2668,'camds_humidity','camds_humidity',9,5,NULL,179,4,'Internal Humidity',NULL,NULL,NULL,NULL,NULL,'Digital still camera internal housing humidity reading',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2669,'camds_error','camds_error',9,5,NULL,10,4,'Error',NULL,NULL,NULL,NULL,NULL,'Error message. Error will have the following possibilities: -0x00 = No Error -0x01 = Camera Not connected -0x02 = I2C Error - -Convert to string so that error text is provided to user rather than number.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2669,'camds_error','camds_error',9,5,NULL,10,4,'Error',NULL,NULL,NULL,NULL,NULL,'Error message. Error will have the following possibilities: + 0x00 = No Error + 0x01 = Camera Not connected + 0x02 = I2C Error + + Convert to string so that error text is provided to user rather than number.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2670,'camds_disk_size','camds_disk_size',9,3,NULL,30,5,'Disk Size',NULL,NULL,NULL,NULL,NULL,'Size of disk in MB',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2671,'camds_disk_remaining','camds_disk_remaining',9,5,NULL,1,4,'Disk Remaining',NULL,NULL,NULL,NULL,NULL,'Percentage of disk unused',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2671,'camds_disk_remaining','camds_disk_remaining',9,5,NULL,179,4,'Disk Remaining',NULL,NULL,NULL,NULL,NULL,'Percentage of disk unused',NULL,NULL,1); INSERT INTO "parameter" VALUES(2672,'camds_images_remaining','camds_images_remaining',9,3,NULL,67,5,'Images Remaining',NULL,NULL,NULL,NULL,NULL,'Provides the storage of the disk in terms of the number of images remaining.',NULL,NULL,1); INSERT INTO "parameter" VALUES(2673,'camds_images_on_disk','camds_images_on_disk',9,3,NULL,67,5,'Images on Disk',NULL,NULL,NULL,NULL,NULL,'Number of images on disk',NULL,NULL,1); INSERT INTO "parameter" VALUES(2674,'zplsc_connected','zplsc_connected',5,5,NULL,NULL,4,'Connected',NULL,NULL,NULL,NULL,NULL,'Connected to a running ER60 instance?',NULL,NULL,1); @@ -3230,45 +3234,45 @@ INSERT INTO "parameter" VALUES(2707,'startup_time_string','startup_time_string', INSERT INTO "parameter" VALUES(2708,'ph_light_measurements','ph_light_measurements',3,3,NULL,67,5,'Array of PH Light Measurements',NULL,0,NULL,NULL,NULL,'Array of ph light measurements',NULL,NULL,1); INSERT INTO "parameter" VALUES(2709,'dcl_controller_start_timestamp','dcl_controller_start_timestamp',9,6,NULL,10,17,'DCL Controller Start Timestamp',NULL,0,NULL,NULL,NULL,'DCL controller timestamp at the first line of wave burst data record; marks the beginning of the line containing ''wave: start time''. "yyyy/mm/dd hh:mm:ss.sss"* note space between dd and hh',NULL,NULL,1); INSERT INTO "parameter" VALUES(2710,'dcl_controller_end_timestamp','dcl_controller_end_timestamp',9,6,NULL,10,17,'DCL Controller End Timestamp',NULL,0,NULL,NULL,NULL,'DCL controller timestamp at the last line of wave burst data record; marks the beginning of the line containing ''wave: end burst''. "yyyy/mm/dd hh:mm:ss.sss"* note space between dd and hh',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2712,'blank_light_measurements','blank_light_measurements',3,3,NULL,67,5,'Blank Light Measurements',NULL,0,NULL,NULL,NULL,'Blank light measurements collected during calibration of the instrument. Measurements are in counts.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2713,'temperature01','temperature01',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 01',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 01 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2714,'temperature02','temperature02',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 02',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 02 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2715,'temperature03','temperature03',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 03',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 03 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2716,'temperature04','temperature04',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 04',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 04 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2717,'temperature05','temperature05',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 05',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 05 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2718,'temperature06','temperature06',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 06',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 06 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2719,'temperature07','temperature07',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 07',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 07 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2720,'temperature08','temperature08',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 08',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 08 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2721,'temperature09','temperature09',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 09',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 09 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2722,'temperature10','temperature10',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 10',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 10 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2723,'temperature11','temperature11',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 11',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 11 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2724,'temperature12','temperature12',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 12',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 12 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2725,'temperature13','temperature13',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 13',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 13 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2726,'temperature14','temperature14',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 14',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 14 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2727,'temperature15','temperature15',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 15',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 15 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2728,'temperature16','temperature16',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 16',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 16 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2729,'temperature17','temperature17',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 17',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 17 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2730,'temperature18','temperature18',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 18',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 18 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2731,'temperature19','temperature19',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 19',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 19 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2732,'temperature20','temperature20',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 20',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 20 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2733,'temperature21','temperature21',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 21',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 21 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2734,'temperature22','temperature22',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 22',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 22 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2735,'temperature23','temperature23',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 23',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 23 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); -INSERT INTO "parameter" VALUES(2736,'temperature24','temperature24',9,1,NULL,225,7,'Seawater Temperature in Spatial Grid 24',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 24 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,NULL,1); +INSERT INTO "parameter" VALUES(2712,'blank_light_measurements','blank_light_measurements',3,4,NULL,67,7,'Blank Light Measurements',NULL,0,NULL,NULL,NULL,'Blank light measurements collected during calibration of the instrument. Measurements are in counts.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2713,'temperature01','temperature01',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 01',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 01 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2714,'temperature02','temperature02',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 02',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 02 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2715,'temperature03','temperature03',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 03',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 03 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2716,'temperature04','temperature04',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 04',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 04 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2717,'temperature05','temperature05',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 05',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 05 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2718,'temperature06','temperature06',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 06',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 06 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2719,'temperature07','temperature07',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 07',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 07 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2720,'temperature08','temperature08',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 08',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 08 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2721,'temperature09','temperature09',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 09',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 09 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2722,'temperature10','temperature10',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 10',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 10 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2723,'temperature11','temperature11',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 11',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 11 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2724,'temperature12','temperature12',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 12',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 12 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2725,'temperature13','temperature13',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 13',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 13 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2726,'temperature14','temperature14',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 14',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 14 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2727,'temperature15','temperature15',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 15',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 15 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2728,'temperature16','temperature16',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 16',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 16 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2729,'temperature17','temperature17',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 17',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 17 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2730,'temperature18','temperature18',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 18',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 18 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2731,'temperature19','temperature19',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 19',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 19 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2732,'temperature20','temperature20',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 20',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 20 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2733,'temperature21','temperature21',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 21',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 21 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2734,'temperature22','temperature22',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 22',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 22 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2735,'temperature23','temperature23',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 23',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 23 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); +INSERT INTO "parameter" VALUES(2736,'temperature24','temperature24',9,1,NULL,232,7,'Seawater Temperature in Spatial Grid 24',NULL,4,NULL,NULL,NULL,'Seawater Temperature in Spatial Grid 24 is temperature measured at 1 of 24 locations along the thermistor string that is positioned in a spatial array. The position of each thermistor is given in the metadata, using coordinates in centimeters with an origin at the seafloor beneath thermistor #2.',3,1,1); INSERT INTO "parameter" VALUES(2737,'adcps_jln_echo_intensity_beam1','adcps_jln_echo_intensity_beam1',8,1,NULL,72,7,'Echo Intensity Beam 1',NULL,4,89,'{"raw": "PD724", "sfactor": "CC_scale_factor1"}','ECHOINT-B1_L1','Echo intensity is the strength of the returned sound wave pulse transmitted by the ADCP. Echo intensity can be used as an indicator of the amount of sediment or organisms in the water column, as well as of the quality of a velocity measurement.',3,1,1); INSERT INTO "parameter" VALUES(2738,'adcps_jln_echo_intensity_beam2','adcps_jln_echo_intensity_beam2',8,1,NULL,72,7,'Echo Intensity Beam 2',NULL,4,89,'{"raw": "PD725", "sfactor": "CC_scale_factor2"}','ECHOINT-B2_L1','Echo intensity is the strength of the returned sound wave pulse transmitted by the ADCP. Echo intensity can be used as an indicator of the amount of sediment or organisms in the water column, as well as of the quality of a velocity measurement.',3,1,1); INSERT INTO "parameter" VALUES(2739,'adcps_jln_echo_intensity_beam3','adcps_jln_echo_intensity_beam3',8,1,NULL,72,7,'Echo Intensity Beam 3',NULL,4,89,'{"raw": "PD726", "sfactor": "CC_scale_factor3"}','ECHOINT-B3_L1','Echo intensity is the strength of the returned sound wave pulse transmitted by the ADCP. Echo intensity can be used as an indicator of the amount of sediment or organisms in the water column, as well as of the quality of a velocity measurement.',3,1,1); INSERT INTO "parameter" VALUES(2740,'adcps_jln_echo_intensity_beam4','adcps_jln_echo_intensity_beam4',8,1,NULL,72,7,'Echo Intensity Beam 4',NULL,4,89,'{"raw": "PD727", "sfactor": "CC_scale_factor4"}','ECHOINT-B4_L1','Echo intensity is the strength of the returned sound wave pulse transmitted by the ADCP. Echo intensity can be used as an indicator of the amount of sediment or organisms in the water column, as well as of the quality of a velocity measurement.',3,1,1); -INSERT INTO "parameter" VALUES(2749,'sci_seawater_density','sci_seawater_density',8,1,NULL,119,NULL,'Seawater Density','sea_water_density',4,27,'{"lat": "PD8105", "p": "dpi_PRESWAT_L1", "SP": "dpi_PRACSAL_L2", "lon": "PD8106", "t": "PD1528"}','DENSITY_L2','The density of seawater in kg m-3 computed using the TEOS-10 equations with data from the conductivity, temperature and depth (CTD) family of instruments.',3,2,1); -INSERT INTO "parameter" VALUES(2750,'sci_abs_oxygen','sci_abs_oxygen',8,1,NULL,219,NULL,'DO - Pressure Sal Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,61,'{"DO": "PD1516", "SP": "dpi_PRACSAL_L2", "lon": "PD8106", "sref": "CC_ref_salinity", "P": ["PD2606", "dpi_PRESWAT_L1"], "T": "PD1528", "lat": "PD8105"}','DOXYGEN_L2','Dissolved Oxygen (DO) Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for salinity, temperature, and depth from the glider CTD.',3,2,1); +INSERT INTO "parameter" VALUES(2749,'sci_seawater_density','sea_water_density',8,1,NULL,119,NULL,'Seawater Density','sea_water_density',4,27,'{"lat": "PD8105", "p": "dpi_PRESWAT_L1", "SP": "dpi_PRACSAL_L2", "lon": "PD8106", "t": "PD1528"}','DENSITY_L2','The density of seawater in kg m-3 computed using the TEOS-10 equations with data from the conductivity, temperature and depth (CTD) family of instruments.',3,2,1); +INSERT INTO "parameter" VALUES(2750,'sci_abs_oxygen','sci_abs_oxygen',8,1,NULL,247,NULL,'Dissolved Oxygen - Temp Pressure Sal Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,61,'{"DO": "PD1516", "SP": "dpi_PRACSAL_L2", "lon": "PD8106", "sref": "CC_ref_salinity", "P": ["PD2606", "dpi_PRESWAT_L1"], "T": "PD1528", "lat": "PD8105"}','DOXYGEN_L2','Dissolved Oxygen (DO) Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for salinity, temperature, and depth from the glider CTD.',3,2,1); INSERT INTO "parameter" VALUES(2751,'sci_flbb_timestamp','sci_flbb_timestamp',9,2,NULL,198,NULL,'FLBB Timestamp',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2752,'sci_flbb_bb_ref','sci_flbb_bb_ref',9,1,NULL,10,NULL,'Optical Backscatter Reference',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2753,'sci_flbb_bb_sig','sci_flbb_bb_sig',9,1,NULL,10,NULL,'Optical Backscatter Measurement',NULL,4,NULL,NULL,'FLUBSCT_L0','Optical backscatter unprocessed measurement output from the sensor.',4,0,1); INSERT INTO "parameter" VALUES(2754,'sci_flbb_chlor_ref','sci_flbb_chlor_ref',9,1,NULL,10,NULL,'Sci Flbb Chlor Ref',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2755,'sci_flbb_chlor_sig','sci_flbb_chlor_sig',9,1,NULL,10,NULL,'Chlorophyll-a Measurement',NULL,4,NULL,NULL,'CHLAFLO_L0','Fluorometric chlorophyll-a unprocessed measurement output from the sensor.',4,0,1); INSERT INTO "parameter" VALUES(2756,'sci_flbb_therm','sci_flbb_therm',9,1,NULL,10,NULL,'Sci Flbb Therm',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2766,'spkir_abj_cspp_downwelling_vector','spkir_abj_cspp_downwelling_vector',8,1,NULL,215,7,'Downwelling Spectral Irradiance',NULL,4,95,'{"counts": "PD2319", "scale": "CC_scale", "immersion_factor": "CC_immersion_factor", "offset": "CC_offset"}','SPECTIR_L1','Downwelling Spectral Irradiance is the measure of electromagnetic radiation per unit area received (i.e. incident) by a sensor within the seawater column. Downwelling spectral irradiance is calculated from measurements made across 7 specific, pre-defined wavebands as follows: 1 = 412nm, 2 = 443nm, 3 = 490nm, 4 = 510nm, 5 = 555nm, 6 = 620nm, 7 = 683nm..',3,1,1); -INSERT INTO "parameter" VALUES(2767,'phsen_abcdef_ph_seawater','phsen_abcdef_ph_seawater',8,1,NULL,10,7,'pH','sea_water_ph_reported_on_total_scale',4,48,'{"ind_slp": "CC_ind_slp", "therm": "PD938", "light": "PD357", "ea434": "CC_ea434", "eb434": "CC_eb434", "psal": "dpi_PRACSAL_L2", "ea578": "CC_ea578", "ind_off": "CC_ind_off", "ref": "PD933", "eb578": "CC_eb578"}','PHWATER_L1','pH is a measurement of the concentration of hydrogen ions in a solution. pH ranges from acidic to basic on a scale from 0 to 14 with 7 being neutral.',3,1,1); +INSERT INTO "parameter" VALUES(2766,'spkir_abj_cspp_downwelling_vector','spkir_abj_cspp_downwelling_vector',8,1,NULL,241,7,'Downwelling Spectral Irradiance',NULL,4,95,'{"counts": "PD2319", "scale": "CC_scale", "immersion_factor": "CC_immersion_factor", "offset": "CC_offset"}','SPECTIR_L1','Downwelling Spectral Irradiance is the measure of electromagnetic radiation per unit area received (i.e. incident) by a sensor within the seawater column. Downwelling spectral irradiance is calculated from measurements made across 7 specific, pre-defined wavebands as follows: 1 = 412nm, 2 = 443nm, 3 = 490nm, 4 = 510nm, 5 = 555nm, 6 = 620nm, 7 = 683nm..',3,1,1); +INSERT INTO "parameter" VALUES(2767,'phsen_abcdef_ph_seawater','ph_seawater',8,1,NULL,10,7,'pH','sea_water_ph_reported_on_total_scale',4,48,'{"ind_slp": "CC_ind_slp", "therm": "PD938", "light": "PD357", "ea434": "CC_ea434", "eb434": "CC_eb434", "psal": "dpi_PRACSAL_L2", "ea578": "CC_ea578", "ind_off": "CC_ind_off", "ref": "PD933", "eb578": "CC_eb578"}','PHWATER_L2','pH is a measurement of the concentration of hydrogen ions in a solution. pH ranges from acidic to basic on a scale from 0 to 14 with 7 being neutral. The OOI pH algorithm was updated to use an L2 product (PRACSAL) from a nearby CTD instead of a calibration coefficient. This changed the data product type from L1 to L2.',3,2,1); INSERT INTO "parameter" VALUES(2769,'corrected_echo_intensity_beam1','corrected_echo_intensity_beam1',8,1,NULL,72,7,'Echo Intensity Beam 1',NULL,4,89,'{"raw": "PD724", "sfactor": "CC_scale_factor1"}','ECHOINT-B1_L1','Echo intensity is the strength of the returned sound wave pulse transmitted by the ADCP. Echo intensity can be used as an indicator of the amount of sediment or organisms in the water column, as well as of the quality of a velocity measurement.',3,1,1); INSERT INTO "parameter" VALUES(2770,'corrected_echo_intensity_beam2','corrected_echo_intensity_beam2',8,1,NULL,72,7,'Echo Intensity Beam 2',NULL,4,89,'{"raw": "PD725", "sfactor": "CC_scale_factor2"}','ECHOINT-B2_L1','Echo intensity is the strength of the returned sound wave pulse transmitted by the ADCP. Echo intensity can be used as an indicator of the amount of sediment or organisms in the water column, as well as of the quality of a velocity measurement.',3,1,1); INSERT INTO "parameter" VALUES(2771,'corrected_echo_intensity_beam3','corrected_echo_intensity_beam3',8,1,NULL,72,7,'Echo Intensity Beam 3',NULL,4,89,'{"raw": "PD726", "sfactor": "CC_scale_factor3"}','ECHOINT-B3_L1','Echo intensity is the strength of the returned sound wave pulse transmitted by the ADCP. Echo intensity can be used as an indicator of the amount of sediment or organisms in the water column, as well as of the quality of a velocity measurement.',3,1,1); @@ -3290,8 +3294,8 @@ INSERT INTO "parameter" VALUES(2786,'mean_spread','mean_spread',9,1,NULL,95,7,'M INSERT INTO "parameter" VALUES(2787,'number_bands','number_bands',9,4,NULL,10,7,'Number Bands',NULL,0,NULL,NULL,NULL,'number of frequency bands',NULL,NULL,1); INSERT INTO "parameter" VALUES(2788,'initial_frequency','initial_frequency',9,1,NULL,24,7,'Initial Frequency',NULL,4,NULL,NULL,NULL,'initial frequency',NULL,NULL,1); INSERT INTO "parameter" VALUES(2789,'frequency_spacing','frequency_spacing',9,1,NULL,24,7,'Frequency Spacing',NULL,4,NULL,NULL,NULL,'frequency spacing',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2790,'psd_non_directional','psd_non_directional',3,1,NULL,130,7,'PSD Non Directional',NULL,4,NULL,NULL,'WAVSTAT-PND_L0','Power spectral density values for non-directional spectra in m2 Hz-1.',4,0,1); -INSERT INTO "parameter" VALUES(2791,'psd_mean_directional','psd_mean_directional',3,1,NULL,130,7,'PSD Mean Directional',NULL,4,NULL,NULL,'WAVSTAT-PDS_L0','Power spectral density values for directional spectra in units of m2 Hz-1.',4,0,1); +INSERT INTO "parameter" VALUES(2790,'psd_non_directional','psd_non_directional',3,1,NULL,235,7,'PSD Non Directional',NULL,4,NULL,NULL,'WAVSTAT-PND_L0','Power spectral density values for non-directional spectra in m2 Hz-1.',4,0,1); +INSERT INTO "parameter" VALUES(2791,'psd_mean_directional','psd_mean_directional',3,1,NULL,235,7,'PSD Mean Directional',NULL,4,NULL,NULL,'WAVSTAT-PDS_L0','Power spectral density values for directional spectra in units of m2 Hz-1.',4,0,1); INSERT INTO "parameter" VALUES(2792,'mean_direction_array','mean_direction_array',3,1,NULL,95,7,'Mean Directional Array',NULL,4,NULL,NULL,'WAVSTAT-DDS_L0','Direction of waves from directional spectra against true north in degrees.',4,0,1); INSERT INTO "parameter" VALUES(2793,'directional_spread_array','directional_spread_array',3,1,NULL,95,7,'Directional Spread Array',NULL,4,NULL,NULL,'WAVSTAT-SDS_L0','Direction spread from directional spectra in degrees.',4,0,1); INSERT INTO "parameter" VALUES(2794,'number_time_samples','number_time_samples',9,4,NULL,10,7,'Number Time Samples',NULL,0,NULL,NULL,NULL,'number of time samples',NULL,NULL,1); @@ -3305,29 +3309,29 @@ INSERT INTO "parameter" VALUES(2801,'number_directional_bands','number_direction INSERT INTO "parameter" VALUES(2802,'initial_directional_frequency','initial_directional_frequency',9,1,NULL,24,7,'Initial Directional Frequency',NULL,4,NULL,NULL,NULL,'initial directional frequency',NULL,NULL,1); INSERT INTO "parameter" VALUES(2803,'directional_frequency_spacing','directional_frequency_spacing',9,1,NULL,24,7,'Directional Frequency Spacing',NULL,4,NULL,NULL,NULL,'directional frequency spacing',NULL,NULL,1); INSERT INTO "parameter" VALUES(2804,'fourier_coefficient_2d_array','fourier_coefficient_2d_array',3,1,NULL,10,7,'Fourier Coefficient 2D Array',NULL,4,NULL,NULL,NULL,'2d array of fourier coefficients',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2805,'pco2_co2flux','pco2_co2flux',8,1,NULL,173,7,'CO2 Flux from Ocean to Atmosphere',NULL,4,94,'{"u10": "PD3092", "pco2w": "PD1003", "s": "PD3077", "pco2a": "PD1002", "t": "PD1056"}','CO2FLUX_L2','Flux of CO2 from the Ocean into the Atmosphere refers to the exchange of CO2 between the sea surface and the overlying atmosphere. CO2 Flux is estimated from the difference between measurements of the partial pressure of CO2 in the surface ocean and the overlying air. The flux is then estimated as the proportional difference of these partial pressures. The proportionality factor is parameterized using wind speed and adjusted according to sea surface temperature and salinity.',3,2,1); -INSERT INTO "parameter" VALUES(2806,'pressure_range','pressure_range',9,4,NULL,185,7,'Pressure Range',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2805,'pco2_co2flux','pco2_co2flux',8,1,NULL,173,7,'CO2 Flux from Ocean to Atmosphere','surface_upward_mole_flux_of_carbon_dioxide',4,94,'{"u10": "PD3092", "pco2w": "PD1003", "s": "PD3077", "pco2a": "PD1002", "t": "PD1056"}','CO2FLUX_L2','Flux of CO2 from the Ocean into the Atmosphere refers to the exchange of CO2 between the sea surface and the overlying atmosphere. CO2 Flux is estimated from the difference between measurements of the partial pressure of CO2 in the surface ocean and the overlying air. The flux is then estimated as the proportional difference of these partial pressures. The proportionality factor is parameterized using wind speed and adjusted according to sea surface temperature and salinity.',3,2,1); +INSERT INTO "parameter" VALUES(2806,'pressure_range','pressure_range',9,4,NULL,184,7,'Pressure Range',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); INSERT INTO "parameter" VALUES(2807,'instrument_timestamp','instrument_timestamp',9,6,NULL,10,7,'Timestamp Provided by the Instrument',NULL,0,NULL,NULL,NULL,'Format is: yyyy/mm/dd hh:mm:ss.sss',NULL,NULL,1); INSERT INTO "parameter" VALUES(2808,'water_direction','water_direction',3,1,NULL,95,7,'Direction (Calculated From VLE, VLN Corrected for EH Heading)',NULL,1,NULL,NULL,NULL,'1xN array of unsigned direction which is 000.0 to 359.9 degrees as measured toward the instrument and corrected for heading and magnetic deviation (EX11111) or the same with correction for pitch and roll (EX11011). Resolution 0.1 degrees',NULL,NULL,1); INSERT INTO "parameter" VALUES(2809,'water_velocity','water_velocity',3,1,NULL,166,7,'Velocity (Calculated From VLE, VLN, VLU)',NULL,1,NULL,NULL,NULL,'1xN array of unsigned velocity which is the sqrt of the sum of the squares of E/W N/S and Up velocities. Resolution 0.1 mm/s',NULL,NULL,1); INSERT INTO "parameter" VALUES(2810,'scaled_wave_burst_seafloor_pressure','scaled_wave_burst_seafloor_pressure',8,1,NULL,80,7,'Seafloor Pressure','sea_water_pressure_at_sea_floor',4,132,'{"slope": "CC_slope_correction_factor", "ptcn": "PD96", "t4": "CC_t4", "t1": "CC_t1", "t2": "CC_t2", "p_dec_wave": "PD833", "u0": "CC_u0", "t3": "CC_t3", "c3": "CC_c3", "poff": "CC_pressure_offset_calibration_coefficient", "offset": "CC_offset_correction_factor", "y1": "CC_y1", "c2": "CC_c2", "y3": "CC_y3", "y2": "CC_y2", "d2": "CC_d2", "c1": "CC_c1", "d1": "CC_d1"}','SFLPRES-WAVE_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); -INSERT INTO "parameter" VALUES(2813,'mode','mode',9,6,NULL,10,17,'Mode',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(2813,'mode','mode',9,6,NULL,10,17,'Mode',NULL,0,NULL,NULL,NULL,NULL,2,NULL,1); INSERT INTO "parameter" VALUES(2814,'spread_direction','spread_direction',9,1,NULL,95,7,'Spread Direction',NULL,4,NULL,NULL,'WAVSTAT-DS_L0','spread direction',4,0,1); -INSERT INTO "parameter" VALUES(2819,'ctdbp_seawater_temperature','ctdbp_seawater_temperature',8,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,35,'{"a1": "CC_a1", "a0": "CC_a0", "a3": "CC_a3", "a2": "CC_a2", "t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); -INSERT INTO "parameter" VALUES(2820,'ctdbp_seawater_pressure','ctdbp_seawater_pressure',8,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,36,'{"pa0": "CC_pa0", "ptca1": "CC_ptca1", "p0": "PD195", "pa1": "CC_pa1", "pa2": "CC_pa2", "t0": "PD196", "ptempa2": "CC_ptempa2", "ptca0": "CC_ptca0", "ptempa0": "CC_ptempa0", "ptempa1": "CC_ptempa1", "ptcb0": "CC_ptcb0", "ptcb1": "CC_ptcb1", "ptcb2": "CC_ptcb2", "ptca2": "CC_ptca2"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(2821,'ctdbp_seawater_conductivity','ctdbp_seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,37,'{"p1": "PD2820", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD2819", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(2819,'ctdbp_seawater_temperature','sea_water_temperature',8,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,35,'{"a1": "CC_a1", "a0": "CC_a0", "a3": "CC_a3", "a2": "CC_a2", "t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(2820,'ctdbp_seawater_pressure','sea_water_pressure',8,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,36,'{"pa0": "CC_pa0", "ptca1": "CC_ptca1", "p0": "PD195", "pa1": "CC_pa1", "pa2": "CC_pa2", "t0": "PD196", "ptempa2": "CC_ptempa2", "ptca0": "CC_ptca0", "ptempa0": "CC_ptempa0", "ptempa1": "CC_ptempa1", "ptcb0": "CC_ptcb0", "ptcb1": "CC_ptcb1", "ptcb2": "CC_ptcb2", "ptca2": "CC_ptca2"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(2821,'ctdbp_seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,37,'{"p1": "PD2820", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD2819", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); INSERT INTO "parameter" VALUES(2824,'wavss_a_directional_frequency','wavss_a_directional_frequency',8,1,NULL,24,7,'Directional Wave Spectral Bins',NULL,4,133,'{"nfreq_nondir": "wavss_a_dcl_non_directional.PD2787", "freq0": "PD2788", "delta_freq": "PD2789", "nfreq_dir": "PD2787"}','WAVSTAT-FDS_L1','Frequency values for directional wave spectral bins (WAVSTAT-FDS_L1) [Hz]',3,1,1); INSERT INTO "parameter" VALUES(2825,'wavss_a_non_directional_frequency','wavss_a_non_directional_frequency',8,1,NULL,24,7,'Non-Directional Wave Spectral Bins',NULL,4,134,'{"nfreq": "PD2787", "delta_freq": "PD2789", "freq0": "PD2788"}','WAVSTAT-FND_L1','Frequency values for non-directional wave spectral bins (WAVSTAT-FND_L1) [Hz]',3,1,1); INSERT INTO "parameter" VALUES(2826,'wavss_a_buoymotion_time','wavss_a_buoymotion_time',8,1,NULL,195,7,'Buoy Displacement Time',NULL,4,135,'{"delta_time": "PD2796", "time0": "PD2795", "ntime": "PD2794", "ntp_timestamp": "PD7"}','WAVSTAT-MOTT_L1','NTP times corresponding to buoy displacement data measurements (WAVSTAT-MOTT_L1)',3,1,1); -INSERT INTO "parameter" VALUES(2827,'wavss_a_corrected_mean_wave_direction','wavss_a_corrected_mean_wave_direction',8,1,NULL,87,7,'Wave Direction - Mean',NULL,4,136,'{"lat": "CC_lat", "ntp_ts": "PD7", "lon": "CC_lon", "dir_raw": "PD2785"}','WAVSTAT-D_L1','Mean wave direction corrected for magnetic declination (WAVSTAT-D_L1) [deg, [0 360)].',3,1,1); -INSERT INTO "parameter" VALUES(2828,'wavss_a_corrected_directional_wave_direction','wavss_a_corrected_directional_wave_direction',8,1,NULL,87,7,'Wave Direction',NULL,4,137,'{"lat": "CC_lat", "ntp_ts": "PD7", "lon": "CC_lon", "dir_raw": "PD2792"}','WAVSTAT-DDS_L1','Directional waves'' directions corrected for magnetic declination (WAVSTAT-DDS_L1) [deg, [0 360)].',3,1,1); +INSERT INTO "parameter" VALUES(2827,'wavss_a_corrected_mean_wave_direction','wavss_a_corrected_mean_wave_direction',8,1,NULL,95,7,'Wave Direction - Mean',NULL,4,136,'{"lat": "CC_lat", "ntp_ts": "PD7", "lon": "CC_lon", "dir_raw": "PD2785"}','WAVSTAT-D_L1','Mean wave direction corrected for magnetic declination (WAVSTAT-D_L1) [deg, [0 360)].',3,1,1); +INSERT INTO "parameter" VALUES(2828,'wavss_a_corrected_directional_wave_direction','wavss_a_corrected_directional_wave_direction',8,1,NULL,95,7,'Wave Direction',NULL,4,137,'{"lat": "CC_lat", "ntp_ts": "PD7", "lon": "CC_lon", "dir_raw": "PD2792"}','WAVSTAT-DDS_L1','Directional waves'' directions corrected for magnetic declination (WAVSTAT-DDS_L1) [deg, [0 360)].',3,1,1); INSERT INTO "parameter" VALUES(2829,'wavss_a_magcor_buoymotion_x','wavss_a_magcor_buoymotion_x',8,1,NULL,122,7,'Corrected Buoy Displacement - Eastward',NULL,4,138,'{"y": "PD2800", "x": "PD2799", "lat": "CC_lat", "ntp_timestamp": "PD7", "lon": "CC_lon"}','WAVSTAT-MOTX_L1','East displacement of the buoy on which the WAVSS is mounted, corrected for magnetic declination (WAVSTAT-MOTX_L1) [m]',3,1,1); INSERT INTO "parameter" VALUES(2830,'wavss_a_magcor_buoymotion_y','wavss_a_magcor_buoymotion_y',8,1,NULL,122,7,'Corrected Buoy Displacement - Northward',NULL,4,139,'{"y": "PD2800", "x": "PD2799", "lat": "CC_lat", "ntp_timestamp": "PD7", "lon": "CC_lon"}','WAVSTAT-MOTY_L1','North displacement of the buoy on which the WAVSS is mounted, corrected for magnetic declination (WAVSTAT-MOTY_L1) [m]',3,1,1); INSERT INTO "parameter" VALUES(2834,'battery_low_blank','battery_low_blank',5,5,NULL,10,4,'Battery Low During Blank Cycle',NULL,0,NULL,NULL,NULL,'Battery low during blank cycle',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2843,'dosta_abcdjm_cspp_tc_oxygen','dosta_abcdjm_cspp_tc_oxygen',8,1,NULL,218,7,'DO - Temp Corrected',NULL,NULL,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD943", "csv": "CC_csv", "temp": "PD942"}','DOCONCS_L1','Dissolved Oxygen (DO) Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature measured by the DO instrument.',3,1,1); +INSERT INTO "parameter" VALUES(2843,'dosta_abcdjm_cspp_tc_oxygen','dosta_abcdjm_cspp_tc_oxygen',8,1,NULL,246,7,'Dissolved Oxygen - Temp Corrected','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',NULL,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD943", "csv": "CC_csv", "temp": "PD942"}','DOCONCS_L1','Dissolved Oxygen (DO) Concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for temperature measured by the DO instrument.',3,1,1); INSERT INTO "parameter" VALUES(2846,'flcdr_x_mmp_cds_fluorometric_cdom','flcdr_x_mmp_cds_fluorometric_cdom',8,1,NULL,181,7,'CDOM Concentration',NULL,6,79,'{"counts_dark": "CC_dark_counts_cdom", "scale_factor": "CC_scale_factor_cdom", "counts_output": "PD2257"}','CDOMFLO_L1','Fluorometric CDOM Concentration is a measure of how much light has been re-emitted (fluoresced) from colored organic compounds found in the colored dissolved organic matter (CDOM) in seawater. Examples of CDOM include tannins (polyphenols that bind to proteins and other large molecules) or lignins (polymers of phenolic acids) from decaying plant material and byproducts from the decomposition of animals. CDOM is not particulate, but seawater can contain both CDOM and turbidity.',3,1,1); INSERT INTO "parameter" VALUES(2847,'flntu_x_mmp_cds_total_volume_scattering_coefficient','flntu_x_mmp_cds_total_volume_scattering_coefficient',8,1,NULL,128,7,'Total Volume Scattering Coefficient',NULL,6,81,'{"counts_dark": "CC_dark_counts_volume_scatter", "scale_factor": "CC_scale_factor_volume_scatter", "counts_output": "PD2259"}','FLUBSCT_L1','The Total Volume Scattering Coefficient represents the volume scattering from particles and the molecular scattering from water at a given wavelength of light and the default angle of 117 degrees for the ECO meter.',3,1,1); -INSERT INTO "parameter" VALUES(2848,'flntu_x_mmp_cds_fluorometric_chlorophyll_a','flntu_x_mmp_cds_fluorometric_chlorophyll_a',8,1,NULL,217,7,'Chlorophyll-A Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',6,80,'{"counts_dark": "CC_dark_counts_chlorophyll_a", "scale_factor": "CC_scale_factor_chlorophyll_a", "counts_output": "PD2258"}','CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass because it is a dominant photosynthetic pigment.',3,1,1); +INSERT INTO "parameter" VALUES(2848,'flntu_x_mmp_cds_fluorometric_chlorophyll_a','flntu_x_mmp_cds_fluorometric_chlorophyll_a',8,1,NULL,243,7,'Chlorophyll-A Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',6,80,'{"counts_dark": "CC_dark_counts_chlorophyll_a", "scale_factor": "CC_scale_factor_chlorophyll_a", "counts_output": "PD2258"}','CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass because it is a dominant photosynthetic pigment.',3,1,1); INSERT INTO "parameter" VALUES(2849,'flntu_x_mmp_cds_bback_total','flntu_x_mmp_cds_bback_total',8,1,NULL,127,7,'Optical Backscatter (Red Wavelengths)',NULL,4,78,'{"beta": "PD2847", "degC": "PD6", "theta": "CC_scattering_angle", "wlngth": "CC_measurement_wavelength", "xfactor": "CC_angular_resolution", "psu": "dpi_PRACSAL_L2"}','FLUBSCT_L2','Optical Backscatter (Red Wavelengths) is a measure of the amount of red light (630-740 nm wavelengths) scattered in the backward direction due to suspended matter within seawater, providing a proxy for turbidity and suspended solids.',3,2,1); INSERT INTO "parameter" VALUES(2850,'cg_eng_alarm_sys','cg_eng_alarm_sys',3,6,NULL,10,17,'Alarm Sys',NULL,NULL,NULL,NULL,NULL,'System which had the alarm (example: C_POWER_SYS)',NULL,NULL,1); INSERT INTO "parameter" VALUES(2851,'cg_eng_alarm_ts','cg_eng_alarm_ts',3,6,NULL,10,17,'Alarm Ts',NULL,NULL,NULL,NULL,NULL,'Alarm timestamp (example: 2014/08/17 12:53:58.217)',NULL,NULL,1); @@ -3405,9 +3409,9 @@ INSERT INTO "parameter" VALUES(2922,'cg_eng_pwrsys_pv2_0','cg_eng_pwrsys_pv2_0', INSERT INTO "parameter" VALUES(2923,'cg_eng_pwrsys_pv2_1','cg_eng_pwrsys_pv2_1',9,1,NULL,10,7,'Pwrsys Pv2 1',NULL,4,NULL,NULL,NULL,'Pwrsys Pv2 1',NULL,NULL,1); INSERT INTO "parameter" VALUES(2924,'max_stack','max_stack',9,1,NULL,10,7,'Max Stack',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(2925,'date_time_str','date_time_str',9,6,NULL,10,17,'Date and Time String',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(2926,'ctdmo_seawater_pressure','ctdmo_seawater_pressure',8,1,NULL,80,5,'Seawater Pressure','sea_water_pressure',NULL,142,'{"p0": "PD195", "p_range_psia": "CC_p_range"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(2927,'ctdmo_seawater_temperature','ctdmo_seawater_temperature',8,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,140,'{"t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); -INSERT INTO "parameter" VALUES(2928,'ctdmo_seawater_conductivity','ctdmo_seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',4,141,'{"c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(2926,'ctdmo_seawater_pressure','sea_water_pressure',8,1,NULL,80,5,'Seawater Pressure','sea_water_pressure',NULL,142,'{"p0": "PD195", "p_range_psia": "CC_p_range"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(2927,'ctdmo_seawater_temperature','sea_water_temperature',8,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,140,'{"t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(2928,'ctdmo_seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',4,141,'{"c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); INSERT INTO "parameter" VALUES(2931,'number_of_beam_sequences','number_of_beam_sequences',9,3,NULL,67,5,'Number of Beam Sequences Per Burst',NULL,0,NULL,NULL,NULL,'Number Of Beam Sequences Per Burst',NULL,NULL,1); INSERT INTO "parameter" VALUES(2932,'number_of_beams_in_diagnostics_mode','number_of_beams_in_diagnostics_mode',9,3,NULL,67,5,'Number of Beams in Diagnostics Mode',NULL,0,NULL,NULL,NULL,'Number of beams in diagnostics mode, counts',NULL,NULL,1); INSERT INTO "parameter" VALUES(2933,'reserved_bit_easyq','reserved_bit_easyq',5,5,NULL,10,4,'Reserved Bit - EasyQ',NULL,0,NULL,NULL,NULL,'Reserved Bit - EasyQ',NULL,NULL,1); @@ -3445,7 +3449,7 @@ INSERT INTO "parameter" VALUES(2964,'delta_min','delta_min',9,4,NULL,175,7,'Min INSERT INTO "parameter" VALUES(2965,'delta_max','delta_max',9,4,NULL,175,7,'Max Time the Pulse Has Been Off in Latest Reporting Period',NULL,0,NULL,NULL,NULL,'Max time the pulse has been off in latest reporting period',NULL,NULL,1); INSERT INTO "parameter" VALUES(2966,'bad_pulses','bad_pulses',9,4,NULL,67,7,'Bad Pulses',NULL,0,NULL,NULL,NULL,'Bad Pulses',NULL,NULL,1); INSERT INTO "parameter" VALUES(2967,'board_type','board_type',9,6,NULL,10,17,'Controller Board Type, Ex: DCL',NULL,0,NULL,NULL,NULL,'Controller Board Type, ex: dcl',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2968,'vmain_backplane_bus_voltage','vmain_backplane_bus_voltage',9,1,NULL,209,7,'Vmain Backplane Bus Voltage @ DCL Input',NULL,4,NULL,NULL,NULL,'Vmain backplane bus voltage @ DCL Input',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2968,'vmain_backplane_bus_voltage','vmain_backplane_bus_voltage',9,1,NULL,40,7,'Vmain Backplane Bus Voltage @ DCL Input',NULL,4,NULL,NULL,NULL,'Vmain backplane bus voltage @ DCL Input',NULL,NULL,1); INSERT INTO "parameter" VALUES(2969,'imain_current','imain_current',9,1,NULL,147,7,'Imain, Current, @ DCL Input',NULL,4,NULL,NULL,NULL,'Imain, current, ma, @ DCL Input',NULL,NULL,1); INSERT INTO "parameter" VALUES(2970,'error_vmain_out_tolerance','error_vmain_out_tolerance',9,5,NULL,10,4,'Vmain Out of Tolerance',NULL,0,NULL,NULL,NULL,'Vmain out of tolerance',NULL,NULL,1); INSERT INTO "parameter" VALUES(2971,'error_imain_out_tolerance','error_imain_out_tolerance',9,5,NULL,10,4,'Imain Out of Tolerance',NULL,0,NULL,NULL,NULL,'Imain out of tolerance',NULL,NULL,1); @@ -3469,32 +3473,32 @@ INSERT INTO "parameter" VALUES(2988,'error_channel_8_not_responding','error_chan INSERT INTO "parameter" VALUES(2989,'error_i2c_error','error_i2c_error',9,5,NULL,10,4,'I2C Error',NULL,0,NULL,NULL,NULL,'I2C error',NULL,NULL,1); INSERT INTO "parameter" VALUES(2990,'error_uart_error','error_uart_error',9,5,NULL,10,4,'UART Error',NULL,0,NULL,NULL,NULL,'UART error',NULL,NULL,1); INSERT INTO "parameter" VALUES(2991,'error_brown_out_reset','error_brown_out_reset',9,5,NULL,10,4,'Brown Out Reset Detected',NULL,0,NULL,NULL,NULL,'Brown out reset detected',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2992,'bmp085_temp','bmp085_temp',9,1,NULL,96,7,'BMP085 Temperature (Pressure Sensor)',NULL,4,NULL,NULL,NULL,'BMP085 Temperature (Pressure Sensor)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2993,'sht25_temp','sht25_temp',9,1,NULL,96,7,'SHT25 Temperature (Humidity Sensor)',NULL,4,NULL,NULL,NULL,'SHT25 Temperature (Humidity Sensor)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2994,'murata_12v_temp','murata_12v_temp',9,1,NULL,96,7,'12V Murata Temperature',NULL,4,NULL,NULL,NULL,'12V Murata Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2995,'murata_24v_temp','murata_24v_temp',9,1,NULL,96,7,'24V Murata Temperature',NULL,4,NULL,NULL,NULL,'24V Murata Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2996,'vicor_12v_bcm_temp','vicor_12v_bcm_temp',9,1,NULL,96,7,'12V Vicor BCM Temperature',NULL,4,NULL,NULL,NULL,'12V Vicor BCM Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2997,'sht25_humidity','sht25_humidity',9,1,NULL,2,7,'SHT25 Humidity, %Relative',NULL,4,NULL,NULL,NULL,'SHT25 Humidity',NULL,NULL,1); -INSERT INTO "parameter" VALUES(2998,'bmp085_pressure','bmp085_pressure',9,1,NULL,185,7,'BMP085 Pressure',NULL,4,NULL,NULL,NULL,'BMP085 pressure',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2992,'bmp085_temp','bmp085_temp',9,1,NULL,232,7,'BMP085 Temperature (Pressure Sensor)',NULL,4,NULL,NULL,NULL,'BMP085 Temperature (Pressure Sensor)',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2993,'sht25_temp','sht25_temp',9,1,NULL,232,7,'SHT25 Temperature (Humidity Sensor)',NULL,4,NULL,NULL,NULL,'SHT25 Temperature (Humidity Sensor)',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2994,'murata_12v_temp','murata_12v_temp',9,1,NULL,232,7,'12V Murata Temperature',NULL,4,NULL,NULL,NULL,'12V Murata Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2995,'murata_24v_temp','murata_24v_temp',9,1,NULL,232,7,'24V Murata Temperature',NULL,4,NULL,NULL,NULL,'24V Murata Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2996,'vicor_12v_bcm_temp','vicor_12v_bcm_temp',9,1,NULL,232,7,'12V Vicor BCM Temperature',NULL,4,NULL,NULL,NULL,'12V Vicor BCM Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2997,'sht25_humidity','sht25_humidity',9,1,NULL,239,7,'SHT25 Humidity, %Relative',NULL,4,NULL,NULL,NULL,'SHT25 Humidity',NULL,NULL,1); +INSERT INTO "parameter" VALUES(2998,'bmp085_pressure','bmp085_pressure',9,1,NULL,184,7,'BMP085 Pressure',NULL,4,NULL,NULL,NULL,'BMP085 pressure',NULL,NULL,1); INSERT INTO "parameter" VALUES(2999,'active_swgf_channels','active_swgf_channels',9,5,NULL,10,4,'Active SWGF Channels (Bitmask); ''7'' = All 3 Enabled',NULL,0,NULL,NULL,NULL,'Active SWGF channels (bitmask); ''7'' = all 3 enabled',NULL,NULL,1); INSERT INTO "parameter" VALUES(3000,'swgf_c1_max_leakage','swgf_c1_max_leakage',9,1,NULL,10,7,'SWGF Channel 1 Maximum Leakage',NULL,4,NULL,NULL,NULL,'SWGF channel 1 maximum leakage (console to CPM, uA) positive -> DCL_RTN_CPM wet, negative -> DCL_ISO_3v3 wet',NULL,NULL,1); INSERT INTO "parameter" VALUES(3001,'swgf_c2_max_leakage','swgf_c2_max_leakage',9,1,NULL,10,7,'SWGF Channel 2 Maximum Leakage',NULL,4,NULL,NULL,NULL,'SWGF channel 2 maximum leakage (Vmain/Gmain), uAmp, Vmain/Gmain; positive -> Vmain wet, negative -> Gmain wet',NULL,NULL,1); INSERT INTO "parameter" VALUES(3002,'swgf_c3_max_leakage','swgf_c3_max_leakage',9,1,NULL,10,7,'SWGF Channel 3 Maximum Leakage',NULL,4,NULL,NULL,NULL,'SWGF channel 3 maximum leakage (isolated instrument 12/24V), uAmp, sensor 12v/24v & SNSR_COM,; positive -> sensor 12 and/or 24V wet, negative -> SNSR_COM wet',NULL,NULL,1); INSERT INTO "parameter" VALUES(3003,'active_leak_detect_channels','active_leak_detect_channels',9,5,NULL,10,4,'Active Leak-Detect Channels (Bitmask)',NULL,0,NULL,NULL,NULL,'Active leak-detect channels (bitmask)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3004,'leak_detect_c1_v','leak_detect_c1_v',9,4,NULL,209,7,'Leak-Detect Channel 1 Voltage',NULL,0,NULL,NULL,NULL,'Leak-detect channel 1 voltage; 0-.250 = leak, 1100-1300 = dry, 2000-2600 = open',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3005,'leak_detect_c2_v','leak_detect_c2_v',9,4,NULL,209,7,'Leak-Detect Channel 2 Voltage',NULL,0,NULL,NULL,NULL,'Leak-detect channel 2 voltage; 0-.250 = leak, 1100-1300 = dry, 2000-2600 = open',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3004,'leak_detect_c1_v','leak_detect_c1_v',9,4,NULL,40,7,'Leak-Detect Channel 1 Voltage',NULL,0,NULL,NULL,NULL,'Leak-detect channel 1 voltage; 0-.250 = leak, 1100-1300 = dry, 2000-2600 = open',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3005,'leak_detect_c2_v','leak_detect_c2_v',9,4,NULL,40,7,'Leak-Detect Channel 2 Voltage',NULL,0,NULL,NULL,NULL,'Leak-detect channel 2 voltage; 0-.250 = leak, 1100-1300 = dry, 2000-2600 = open',NULL,NULL,1); INSERT INTO "parameter" VALUES(3006,'channel_state','channel_state',3,5,13,10,4,'8 Element Array of Channel State',NULL,0,NULL,NULL,NULL,'8 element Array of Channel state, 0 = off, 1 = on',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3007,'channel_v','channel_v',3,1,NULL,209,7,'8 Element Array of Channel Voltage',NULL,4,NULL,NULL,NULL,'8 element Array of Channel Voltage',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3007,'channel_v','channel_v',3,1,NULL,40,7,'8 Element Array of Channel Voltage',NULL,4,NULL,NULL,NULL,'8 element Array of Channel Voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(3008,'channel_i','channel_i',3,1,NULL,147,7,'8 Element Array of Channel Current',NULL,4,NULL,NULL,NULL,'8 element Array of Channel Current',NULL,NULL,1); INSERT INTO "parameter" VALUES(3009,'channel_error_status','channel_error_status',3,5,NULL,10,4,'8 Element Array of Channel Error Status; 0 = OK',NULL,0,NULL,NULL,NULL,'8 element Array of Channel Error Status; 0 = OK',NULL,NULL,1); INSERT INTO "parameter" VALUES(3010,'pwr_board_mode','pwr_board_mode',9,5,12,10,4,'Power Board Mode',NULL,0,NULL,NULL,NULL,'Power Board Mode:0=off, 1=lo pwr enable, 2=hi pwr enable, 3=both enabled',NULL,NULL,1); INSERT INTO "parameter" VALUES(3011,'dpb_mode','dpb_mode',9,5,11,10,4,'Dpb Mode',NULL,0,NULL,NULL,NULL,'dpb mode: 0=off, 1=gpio (legacy mode, either hi or lo pwr enabled, not both)',NULL,NULL,1); INSERT INTO "parameter" VALUES(3012,'dpb_voltage_mode','dpb_voltage_mode',9,5,15,10,4,'Dpb Voltage Mode',NULL,0,NULL,NULL,NULL,'Dpb voltage mode: 0=off, 1=lp12, 2=lp12 & 24, 3=hp12, 4=hp12 & 24',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3013,'vmain_dpb_in','vmain_dpb_in',9,1,NULL,209,7,'Vmain @ DPB Input',NULL,4,NULL,NULL,NULL,'Vmain @ DPB input',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3013,'vmain_dpb_in','vmain_dpb_in',9,1,NULL,40,7,'Vmain @ DPB Input',NULL,4,NULL,NULL,NULL,'Vmain @ DPB input',NULL,NULL,1); INSERT INTO "parameter" VALUES(3014,'imain_dpb_in','imain_dpb_in',9,1,NULL,147,7,'Imain @ DPB Input',NULL,4,NULL,NULL,NULL,'Imain @ DPB input',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3015,'out_12v_v','out_12v_v',9,1,NULL,209,7,'12V Output Voltage',NULL,4,NULL,NULL,NULL,'12V output, V',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3015,'out_12v_v','out_12v_v',9,1,NULL,40,7,'12V Output Voltage',NULL,4,NULL,NULL,NULL,'12V output, V',NULL,NULL,1); INSERT INTO "parameter" VALUES(3016,'out_12v_i','out_12v_i',9,1,NULL,147,7,'12V Output Current',NULL,4,NULL,NULL,NULL,'12V output, I',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3017,'out_24v_v','out_24v_v',9,1,NULL,209,7,'24V Output Voltage',NULL,4,NULL,NULL,NULL,'24V output, V',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3017,'out_24v_v','out_24v_v',9,1,NULL,40,7,'24V Output Voltage',NULL,4,NULL,NULL,NULL,'24V output, V',NULL,NULL,1); INSERT INTO "parameter" VALUES(3018,'out_24v_i','out_24v_i',9,1,NULL,147,7,'24V Output Current',NULL,4,NULL,NULL,NULL,'24V output, I',NULL,NULL,1); INSERT INTO "parameter" VALUES(3019,'datalogger_timestamp','datalogger_timestamp',9,6,NULL,10,17,'Datalogger Timestamp',NULL,0,NULL,NULL,NULL,'Datalogger timestamp',NULL,NULL,1); INSERT INTO "parameter" VALUES(3020,'dlog_mgr_act','dlog_mgr_act',9,5,NULL,10,4,'Number of Data Loggers Active for This DCL',NULL,0,NULL,NULL,NULL,'Number of data loggers active for this DCL',NULL,NULL,1); @@ -3536,14 +3540,14 @@ INSERT INTO "parameter" VALUES(3055,'t_1_10','t_1_10',9,1,NULL,191,7,'Wave Perio INSERT INTO "parameter" VALUES(3056,'d_mean','d_mean',9,1,NULL,95,7,'Mean Peak Wave Direction',NULL,4,NULL,NULL,NULL,'Mean Peak Wave Direction',NULL,NULL,1); INSERT INTO "parameter" VALUES(3057,'num_bins','num_bins',9,10,NULL,67,10,'Number of Bins',NULL,0,NULL,NULL,NULL,'Number of bins',NULL,NULL,1); INSERT INTO "parameter" VALUES(3058,'depth_level_magnitude','depth_level_magnitude',3,1,NULL,123,7,'Depth Level Magnitude',NULL,4,NULL,NULL,NULL,'num_bins element array of Depth Level Magnitude',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3059,'depth_level_direction','depth_level_direction',3,3,NULL,87,10,'Depth Level Direction',NULL,0,NULL,NULL,NULL,'num_bins element array of Depth Level Direction',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3059,'depth_level_direction','depth_level_direction',3,3,NULL,95,10,'Depth Level Direction',NULL,0,NULL,NULL,NULL,'num_bins element array of Depth Level Direction',NULL,NULL,1); INSERT INTO "parameter" VALUES(3060,'file_time','file_time',9,6,NULL,10,17,'Timestamp From the Filename',NULL,0,NULL,NULL,NULL,'Timestamp from the filename',NULL,NULL,1); INSERT INTO "parameter" VALUES(3061,'num_dir','num_dir',9,7,NULL,67,10,'Number of Calculated Directions for Spectrum',NULL,0,NULL,NULL,NULL,'Number of calculated Directions for Spectrum',NULL,NULL,1); INSERT INTO "parameter" VALUES(3062,'num_freq','num_freq',9,7,NULL,67,10,'Number of Frequency Bands',NULL,0,NULL,NULL,NULL,'Number of Frequency bands',NULL,NULL,1); INSERT INTO "parameter" VALUES(3063,'freq_w_band','freq_w_band',9,2,NULL,109,7,'Width of Frequency Bands',NULL,4,NULL,NULL,NULL,'Width of Frequency bands',NULL,NULL,1); INSERT INTO "parameter" VALUES(3064,'freq_0','freq_0',9,2,NULL,109,7,'Center Frequency of First Frequency Band',NULL,4,NULL,NULL,NULL,'Center frequency of first Frequency band',NULL,NULL,1); INSERT INTO "parameter" VALUES(3065,'start_dir','start_dir',9,2,NULL,95,7,'Starting Direction of (NumDir) Directions',NULL,4,NULL,NULL,NULL,'Starting Direction of (NumDir) Directions',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3066,'directional_surface_spectrum','directional_surface_spectrum',3,8,NULL,170,10,'Directional Surface Spectrum',NULL,0,NULL,NULL,NULL,'NumFreq by NumDir Matrix of Directional Surface Spectrum values',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3066,'directional_surface_spectrum','directional_surface_spectrum',3,8,NULL,237,10,'Directional Surface Spectrum',NULL,0,NULL,NULL,NULL,'NumFreq by NumDir Matrix of Directional Surface Spectrum values',NULL,NULL,1); INSERT INTO "parameter" VALUES(3067,'met_barpres','met_barpres',8,1,NULL,35,7,'Barometric Pressure','air_pressure',2,143,'{"mbar": "PD1051"}','BARPRES_L1','Barometric Pressure is a measure of the weight of the column of air above the sensor. It is also commonly referred to as atmospheric pressure. This data products is calculated by converting the measured Level 0 Barometric Pressure from mbar to Pa.',3,1,1); INSERT INTO "parameter" VALUES(3068,'met_windavg_mag_corr_east','met_windavg_mag_corr_east',8,1,NULL,123,7,'Mean Wind Velocity - Eastward Relative to True North','eastward_wind',2,144,'{"zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "uu": "PD1059", "timestamp": "PD7", "lon": "CC_lon", "vv": "PD1060", "lat": "CC_lat"}','WINDAVG-VLE_L1','WINDAVG-VLE_L1, the OOI Level 1 core data product for windspeed in the true eastward direction, for the METBK instrument by correcting for magnetic declination.',3,1,1); INSERT INTO "parameter" VALUES(3069,'met_windavg_mag_corr_north','met_windavg_mag_corr_north',8,1,NULL,123,7,'Mean Wind Velocity - Northward Relative to True North','northward_wind',2,145,'{"zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "uu": "PD1059", "timestamp": "PD7", "lon": "CC_lon", "vv": "PD1060", "lat": "CC_lat"}','WINDAVG-VLN_L1','WINDAVG-VLN_L1, the OOI Level 1 core data product for windspeed in the true northward direction, for the METBK instrument by correcting for magnetic declination.',3,1,1); @@ -3554,7 +3558,7 @@ INSERT INTO "parameter" VALUES(3073,'met_relwind_speed','met_relwind_speed',8,1, INSERT INTO "parameter" VALUES(3074,'met_timeflx','met_timeflx',8,1,NULL,196,7,'Hourly Averaged Timestamp',NULL,4,150,'{"timestamp": "PD7"}','TIMEFLX-AUX','TIMEFLX-AUX, the timestamps corresponding to the hourly averaged METBK data products. The units of the timestamps are seconds since 01-01-1900. The timestamp values are selected to be at the midpoint of the bin intervals, starting half an hour after the timestamp of the first data record to be processed. For example, if the first data record for 30 days of data is at 4:45 AM on a given day, the first timeflx stamp will be at 5:15 AM on that day, and all succeeding timestamps for the rest of the data will all be at 15 minutes past the hour.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3075,'met_netsirr','met_netsirr',8,1,NULL,42,7,'Net Shortwave Irradiance',NULL,4,151,'{"shortwave_down": "PD1058"}','NETSIRR_L2','NETSIRR_L2, the OOI core data product net shortwave radiation in the downward direction, for the METBK instrument.',3,2,1); INSERT INTO "parameter" VALUES(3076,'met_rainrte','met_rainrte',8,1,NULL,167,7,'Rain Rate',NULL,4,152,'{"timestamp": "PD7", "cumulative_precipitation": "PD1055"}','RAINRTE_L2','RAINRTE_L2, the OOI core data product rain rate, for the METBK instrument. The DPS requires that the output data be hourly; METBK is set up to give roughly one data record per minute for the data needed to calculate RAINRTE.',3,2,1); -INSERT INTO "parameter" VALUES(3077,'met_salsurf','met_salsurf',8,1,NULL,10,7,'Sea Surface Practical Salinity','sea_water_practical_salinity',4,153,'{"tC_sea": "dpi_TEMPSRF_L1", "cond": "dpi_CONDSRF_L1", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m"}','SALSURF_L2','Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',3,2,1); +INSERT INTO "parameter" VALUES(3077,'met_salsurf','met_salsurf',8,1,NULL,227,7,'Sea Surface Practical Salinity','sea_surface_salinity',4,153,'{"tC_sea": "dpi_TEMPSRF_L1", "cond": "dpi_CONDSRF_L1", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m"}','SALSURF_L2','Salinity is generally defined as the concentration of dissolved salt in a parcel of seawater. Practical Salinity is a more specific unitless quantity calculated from the conductivity of seawater and adjusted for temperature and pressure. It is approximately equivalent to Absolute Salinity (the mass fraction of dissolved salt in seawater) but they are not interchangeable.',3,2,1); INSERT INTO "parameter" VALUES(3078,'met_spechum','met_spechum',8,1,NULL,103,7,'Specific Humidity',NULL,4,154,'{"tC_air": "PD1053", "pr_air": "PD1051", "relhum": "PD1052"}','SPECHUM_L2','SPECHUM_L2, the OOI air specific humidity core data product, for the METBK instrument. Not to be confused with the SPHUM2M_L2 data product.',3,2,1); INSERT INTO "parameter" VALUES(3079,'met_buoyfls','met_buoyfls',8,1,NULL,42,7,'Sonic Buoyancy Flux',NULL,4,155,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','BUOYFLS_L2','Calculated sonic buoyancy flux data product BUOYFLS_L2 using the sonic temperature instead of the virtual temperature. The FDCHP instrument calculates the analogous FLUXHOT_L2 data product also as a buoyancy flux using the sonic temperature. In contrast, the (METBK) data product BUOYFLX_L2 uses the virtual temperature in its calculation of buoyancy flux.',NULL,2,1); INSERT INTO "parameter" VALUES(3080,'met_buoyflx','met_buoyflx',8,1,NULL,42,7,'Buoyancy Flux',NULL,4,156,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','BUOYFLX_L2','Calculated buoyancy flux data product BUOYFLX_L2 using the virtual temperature. This is the more fundamental quantity for buoyancy flux (rather than using the sonic temperature).',NULL,2,1); @@ -3567,13 +3571,13 @@ INSERT INTO "parameter" VALUES(3086,'met_rainflx','met_rainflx',8,1,NULL,42,7,'R INSERT INTO "parameter" VALUES(3087,'met_sensflx','met_sensflx',8,1,NULL,42,7,'Sensible Heat Flux',NULL,4,163,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','SENSFLX_L2','The net upward sensible heat flux SENSFLX_L2.',3,2,1); INSERT INTO "parameter" VALUES(3088,'met_sphum2m','met_sphum2m',8,1,NULL,103,7,'Specific Humidity',NULL,4,164,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','SPHUM2M_L2','The modelled specific humidity at a reference height of 2m SPHUM2M_L2.',3,2,1); INSERT INTO "parameter" VALUES(3089,'met_stablty','met_stablty',8,1,NULL,10,7,'Monin-Obukhov Stability',NULL,4,165,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','STABLTY_L2','The Monin-Obukhov stability parameter metadata product STABLTY_L2.',NULL,2,1); -INSERT INTO "parameter" VALUES(3090,'met_tempa2m','met_tempa2m',8,1,NULL,225,7,'Air Temperature',NULL,4,166,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','TEMPA2M_L2','Air Temperature at 2 meters refers to the temperature of the air adjusted to a standard height of 2-meters above the sea surface; this is also referred to as bulk temperature.',3,2,1); -INSERT INTO "parameter" VALUES(3091,'met_tempskn','met_tempskn',8,1,NULL,225,7,'Skin Seawater Temperature',NULL,4,167,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','TEMPSKN_L2','The skin sea temperature based on the warmlayer and coolskin (coare35vn) model: metadata product TEMPSKN_L2.',3,2,1); -INSERT INTO "parameter" VALUES(3092,'met_wind10m','met_wind10m',8,1,NULL,123,7,'Wind Velocity at 10 M',NULL,4,168,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','WIND10M_L2','The modelled windspeed at a reference height of 10m WIND10M_L2.',3,2,1); +INSERT INTO "parameter" VALUES(3090,'met_tempa2m','met_tempa2m',8,1,NULL,232,7,'Air Temperature',NULL,4,166,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','TEMPA2M_L2','Air Temperature at 2 meters refers to the temperature of the air adjusted to a standard height of 2-meters above the sea surface; this is also referred to as bulk temperature.',3,2,1); +INSERT INTO "parameter" VALUES(3091,'met_tempskn','met_tempskn',8,1,NULL,232,7,'Skin Seawater Temperature',NULL,4,167,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','TEMPSKN_L2','The skin sea temperature based on the warmlayer and coolskin (coare35vn) model: metadata product TEMPSKN_L2.',3,2,1); +INSERT INTO "parameter" VALUES(3092,'met_wind10m','met_wind10m',8,1,NULL,123,7,'Wind Velocity at 10 M','wind_speed',4,168,'{"tC_air": "PD1053", "zwindsp": "CC_height_of_windspeed_sensor_above_sealevel_m", "zhumair": "CC_height_of_air_humidity_measurement_m", "wnd": "PD3073", "tC_sea": "PD1056", "lon": "CC_lon", "jcool": "CC_jcool", "ztmpair": "CC_height_of_air_temperature_measurement_m", "pr_air": "PD1051", "zinvpbl": "CC_zinvpbl", "cumu_prcp": "PD1055", "ztmpwat": "CC_depth_of_conductivity_and_temperature_measurements_m", "Rlong_down": "PD1054", "timestamp": "PD7", "lat": "CC_lat", "Rshort_down": "PD1058", "relhum": "PD1052", "jwarm": "CC_jwarm"}','WIND10M_L2','Standardized wind speed at a reference height of 10m adjusted from measurements collected at approximately 5 meters height above the waterline.',3,2,1); INSERT INTO "parameter" VALUES(3093,'num_fields','num_fields',9,7,NULL,67,10,'Num Fields',NULL,0,NULL,NULL,NULL,'Number of Fields in Surface Fourier Coefficients',NULL,NULL,1); INSERT INTO "parameter" VALUES(3094,'frequency_band','frequency_band',3,2,NULL,109,7,'Frequency Band',NULL,4,NULL,NULL,NULL,'num_freq element array of Frequency Band',NULL,NULL,1); INSERT INTO "parameter" VALUES(3095,'bandwidth_band','bandwidth_band',3,2,NULL,109,7,'Bandwidth Band',NULL,4,NULL,NULL,NULL,'num_freq element array of Bandwidth of band',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3096,'energy_density_band','energy_density_band',3,2,NULL,131,7,'Energy Density Band',NULL,4,NULL,NULL,NULL,'num_freq element array of Energy Density',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3096,'energy_density_band','energy_density_band',3,2,NULL,235,7,'Energy Density Band',NULL,4,NULL,NULL,NULL,'num_freq element array of Energy Density',NULL,NULL,1); INSERT INTO "parameter" VALUES(3097,'direction_band','direction_band',3,2,NULL,95,7,'Direction Band',NULL,4,NULL,NULL,NULL,'num_freq element array of Direction',NULL,NULL,1); INSERT INTO "parameter" VALUES(3098,'a1_band','a1_band',3,2,NULL,10,7,'A1 Band',NULL,4,NULL,NULL,NULL,'num_freq element array of A1 (signal level)',NULL,NULL,1); INSERT INTO "parameter" VALUES(3099,'b1_band','b1_band',3,2,NULL,10,7,'B1 Band',NULL,4,NULL,NULL,NULL,'num_freq element array of B1 (signal level)',NULL,NULL,1); @@ -3618,72 +3622,72 @@ INSERT INTO "parameter" VALUES(3137,'vel_min','vel_min',9,3,NULL,168,5,'Vel Min' INSERT INTO "parameter" VALUES(3138,'vel_max','vel_max',9,3,NULL,168,5,'Vel Max',NULL,0,NULL,NULL,NULL,'Screen velocity data for values greater than Maximum velocity',NULL,NULL,1); INSERT INTO "parameter" VALUES(3139,'vel_std','vel_std',9,10,NULL,168,10,'Vel Std',NULL,0,NULL,NULL,NULL,'Screen for values greater than 4STDs away from the mean',NULL,NULL,1); INSERT INTO "parameter" VALUES(3140,'vel_max_change','vel_max_change',9,7,NULL,168,10,'Vel Max Change',NULL,0,NULL,NULL,NULL,'Screen values with a sample to sample change greater than this',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3141,'vel_pct_gd','vel_pct_gd',9,10,NULL,4,10,'Vel Pct Gd, %',NULL,0,NULL,NULL,NULL,'Screen whole bursts that have less than this % good data.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3141,'vel_pct_gd','vel_pct_gd',9,10,NULL,179,10,'Vel Pct Gd, %',NULL,0,NULL,NULL,NULL,'Screen whole bursts that have less than this % good data.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3142,'surf_min','surf_min',9,4,NULL,165,7,'Surf Min',NULL,0,NULL,NULL,NULL,'Same screening as velocity only applied to surface track',NULL,NULL,1); INSERT INTO "parameter" VALUES(3143,'surf_max','surf_max',9,4,NULL,165,7,'Surf Max',NULL,0,NULL,NULL,NULL,'Same screening as velocity only applied to surface track',NULL,NULL,1); INSERT INTO "parameter" VALUES(3144,'surf_std','surf_std',9,10,NULL,165,10,'Surf Std',NULL,0,NULL,NULL,NULL,'Same screening as velocity only applied to surface track',NULL,NULL,1); INSERT INTO "parameter" VALUES(3145,'surf_max_chng','surf_max_chng',9,4,NULL,165,7,'Surf Max Chng',NULL,0,NULL,NULL,NULL,'Same screening as velocity only applied to surface track',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3146,'surf_pct_gd','surf_pct_gd',9,10,NULL,4,10,'Surf Pct Gd, %',NULL,0,NULL,NULL,NULL,'Same screening as velocity only applied to surface track',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3146,'surf_pct_gd','surf_pct_gd',9,10,NULL,179,10,'Surf Pct Gd, %',NULL,0,NULL,NULL,NULL,'Same screening as velocity only applied to surface track',NULL,NULL,1); INSERT INTO "parameter" VALUES(3147,'tbe_max_dev','tbe_max_dev',9,7,NULL,11,10,'Tbe Max Dev',NULL,0,NULL,NULL,NULL,'Maximum allowed deviation from expected time between samples.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3148,'h_max_dev','h_max_dev',9,7,NULL,87,10,'H Max Dev',NULL,0,NULL,NULL,NULL,'Maximum heading deviation during a burst.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3149,'pr_max_dev','pr_max_dev',9,10,NULL,87,10,'Pr Max Dev',NULL,0,NULL,NULL,NULL,'Maximum pitch and roll deviation during a burst.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3148,'h_max_dev','h_max_dev',9,7,NULL,95,10,'H Max Dev',NULL,0,NULL,NULL,NULL,'Maximum heading deviation during a burst.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3149,'pr_max_dev','pr_max_dev',9,10,NULL,95,10,'Pr Max Dev',NULL,0,NULL,NULL,NULL,'Maximum pitch and roll deviation during a burst.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3150,'nom_depth','nom_depth',9,8,NULL,60,10,'Nom Depth',NULL,0,NULL,NULL,NULL,'Force a fixed deployment depth from SW rather than use Pressure sensor',NULL,NULL,1); INSERT INTO "parameter" VALUES(3151,'cal_press','cal_press',9,10,NULL,10,10,'Cal Press',NULL,0,NULL,NULL,NULL,'reserved',NULL,NULL,1); INSERT INTO "parameter" VALUES(3152,'depth_offset','depth_offset',9,4,NULL,165,7,'Depth Offset',NULL,0,NULL,NULL,NULL,'Offset pressure sensor depths by this',NULL,NULL,1); INSERT INTO "parameter" VALUES(3153,'currents','currents',9,10,NULL,10,10,'Currents',NULL,0,NULL,NULL,NULL,'Correct wave spectra for influence of strong mean currents',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3154,'small_wave_freq','small_wave_freq',9,7,NULL,57,10,'Small Wave Frequency',NULL,0,NULL,NULL,NULL,'Supplement velocity spectrum with pressure spectrum below this frequency. Good for small-long period waves.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3154,'small_wave_freq','small_wave_freq',9,7,NULL,229,10,'Small Wave Frequency',NULL,0,NULL,NULL,NULL,'Supplement velocity spectrum with pressure spectrum below this frequency. Good for small-long period waves.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3155,'small_wave_thresh','small_wave_thresh',9,3,NULL,165,5,'Small Wave Thresh',NULL,0,NULL,NULL,NULL,'Lower threshold for small waves.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3156,'tilts','tilts',9,10,NULL,10,10,'Tilts',NULL,0,NULL,NULL,NULL,'Use tilts algorithms to correct for tilted deployment context.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3157,'fixed_pitch','fixed_pitch',9,3,NULL,87,5,'Fixed Pitch',NULL,0,NULL,NULL,NULL,'Force fixed pitch',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3158,'fixed_roll','fixed_roll',9,3,NULL,87,5,'Fixed Roll',NULL,0,NULL,NULL,NULL,'Force fixed roll',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3157,'fixed_pitch','fixed_pitch',9,3,NULL,95,5,'Fixed Pitch',NULL,0,NULL,NULL,NULL,'Force fixed pitch',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3158,'fixed_roll','fixed_roll',9,3,NULL,95,5,'Fixed Roll',NULL,0,NULL,NULL,NULL,'Force fixed roll',NULL,NULL,1); INSERT INTO "parameter" VALUES(3159,'bottom_slope_x','bottom_slope_x',9,3,NULL,122,5,'Bottom Slope X',NULL,0,NULL,NULL,NULL,'X axis change in bottom slope for horizontal systems, per 1000m',NULL,NULL,1); INSERT INTO "parameter" VALUES(3160,'bottom_slope_y','bottom_slope_y',9,3,NULL,122,5,'Bottom Slope Y',NULL,0,NULL,NULL,NULL,'Y axis change in bottom slope for horizontal systems, "-20" means 20m increase in water depth over 1000m moving offshore. per 1000m',NULL,NULL,1); INSERT INTO "parameter" VALUES(3161,'down','down',9,10,NULL,10,10,'Down',NULL,0,NULL,NULL,NULL,'Downward facing waves system',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3162,'trans_v2_surf','trans_v2_surf',9,10,NULL,10,10,'Trans V2 Surf',NULL,0,NULL,NULL,NULL,'0= do not translate orbital velocity spectrum to surface displacement. - >0 do',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3162,'trans_v2_surf','trans_v2_surf',9,10,NULL,10,10,'Trans V2 Surf',NULL,0,NULL,NULL,NULL,'0= do not translate orbital velocity spectrum to surface displacement. + >0 do',NULL,NULL,1); INSERT INTO "parameter" VALUES(3163,'scale_spec','scale_spec',9,10,NULL,10,10,'Scale Spec',NULL,0,NULL,NULL,NULL,'reserved',NULL,NULL,1); INSERT INTO "parameter" VALUES(3164,'sample_rate','sample_rate',9,1,NULL,191,7,'Sample Rate',NULL,0,NULL,NULL,NULL,'Input data sample rate in seconds',NULL,NULL,1); INSERT INTO "parameter" VALUES(3165,'freq_thresh','freq_thresh',9,1,NULL,109,7,'Freq Thresh',NULL,0,NULL,NULL,NULL,'Upper cutoff frequency',NULL,NULL,1); INSERT INTO "parameter" VALUES(3166,'dummy_surf','dummy_surf',9,10,NULL,10,10,'Dummy Surf',NULL,0,NULL,NULL,NULL,'reserved',NULL,NULL,1); INSERT INTO "parameter" VALUES(3167,'remove_bias','remove_bias',9,10,NULL,10,10,'Remove Bias',NULL,0,NULL,NULL,NULL,'Switch, remove power from spectra, introduced by rectifying measurement noise. - always leave this on.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3168,'dir_cutoff','dir_cutoff',9,7,NULL,24,10,'Dir Cutoff',NULL,0,NULL,NULL,NULL,'Upper cutoff frequency for directional spectra',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3169,'heading_variation','heading_variation',9,3,NULL,59,5,'Heading Variation',NULL,0,NULL,NULL,NULL,'Offset from ADCP beam 3 to',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3169,'heading_variation','heading_variation',9,3,NULL,56,5,'Heading Variation',NULL,0,NULL,NULL,NULL,'Offset from ADCP beam 3 to',NULL,NULL,1); INSERT INTO "parameter" VALUES(3170,'soft_rev','soft_rev',9,10,NULL,10,10,'Soft Rev',NULL,0,NULL,NULL,NULL,'Software revision used to process the data',NULL,NULL,1); INSERT INTO "parameter" VALUES(3171,'clip_pwr_spec','clip_pwr_spec',9,10,NULL,10,10,'Clip Pwr Spec',NULL,0,NULL,NULL,NULL,'Switch, Clips negative values in power spectra',NULL,NULL,1); INSERT INTO "parameter" VALUES(3172,'dir_p2','dir_p2',9,10,NULL,10,10,'Dir P2',NULL,0,NULL,NULL,NULL,'Output spectra in units of Power not Height',NULL,NULL,1); INSERT INTO "parameter" VALUES(3173,'horizontal','horizontal',9,10,NULL,10,10,'Horizontal',NULL,0,NULL,NULL,NULL,'>0 Indicates Horizontal Waves System, 0 = vertical',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3174,'start_time','start_time',3,10,NULL,10,10,'Start Time',NULL,0,NULL,NULL,NULL,'Start of Burst interval - Cent,year,month,day,hour,minute,sec,sec100',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3175,'stop_time','stop_time',3,10,NULL,10,10,'Stop Time',NULL,0,NULL,NULL,NULL,'Stop time - Cent,year,month,day,hour,minute,sec,sec100',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3176,'freq_lo','freq_lo',9,7,NULL,156,10,'Frequency Low',NULL,0,NULL,NULL,NULL,'Lower Frequency threshold for all spectra',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3174,'start_time','start_time',3,10,NULL,10,10,'Start Time',NULL,0,NULL,NULL,NULL,'Start of Burst interval + Cent,year,month,day,hour,minute,sec,sec100',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3175,'stop_time','stop_time',3,10,NULL,10,10,'Stop Time',NULL,0,NULL,NULL,NULL,'Stop time + Cent,year,month,day,hour,minute,sec,sec100',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3176,'freq_lo','freq_lo',9,7,NULL,137,10,'Frequency Low',NULL,0,NULL,NULL,NULL,'Lower Frequency threshold for all spectra',NULL,NULL,1); INSERT INTO "parameter" VALUES(3177,'average_depth','average_depth',9,8,NULL,165,10,'Average Depth',NULL,0,NULL,NULL,NULL,'Mean submergence during burst',NULL,NULL,1); INSERT INTO "parameter" VALUES(3178,'altitude','altitude',9,8,NULL,60,10,'Altitude',NULL,0,NULL,NULL,NULL,'Altitude of instrument above bottom',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3179,'bin_map','bin_map',3,10,NULL,10,10,'Bin Map',NULL,0,NULL,NULL,NULL,'128 element array - 1 = cell to use for non dir spec - 2 = cell to use for dir spec - 3 = cell used for both',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3179,'bin_map','bin_map',3,10,NULL,10,10,'Bin Map',NULL,0,NULL,NULL,NULL,'128 element array + 1 = cell to use for non dir spec + 2 = cell to use for dir spec + 3 = cell used for both',NULL,NULL,1); INSERT INTO "parameter" VALUES(3180,'disc_flag','disc_flag',9,10,NULL,10,10,'Disc Flag',NULL,0,NULL,NULL,NULL,'reserved',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3181,'pct_gd_press','pct_gd_press',9,10,NULL,4,10,'Pct Gd Press, %',NULL,0,NULL,NULL,NULL,'Percent good Pressure measurements',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3181,'pct_gd_press','pct_gd_press',9,10,NULL,179,10,'Pct Gd Press, %',NULL,0,NULL,NULL,NULL,'Percent good Pressure measurements',NULL,NULL,1); INSERT INTO "parameter" VALUES(3182,'avg_ss','avg_ss',9,7,NULL,123,10,'Avg Ss',NULL,0,NULL,NULL,NULL,'Average speed of Sound',NULL,NULL,1); INSERT INTO "parameter" VALUES(3183,'avg_temp','avg_temp',9,7,NULL,88,10,'Avg Temp',NULL,0,NULL,NULL,NULL,'AverageTemperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3184,'pct_gd_surf','pct_gd_surf',9,10,NULL,4,10,'Pct Gd Surf, %',NULL,0,NULL,NULL,NULL,'Percent good surfacetrack measurements',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3185,'pct_gd_vel','pct_gd_vel',9,10,NULL,4,10,'Pct Gd Vel, %',NULL,0,NULL,NULL,NULL,'Percent good velocity measurements',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3186,'heading_offset','heading_offset',9,3,NULL,87,5,'Heading Offset',NULL,0,NULL,NULL,NULL,'Offset from ADCP beam 3 to North',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3184,'pct_gd_surf','pct_gd_surf',9,10,NULL,179,10,'Pct Gd Surf, %',NULL,0,NULL,NULL,NULL,'Percent good surfacetrack measurements',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3185,'pct_gd_vel','pct_gd_vel',9,10,NULL,179,10,'Pct Gd Vel, %',NULL,0,NULL,NULL,NULL,'Percent good velocity measurements',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3186,'heading_offset','heading_offset',9,3,NULL,95,5,'Heading Offset',NULL,0,NULL,NULL,NULL,'Offset from ADCP beam 3 to North',NULL,NULL,1); INSERT INTO "parameter" VALUES(3187,'hs_std','hs_std',9,8,NULL,10,10,'Hs Std',NULL,0,NULL,NULL,NULL,'Surface track standard deviation at the end of the power spectrum',NULL,NULL,1); INSERT INTO "parameter" VALUES(3188,'vs_std','vs_std',9,8,NULL,10,10,'Vs Std',NULL,0,NULL,NULL,NULL,'Velocity standard deviation at the end of the power spectrum',NULL,NULL,1); INSERT INTO "parameter" VALUES(3189,'ps_std','ps_std',9,8,NULL,10,10,'Ps Std',NULL,0,NULL,NULL,NULL,'Pressure standard deviation at the end of the power spectrum',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3190,'ds_freq_hi','ds_freq_hi',9,8,NULL,57,10,'Ds Frequency High',NULL,0,NULL,NULL,NULL,'Directional spectrum upper cutoff frequency',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3191,'vs_freq_hi','vs_freq_hi',9,8,NULL,57,10,'Vs Frequency High',NULL,0,NULL,NULL,NULL,'Velocity spectrum upper cutoff frequency',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3192,'ps_freq_hi','ps_freq_hi',9,8,NULL,57,10,'Ps Frequency High',NULL,0,NULL,NULL,NULL,'Pressure spectrum upper cutoff frequency',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3193,'ss_freq_hi','ss_freq_hi',9,8,NULL,57,10,'Ss Frequency High',NULL,0,NULL,NULL,NULL,'Surface spectrum upper cutoff frequency',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3190,'ds_freq_hi','ds_freq_hi',9,8,NULL,229,10,'Ds Frequency High',NULL,0,NULL,NULL,NULL,'Directional spectrum upper cutoff frequency',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3191,'vs_freq_hi','vs_freq_hi',9,8,NULL,229,10,'Vs Frequency High',NULL,0,NULL,NULL,NULL,'Velocity spectrum upper cutoff frequency',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3192,'ps_freq_hi','ps_freq_hi',9,8,NULL,229,10,'Ps Frequency High',NULL,0,NULL,NULL,NULL,'Pressure spectrum upper cutoff frequency',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3193,'ss_freq_hi','ss_freq_hi',9,8,NULL,229,10,'Ss Frequency High',NULL,0,NULL,NULL,NULL,'Surface spectrum upper cutoff frequency',NULL,NULL,1); INSERT INTO "parameter" VALUES(3194,'x_vel','x_vel',9,3,NULL,168,5,'X Vel',NULL,0,NULL,NULL,NULL,'X component of mean currents',NULL,NULL,1); INSERT INTO "parameter" VALUES(3195,'y_vel','y_vel',9,3,NULL,168,5,'Y Vel',NULL,0,NULL,NULL,NULL,'Y component of mean currents',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3196,'avg_pitch','avg_pitch',9,3,NULL,59,5,'Avg Pitch',NULL,0,NULL,NULL,NULL,'Average Pitch',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3197,'avg_roll','avg_roll',9,3,NULL,59,5,'Avg Roll',NULL,0,NULL,NULL,NULL,'Average Roll',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3198,'avg_heading','avg_heading',9,3,NULL,59,5,'Avg Heading',NULL,0,NULL,NULL,NULL,'Average Heading',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3196,'avg_pitch','avg_pitch',9,3,NULL,56,5,'Avg Pitch',NULL,0,NULL,NULL,NULL,'Average Pitch',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3197,'avg_roll','avg_roll',9,3,NULL,56,5,'Avg Roll',NULL,0,NULL,NULL,NULL,'Average Roll',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3198,'avg_heading','avg_heading',9,3,NULL,56,5,'Avg Heading',NULL,0,NULL,NULL,NULL,'Average Heading',NULL,NULL,1); INSERT INTO "parameter" VALUES(3199,'samples_collected','samples_collected',9,3,NULL,67,5,'Samples Collected',NULL,0,NULL,NULL,NULL,'%measured = Hs calculated to the upper cutoff frequency / Hs calculated using the whole spectrum with upper frequencies extrapolated.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3200,'vspec_pct_measured','vspec_pct_measured',9,3,NULL,4,5,'Vspec Pct Measured, %',NULL,0,NULL,NULL,NULL,'VSpecPctMeasured',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3200,'vspec_pct_measured','vspec_pct_measured',9,3,NULL,179,5,'Vspec Pct Measured, %',NULL,0,NULL,NULL,NULL,'VSpecPctMeasured',NULL,NULL,1); INSERT INTO "parameter" VALUES(3201,'vspec_num_freq','vspec_num_freq',9,7,NULL,67,10,'Vspec Num Freq',NULL,0,NULL,NULL,NULL,'# frequency bands',NULL,NULL,1); INSERT INTO "parameter" VALUES(3202,'vspec_dat','vspec_dat',3,4,NULL,169,7,'Vspec Dat',NULL,0,NULL,NULL,NULL,'Velocity Spectrum - vspec_num_freq element array',NULL,NULL,1); INSERT INTO "parameter" VALUES(3203,'sspec_num_freq','sspec_num_freq',9,7,NULL,67,10,'Sspec Num Freq',NULL,0,NULL,NULL,NULL,'# frequency bands',NULL,NULL,1); @@ -3696,16 +3700,16 @@ INSERT INTO "parameter" VALUES(3209,'dspec_good','dspec_good',9,7,NULL,67,10,'Ds INSERT INTO "parameter" VALUES(3210,'dspec_dat','dspec_dat',3,8,NULL,3,10,'Dspec Dat',NULL,0,NULL,NULL,NULL,'Directional Spectrum - dspec_num_freq x dspec_num_dir matrix',NULL,NULL,1); INSERT INTO "parameter" VALUES(3211,'wave_hs1','wave_hs1',9,3,NULL,165,5,'Wave Hs1',NULL,0,NULL,NULL,NULL,'Significant Wave Height',NULL,NULL,1); INSERT INTO "parameter" VALUES(3212,'wave_tp1','wave_tp1',9,3,NULL,100,5,'Wave Tp1',NULL,0,NULL,NULL,NULL,'Peak Period',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3213,'wave_dp1','wave_dp1',9,3,NULL,87,5,'Wave Dp1',NULL,0,NULL,NULL,NULL,'Peak direction',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3213,'wave_dp1','wave_dp1',9,3,NULL,95,5,'Wave Dp1',NULL,0,NULL,NULL,NULL,'Peak direction',NULL,NULL,1); INSERT INTO "parameter" VALUES(3214,'wave_hs2','wave_hs2',9,3,NULL,165,5,'Wave Hs2',NULL,0,NULL,NULL,NULL,'Significant Wave Height 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(3215,'wave_tp2','wave_tp2',9,3,NULL,100,5,'Wave Tp2',NULL,0,NULL,NULL,NULL,'Peak Period 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3216,'wave_dp2','wave_dp2',9,3,NULL,87,5,'Wave Dp2',NULL,0,NULL,NULL,NULL,'Peak direction 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3217,'wave_dm','wave_dm',9,3,NULL,87,5,'Wave Dm',NULL,0,NULL,NULL,NULL,'Mean direction',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3216,'wave_dp2','wave_dp2',9,3,NULL,95,5,'Wave Dp2',NULL,0,NULL,NULL,NULL,'Peak direction 2',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3217,'wave_dm','wave_dm',9,3,NULL,95,5,'Wave Dm',NULL,0,NULL,NULL,NULL,'Mean direction',NULL,NULL,1); INSERT INTO "parameter" VALUES(3218,'hpr_num_samples','hpr_num_samples',9,7,NULL,67,10,'Hpr Num Samples',NULL,0,NULL,NULL,NULL,'Samples',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3219,'beam_angle','beam_angle',9,7,NULL,87,10,'Beam Angle',NULL,0,NULL,NULL,NULL,'Janus Beam angle',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3220,'heading_time_series','heading_time_series',3,3,NULL,59,5,'Heading Time Series',NULL,0,NULL,NULL,NULL,'Heading Time Series - hpr_num_samples element array',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3221,'pitch_time_series','pitch_time_series',3,3,NULL,59,5,'Pitch Time Series',NULL,0,NULL,NULL,NULL,'Pitch Time Series - hpr_num_samples element array',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3222,'roll_time_series','roll_time_series',3,3,NULL,59,5,'Roll Time Series',NULL,0,NULL,NULL,NULL,'Roll Time Series - hpr_num_samples element array',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3219,'beam_angle','beam_angle',9,7,NULL,95,10,'Beam Angle',NULL,0,NULL,NULL,NULL,'Janus Beam angle',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3220,'heading_time_series','heading_time_series',3,3,NULL,56,5,'Heading Time Series',NULL,0,NULL,NULL,NULL,'Heading Time Series - hpr_num_samples element array',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3221,'pitch_time_series','pitch_time_series',3,3,NULL,56,5,'Pitch Time Series',NULL,0,NULL,NULL,NULL,'Pitch Time Series - hpr_num_samples element array',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3222,'roll_time_series','roll_time_series',3,3,NULL,56,5,'Roll Time Series',NULL,0,NULL,NULL,NULL,'Roll Time Series - hpr_num_samples element array',NULL,NULL,1); INSERT INTO "parameter" VALUES(3223,'vel3d_k_beams','vel3d_k_beams',9,10,NULL,10,10,'Number of Beams',NULL,0,NULL,NULL,NULL,'Number of Beams. Set to NULL when the Beam flag is not set.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3230,'velpt_d_eastward_velocity','velpt_d_eastward_velocity',8,1,NULL,123,7,'Eastward Mean Point Seawater Velocity','eastward_sea_water_velocity',3,106,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD441", "timestamp": "PD7", "v": "PD442"}','VELPTMN-VLE_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the eastward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',3,1,1); INSERT INTO "parameter" VALUES(3231,'velpt_d_northward_velocity','velpt_d_northward_velocity',8,1,NULL,123,7,'Northward Mean Point Seawater Velocity','northward_sea_water_velocity',3,105,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD441", "timestamp": "PD7", "v": "PD442"}','VELPTMN-VLN_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the northward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',3,1,1); @@ -3713,15 +3717,15 @@ INSERT INTO "parameter" VALUES(3232,'velpt_d_upward_velocity','velpt_d_upward_ve INSERT INTO "parameter" VALUES(3233,'vel3d_k_eastward_velocity','vel3d_k_eastward_velocity',8,1,NULL,123,7,'Eastward Mean Point Seawater Velocity','eastward_sea_water_velocity',NULL,169,'{"timestamp": "PD7", "beams": "PD2010", "lon": "CC_lon", "heading": "PD1609", "vel2": "PD1615", "Vscale": "PD1612", "pitch": "PD1610", "lat": "CC_lat", "roll": "PD1611", "vel1": "PD1614", "vel0": "PD1613"}','VELPTMN-VLE_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the eastward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',3,1,1); INSERT INTO "parameter" VALUES(3234,'vel3d_k_northward_velocity','vel3d_k_northward_velocity',8,1,NULL,123,7,'Northward Mean Point Seawater Velocity','northward_sea_water_velocity',NULL,170,'{"timestamp": "PD7", "beams": "PD2010", "lon": "CC_lon", "heading": "PD1609", "vel2": "PD1615", "Vscale": "PD1612", "pitch": "PD1610", "lat": "CC_lat", "roll": "PD1611", "vel1": "PD1614", "vel0": "PD1613"}','VELPTMN-VLN_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the northward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',3,1,1); INSERT INTO "parameter" VALUES(3235,'vel3d_k_upward_velocity','vel3d_k_upward_velocity',8,1,NULL,123,7,'Upward Mean Point Seawater Velocity','upward_sea_water_velocity',NULL,171,'{"beams": "PD2010", "heading": "PD1609", "vel2": "PD1615", "Vscale": "PD1612", "pitch": "PD1610", "roll": "PD1611", "vel1": "PD1614", "vel0": "PD1613"}','VELPTMN-VLU_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the upward component of mean point seawater velocity.',3,1,1); -INSERT INTO "parameter" VALUES(3236,'parad_j_par_counts_output','parad_j_par_counts_output',8,1,NULL,220,8,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,172,'{"a1": "CC_a1", "a0": "CC_a0", "Im": "CC_Im", "counts_output": "PD188"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); +INSERT INTO "parameter" VALUES(3236,'parad_j_par_counts_output','parad_j_par_counts_output',8,1,NULL,248,18,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,172,'{"a1": "CC_a1", "a0": "CC_a0", "Im": "CC_Im", "counts_output": "PD188"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); INSERT INTO "parameter" VALUES(3242,'battery_voltage_dv','battery_voltage_dv',9,7,NULL,75,10,'Battery Voltage',NULL,3,NULL,NULL,NULL,'Instrument battery voltage reported in decivolts.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3243,'sound_speed_dms','sound_speed_dms',9,7,NULL,99,10,'Speed of Sound',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3244,'heading_decidegree','heading_decidegree',9,3,NULL,83,5,'Compass Heading',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3245,'roll_decidegree','roll_decidegree',9,3,NULL,83,5,'Compass Roll','platform_roll_angle',1,NULL,NULL,NULL,'The rotated angle about the roll-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3246,'pitch_decidegree','pitch_decidegree',9,3,NULL,83,5,'Compass Pitch','platform_pitch_angle',1,NULL,NULL,NULL,'The rotated angle about the pitch-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3247,'temperature_centidegree','temperature_centidegree',9,3,NULL,9,5,'Seawater Temperature','sea_water_temperature',2,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3248,'pressure_mbar','pressure_mbar',9,4,NULL,5,7,'Seawater Pressure','sea_water_pressure',3,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,NULL,1); -INSERT INTO "parameter" VALUES(3249,'seawater_pressure_mbar','seawater_pressure_mbar',9,4,NULL,5,7,'Seawater Pressure',NULL,2,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3244,'heading_decidegree','heading_decidegree',9,3,NULL,95,5,'Compass Heading',NULL,1,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3245,'roll_decidegree','roll_decidegree',9,3,NULL,95,5,'Compass Roll','platform_roll_angle',1,NULL,NULL,NULL,'The rotated angle about the roll-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3246,'pitch_decidegree','pitch_decidegree',9,3,NULL,95,5,'Compass Pitch','platform_pitch_angle',1,NULL,NULL,NULL,'The rotated angle about the pitch-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3247,'temperature_centidegree','temperature_centidegree',9,3,NULL,230,5,'Seawater Temperature','sea_water_temperature',2,NULL,NULL,NULL,'Seawater temperature near the sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3248,'pressure_mbar','sea_water_pressure_mbar',9,4,NULL,149,7,'Seawater Pressure','sea_water_pressure',3,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,NULL,1); +INSERT INTO "parameter" VALUES(3249,'seawater_pressure_mbar','sea_water_pressure_mbar',9,4,NULL,149,7,'Seawater Pressure','sea_water_pressure',2,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3250,'abs_seafloor_pressure','abs_seafloor_pressure',8,1,NULL,80,7,'Seafloor Pressure','sea_water_pressure_at_sea_floor',4,130,'{"p_psia": "PD94"}','SFLPRES-RTIME_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); INSERT INTO "parameter" VALUES(3251,'datalog_manager_version','datalog_manager_version',9,6,NULL,10,17,'Datalog Manager Version',NULL,NULL,NULL,NULL,NULL,'Internal - indicates data version',NULL,NULL,1); INSERT INTO "parameter" VALUES(3252,'system_software_version','system_software_version',9,6,NULL,10,17,'System Software Version',NULL,NULL,NULL,NULL,NULL,'Internal - system SW version',NULL,NULL,1); @@ -3732,9 +3736,9 @@ INSERT INTO "parameter" VALUES(3256,'reformer_temperature','reformer_temperature INSERT INTO "parameter" VALUES(3257,'fuel_cell_h2_pressure','fuel_cell_h2_pressure',9,4,NULL,142,7,'Fuel Cell H2 Pressure',NULL,NULL,NULL,NULL,NULL,'Fuel Cell H2 pressure',NULL,NULL,1); INSERT INTO "parameter" VALUES(3258,'fuel_cell_temperature','fuel_cell_temperature',9,4,NULL,81,7,'Fuel Cell Temperature',NULL,NULL,NULL,NULL,NULL,'Fuel Cell Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(3259,'reformer_fuel_pressure','reformer_fuel_pressure',9,4,NULL,142,7,'Reformer Fuel Pressure',NULL,NULL,NULL,NULL,NULL,'Reformer Fuel pressure',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3260,'fuel_pump_pwm_drive_percent','fuel_pump_pwm_drive_percent',9,4,NULL,1,7,'Fuel Pump Pwm Drive Percent',NULL,NULL,NULL,NULL,NULL,'Fuel pump PWM drive percent',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3261,'air_pump_pwm_drive_percent','air_pump_pwm_drive_percent',9,4,NULL,1,7,'Air Pump Pwm Drive Percent',NULL,NULL,NULL,NULL,NULL,'Air pump PWM drive percent',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3262,'coolant_pump_pwm_drive_percent','coolant_pump_pwm_drive_percent',9,4,NULL,1,7,'Coolant Pump Pwm Drive Percent',NULL,NULL,NULL,NULL,NULL,'Coolant pump PWM drive percent',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3260,'fuel_pump_pwm_drive_percent','fuel_pump_pwm_drive_percent',9,4,NULL,179,7,'Fuel Pump Pwm Drive Percent',NULL,NULL,NULL,NULL,NULL,'Fuel pump PWM drive percent',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3261,'air_pump_pwm_drive_percent','air_pump_pwm_drive_percent',9,4,NULL,179,7,'Air Pump Pwm Drive Percent',NULL,NULL,NULL,NULL,NULL,'Air pump PWM drive percent',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3262,'coolant_pump_pwm_drive_percent','coolant_pump_pwm_drive_percent',9,4,NULL,179,7,'Coolant Pump Pwm Drive Percent',NULL,NULL,NULL,NULL,NULL,'Coolant pump PWM drive percent',NULL,NULL,1); INSERT INTO "parameter" VALUES(3263,'air_pump_tach_count','air_pump_tach_count',9,4,NULL,20,7,'Air Pump Tach Count',NULL,NULL,NULL,NULL,NULL,'Air pump tach count',NULL,NULL,1); INSERT INTO "parameter" VALUES(3264,'fuel_cell_state','fuel_cell_state',9,4,NULL,10,7,'Fuel Cell State',NULL,NULL,NULL,NULL,NULL,'Fuel Cell state - see next table',NULL,NULL,1); INSERT INTO "parameter" VALUES(3265,'fuel_remaining','fuel_remaining',9,4,NULL,138,7,'Fuel Remaining',NULL,NULL,NULL,NULL,NULL,'Fuel remaining in bladder',NULL,NULL,1); @@ -3759,7 +3763,7 @@ INSERT INTO "parameter" VALUES(3283,'zplsc_bandwidth','zplsc_bandwidth',3,1,NULL INSERT INTO "parameter" VALUES(3284,'zplsc_sample_interval','zplsc_sample_interval',3,1,NULL,192,7,'Sample Interval',NULL,6,NULL,NULL,NULL,'Sample interval',NULL,NULL,1); INSERT INTO "parameter" VALUES(3285,'zplsc_sound_velocity','zplsc_sound_velocity',3,1,NULL,123,7,'Sound Velocity',NULL,5,NULL,NULL,NULL,'Sound velocity',NULL,NULL,1); INSERT INTO "parameter" VALUES(3286,'zplsc_absorption_coeff','zplsc_absorption_coeff',3,1,NULL,73,7,'Absorption Coefficient',NULL,4,NULL,NULL,NULL,'Absorption coefficient',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3287,'zplsc_temperature','zplsc_temperature',3,1,NULL,225,7,'Temperature',NULL,3,NULL,NULL,NULL,'Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3287,'zplsc_temperature','zplsc_temperature',3,1,NULL,232,7,'Temperature',NULL,3,NULL,NULL,NULL,'Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(3289,'instrument_start_timestamp','instrument_start_timestamp',9,6,NULL,10,17,'Instrument Power on Timestamp, YYYY/MM/DD HH:MM:SS.SSS',NULL,NULL,NULL,NULL,NULL,'DCL Timestamp for instrument powered on.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3290,'time_datacollection','time_datacollection',9,2,NULL,192,7,'Data Collection Start Time',NULL,4,NULL,NULL,NULL,'Start time of data collection, Average time of collected data can be found by adding 600 seconds to the start time.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3291,'v_num_datacollection','v_num_datacollection',9,1,NULL,10,7,'Version Number of FDCHP',NULL,NULL,NULL,NULL,NULL,'Version number of FDCHP',NULL,NULL,1); @@ -3813,15 +3817,15 @@ INSERT INTO "parameter" VALUES(3338,'roll_max','roll_max',9,1,NULL,186,7,'Roll - INSERT INTO "parameter" VALUES(3339,'heading_min','heading_min',9,1,NULL,186,7,'Heading - Minimum',NULL,4,NULL,NULL,NULL,'Minimum Heading',NULL,NULL,1); INSERT INTO "parameter" VALUES(3340,'pitch_min','pitch_min',9,1,NULL,186,7,'Pitch - Minimum',NULL,4,NULL,NULL,NULL,'Minimum Pitch',NULL,NULL,1); INSERT INTO "parameter" VALUES(3341,'roll_min','roll_min',9,1,NULL,186,7,'Roll - Minimum',NULL,4,NULL,NULL,NULL,'Minimum Roll',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3342,'u_corr','u_corr',9,1,NULL,123,7,'Wind Velocity - Northerly',NULL,4,NULL,NULL,'WINDTUR-VLN_L1','Motion-corrected Northerly wind speed component',NULL,1,1); -INSERT INTO "parameter" VALUES(3343,'v_corr','v_corr',9,1,NULL,123,7,'Wind Velocity - Westerly',NULL,4,NULL,NULL,'WINDTUR-VLW_L1','Motion-corrected Westerly wind speed component',NULL,1,1); -INSERT INTO "parameter" VALUES(3344,'w_corr','w_corr',9,1,NULL,123,7,'Wind Velocity - Vertical',NULL,4,NULL,NULL,'WINDTUR-VLU_L1','Motion-corrected vertical wind speed component',NULL,1,1); +INSERT INTO "parameter" VALUES(3342,'u_corr','u_corr',9,1,NULL,123,7,'Wind Velocity - Northerly',NULL,4,NULL,NULL,'WINDTUR-VLN_L1','Motion-corrected Northerly wind speed component',3,1,1); +INSERT INTO "parameter" VALUES(3343,'v_corr','v_corr',9,1,NULL,123,7,'Wind Velocity - Westerly',NULL,4,NULL,NULL,'WINDTUR-VLW_L1','Motion-corrected Westerly wind speed component',3,1,1); +INSERT INTO "parameter" VALUES(3344,'w_corr','w_corr',9,1,NULL,123,7,'Wind Velocity - Vertical',NULL,4,NULL,NULL,'WINDTUR-VLU_L1','Motion-corrected vertical wind speed component',3,1,1); INSERT INTO "parameter" VALUES(3345,'u_corr_std','u_corr_std',9,1,NULL,123,7,'Along-Wind Component - Standard Deviation',NULL,4,NULL,NULL,NULL,'Standard deviation of along-wind component',NULL,NULL,1); INSERT INTO "parameter" VALUES(3346,'v_corr_std','v_corr_std',9,1,NULL,123,7,'Cross-Wind Component - Standard Deviation',NULL,4,NULL,NULL,NULL,'Standard deviation of cross-wind component',NULL,NULL,1); INSERT INTO "parameter" VALUES(3347,'w_corr_std','w_corr_std',9,1,NULL,123,7,'Vertical Wind Component - Standard Deviation',NULL,4,NULL,NULL,NULL,'Standard deviation of vertical wind component',NULL,NULL,1); INSERT INTO "parameter" VALUES(3348,'wind_speed','wind_speed',9,1,NULL,123,7,'Motion-Corrected Wind Speed',NULL,4,NULL,NULL,NULL,'Motion-corrected wind speed relative to ground',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3349,'uw_momentum_flux','uw_momentum_flux',9,1,NULL,132,7,'Along-Wind Component of Momentum Flux',NULL,4,NULL,NULL,'FLUXMOM-U_L2','Along-wind component of momentum flux',NULL,2,1); -INSERT INTO "parameter" VALUES(3350,'vw_momentum_flux','vw_momentum_flux',9,1,NULL,132,7,'Cross-Wind Component of Momentum Flux',NULL,4,NULL,NULL,'FLUXMOM-V_L2','Cross-wind component of momentum flux',NULL,2,1); +INSERT INTO "parameter" VALUES(3349,'uw_momentum_flux','uw_momentum_flux',9,1,NULL,132,7,'Along-Wind Component of Momentum Flux',NULL,4,NULL,NULL,'FLUXMOM-U_L2','Along-wind component of momentum flux',3,2,1); +INSERT INTO "parameter" VALUES(3350,'vw_momentum_flux','vw_momentum_flux',9,1,NULL,132,7,'Cross-Wind Component of Momentum Flux',NULL,4,NULL,NULL,'FLUXMOM-V_L2','Cross-wind component of momentum flux',3,2,1); INSERT INTO "parameter" VALUES(3351,'buoyance_flux','buoyance_flux',9,1,NULL,125,7,'Direct Covariance Flux of Heat',NULL,4,NULL,NULL,'FLUXHOT_L2','Buoyancy Flux',3,2,1); INSERT INTO "parameter" VALUES(3352,'eng_wave_motion','eng_wave_motion',9,1,NULL,10,7,'Approximate Significant Wave Height',NULL,4,NULL,NULL,NULL,'Engineering value to approximate significant wave height',NULL,NULL,1); INSERT INTO "parameter" VALUES(3353,'adcps_jln_eastward_earth_seawater_velocity','adcps_jln_eastward_earth_seawater_velocity',8,1,NULL,123,7,'Eastward Seawater Velocity','eastward_sea_water_velocity',4,49,'{"lon": "CC_lon", "u": "PD714", "v": "PD715", "lat": "CC_lat", "dt": "PD7", "z": "PD1639"}','VELPROF-VLE_L1','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the eastward seawater velocity component for which magnetic variation is accounted.',3,1,1); @@ -3844,13 +3848,13 @@ INSERT INTO "parameter" VALUES(3369,'sodium_concentration','sodium_concentration INSERT INTO "parameter" VALUES(3370,'potassium_concentration','potassium_concentration',9,2,NULL,172,7,'Potassium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3371,'magnesium_concentration','magnesium_concentration',9,2,NULL,172,7,'Magnesium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3372,'calcium_concentration','calcium_concentration',9,2,NULL,172,7,'Calcium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3373,'bromide_concentration','bromide_concentration',9,2,NULL,223,7,'Bromide Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3374,'iron_concentration','iron_concentration',9,2,NULL,223,7,'Iron Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3375,'manganese_concentration','manganese_concentration',9,2,NULL,223,7,'Manganese Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3376,'lithium_concentration','lithium_concentration',9,2,NULL,223,7,'Lithium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3377,'strontium_icpaes_concentration','strontium_icpaes_concentration',9,2,NULL,223,7,'Strontium Concentration via Icpaes',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3378,'boron_concentration','boron_concentration',9,2,NULL,223,7,'Boron Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3379,'rubidium_concentration','rubidium_concentration',9,2,NULL,223,7,'Rubidium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3373,'bromide_concentration','bromide_concentration',9,2,NULL,251,7,'Bromide Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3374,'iron_concentration','iron_concentration',9,2,NULL,251,7,'Iron Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3375,'manganese_concentration','manganese_concentration',9,2,NULL,251,7,'Manganese Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3376,'lithium_concentration','lithium_concentration',9,2,NULL,251,7,'Lithium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3377,'strontium_icpaes_concentration','strontium_icpaes_concentration',9,2,NULL,251,7,'Strontium Concentration via Icpaes',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3378,'boron_concentration','boron_concentration',9,2,NULL,251,7,'Boron Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3379,'rubidium_concentration','rubidium_concentration',9,2,NULL,251,7,'Rubidium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3380,'cesium_concentration','cesium_concentration',9,2,NULL,178,7,'Caesium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3381,'strontium_icpms_concentration','strontium_icpms_concentration',9,2,NULL,178,7,'Strontium Concentration via Icpms',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3382,'barium_concentration','barium_concentration',9,2,NULL,178,7,'Barium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -3870,7 +3874,7 @@ INSERT INTO "parameter" VALUES(3395,'yttrium_concentration','yttrium_concentrati INSERT INTO "parameter" VALUES(3396,'gadolinium_concentration','gadolinium_concentration',9,2,NULL,178,7,'Gadolinium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3397,'volume_pumped','volume_pumped',9,2,NULL,138,7,'Volume Pumped',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3398,'hyd_raw','hyd_raw',9,1,NULL,67,7,'Raw Hydrogen Count',NULL,4,NULL,NULL,NULL,'Raw A/D Value reported',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3399,'hyd_percent','hyd_percent',9,1,NULL,180,7,'Hydrogen Percentage',NULL,6,NULL,NULL,NULL,'Hydrogen Percentage',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3399,'hyd_percent','hyd_percent',9,1,NULL,179,7,'Hydrogen Percentage',NULL,6,NULL,NULL,NULL,'Hydrogen Percentage',NULL,NULL,1); INSERT INTO "parameter" VALUES(3400,'ncbi_sequence_read_archive_url','ncbi_sequence_read_archive_url',9,6,NULL,10,17,'NCBI Sequence Read Archive',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3401,'fasta_url','fasta_url',9,6,NULL,10,17,'OOI Processed FASTA',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3402,'vamps_url','vamps_url',9,6,NULL,10,17,'VAMPS Processed FASTA',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); @@ -3878,13 +3882,13 @@ INSERT INTO "parameter" VALUES(3403,'tracking_id','tracking_id',9,6,NULL,10,17,' INSERT INTO "parameter" VALUES(3404,'sample_time','sample_time',9,6,NULL,10,17,'Sample Time',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3405,'tracer_concentration','tracer_concentration',9,2,NULL,104,7,'Tracer Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3406,'flow_rate','flow_rate',9,2,NULL,65,7,'Flow Rate',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3407,'ambient_temperature','ambient_temperature',9,2,NULL,88,7,'Ambient Temperature',NULL,3,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3407,'ambient_temperature','ambient_temperature',9,2,NULL,232,7,'Ambient Temperature',NULL,3,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3408,'barium_concentration_um','barium_concentration_um',9,2,NULL,202,7,'Barium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3409,'sulfur_concentration','sulfur_concentration',9,2,NULL,141,7,'Sulfure Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(3410,'strontium_concentration','strontium_concentration',9,2,NULL,141,7,'Strontium Concentration',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3411,'tracer_percent','tracer_percent',9,2,NULL,180,7,'Tracer Percentage',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3412,'auv_latitude','auv_latitude',9,2,NULL,87,7,'Latitude',NULL,4,NULL,NULL,NULL,'Latitude of the observation in Degrees',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3413,'auv_longitude','auv_longitude',9,2,NULL,87,7,'Longitude',NULL,4,NULL,NULL,NULL,'Longitude of the observation in Degrees',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3411,'tracer_percent','tracer_percent',9,2,NULL,179,7,'Tracer Percentage',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(3412,'auv_latitude','auv_latitude',9,2,NULL,95,7,'Latitude',NULL,4,NULL,NULL,NULL,'Latitude of the observation in Degrees',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3413,'auv_longitude','auv_longitude',9,2,NULL,95,7,'Longitude',NULL,4,NULL,NULL,NULL,'Longitude of the observation in Degrees',NULL,NULL,1); INSERT INTO "parameter" VALUES(3414,'altitude','altitude',9,1,NULL,122,7,'Vehicle Altitude',NULL,4,NULL,NULL,NULL,'Vehicle Altitude in meters',NULL,NULL,1); INSERT INTO "parameter" VALUES(3415,'altitude_track_range_beam_1','altitude_track_range_beam_1',9,1,NULL,122,7,'Altitude Track Range Beam 1',NULL,4,NULL,NULL,NULL,'Altitude Track Range Beam 1 in meters',NULL,NULL,1); INSERT INTO "parameter" VALUES(3416,'altitude_track_range_beam_2','altitude_track_range_beam_2',9,1,NULL,122,7,'Altitude Track Range Beam 2',NULL,4,NULL,NULL,NULL,'Altitude Track Range Beam 2 in meters',NULL,NULL,1); @@ -3900,7 +3904,7 @@ INSERT INTO "parameter" VALUES(3425,'binary_velocity_data_3','binary_velocity_da INSERT INTO "parameter" VALUES(3426,'binary_velocity_data_4','binary_velocity_data_4',9,3,NULL,168,2,'Binary Velocity Data 4',NULL,0,NULL,NULL,NULL,'Binary Velocity Data 4 in mm/s',NULL,NULL,1); INSERT INTO "parameter" VALUES(3427,'coordinates_transformation','coordinates_transformation',9,3,NULL,10,2,'Coordinates Transformation',NULL,0,NULL,NULL,NULL,'Coordinates Transformation mask',NULL,NULL,1); INSERT INTO "parameter" VALUES(3428,'average_current','average_current',9,1,NULL,123,7,'Average Current',NULL,4,NULL,NULL,NULL,'Average Current in m/s',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3429,'average_direction','average_direction',9,1,NULL,87,7,'Average Direction',NULL,4,NULL,NULL,NULL,'Average Direction in Degrees',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3429,'average_direction','average_direction',9,1,NULL,95,7,'Average Direction',NULL,4,NULL,NULL,NULL,'Average Direction in Degrees',NULL,NULL,1); INSERT INTO "parameter" VALUES(3430,'mission_epoch','mission_epoch',9,8,NULL,198,16,'Mission Time, Unix / Posix Time',NULL,0,NULL,NULL,NULL,'mission time in unix / posix time',NULL,NULL,1); INSERT INTO "parameter" VALUES(3431,'mission_time','mission_time',9,8,NULL,160,16,'Mission Time',NULL,0,NULL,NULL,NULL,'mission time in milliseconds since the start of the day',NULL,NULL,1); INSERT INTO "parameter" VALUES(3432,'device_id','device_id',9,5,NULL,10,4,'Device ID',NULL,0,NULL,NULL,NULL,'Device ID number',NULL,NULL,1); @@ -3926,14 +3930,14 @@ INSERT INTO "parameter" VALUES(3451,'parameter_6','parameter_6',9,1,NULL,10,7,'P INSERT INTO "parameter" VALUES(3452,'parameter_7','parameter_7',9,1,NULL,10,7,'Parameter 7 Value',NULL,4,NULL,NULL,NULL,'Parameter 7 Value. Type and Units are defined in metadata record.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3453,'parameter_8','parameter_8',9,1,NULL,10,7,'Parameter 8 Value',NULL,4,NULL,NULL,NULL,'Parameter 8 Value. Type and Units are defined in metadata record.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3455,'b_pot','b_pot',9,1,NULL,144,7,'B Pot',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(3456,'calculated_oxygen_concentration','calculated_oxygen_concentration',9,1,NULL,219,7,'Calculated Dissolved Oxygen Concentration',NULL,4,NULL,NULL,NULL,'Calculated oxygen concentration',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3456,'calculated_oxygen_concentration','calculated_oxygen_concentration',9,1,NULL,247,7,'Calculated Dissolved Oxygen Concentration',NULL,4,NULL,NULL,NULL,'Calculated oxygen concentration',NULL,NULL,1); INSERT INTO "parameter" VALUES(3457,'calculated_oxygen_saturation','calculated_oxygen_saturation',9,1,NULL,179,7,'Dissolved Oxygen Saturation',NULL,4,NULL,NULL,NULL,'Oxygen saturation is the percentage of dissolved oxygen relative to the absolute solubility of oxygen at a particular water temperature.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3458,'external_temperature','external_temperature',9,1,NULL,225,7,'External Temperature',NULL,4,NULL,NULL,NULL,'External temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3459,'ctdav_n_auv_conductivity','ctdav_n_auv_conductivity',9,1,NULL,143,7,'Conductivity','sea_water_electrical_conductivity',4,NULL,NULL,NULL,'In situ water conductivity in milliSiemens per centimeter [mS/cm] from the conductivity, temperature and depth (CTD) family of instruments',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3458,'external_temperature','external_temperature',9,1,NULL,232,7,'External Temperature',NULL,4,NULL,NULL,NULL,'External temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3459,'ctdav_n_auv_conductivity','sea_water_electrical_conductivity',9,1,NULL,143,7,'Seawater Electrical Conductivity','sea_water_electrical_conductivity',4,NULL,NULL,NULL,'In situ water conductivity in milliSiemens per centimeter [mS/cm] from the conductivity, temperature and depth (CTD) family of instruments',3,1,1); INSERT INTO "parameter" VALUES(3460,'dissolved_oxygen','dissolved_oxygen',9,1,NULL,164,7,'Dissolved Oxygen',NULL,4,NULL,NULL,NULL,'Dissolved oxygen',NULL,NULL,1); INSERT INTO "parameter" VALUES(3461,'powered_on','powered_on',9,10,13,10,10,'Powered on Indicator',NULL,4,NULL,NULL,NULL,'Status indicating if instrument is powered on or off',NULL,NULL,1); INSERT INTO "parameter" VALUES(3462,'biospherical_mobile_sensor_voltage','biospherical_mobile_sensor_voltage',9,1,NULL,40,7,'PAR Measurement',NULL,4,NULL,NULL,'OPTPARW_L0','Photosynthetically Active Radiation (PAR) unprocessed sensor reading.',4,0,1); -INSERT INTO "parameter" VALUES(3463,'sensor_temperature','sensor_temperature',9,1,NULL,225,7,'Sensor Temperature Celsius',NULL,4,NULL,NULL,NULL,'Sensor temperature in degrees Celsius',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3463,'sensor_temperature','sensor_temperature',9,1,NULL,232,7,'Sensor Temperature Celsius',NULL,4,NULL,NULL,NULL,'Sensor temperature in degrees Celsius',NULL,NULL,1); INSERT INTO "parameter" VALUES(3464,'parad_n_auv_supply_voltage','parad_n_auv_supply_voltage',9,1,NULL,40,7,'Supply Voltage',NULL,4,NULL,NULL,NULL,'Supply voltage in volts',NULL,NULL,1); INSERT INTO "parameter" VALUES(3465,'month','month',9,10,NULL,174,10,'Month',NULL,0,NULL,NULL,NULL,'Month',NULL,NULL,1); INSERT INTO "parameter" VALUES(3466,'day','day',9,10,NULL,77,10,'Day',NULL,0,NULL,NULL,NULL,'Day',NULL,NULL,1); @@ -3948,9 +3952,9 @@ INSERT INTO "parameter" VALUES(3474,'fdchp_speed_of_sound_sonic','fdchp_speed_of INSERT INTO "parameter" VALUES(3475,'fdchp_x_accel_g','fdchp_x_accel_g',9,1,NULL,105,7,'Platform Acceleration X-Axis',NULL,4,NULL,NULL,'MOTFLUX_L0','observed acceleration along the instrument x axis',4,0,1); INSERT INTO "parameter" VALUES(3476,'fdchp_y_accel_g','fdchp_y_accel_g',9,1,NULL,105,7,'Platform Acceleration Y-Axis',NULL,4,NULL,NULL,'MOTFLUX_L0','observed acceleration along the instrument y axis',4,0,1); INSERT INTO "parameter" VALUES(3477,'fdchp_z_accel_g','fdchp_z_accel_g',9,1,NULL,105,7,'Platform Acceleration Z-Axis',NULL,4,NULL,NULL,'MOTFLUX_L0','observed acceleration along the instrument z axis',4,0,1); -INSERT INTO "parameter" VALUES(3478,'fdchp_roll','fdchp_roll',9,1,NULL,87,7,'Platform Roll',NULL,4,NULL,NULL,'MOTFLUX_L0','The rotated angle about the roll-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',4,0,1); -INSERT INTO "parameter" VALUES(3479,'fdchp_pitch','fdchp_pitch',9,1,NULL,87,7,'Platform Pitch',NULL,4,NULL,NULL,'MOTFLUX_L0','The rotated angle about the pitch-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',4,0,1); -INSERT INTO "parameter" VALUES(3480,'fdchp_heading','fdchp_heading',9,1,NULL,87,7,'Platform Heading',NULL,4,NULL,NULL,'MOTFLUX_L0','The rotated angle about the z-axis. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',4,0,1); +INSERT INTO "parameter" VALUES(3478,'fdchp_roll','fdchp_roll',9,1,NULL,95,7,'Platform Roll',NULL,4,NULL,NULL,'MOTFLUX_L0','The rotated angle about the roll-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',4,0,1); +INSERT INTO "parameter" VALUES(3479,'fdchp_pitch','fdchp_pitch',9,1,NULL,95,7,'Platform Pitch',NULL,4,NULL,NULL,'MOTFLUX_L0','The rotated angle about the pitch-axis relative to the horizontal plane. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',4,0,1); +INSERT INTO "parameter" VALUES(3480,'fdchp_heading','fdchp_heading',9,1,NULL,95,7,'Platform Heading',NULL,4,NULL,NULL,'MOTFLUX_L0','The rotated angle about the z-axis. Rotation follows the right hand rule designation; i.e. with the r.h. thumb pointing in the rotation axis direction, positive rotation is in the direction of the curled fingers.',4,0,1); INSERT INTO "parameter" VALUES(3481,'fdchp_status_1','fdchp_status_1',9,10,NULL,10,10,'FDCHP Status 1',NULL,0,NULL,NULL,NULL,'fdchp status 1',NULL,NULL,1); INSERT INTO "parameter" VALUES(3482,'fdchp_status_2','fdchp_status_2',9,10,NULL,10,10,'FDCHP Status 2',NULL,0,NULL,NULL,NULL,'fdchp status 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(3483,'vel3d_a_eastward_velocity','vel3d_a_eastward_velocity',8,1,NULL,123,7,'Eastward Mean Point Seawater Velocity',NULL,4,173,'{"hx": "PD2252", "hy": "PD2253", "vp1": "PD2248", "hy_cal": "CC_hy_cal", "vp3": "PD2250", "timestamp": "PD7", "lon": "CC_lon", "lat": "CC_lat", "hx_cal": "CC_hx_cal", "hdg_cal": "CC_hdg_cal"}','VELPTMN-VLE_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the eastward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',3,1,1); @@ -3985,38 +3989,38 @@ INSERT INTO "parameter" VALUES(3511,'latency','latency',9,1,NULL,175,7,'Latency' INSERT INTO "parameter" VALUES(3512,'x_angle','x_angle',9,1,NULL,91,7,'X Angle',NULL,4,NULL,NULL,NULL,'X Angle',NULL,NULL,1); INSERT INTO "parameter" VALUES(3513,'y_angle','y_angle',9,1,NULL,91,7,'Y Angle',NULL,4,NULL,NULL,NULL,'Y Angle',NULL,NULL,1); INSERT INTO "parameter" VALUES(3514,'range','range',9,1,NULL,122,7,'Range',NULL,4,NULL,NULL,NULL,'Range',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3515,'gain_1','gain_1',9,3,NULL,85,5,'Gain 1',NULL,0,NULL,NULL,NULL,'Gain 1',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3516,'gain_2','gain_2',9,3,NULL,85,5,'Gain 2',NULL,0,NULL,NULL,NULL,'Gain 2',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3515,'gain_1','gain_1',9,3,NULL,72,5,'Gain 1',NULL,0,NULL,NULL,NULL,'Gain 1',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3516,'gain_2','gain_2',9,3,NULL,72,5,'Gain 2',NULL,0,NULL,NULL,NULL,'Gain 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(3517,'array_sound_speed','array_sound_speed',9,3,NULL,123,5,'Array Sound Speed',NULL,0,NULL,NULL,NULL,'Sound speed at the array',NULL,NULL,1); INSERT INTO "parameter" VALUES(3518,'reason','reason',9,3,NULL,148,5,'Reason, Mask',NULL,0,NULL,NULL,NULL,'Reason Mask',NULL,NULL,1); INSERT INTO "parameter" VALUES(3519,'x_center','x_center',9,5,NULL,91,4,'X Center',NULL,0,NULL,NULL,NULL,'X Center',NULL,NULL,1); INSERT INTO "parameter" VALUES(3520,'y_center','y_center',9,5,NULL,91,4,'Y Center',NULL,0,NULL,NULL,NULL,'Y Center',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3521,'inband_snr','inband_snr',9,10,NULL,85,10,'Inband SNR',NULL,0,NULL,NULL,NULL,'Inband Signal to Noise Ratio',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3522,'outband_snr','outband_snr',9,10,NULL,86,10,'Outband SNR',NULL,0,NULL,NULL,NULL,'Outband Signal to Noise Ratio',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3521,'inband_snr','inband_snr',9,10,NULL,72,10,'Inband SNR',NULL,0,NULL,NULL,NULL,'Inband Signal to Noise Ratio',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3522,'outband_snr','outband_snr',9,10,NULL,72,10,'Outband SNR',NULL,0,NULL,NULL,NULL,'Outband Signal to Noise Ratio',NULL,NULL,1); INSERT INTO "parameter" VALUES(3523,'transponder_table_index','transponder_table_index',9,10,NULL,67,10,'Transponder Table Index',NULL,0,NULL,NULL,NULL,'Index into the transponder table index',NULL,NULL,1); INSERT INTO "parameter" VALUES(3524,'fin_count','fin_count',9,5,NULL,67,4,'Fin Count',NULL,0,NULL,NULL,NULL,'Fin Count',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3525,'fin_pitch_position','fin_pitch_position',9,5,NULL,180,4,'Pitch Position, Percentage',NULL,0,NULL,NULL,NULL,'Pitch Position',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3526,'fin_rudder_position','fin_rudder_position',9,5,NULL,180,4,'Rudder Position, Percentage',NULL,0,NULL,NULL,NULL,'Rudder Position',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3527,'fin_roll_position','fin_roll_position',9,5,NULL,180,4,'Roll Position, Percentage',NULL,0,NULL,NULL,NULL,'Roll Position',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3525,'fin_pitch_position','fin_pitch_position',9,5,NULL,179,4,'Pitch Position, Percentage',NULL,0,NULL,NULL,NULL,'Pitch Position',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3526,'fin_rudder_position','fin_rudder_position',9,5,NULL,179,4,'Rudder Position, Percentage',NULL,0,NULL,NULL,NULL,'Rudder Position',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3527,'fin_roll_position','fin_roll_position',9,5,NULL,179,4,'Roll Position, Percentage',NULL,0,NULL,NULL,NULL,'Roll Position',NULL,NULL,1); INSERT INTO "parameter" VALUES(3528,'fin_pitch_command','fin_pitch_command',9,1,NULL,91,7,'Pitch Command',NULL,4,NULL,NULL,NULL,'Pitch Command',NULL,NULL,1); INSERT INTO "parameter" VALUES(3529,'fin_rudder_command','fin_rudder_command',9,1,NULL,91,7,'Rudder Command',NULL,4,NULL,NULL,NULL,'Rudder Command',NULL,NULL,1); INSERT INTO "parameter" VALUES(3530,'fin_roll_command','fin_roll_command',9,1,NULL,91,7,'Roll Command',NULL,4,NULL,NULL,NULL,'Roll Command',NULL,NULL,1); INSERT INTO "parameter" VALUES(3531,'fin_command_data_1','fin_command_data_1',9,1,NULL,91,7,'Command Data 1',NULL,4,NULL,NULL,NULL,'Command Data 1',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3532,'fin_position_data_1','fin_position_data_1',9,1,NULL,180,7,'Position Data 1, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 1',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3532,'fin_position_data_1','fin_position_data_1',9,1,NULL,179,7,'Position Data 1, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 1',NULL,NULL,1); INSERT INTO "parameter" VALUES(3533,'fin_command_data_2','fin_command_data_2',9,1,NULL,91,7,'Command Data 2',NULL,4,NULL,NULL,NULL,'Command Data 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3534,'fin_position_data_2','fin_position_data_2',9,1,NULL,180,7,'Position Data 2, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 2',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3534,'fin_position_data_2','fin_position_data_2',9,1,NULL,179,7,'Position Data 2, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(3535,'fin_command_data_3','fin_command_data_3',9,1,NULL,91,7,'Command Data 3',NULL,4,NULL,NULL,NULL,'Command Data 3',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3536,'fin_position_data_3','fin_position_data_3',9,1,NULL,180,7,'Position Data 3, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 3',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3536,'fin_position_data_3','fin_position_data_3',9,1,NULL,179,7,'Position Data 3, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 3',NULL,NULL,1); INSERT INTO "parameter" VALUES(3537,'fin_command_data_4','fin_command_data_4',9,1,NULL,91,7,'Command Data 4',NULL,4,NULL,NULL,NULL,'Command Data 4',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3538,'fin_position_data_4','fin_position_data_4',9,1,NULL,180,7,'Position Data 4, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 4',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3538,'fin_position_data_4','fin_position_data_4',9,1,NULL,179,7,'Position Data 4, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 4',NULL,NULL,1); INSERT INTO "parameter" VALUES(3539,'fin_command_data_5','fin_command_data_5',9,1,NULL,91,7,'Command Data 5',NULL,4,NULL,NULL,NULL,'Command Data 5',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3540,'fin_position_data_5','fin_position_data_5',9,1,NULL,180,7,'Position Data 5, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 5',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3540,'fin_position_data_5','fin_position_data_5',9,1,NULL,179,7,'Position Data 5, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 5',NULL,NULL,1); INSERT INTO "parameter" VALUES(3541,'fin_command_data_6','fin_command_data_6',9,1,NULL,91,7,'Command Data 6',NULL,4,NULL,NULL,NULL,'Command Data 6',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3542,'fin_position_data_6','fin_position_data_6',9,1,NULL,180,7,'Position Data 6, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 6',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3542,'fin_position_data_6','fin_position_data_6',9,1,NULL,179,7,'Position Data 6, Percentage',NULL,4,NULL,NULL,NULL,'Position Data 6',NULL,NULL,1); INSERT INTO "parameter" VALUES(3543,'fin_yaw_translation_command','fin_yaw_translation_command',9,1,NULL,91,7,'Yaw Translation Command',NULL,4,NULL,NULL,NULL,'Yaw Translation Command',NULL,NULL,1); INSERT INTO "parameter" VALUES(3544,'fin_depth_translation_command','fin_depth_translation_command',9,1,NULL,91,7,'Depth Translation Command',NULL,4,NULL,NULL,NULL,'Depth Translation Command',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3545,'fin_yaw_translation_position','fin_yaw_translation_position',9,5,NULL,180,4,'Yaw Translation Position, Percentage',NULL,0,NULL,NULL,NULL,'Yaw Translation Position',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3546,'fin_depth_translation_position','fin_depth_translation_position',9,5,NULL,180,4,'Depth Translation Position, Percentage',NULL,0,NULL,NULL,NULL,'Depth Translation Position',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3545,'fin_yaw_translation_position','fin_yaw_translation_position',9,5,NULL,179,4,'Yaw Translation Position, Percentage',NULL,0,NULL,NULL,NULL,'Yaw Translation Position',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3546,'fin_depth_translation_position','fin_depth_translation_position',9,5,NULL,179,4,'Depth Translation Position, Percentage',NULL,0,NULL,NULL,NULL,'Depth Translation Position',NULL,NULL,1); INSERT INTO "parameter" VALUES(3547,'board_voltage','board_voltage',9,1,NULL,40,7,'Board Voltage',NULL,4,NULL,NULL,NULL,'Board Voltage, V',NULL,NULL,1); INSERT INTO "parameter" VALUES(3548,'status','status',9,7,NULL,148,10,'Status, Mask',NULL,0,NULL,NULL,NULL,'Board Status Mask',NULL,NULL,1); INSERT INTO "parameter" VALUES(3549,'descent_status','descent_status',9,5,NULL,67,4,'Descent Status',NULL,0,NULL,NULL,NULL,'Descent Status',NULL,NULL,1); @@ -4027,7 +4031,7 @@ INSERT INTO "parameter" VALUES(3553,'ascent_continuity','ascent_continuity',9,10 INSERT INTO "parameter" VALUES(3554,'pickup_continuity','pickup_continuity',9,10,NULL,67,10,'Pickup Continuity',NULL,0,NULL,NULL,NULL,'PICkup Continuity',NULL,NULL,1); INSERT INTO "parameter" VALUES(3555,'secondary_status','secondary_status',9,8,NULL,148,10,'Secondary Status, Mask',NULL,0,NULL,NULL,NULL,'Secondary Status Mask',NULL,NULL,1); INSERT INTO "parameter" VALUES(3556,'raw_value','raw_value',9,3,NULL,67,5,'Raw Value',NULL,0,NULL,NULL,NULL,'Raw Value',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3557,'oil_level','oil_level',9,1,NULL,180,7,'Oil Level, Percentage',NULL,4,NULL,NULL,NULL,'Oil Level',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3557,'oil_level','oil_level',9,1,NULL,179,7,'Oil Level, Percentage',NULL,4,NULL,NULL,NULL,'Oil Level',NULL,NULL,1); INSERT INTO "parameter" VALUES(3558,'oil_location','oil_location',9,10,NULL,10,14,'Oil Location, 1',NULL,0,NULL,NULL,NULL,'Oil Location',NULL,NULL,1); INSERT INTO "parameter" VALUES(3559,'flags','flags',9,5,NULL,148,4,'Flags, Mask',NULL,0,NULL,NULL,NULL,'Flags Mask',NULL,NULL,1); INSERT INTO "parameter" VALUES(3560,'battery_index','battery_index',9,5,NULL,67,4,'Battery Index',NULL,0,NULL,NULL,NULL,'Battery Index',NULL,NULL,1); @@ -4045,7 +4049,7 @@ INSERT INTO "parameter" VALUES(3571,'battery_status','battery_status',9,7,NULL,1 INSERT INTO "parameter" VALUES(3572,'battery_flags','battery_flags',9,7,NULL,148,10,'Battery Flags, Mask',NULL,0,NULL,NULL,NULL,'Battery Flags Mask',NULL,NULL,1); INSERT INTO "parameter" VALUES(3573,'cycle_count','cycle_count',9,7,NULL,67,10,'Cycle Count',NULL,0,NULL,NULL,NULL,'Cycle Count',NULL,NULL,1); INSERT INTO "parameter" VALUES(3574,'available_power','available_power',9,1,NULL,211,7,'Available Power',NULL,4,NULL,NULL,NULL,'Available Power',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3575,'auv_temperature','auv_temperature',9,1,NULL,225,7,'Auv Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3575,'auv_temperature','auv_temperature',9,1,NULL,232,7,'Auv Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(3576,'pressure_mbar','pressure_mbar',9,1,NULL,136,7,'Pressure Mbar',NULL,0,NULL,NULL,NULL,'Pressure',NULL,NULL,1); INSERT INTO "parameter" VALUES(3577,'pic_charge_value','pic_charge_value',9,10,NULL,67,10,'Pic Charge Value',NULL,0,NULL,NULL,NULL,'PIC Charge Value',NULL,NULL,1); INSERT INTO "parameter" VALUES(3578,'pic_balance_enabled','pic_balance_enabled',9,10,NULL,148,10,'Pic Balance Enabled, Mask',NULL,0,NULL,NULL,NULL,'PIC Balance Enabled Mask',NULL,NULL,1); @@ -4061,10 +4065,10 @@ INSERT INTO "parameter" VALUES(3587,'pic_cell_voltage_7','pic_cell_voltage_7',9, INSERT INTO "parameter" VALUES(3588,'battery_temperature','battery_temperature',9,1,NULL,90,7,'Battery Temperature',NULL,4,NULL,NULL,NULL,'Battery Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(3589,'transponder_table_index_1','transponder_table_index_1',9,5,NULL,67,4,'Transponder Table Index 1',NULL,0,NULL,NULL,NULL,'Transponder Table Index 1',NULL,NULL,1); INSERT INTO "parameter" VALUES(3590,'transponder_table_index_2','transponder_table_index_2',9,5,NULL,67,4,'Transponder Table Index 2',NULL,0,NULL,NULL,NULL,'Transponder Table Index 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3591,'inband_channel_1_snr','inband_channel_1_snr',9,10,NULL,85,10,'Inband Channel 1 SNR',NULL,0,NULL,NULL,NULL,'Inband Channel 1 Snr',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3592,'inband_channel_2_snr','inband_channel_2_snr',9,10,NULL,85,10,'Inband Channel 2 SNR',NULL,0,NULL,NULL,NULL,'Inband Channel 2 Snr',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3593,'interrogate_channel_1_snr','interrogate_channel_1_snr',9,5,NULL,85,4,'Interrogate Channel 1 SNR',NULL,0,NULL,NULL,NULL,'Interrogate Channel 1 Snr',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3594,'interrogate_channel_2_snr','interrogate_channel_2_snr',9,5,NULL,85,4,'Interrogate Channel 2 SNR',NULL,0,NULL,NULL,NULL,'Interrogate Channel 2 Snr',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3591,'inband_channel_1_snr','inband_channel_1_snr',9,10,NULL,72,10,'Inband Channel 1 SNR',NULL,0,NULL,NULL,NULL,'Inband Channel 1 Snr',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3592,'inband_channel_2_snr','inband_channel_2_snr',9,10,NULL,72,10,'Inband Channel 2 SNR',NULL,0,NULL,NULL,NULL,'Inband Channel 2 Snr',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3593,'interrogate_channel_1_snr','interrogate_channel_1_snr',9,5,NULL,72,4,'Interrogate Channel 1 SNR',NULL,0,NULL,NULL,NULL,'Interrogate Channel 1 Snr',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3594,'interrogate_channel_2_snr','interrogate_channel_2_snr',9,5,NULL,72,4,'Interrogate Channel 2 SNR',NULL,0,NULL,NULL,NULL,'Interrogate Channel 2 Snr',NULL,NULL,1); INSERT INTO "parameter" VALUES(3595,'receive_channel_1','receive_channel_1',9,5,NULL,67,4,'Receive Channel 1',NULL,0,NULL,NULL,NULL,'Receive Channel 1',NULL,NULL,1); INSERT INTO "parameter" VALUES(3596,'receive_channel_2','receive_channel_2',9,5,NULL,67,4,'Receive Channel 2',NULL,0,NULL,NULL,NULL,'Receive Channel 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(3597,'range_1','range_1',9,1,NULL,122,7,'Range 1',NULL,4,NULL,NULL,NULL,'Range 1',NULL,NULL,1); @@ -4073,8 +4077,8 @@ INSERT INTO "parameter" VALUES(3599,'reply_age_1','reply_age_1',9,8,NULL,175,10, INSERT INTO "parameter" VALUES(3600,'reply_age_2','reply_age_2',9,8,NULL,175,10,'Reply Age 2',NULL,0,NULL,NULL,NULL,'Reply Age 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(3601,'fail_flag','fail_flag',9,7,NULL,148,10,'Fail Flag, Mask',NULL,0,NULL,NULL,NULL,'Fail Flag Mask',NULL,NULL,1); INSERT INTO "parameter" VALUES(3602,'received_bits','received_bits',9,5,NULL,148,4,'Received Bits, Mask',NULL,0,NULL,NULL,NULL,'Received Bits Mask',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3603,'outband_channel_1_snr','outband_channel_1_snr',9,10,NULL,85,10,'Outband Channel 1 SNR',NULL,0,NULL,NULL,NULL,'Outband Channel 1 Snr',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3604,'outband_channel_2_snr','outband_channel_2_snr',9,10,NULL,85,10,'Outband Channel 2 SNR',NULL,0,NULL,NULL,NULL,'Outband Channel 2 Snr',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3603,'outband_channel_1_snr','outband_channel_1_snr',9,10,NULL,72,10,'Outband Channel 1 SNR',NULL,0,NULL,NULL,NULL,'Outband Channel 1 Snr',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3604,'outband_channel_2_snr','outband_channel_2_snr',9,10,NULL,72,10,'Outband Channel 2 SNR',NULL,0,NULL,NULL,NULL,'Outband Channel 2 Snr',NULL,NULL,1); INSERT INTO "parameter" VALUES(3605,'filename','filename',9,6,NULL,10,17,'Filename',NULL,NULL,NULL,NULL,NULL,'Filename',NULL,NULL,1); INSERT INTO "parameter" VALUES(3606,'line','line',9,3,NULL,67,5,'Line',NULL,0,NULL,NULL,NULL,'Line',NULL,NULL,1); INSERT INTO "parameter" VALUES(3607,'message','message',9,6,NULL,10,17,'Message',NULL,NULL,NULL,NULL,NULL,'Message',NULL,NULL,1); @@ -4083,7 +4087,7 @@ INSERT INTO "parameter" VALUES(3609,'heading_rate','heading_rate',9,1,NULL,91,7, INSERT INTO "parameter" VALUES(3610,'depth_goal','depth_goal',9,1,NULL,122,7,'Depth Goal',NULL,4,NULL,NULL,NULL,'Depth Goal',NULL,NULL,1); INSERT INTO "parameter" VALUES(3611,'obs','obs',9,1,NULL,10,7,'Obs',NULL,4,NULL,NULL,NULL,'Obs',NULL,NULL,1); INSERT INTO "parameter" VALUES(3612,'auv_current','auv_current',9,1,NULL,14,7,'Currentmperes',NULL,4,NULL,NULL,NULL,'Current',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3613,'gfi','gfi',9,1,NULL,180,7,'GFI, Percentage',NULL,4,NULL,NULL,NULL,'No description available',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3613,'gfi','gfi',9,1,NULL,179,7,'GFI, Percentage',NULL,4,NULL,NULL,NULL,'No description available',NULL,NULL,1); INSERT INTO "parameter" VALUES(3614,'pitch_deg','pitch_deg',9,1,NULL,91,7,'Pitch',NULL,4,NULL,NULL,NULL,'Pitch in degrees',NULL,NULL,1); INSERT INTO "parameter" VALUES(3615,'pitch_goal','pitch_goal',9,1,NULL,91,7,'Pitch Goal',NULL,4,NULL,NULL,NULL,'Pitch Goal',NULL,NULL,1); INSERT INTO "parameter" VALUES(3616,'thruster','thruster',9,3,NULL,190,5,'Thruster',NULL,0,NULL,NULL,NULL,'Thruster',NULL,NULL,1); @@ -4104,7 +4108,7 @@ INSERT INTO "parameter" VALUES(3630,'pitch_fin_position','pitch_fin_position',9, INSERT INTO "parameter" VALUES(3631,'rudder_fin_position','rudder_fin_position',9,5,NULL,67,4,'Rudder Fin Position',NULL,0,NULL,NULL,NULL,'Rudder Fin Position',NULL,NULL,1); INSERT INTO "parameter" VALUES(3632,'total_objectives','total_objectives',9,10,NULL,67,10,'Total Objectives',NULL,0,NULL,NULL,NULL,'Total Objectives',NULL,NULL,1); INSERT INTO "parameter" VALUES(3633,'current_objective','current_objective',9,10,NULL,67,10,'Current Objective',NULL,0,NULL,NULL,NULL,'Current Objective',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3634,'cpu_usage','cpu_usage',9,10,NULL,180,10,'Cpu Usage, Percentage',NULL,0,NULL,NULL,NULL,'CPU Usage',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3634,'cpu_usage','cpu_usage',9,10,NULL,179,10,'Cpu Usage, Percentage',NULL,0,NULL,NULL,NULL,'CPU Usage',NULL,NULL,1); INSERT INTO "parameter" VALUES(3635,'objective_index','objective_index',9,10,NULL,67,10,'Objective Index',NULL,0,NULL,NULL,NULL,'Objective Index',NULL,NULL,1); INSERT INTO "parameter" VALUES(3636,'leg_number','leg_number',9,7,NULL,67,10,'Leg Number',NULL,0,NULL,NULL,NULL,'Leg Number',NULL,NULL,1); INSERT INTO "parameter" VALUES(3637,'spare_slider','spare_slider',9,1,NULL,67,7,'Spare Slider',NULL,4,NULL,NULL,NULL,'Spare Slider',NULL,NULL,1); @@ -4117,8 +4121,8 @@ INSERT INTO "parameter" VALUES(3643,'sample_time','sample_time',9,2,NULL,10,7,'T INSERT INTO "parameter" VALUES(3644,'nutnr_spectral_avg_last_dark','nutnr_spectral_avg_last_dark',9,7,NULL,10,10,'Dark Spectral Average',NULL,0,NULL,NULL,'DARKAVG','Spectral average of the last dark frame',NULL,NULL,1); INSERT INTO "parameter" VALUES(3645,'lamp_state','lamp_state',7,10,16,10,14,'State of the Lamp',NULL,0,NULL,NULL,NULL,'State of the lamp, on or off',NULL,NULL,1); INSERT INTO "parameter" VALUES(3646,'lamp_time_cumulative','lamp_time_cumulative',9,8,NULL,191,10,'Cumulative Lamp Timeon',NULL,0,NULL,NULL,NULL,'Cumulative Lamp Time, seconds',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3647,'ctdbp_no_seawater_pressure','ctdbp_no_seawater_pressure',8,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,96,'{"p0": "PD195", "T4": "CC_T4", "T5": "CC_T5", "T2": "CC_T2", "T3": "CC_T3", "t0": "PD196", "T1": "CC_T1", "C3": "CC_C3", "C2": "CC_C2", "C1": "CC_C1", "D2": "CC_D2", "D1": "CC_D1"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(3648,'ctdbp_no_seawater_conductivity','ctdbp_no_seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,37,'{"p1": "PD3647", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD908", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(3647,'ctdbp_no_seawater_pressure','sea_water_pressure',8,1,NULL,80,7,'Seawater Pressure','sea_water_pressure',3,96,'{"p0": "PD195", "T4": "CC_T4", "T5": "CC_T5", "T2": "CC_T2", "T3": "CC_T3", "t0": "PD196", "T1": "CC_T1", "C3": "CC_C3", "C2": "CC_C2", "C1": "CC_C1", "D2": "CC_D2", "D1": "CC_D1"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(3648,'ctdbp_no_seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,37,'{"p1": "PD3647", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD908", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); INSERT INTO "parameter" VALUES(3652,'velpt_j_eastward_velocity','velpt_j_eastward_velocity',8,1,NULL,123,7,'Eastward Mean Point Seawater Velocity',NULL,4,55,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD2608", "timestamp": "PD7", "v": "PD2609"}','VELPTMN-VLE_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the eastward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',3,1,1); INSERT INTO "parameter" VALUES(3653,'velpt_j_northward_velocity','velpt_j_northward_velocity',8,1,NULL,123,7,'Northward Mean Point Seawater Velocity',NULL,4,56,'{"lat": "CC_lat", "lon": "CC_lon", "u": "PD2608", "timestamp": "PD7", "v": "PD2609"}','VELPTMN-VLN_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the northward component of mean point seawater velocity in earth coordinates relative to true north (accounted for magnetic variation).',3,1,1); INSERT INTO "parameter" VALUES(3654,'velpt_j_upward_velocity','velpt_j_upward_velocity',8,1,NULL,123,7,'Upward Mean Point Seawater Velocity',NULL,4,58,'{"w": "PD2610"}','VELPTMN-VLU_L1','Mean Point Seawater Velocity refers to the velocity (speed and direction) of a single "point" of water (in this case, a volume of several square meters) averaged over time-scales associated with surface gravity waves. This instrument estimates water velocity by measuring the Doppler shift of acoustic signals reflected by particles suspended in the water. This data product is the upward component of mean point seawater velocity.',3,1,1); @@ -4132,7 +4136,7 @@ INSERT INTO "parameter" VALUES(3661,'botsflu_daydepth','botsflu_daydepth',8,1,NU INSERT INTO "parameter" VALUES(3662,'botsflu_4wkrate','botsflu_4wkrate',8,1,NULL,64,7,'Seafloor Uplift and Deflation - 4-Week Mean Rate of Seafloor Uplift',NULL,4,186,'{"timestamp": "PD7", "botpres": "PD848"}','BOTSFLU-4WKRATE','Seafloor Uplift and Deflation is a measure of the inflation and deflation (i.e., "breathing") of the seafloor. These data are calculated using Nano-resolution Bottom Pressure. This data product is the mean rate of seafloor depth change as calculated by 4-week backwards-looking linear regressions. Uplift is positive.',3,2,1); INSERT INTO "parameter" VALUES(3663,'botsflu_8wkrate','botsflu_8wkrate',8,1,NULL,64,7,'Seafloor Uplift and Deflation - 8-Week Mean Rate of Seafloor Uplift',NULL,4,187,'{"timestamp": "PD7", "botpres": "PD848"}','BOTSFLU-8WKRATE','Seafloor Uplift and Deflation is a measure of the inflation and deflation (i.e., "breathing") of the seafloor. These data are calculated using Nano-resolution Bottom Pressure. This data product is the mean rate of seafloor depth change as calculated by 8-week backwards-looking linear regressions. Uplift is positive.',3,2,1); INSERT INTO "parameter" VALUES(3664,'botsflu_predtide','botsflu_predtide',8,1,NULL,122,7,'Seafloor Uplift and Deflation - Predicted Tide',NULL,4,188,'{"time": "PD3655"}','BOTSFLU-PREDTIDE','Seafloor Uplift and Deflation is a measure of the inflation and deflation (i.e., "breathing") of the seafloor. These data are calculated using Nano-resolution Bottom Pressure. This data product is the tide calculated at 15-second time intervals for the location of each BOTPT instrument using tide-prediction software.',3,2,1); -INSERT INTO "parameter" VALUES(3666,'ctdpf_ckl_mmp_cds_seawater_conductivity','ctdpf_ckl_mmp_cds_seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,189,'{"scaler": 0.1, "value": "PD1552"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(3666,'ctdpf_ckl_mmp_cds_seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,189,'{"scaler": 0.1, "value": "PD1552"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); INSERT INTO "parameter" VALUES(3669,'water_velocity_forward','water_velocity_forward',3,3,NULL,168,5,'Eastward Seawater Velocity',NULL,0,NULL,NULL,'VELPROF-VLE_L0','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the eastward seawater velocity component.',NULL,0,1); INSERT INTO "parameter" VALUES(3670,'water_velocity_starboard','water_velocity_starboard',3,3,NULL,168,5,'Northward Seawater Velocity',NULL,0,NULL,NULL,'VELPROF-VLN_L0','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the northward seawater velocity component.',4,0,1); INSERT INTO "parameter" VALUES(3671,'water_velocity_vertical','water_velocity_vertical',3,3,NULL,168,5,'Upward Seawater Velocity',NULL,0,NULL,NULL,'VELPROF-VLU_L0','A Velocity Profile includes water velocity (speed & direction) throughout the depth range of an ADCP sensor. This instance is the upward seawater velocity component.',4,0,1); @@ -4154,11 +4158,11 @@ INSERT INTO "parameter" VALUES(3700,'sensor_current_draw','sensor_current_draw', INSERT INTO "parameter" VALUES(3701,'winch_status','winch_status',9,6,NULL,10,17,'Winch''s Status',NULL,NULL,NULL,NULL,NULL,'Winch''s Status (PrkPrgs,Brake-On, etc...)',NULL,NULL,1); INSERT INTO "parameter" VALUES(3702,'sci_suna_timestamp','sci_suna_timestamp',9,2,NULL,198,NULL,'Timestamp of Sample Since 1970-01-01',NULL,4,NULL,NULL,NULL,'Timestamp of sample in seconds since 1970-01-01',NULL,NULL,1); INSERT INTO "parameter" VALUES(3703,'sci_suna_record_offset','sci_suna_record_offset',9,8,NULL,16,16,'Message Byte Count for Open Disk File',NULL,0,NULL,NULL,NULL,'message byte count for open disk file in bytes',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3704,'sci_suna_nitrate_um','sci_suna_nitrate_um',9,1,NULL,222,NULL,'Nitrate Concentration',NULL,4,NULL,NULL,'NITRDIS_L1','Nitrate concentration',3,1,1); +INSERT INTO "parameter" VALUES(3704,'sci_suna_nitrate_um','sci_suna_nitrate_um',9,1,NULL,250,NULL,'Nitrate Concentration',NULL,4,NULL,NULL,'NITRDIS_L1','Nitrate concentration',3,1,1); INSERT INTO "parameter" VALUES(3705,'sci_suna_nitrate_mg','sci_suna_nitrate_mg',9,1,NULL,152,NULL,'Nitrate Concentration',NULL,4,NULL,NULL,NULL,'Nitrate concentration in mg/L',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3706,'dpc_ctd_seawater_conductivity','dpc_ctd_seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,189,'{"scaler": 0.1, "value": "PD2934"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(3706,'dpc_ctd_seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',6,189,'{"scaler": 0.1, "value": "PD2934"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); INSERT INTO "parameter" VALUES(3715,'flntu_x_mmp_cds_scat_seawater','flntu_x_mmp_cds_scat_seawater',8,1,NULL,127,7,'Total Scattering Coefficient of Pure Seawater',NULL,4,97,'{"delta": "CC_depolarization_ratio", "theta": "CC_scattering_angle", "wlngth": "CC_measurement_wavelength", "degC": "PD6", "psu": "dpi_PRACSAL_L2"}',NULL,'Total scattering coefficient of pure seawater [m-1]',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3716,'fdchp_a_tmpatur','fdchp_a_tmpatur',8,1,NULL,225,7,'Sonic Air Temperature',NULL,4,190,'{"timestamp": "PD7", "sonicT": "PD3474"}','TMPATUR_L1','Sonic Air Temperature refers to air temperature associated with eddies that flow over the ocean surface and is used to determine vertical fluxes of heat associated with the eddies.',3,1,1); +INSERT INTO "parameter" VALUES(3716,'fdchp_a_tmpatur','fdchp_a_tmpatur',8,1,NULL,232,7,'Sonic Air Temperature',NULL,4,190,'{"timestamp": "PD7", "sonicT": "PD3474"}','TMPATUR_L1','Sonic Air Temperature refers to air temperature associated with eddies that flow over the ocean surface and is used to determine vertical fluxes of heat associated with the eddies.',3,1,1); INSERT INTO "parameter" VALUES(3717,'fdchp_a_windtur_north','fdchp_a_windtur_north',8,1,NULL,123,7,'Wind Velocity - Northerly',NULL,4,191,'{"rateZ": "PD3323", "timestamp": "PD7", "heading": "PD3480", "accY": "PD3476", "accX": "PD3475", "accZ": "PD3477", "lat": "CC_latitude", "sonicU": "PD3471", "sonicV": "PD3472", "sonicW": "PD3473", "rateY": "PD3322", "rateX": "PD3321"}','WINDTUR-VLN_L1','The L1 windspeed data product WINDTUR-VLN_L1 from the FDCHP instrument, which collects 20 minutes of data every hour. The L1 data consists of these values less 30 seconds from both the beginning and end of each 12000 point dataset.',NULL,1,1); INSERT INTO "parameter" VALUES(3718,'fdchp_a_windtur_up','fdchp_a_windtur_up',8,1,NULL,123,7,'Wind Velocity - Vertical',NULL,4,192,'{"rateZ": "PD3323", "timestamp": "PD7", "heading": "PD3480", "accY": "PD3476", "accX": "PD3475", "accZ": "PD3477", "lat": "CC_latitude", "sonicU": "PD3471", "sonicV": "PD3472", "sonicW": "PD3473", "rateY": "PD3322", "rateX": "PD3321"}','WINDTUR-VLU_L1','The L1 windspeed data product WINDTUR-VLU_L1 from the FDCHP instrument, which collects 20 minutes of data every hour. The L1 data consists of these values less 30 seconds from both the beginning and end of each 12000 point dataset.',NULL,1,1); INSERT INTO "parameter" VALUES(3719,'fdchp_a_windtur_west','fdchp_a_windtur_west',8,1,NULL,123,7,'Wind Velocity - Westerly',NULL,4,193,'{"rateZ": "PD3323", "timestamp": "PD7", "heading": "PD3480", "accY": "PD3476", "accX": "PD3475", "accZ": "PD3477", "lat": "CC_latitude", "sonicU": "PD3471", "sonicV": "PD3472", "sonicW": "PD3473", "rateY": "PD3322", "rateX": "PD3321"}','WINDTUR-VLW_L1','The L1 windspeed data product WINDTUR-VLW_L1 from the FDCHP instrument, which collects 20 minutes of data every hour. The L1 data consists of these values less 30 seconds from both the beginning and end of each 12000 point dataset.',NULL,1,1); @@ -4167,7 +4171,7 @@ INSERT INTO "parameter" VALUES(3721,'fdchp_a_fluxmom_alongwind','fdchp_a_fluxmom INSERT INTO "parameter" VALUES(3722,'fdchp_a_fluxmom_crosswind','fdchp_a_fluxmom_crosswind',8,1,NULL,132,7,'Cross-Wind Component of Momentum Flux',NULL,4,196,'{"rateZ": "PD3323", "timestamp": "PD7", "heading": "PD3480", "accY": "PD3476", "accX": "PD3475", "accZ": "PD3477", "lat": "CC_latitude", "sonicU": "PD3471", "sonicV": "PD3472", "sonicW": "PD3473", "rateY": "PD3322", "rateX": "PD3321"}','FLUXMOM-V_L2','FLUXMOM-V_L2, the cross-wind component of the momentum flux, from the FDCHP instrument, which collects 20 minutes of data every hour. There is one FLUXMOM-V_L2 value calculated for each 20 minute dataset of 12000 data records.',NULL,2,1); INSERT INTO "parameter" VALUES(3723,'fdchp_a_time_L1','fdchp_a_time_L1',8,1,NULL,191,7,'L1 Timestamps',NULL,4,197,'{"timestamp": "PD7"}','TIME_L1-AUX','The time metadata product TIME_L1-AUX associated with the L1 wind and temperature data products from the FDCHP instrument, which collects 20 minutes of data every hour. For each of the L1 data products, 30 seconds of data is stripped out from the beginning and end of each 20 minute, 12000 record dataset. The TIME_L1-AUX values are the remaining timestamps for each dataset.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3724,'fdchp_a_time_L2','fdchp_a_time_L2',8,1,NULL,191,7,'L2 Timestamps',NULL,4,198,'{"timestamp": "PD7"}','TIME_L2-AUX','The time metadata product TIME_L2-AUX associated with the L2 flux data products from the FDCHP instrument. FDCHP collects 20 minutes of data every hour; for each of the L2 flux data products, one data value is calculated for each 20 minute dataset. The TIME_L2-AUX values are the median timestamps for each dataset.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3726,'par_auv_biospherical_mobile','par_auv_biospherical_mobile',8,1,NULL,221,8,'PAR Scaling Factor','downwelling_photosynthetic_photon_flux_in_sea_water',4,90,'{"output": "PD3462", "scale_wet": "CC_scale_wet", "dark_offset": "CC_dark_offset"}','OPTPARW_L1','The PAR scaling factor is a calibration parameter used in converting PAR digital voltage counts to scientific units.',3,1,1); +INSERT INTO "parameter" VALUES(3726,'par_auv_biospherical_mobile','par_auv_biospherical_mobile',8,1,NULL,249,18,'PAR Scaling Factor','downwelling_photosynthetic_photon_flux_in_sea_water',4,90,'{"output": "PD3462", "scale_wet": "CC_scale_wet", "dark_offset": "CC_dark_offset"}','OPTPARW_L1','The PAR scaling factor is a calibration parameter used in converting PAR digital voltage counts to scientific units.',3,1,1); INSERT INTO "parameter" VALUES(3730,'zplsc_c_transmission_timestamp','zplsc_c_transmission_timestamp',9,2,NULL,10,7,'Timestamp',NULL,NULL,NULL,NULL,NULL,'Timestamp that indicates the date and time the data was transmitted by the unit.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3731,'zplsc_c_phase','zplsc_c_phase',9,3,NULL,10,2,'Phase',NULL,0,NULL,NULL,NULL,'Phase (up to 12) used to acquire this profile data. A phase is a data collection sequence with a unique set of operating parameters.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3732,'zplsc_c_tilt_x_counts','zplsc_c_tilt_x_counts',9,7,NULL,67,13,'Tilt in X Direction',NULL,1,NULL,NULL,NULL,'Counts from A/D converter for the tilt in the X direction',NULL,NULL,1); @@ -4176,10 +4180,10 @@ INSERT INTO "parameter" VALUES(3734,'zplsc_c_battery_voltage_counts','zplsc_c_ba INSERT INTO "parameter" VALUES(3735,'zplsc_c_temperature_counts','zplsc_c_temperature_counts',9,7,NULL,67,13,'Temperature',NULL,1,NULL,NULL,NULL,'Counts from the A/D converter for the the water temperature.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3736,'zplsc_c_pressure_counts','zplsc_c_pressure_counts',9,7,NULL,67,13,'Seawater Pressure',NULL,1,NULL,NULL,NULL,'Counts from the A/D converter for the seawater pressure exerted on a sensor in situ by the weight of the column of seawater above it.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3737,'zplsc_c_is_averaged_data','zplsc_c_is_averaged_data',3,5,NULL,10,4,'Data Type',NULL,0,NULL,NULL,NULL,'Array of flags, one for each channel, that indicate if the data is averaged for that channel.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3742,'zplsc_c_tilt_x','zplsc_c_tilt_x',9,1,NULL,87,7,'Tilt in X Direction',NULL,1,NULL,NULL,NULL,'Tilt in X direction',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3743,'zplsc_c_tilt_y','zplsc_c_tilt_y',9,1,NULL,87,7,'Tilt in Y Direction',NULL,1,NULL,NULL,NULL,'Tilt in Y direction',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3744,'zplsc_c_battery_voltage','zplsc_c_battery_voltage',9,1,NULL,208,7,'Voltage of the Main Battery Pack',NULL,1,NULL,NULL,NULL,'Voltage of the main battery pack',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3745,'zplsc_c_temperature','zplsc_c_temperature',9,1,NULL,225,7,'Temperature',NULL,1,NULL,NULL,NULL,'Water temperature in degrees Celsius',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3742,'zplsc_c_tilt_x','zplsc_c_tilt_x',9,1,NULL,95,7,'Tilt in X Direction',NULL,1,NULL,NULL,NULL,'Tilt in X direction',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3743,'zplsc_c_tilt_y','zplsc_c_tilt_y',9,1,NULL,95,7,'Tilt in Y Direction',NULL,1,NULL,NULL,NULL,'Tilt in Y direction',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3744,'zplsc_c_battery_voltage','zplsc_c_battery_voltage',9,1,NULL,40,7,'Voltage of the Main Battery Pack',NULL,1,NULL,NULL,NULL,'Voltage of the main battery pack',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3745,'zplsc_c_temperature','zplsc_c_temperature',9,1,NULL,232,7,'Temperature',NULL,1,NULL,NULL,NULL,'Water temperature in degrees Celsius',NULL,NULL,1); INSERT INTO "parameter" VALUES(3746,'zplsc_c_pressure','zplsc_c_pressure',9,1,NULL,80,7,'Seawater Pressure',NULL,1,NULL,NULL,NULL,'Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3748,'zplsc_c_frequency_channel_1','zplsc_c_frequency_channel_1',9,7,NULL,114,13,'Channel 1 Frequency',NULL,NULL,NULL,NULL,NULL,'Channel 1 frequency',NULL,NULL,1); INSERT INTO "parameter" VALUES(3749,'zplsc_c_values_channel_1','zplsc_c_values_channel_1',3,8,NULL,67,10,'Channel 1 Values Minus Minimum Value',NULL,0,NULL,NULL,NULL,'Channel 1 values minus minimum value',NULL,NULL,1); @@ -4200,23 +4204,23 @@ INSERT INTO "parameter" VALUES(3766,'camhd_laser','camhd_laser',5,5,NULL,10,10,' INSERT INTO "parameter" VALUES(3767,'camhd_channel_name','camhd_channel_name',3,6,NULL,10,17,'Array of Channel Names',NULL,0,NULL,NULL,NULL,'Array of channel names',NULL,NULL,1); INSERT INTO "parameter" VALUES(3768,'camhd_channel_value','camhd_channel_value',3,1,NULL,10,7,'Array of Channel Values',NULL,0,NULL,NULL,NULL,'Array of channel values',NULL,NULL,1); INSERT INTO "parameter" VALUES(3769,'camhd_value_units','camhd_value_units',3,6,NULL,10,17,'Array of Value Units',NULL,0,NULL,NULL,NULL,'Array of value units',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3777,'corrected_dissolved_oxygen','corrected_dissolved_oxygen',8,1,NULL,219,7,'DO - Pressure Temp Sal Corrected (CTD)',NULL,4,87,'{"Voffset": "CC_frequency_offset", "A": "CC_residual_temperature_correction_factor_a", "Soc": "CC_oxygen_signal_slope", "B": "CC_residual_temperature_correction_factor_b", "E": "CC_residual_temperature_correction_factor_e", "voltage_counts": "PD2310", "SP": "dpi_PRACSAL_L2", "lon": "CC_lon", "C": "CC_residual_temperature_correction_factor_c", "P": "PD909", "T": "PD908", "lat": "CC_lat"}','DOCONCF_L2','Dissolved Oxygen (DO) Concentration from the Fast Response (Fastrep) Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This Instrument measures dissolved oxygen concentrations on shallow coastal profilers through rapid oxygen gradients. This data product is corrected for salinity, temperature, and depth from a collocated CTD.',3,2,1); +INSERT INTO "parameter" VALUES(3777,'corrected_dissolved_oxygen','corrected_dissolved_oxygen',8,1,NULL,247,7,'Dissolved Oxygen - Pressure Temp Sal Corrected (CTD)','moles_of_oxygen_per_unit_mass_in_sea_water',4,87,'{"Voffset": "CC_frequency_offset", "A": "CC_residual_temperature_correction_factor_a", "Soc": "CC_oxygen_signal_slope", "B": "CC_residual_temperature_correction_factor_b", "E": "CC_residual_temperature_correction_factor_e", "voltage_counts": "PD2310", "SP": "dpi_PRACSAL_L2", "lon": "CC_lon", "C": "CC_residual_temperature_correction_factor_c", "P": "PD909", "T": "PD908", "lat": "CC_lat"}','DOCONCF_L2','Dissolved Oxygen (DO) Concentration from the Fast Response (Fastrep) DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This Instrument measures dissolved oxygen concentrations on shallow coastal profilers through rapid oxygen gradients. This data product is corrected for salinity, temperature, and depth from a collocated CTD.',3,2,1); INSERT INTO "parameter" VALUES(3778,'pco2w_a_absorbance_blank_434','pco2w_a_absorbance_blank_434',8,1,NULL,10,7,'Optical Absorbance Ratio at 434 Nm - Blank',NULL,4,39,'{"light": "pco2w_a_sami_data_record_cal.PD357"}','CO2ABS1-BLNK_L0','The Optical Absorbance ratio at 434 nm collected during the blank cycle and used to calculate the PCO2WAT data product.',4,0,1); INSERT INTO "parameter" VALUES(3779,'pco2w_a_absorbance_blank_620','pco2w_a_absorbance_blank_620',8,1,NULL,10,7,'Optical Absorbance Ratio at 620 Nm - Blank',NULL,4,40,'{"light": "pco2w_a_sami_data_record_cal.PD357"}','CO2ABS2-BLNK_L0','The Optical Absorbance ratio at 620 nm collected during the blank cycle and used to calculate the PCO2WAT data product.',4,0,1); -INSERT INTO "parameter" VALUES(3780,'hpies_travel_time1_L1','hpies_travel_time1_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 1',NULL,5,189,'{"scaler": 1e-05, "value": "PD2577"}','IESRATT_L1','1st Round-trip acoustic travel time (RATT) in Seconds.',NULL,1,1); -INSERT INTO "parameter" VALUES(3781,'hpies_travel_time2_L1','hpies_travel_time2_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 2',NULL,5,189,'{"scaler": 1e-05, "value": "PD2578"}','IESRATT_L1','2nd Round-trip acoustic travel time (RATT) in Seconds.',NULL,1,1); -INSERT INTO "parameter" VALUES(3782,'hpies_travel_time3_L1','hpies_travel_time3_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 3',NULL,5,189,'{"scaler": 1e-05, "value": "PD2579"}','IESRATT_L1','3rd Round-trip acoustic travel time (RATT) in Seconds.',NULL,1,1); -INSERT INTO "parameter" VALUES(3783,'hpies_travel_time4_L1','hpies_travel_time4_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 4',NULL,5,189,'{"scaler": 1e-05, "value": "PD2580"}','IESRATT_L1','4th Round-trip acoustic travel time (RATT) in Seconds.',NULL,1,1); -INSERT INTO "parameter" VALUES(3784,'hpies_bliley_temperature_L1','hpies_bliley_temperature_L1',8,1,NULL,225,6,'Bliley Oscillator Temperature',NULL,3,189,'{"scaler": 0.001, "value": "PD2583"}',NULL,'Bliley oscillator temperature, degrees Celsius. L1 Metadata',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3780,'hpies_travel_time1_L1','hpies_travel_time1_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 1',NULL,5,189,'{"scaler": 1e-05, "value": "PD2577"}','IESRATT_L1','1st Round-trip acoustic travel time (RATT) in Seconds.',3,1,1); +INSERT INTO "parameter" VALUES(3781,'hpies_travel_time2_L1','hpies_travel_time2_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 2',NULL,5,189,'{"scaler": 1e-05, "value": "PD2578"}','IESRATT_L1','2nd Round-trip acoustic travel time (RATT) in Seconds.',3,1,1); +INSERT INTO "parameter" VALUES(3782,'hpies_travel_time3_L1','hpies_travel_time3_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 3',NULL,5,189,'{"scaler": 1e-05, "value": "PD2579"}','IESRATT_L1','3rd Round-trip acoustic travel time (RATT) in Seconds.',3,1,1); +INSERT INTO "parameter" VALUES(3783,'hpies_travel_time4_L1','hpies_travel_time4_L1',8,1,NULL,194,6,'Round-Trip Acoustic Travel Time 4',NULL,5,189,'{"scaler": 1e-05, "value": "PD2580"}','IESRATT_L1','4th Round-trip acoustic travel time (RATT) in Seconds.',3,1,1); +INSERT INTO "parameter" VALUES(3784,'hpies_bliley_temperature_L1','hpies_bliley_temperature_L1',8,1,NULL,232,6,'Bliley Oscillator Temperature',NULL,3,189,'{"scaler": 0.001, "value": "PD2583"}',NULL,'Bliley oscillator temperature, degrees Celsius. L1 Metadata',3,1,1); INSERT INTO "parameter" VALUES(3785,'hpies_pressure_L1','hpies_pressure_L1',8,1,NULL,80,6,'Seafloor Pressure',NULL,3,189,'{"scaler": 0.001, "value": "PD2581"}','IESPRES_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); -INSERT INTO "parameter" VALUES(3786,'hpies_temperature','hpies_temperature',8,1,NULL,225,6,'Seawater Temperature',NULL,3,189,'{"scaler": 0.001, "value": "PD2582"}',NULL,'Seawater temperature near the sensor.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3786,'hpies_temperature','hpies_temperature',8,1,NULL,232,6,'Seawater Temperature',NULL,3,189,'{"scaler": 0.001, "value": "PD2582"}',NULL,'Seawater temperature near the sensor.',3,1,1); INSERT INTO "parameter" VALUES(3788,'pco2w_b_absorbance_blank_434','pco2w_b_absorbance_blank_434',8,1,NULL,10,7,'Optical Absorbance Ratio at 434 Nm - Blank',NULL,4,39,'{"light": "pco2w_b_sami_data_record_cal.PD357"}','CO2ABS1-BLNK_L0','The Optical Absorbance ratio at 434 nm collected during the blank cycle and used to calculate the PCO2WAT data product.',4,0,1); INSERT INTO "parameter" VALUES(3789,'pco2w_b_absorbance_blank_620','pco2w_b_absorbance_blank_620',8,1,NULL,10,7,'Optical Absorbance Ratio at 620 Nm - Blank',NULL,4,40,'{"light": "pco2w_b_sami_data_record_cal.PD357"}','CO2ABS2-BLNK_L0','The Optical Absorbance ratio at 620 nm collected during the blank cycle and used to calculate the PCO2WAT data product.',4,0,1); INSERT INTO "parameter" VALUES(3790,'oxy_calphase_volts','oxy_calphase_volts',9,1,NULL,40,7,'Calibrated Phase Difference',NULL,3,NULL,NULL,'DOCONCS-VLT_L0','Calibrated phase difference in Volts, used to calculate temperature compensated oxygen concentration.',4,0,1); INSERT INTO "parameter" VALUES(3791,'oxy_temp_volts','oxy_temp_volts',9,1,NULL,40,7,'Oxygen Sensor Temperature',NULL,3,NULL,NULL,NULL,'Oxygen sensor ambient temperature in Volts',NULL,NULL,1); INSERT INTO "parameter" VALUES(3792,'dosta_analog_calibrated_phase','dosta_analog_calibrated_phase',8,1,NULL,95,7,'Calibrated Phase Difference',NULL,3,200,'{"phase_volt": "PD3790"}','DOCONCS-DEG_L0','Calibrated phase difference, used to calculate temperature compensated oxygen concentration.',4,0,1); -INSERT INTO "parameter" VALUES(3793,'dosta_analog_optode_temperature','dosta_analog_optode_temperature',8,1,NULL,225,7,'Oxygen Sensor Temperature',NULL,3,199,'{"T_optode_volt": "PD3791"}',NULL,'Oxygen sensor ambient temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(3794,'dosta_analog_tc_oxygen','dosta_analog_tc_oxygen',8,1,NULL,218,7,'Dissolved Oxygen Concentration',NULL,4,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD3792", "csv": "CC_csv", "temp": "PD3793"}','DOCONCS_L1','Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen (DO) Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature from a collocated CTD.',3,1,1); +INSERT INTO "parameter" VALUES(3793,'dosta_analog_optode_temperature','dosta_analog_optode_temperature',8,1,NULL,232,7,'Oxygen Sensor Temperature',NULL,3,199,'{"T_optode_volt": "PD3791"}',NULL,'Oxygen sensor ambient temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(3794,'dosta_analog_tc_oxygen','dosta_analog_tc_oxygen',8,1,NULL,246,7,'Dissolved Oxygen Concentration',NULL,4,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD3792", "csv": "CC_csv", "temp": "PD3793"}','DOCONCS_L1','Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen (DO) Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature from a collocated CTD.',3,1,1); INSERT INTO "parameter" VALUES(3795,'raw_signal_beta_volts','raw_signal_beta_volts',9,1,NULL,40,7,'Optical Backscatter Measurement',NULL,4,NULL,NULL,'FLUBSCT_L0','Optical backscatter unprocessed measurement output from the sensor.',4,0,1); INSERT INTO "parameter" VALUES(3796,'raw_signal_chl_volts','raw_signal_chl_volts',9,1,NULL,40,7,'Chlorophyll-A Measurement',NULL,4,NULL,NULL,'CHLAFLO_L0','Fluorometric chlorophyll-a unprocessed measurement output from the sensor.',4,0,1); INSERT INTO "parameter" VALUES(3799,'dark_frame_spectral_channels','dark_frame_spectral_channels',3,7,NULL,67,13,'Dark Frame UV Absorption Spectra',NULL,0,NULL,NULL,'NITRDARK','Spectral Channels from a Dark Frame',NULL,NULL,1); @@ -4255,11 +4259,11 @@ INSERT INTO "parameter" VALUES(3833,'mpt_seconds','mpt_seconds',9,10,NULL,191,10 INSERT INTO "parameter" VALUES(3834,'time_per_ping_seconds','time_per_ping_seconds',9,10,NULL,191,10,'Time Per Ping',NULL,NULL,NULL,NULL,NULL,'Contains the amount of time, in seconds, between pings in an ensemble.',NULL,NULL,1); INSERT INTO "parameter" VALUES(3835,'eastward_seawater_velocity','eastward_seawater_velocity',8,1,NULL,123,7,'Eastward Sea Water Velocity','eastward_sea_water_velocity',4,49,'{"lon": "PD8106", "u": "PD714", "v": "PD715", "lat": "PD8105", "dt": "PD7", "z": "PD671"}','VELPROF-VLE_L1','Eastward sea water velocity component in Earth coordinates with the magnetic variation accounted for.',3,1,1); INSERT INTO "parameter" VALUES(3836,'northward_seawater_velocity','northward_seawater_velocity',8,1,NULL,123,7,'Northward Sea Water Velocity','northward_sea_water_velocity',4,50,'{"lon": "PD8106", "u": "PD714", "v": "PD715", "lat": "PD8105", "dt": "PD7", "z": "PD671"}','VELPROF-VLN_L1','Northward sea water velocity component in Earth coordinates with the magnetic variation accounted for.',3,1,1); -INSERT INTO "parameter" VALUES(3837,'sci_water_pressure_dbar','sci_water_pressure_dbar',8,1,NULL,80,NULL,'Seawater Pressure','sea_water_pressure',4,204,'{"pr_bar": "PD1527"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(3837,'sci_water_pressure_dbar','sea_water_pressure',8,1,NULL,80,NULL,'Seawater Pressure','sea_water_pressure',4,204,'{"pr_bar": "PD1527"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); INSERT INTO "parameter" VALUES(3838,'fdchp_x_ang_rate','fdchp_x_ang_rate',9,1,NULL,187,7,'Angular Rate X-Axis',NULL,4,NULL,NULL,NULL,'Observed angular rate along the instrument x-axis',NULL,NULL,1); INSERT INTO "parameter" VALUES(3839,'fdchp_y_ang_rate','fdchp_y_ang_rate',9,1,NULL,187,7,'Angular Rate Y-Axis',NULL,4,NULL,NULL,NULL,'Observed angular rate along the instrument y-axis',NULL,NULL,1); INSERT INTO "parameter" VALUES(3840,'fdchp_z_ang_rate','fdchp_z_ang_rate',9,1,NULL,187,7,'Angular Rate Z-Axis',NULL,4,NULL,NULL,NULL,'Observed angular rate along the instrument z-axis',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7000,'sn_ambient_temperature','sn_ambient_temperature',9,1,NULL,225,7,'Ambient Temperature',NULL,3,NULL,NULL,NULL,'Ambient Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7000,'sn_ambient_temperature','sn_ambient_temperature',9,1,NULL,232,7,'Ambient Temperature',NULL,3,NULL,NULL,NULL,'Ambient Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7001,'sn_cib_5v_current','sn_cib_5v_current',9,1,NULL,14,7,'CIB 5V Current',NULL,3,NULL,NULL,NULL,'CIB 5V Current',NULL,NULL,1); INSERT INTO "parameter" VALUES(7002,'sn_cib_board_state','sn_cib_board_state',9,4,NULL,10,7,'CIB Board State',NULL,0,NULL,NULL,NULL,'CIB Board State',NULL,NULL,1); INSERT INTO "parameter" VALUES(7003,'sn_cib_error_state','sn_cib_error_state',9,4,NULL,10,7,'CIB Error State',NULL,0,NULL,NULL,NULL,'CIB Error State',NULL,NULL,1); @@ -4267,20 +4271,20 @@ INSERT INTO "parameter" VALUES(7004,'sn_cib_hotel_current','sn_cib_hotel_current INSERT INTO "parameter" VALUES(7005,'sn_cib_hotel_voltage','sn_cib_hotel_voltage',9,1,NULL,40,7,'CIB Hotel Voltage',NULL,3,NULL,NULL,NULL,'CIB Hotel Voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(7006,'sn_internal_pressure','sn_internal_pressure',9,1,NULL,36,7,'Internal Pressure',NULL,0,NULL,NULL,NULL,'Internal Pressure',NULL,NULL,1); INSERT INTO "parameter" VALUES(7007,'sn_relative_humidity','sn_relative_humidity',9,1,NULL,179,7,'Relative Humidity',NULL,3,NULL,NULL,NULL,'Relative Humidity',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7008,'sn_pitch','sn_pitch',9,1,NULL,87,7,'Pitch',NULL,3,NULL,NULL,NULL,'Pitch',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7009,'sn_roll','sn_roll',9,1,NULL,87,7,'Roll',NULL,3,NULL,NULL,NULL,'Roll',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7008,'sn_pitch','sn_pitch',9,1,NULL,95,7,'Pitch',NULL,3,NULL,NULL,NULL,'Pitch',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7009,'sn_roll','sn_roll',9,1,NULL,95,7,'Roll',NULL,3,NULL,NULL,NULL,'Roll',NULL,NULL,1); INSERT INTO "parameter" VALUES(7010,'sn_tilt_x','sn_tilt_x',9,1,NULL,102,7,'Tilt X',NULL,3,NULL,NULL,NULL,'Tilt_X',NULL,NULL,1); INSERT INTO "parameter" VALUES(7011,'sn_tilt_y','sn_tilt_y',9,1,NULL,102,7,'Tilt Y',NULL,3,NULL,NULL,NULL,'Tilt_Y',NULL,NULL,1); INSERT INTO "parameter" VALUES(7012,'sn_tilt_z','sn_tilt_z',9,1,NULL,102,7,'Tilt Z',NULL,3,NULL,NULL,NULL,'Tilt_Z',NULL,NULL,1); INSERT INTO "parameter" VALUES(7013,'sn_hpb_error_state','sn_hpb_error_state',9,4,NULL,10,7,'HPB Error State',NULL,0,NULL,NULL,NULL,'HPB Error State',NULL,NULL,1); INSERT INTO "parameter" VALUES(7014,'sn_hpb_input_voltage','sn_hpb_input_voltage',9,1,NULL,40,7,'HPB Input Voltage',NULL,3,NULL,NULL,NULL,'HPB Input Voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(7015,'sn_hpb_hotel_current','sn_hpb_hotel_current',9,1,NULL,14,7,'HPB Hotel Current',NULL,3,NULL,NULL,NULL,'HPB Hotel Current',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7016,'sn_hpb_hotel_temperature','sn_hpb_hotel_temperature',9,1,NULL,225,7,'HPB Hotel Temperature',NULL,3,NULL,NULL,NULL,'HPB Hotel Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7016,'sn_hpb_hotel_temperature','sn_hpb_hotel_temperature',9,1,NULL,232,7,'HPB Hotel Temperature',NULL,3,NULL,NULL,NULL,'HPB Hotel Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7017,'sn_hpb_gfd_375_high','sn_hpb_gfd_375_high',9,1,NULL,154,7,'HPB 375 GFD High',NULL,0,NULL,NULL,NULL,'HPB 375 GFD High',NULL,NULL,1); INSERT INTO "parameter" VALUES(7018,'sn_hpb_gfd_375_low','sn_hpb_gfd_375_low',9,1,NULL,154,7,'HPB 375 GFD Low',NULL,0,NULL,NULL,NULL,'HPB 375 GFD Low',NULL,NULL,1); INSERT INTO "parameter" VALUES(7100,'sn_port_output_current','sn_port_output_current',9,1,NULL,14,7,'Current',NULL,3,NULL,NULL,NULL,'Current',NULL,NULL,1); INSERT INTO "parameter" VALUES(7101,'sn_port_output_voltage','sn_port_output_voltage',9,1,NULL,40,7,'Voltage',NULL,3,NULL,NULL,NULL,'Voltage',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7102,'sn_port_unit_temperature','sn_port_unit_temperature',9,1,NULL,225,7,'Temperature',NULL,3,NULL,NULL,NULL,'Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7102,'sn_port_unit_temperature','sn_port_unit_temperature',9,1,NULL,232,7,'Temperature',NULL,3,NULL,NULL,NULL,'Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7103,'sn_port_gfd_high','sn_port_gfd_high',9,1,NULL,154,7,'GFD High',NULL,0,NULL,NULL,NULL,'GFD High',NULL,NULL,1); INSERT INTO "parameter" VALUES(7104,'sn_port_gfd_low','sn_port_gfd_low',9,1,NULL,154,7,'GFD Low',NULL,0,NULL,NULL,NULL,'GFD Low',NULL,NULL,1); INSERT INTO "parameter" VALUES(7105,'sn_port_error_state','sn_port_error_state',9,4,NULL,10,7,'Error State',NULL,0,NULL,NULL,NULL,'Error State',NULL,NULL,1); @@ -4292,16 +4296,16 @@ INSERT INTO "parameter" VALUES(7111,'sn_hpb_hotel_voltage','sn_hpb_hotel_voltage INSERT INTO "parameter" VALUES(7112,'sn_hpb_board_state','sn_hpb_board_state',6,5,18,10,4,'Secondary Node HPD Board State',NULL,0,NULL,NULL,NULL,'UNKNOWN = 0, only for initial value. NOT_PRESENT = 1, system is not configured with the board present in the system. PRESENT_AND_ALIVE = 2, working as expected. NOT_RESPONDING = 3 board is presumed present in the system, but not responding.',NULL,NULL,1); INSERT INTO "parameter" VALUES(7200,'dp_dock_12_v_current','dp_dock_12_v_current',9,1,NULL,14,7,'Current',NULL,0,NULL,NULL,NULL,'Current, A',NULL,NULL,1); INSERT INTO "parameter" VALUES(7201,'dp_dock_ambient_temperature','dp_dock_ambient_temperature',9,1,NULL,14,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7202,'dp_dock_heat_sink_temperature','dp_dock_heat_sink_temperature',9,1,NULL,225,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7202,'dp_dock_heat_sink_temperature','dp_dock_heat_sink_temperature',9,1,NULL,232,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); INSERT INTO "parameter" VALUES(7203,'dp_dock_ips_status_control','dp_dock_ips_status_control',9,4,NULL,10,7,'IPS Status',NULL,0,NULL,NULL,NULL,'IPS Status',NULL,NULL,1); INSERT INTO "parameter" VALUES(7204,'dp_dock_relative_humidity','dp_dock_relative_humidity',9,1,NULL,179,7,'Rel Humidity, Percent',NULL,0,NULL,NULL,NULL,'Rel Humidity, Percent',NULL,NULL,1); INSERT INTO "parameter" VALUES(7209,'dp_mobile_profiler_battery_energy','dp_mobile_profiler_battery_energy',9,1,NULL,210,7,'Battery Energy',NULL,0,NULL,NULL,NULL,'Battery Energy, Watt Hours',NULL,NULL,1); INSERT INTO "parameter" VALUES(7210,'dp_mobile_profiler_pressure','dp_mobile_profiler_pressure',9,1,NULL,84,7,'Pressure',NULL,0,NULL,NULL,NULL,'Pressure, deciBars',NULL,NULL,1); INSERT INTO "parameter" VALUES(7211,'dp_mobile_profiler_profile_number','dp_mobile_profiler_profile_number',9,4,NULL,67,7,'Profile Number',NULL,0,NULL,NULL,NULL,'Profile Number',NULL,NULL,1); INSERT INTO "parameter" VALUES(7212,'dp_mobile_profiler_state','dp_mobile_profiler_state',9,4,NULL,10,7,'State',NULL,0,NULL,NULL,NULL,'State',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7213,'dp_mobile_profiler_temperature_1','dp_mobile_profiler_temperature_1',9,1,NULL,225,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7214,'dp_mobile_profiler_temperature_2','dp_mobile_profiler_temperature_2',9,1,NULL,225,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7215,'dp_mobile_profiler_temperature_3','dp_mobile_profiler_temperature_3',9,1,NULL,225,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7213,'dp_mobile_profiler_temperature_1','dp_mobile_profiler_temperature_1',9,1,NULL,232,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7214,'dp_mobile_profiler_temperature_2','dp_mobile_profiler_temperature_2',9,1,NULL,232,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7215,'dp_mobile_profiler_temperature_3','dp_mobile_profiler_temperature_3',9,1,NULL,232,7,'Temperature',NULL,0,NULL,NULL,NULL,'Temperature, deg C',NULL,NULL,1); INSERT INTO "parameter" VALUES(7216,'dp_mobile_profiler_current','dp_mobile_profiler_current',9,1,NULL,14,7,'Current',NULL,0,NULL,NULL,NULL,'Current, A',NULL,NULL,1); INSERT INTO "parameter" VALUES(7217,'dp_mobile_profiler_voltage','dp_mobile_profiler_voltage',9,1,NULL,40,7,'Voltage',NULL,0,NULL,NULL,NULL,'Voltage, V',NULL,NULL,1); INSERT INTO "parameter" VALUES(7218,'dp_mobile_profiler_relative_humidity','dp_mobile_profiler_relative_humidity',9,1,NULL,179,7,'Rel Humidity, Percent',NULL,0,NULL,NULL,NULL,'Rel Humidity, Percent',NULL,NULL,1); @@ -4338,11 +4342,11 @@ INSERT INTO "parameter" VALUES(7554,'sp_nav_magnetic_flux_density_y','sp_nav_mag INSERT INTO "parameter" VALUES(7555,'sp_nav_magnetic_flux_density_z','sp_nav_magnetic_flux_density_z',9,1,NULL,22,7,'Magnetic Flux Density Z',NULL,4,NULL,NULL,NULL,'Magnetic Flux Density Z',NULL,NULL,1); INSERT INTO "parameter" VALUES(7556,'sp_nav_mission_control_event','sp_nav_mission_control_event',9,4,NULL,10,7,'Mission Control Event',NULL,0,NULL,NULL,NULL,'Mission Control Event',NULL,NULL,1); INSERT INTO "parameter" VALUES(7557,'sp_nav_navdata_timestamp_microsec_component','sp_nav_navdata_timestamp_microsec_component',9,1,NULL,155,7,'NavData Timestamp MicroSec Component',NULL,4,NULL,NULL,NULL,'NavData Timestamp MicroSec Component',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7558,'sp_nav_pitch','sp_nav_pitch',9,1,NULL,87,7,'Pitch',NULL,4,NULL,NULL,NULL,'Pitch',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7558,'sp_nav_pitch','sp_nav_pitch',9,1,NULL,95,7,'Pitch',NULL,4,NULL,NULL,NULL,'Pitch',NULL,NULL,1); INSERT INTO "parameter" VALUES(7559,'sp_nav_pitch_rate','sp_nav_pitch_rate',9,1,NULL,89,7,'Pitch Rate',NULL,4,NULL,NULL,NULL,'Pitch Rate',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7560,'sp_nav_roll','sp_nav_roll',9,1,NULL,87,7,'Roll',NULL,4,NULL,NULL,NULL,'Roll',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7560,'sp_nav_roll','sp_nav_roll',9,1,NULL,95,7,'Roll',NULL,4,NULL,NULL,NULL,'Roll',NULL,NULL,1); INSERT INTO "parameter" VALUES(7561,'sp_nav_roll_rate','sp_nav_roll_rate',9,1,NULL,89,7,'Roll Rate',NULL,4,NULL,NULL,NULL,'Roll Rate',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7562,'sp_nav_yaw','sp_nav_yaw',9,1,NULL,87,7,'Yaw',NULL,4,NULL,NULL,NULL,'Yaw',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7562,'sp_nav_yaw','sp_nav_yaw',9,1,NULL,95,7,'Yaw',NULL,4,NULL,NULL,NULL,'Yaw',NULL,NULL,1); INSERT INTO "parameter" VALUES(7563,'sp_nav_yaw_rate','sp_nav_yaw_rate',9,1,NULL,89,7,'Yaw Rate',NULL,4,NULL,NULL,NULL,'Yaw Rate',NULL,NULL,1); INSERT INTO "parameter" VALUES(7600,'sp_science_pod_depth','sp_science_pod_depth',9,1,NULL,150,7,'Depth',NULL,4,NULL,NULL,NULL,'Depth',NULL,NULL,1); INSERT INTO "parameter" VALUES(7601,'sp_science_pod_direction','sp_science_pod_direction',9,4,NULL,206,7,'Direction',NULL,0,NULL,NULL,NULL,'Direction',NULL,NULL,1); @@ -4357,8 +4361,8 @@ INSERT INTO "parameter" VALUES(7654,'sp_wc_winch_cable_wrap_layer','sp_wc_winch_ INSERT INTO "parameter" VALUES(7655,'sp_wc_winch_position_at_last_drum_index','sp_wc_winch_position_at_last_drum_index',9,4,NULL,189,7,'Winch Position at Last Drum Index',NULL,0,NULL,NULL,NULL,'Winch Position at Last Drum Index',NULL,NULL,1); INSERT INTO "parameter" VALUES(7656,'sp_wc_winch_revs','sp_wc_winch_revs',9,4,NULL,189,7,'Winch Revs',NULL,0,NULL,NULL,NULL,'Winch Revs',NULL,NULL,1); INSERT INTO "parameter" VALUES(7657,'sp_wc_winch_speed','sp_wc_winch_speed',9,1,NULL,190,7,'Winch Speed',NULL,0,NULL,NULL,NULL,'Winch Speed',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7658,'sp_wc_winch_vfd_board_temp','sp_wc_winch_vfd_board_temp',9,1,NULL,225,7,'Winch VFD Board Temp',NULL,4,NULL,NULL,NULL,'Winch VFD Board Temp',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7659,'sp_wc_winch_vfd_sink_temp','sp_wc_winch_vfd_sink_temp',9,1,NULL,225,7,'Winch VFD Sink Temp',NULL,4,NULL,NULL,NULL,'Winch VFD Sink Temp',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7658,'sp_wc_winch_vfd_board_temp','sp_wc_winch_vfd_board_temp',9,1,NULL,232,7,'Winch VFD Board Temp',NULL,4,NULL,NULL,NULL,'Winch VFD Board Temp',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7659,'sp_wc_winch_vfd_sink_temp','sp_wc_winch_vfd_sink_temp',9,1,NULL,232,7,'Winch VFD Sink Temp',NULL,4,NULL,NULL,NULL,'Winch VFD Sink Temp',NULL,NULL,1); INSERT INTO "parameter" VALUES(7670,'sp_wcler_based_xml_rpc_data_server_mission_control_event','sp_wcler_based_xml_rpc_data_server_mission_control_event',9,4,NULL,10,7,'Mission Control Event',NULL,0,NULL,NULL,NULL,'Mission Control Event',NULL,NULL,1); INSERT INTO "parameter" VALUES(7700,'sp_wc_levelwind_cart_direction','sp_wc_levelwind_cart_direction',9,4,NULL,29,7,'Cart Direction',NULL,0,NULL,NULL,NULL,'Cart Direction',NULL,NULL,1); INSERT INTO "parameter" VALUES(7701,'sp_wc_levelwind_direction','sp_wc_levelwind_direction',9,4,NULL,19,7,'Levelwind Direction',NULL,0,NULL,NULL,NULL,'Levelwind Direction',NULL,NULL,1); @@ -4366,8 +4370,8 @@ INSERT INTO "parameter" VALUES(7702,'sp_wc_levelwind_direction_is_clockwise','sp INSERT INTO "parameter" VALUES(7703,'sp_wc_levelwind_one_way_strokes','sp_wc_levelwind_one_way_strokes',9,4,NULL,200,7,'Levelwind One-Way Strokes',NULL,0,NULL,NULL,NULL,'Levelwind One-Way Strokes',NULL,NULL,1); INSERT INTO "parameter" VALUES(7704,'sp_wc_levelwind_position_at_last_reverse_index','sp_wc_levelwind_position_at_last_reverse_index',9,4,NULL,189,7,'Levelwind Position at Last Reverse Index',NULL,0,NULL,NULL,NULL,'Levelwind Position at Last Reverse Index',NULL,NULL,1); INSERT INTO "parameter" VALUES(7705,'sp_wc_levelwind_speed','sp_wc_levelwind_speed',9,4,NULL,190,7,'Levelwind Speed',NULL,0,NULL,NULL,NULL,'levelwind Speed',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7706,'sp_wc_levelwind_vfd_board_temperature','sp_wc_levelwind_vfd_board_temperature',9,1,NULL,225,7,'Levelwind VFD Board Temperature',NULL,4,NULL,NULL,NULL,'Levelwind VFD Board Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7707,'sp_wc_levelwind_vfd_sink_temperature','sp_wc_levelwind_vfd_sink_temperature',9,1,NULL,225,7,'Levelwind VFD Sink Temperature',NULL,4,NULL,NULL,NULL,'Levelwind VFD Sink Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7706,'sp_wc_levelwind_vfd_board_temperature','sp_wc_levelwind_vfd_board_temperature',9,1,NULL,232,7,'Levelwind VFD Board Temperature',NULL,4,NULL,NULL,NULL,'Levelwind VFD Board Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7707,'sp_wc_levelwind_vfd_sink_temperature','sp_wc_levelwind_vfd_sink_temperature',9,1,NULL,232,7,'Levelwind VFD Sink Temperature',NULL,4,NULL,NULL,NULL,'Levelwind VFD Sink Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7708,'sp_wc_levelwind_mission_control_event','sp_wc_levelwind_mission_control_event',9,4,NULL,10,7,'Mission Control Event',NULL,0,NULL,NULL,NULL,'Mission Control Event',NULL,NULL,1); INSERT INTO "parameter" VALUES(7800,'pfe_hvps1_on','pfe_hvps1_on',9,6,NULL,10,17,'HVPS1 On',NULL,NULL,NULL,NULL,NULL,'HVPS1 On',NULL,NULL,1); INSERT INTO "parameter" VALUES(7801,'pfe_hvps2_on','pfe_hvps2_on',9,6,NULL,10,17,'HVPS2 On',NULL,NULL,NULL,NULL,NULL,'HVPS2 On',NULL,NULL,1); @@ -4405,14 +4409,14 @@ INSERT INTO "parameter" VALUES(7849,'pn_mvpcinputcurrent','pn_mvpcinputcurrent', INSERT INTO "parameter" VALUES(7850,'pn_mvpcinputvoltage','pn_mvpcinputvoltage',9,1,NULL,40,7,'MVPC Input Voltage',NULL,4,NULL,NULL,NULL,'MVPC Input Voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(7851,'pn_mvpcpressure1','pn_mvpcpressure1',9,1,NULL,34,7,'MVPC Pressure 1',NULL,4,NULL,NULL,NULL,'MVPC Pressure 1',NULL,NULL,1); INSERT INTO "parameter" VALUES(7852,'pn_mvpcpressure2','pn_mvpcpressure2',9,1,NULL,34,7,'MVPC Pressure 2',NULL,4,NULL,NULL,NULL,'MVPC Pressure 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7853,'pn_mvpctemperature','pn_mvpctemperature',9,1,NULL,225,7,'MVPC Temperature',NULL,4,NULL,NULL,NULL,'MVPC Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7853,'pn_mvpctemperature','pn_mvpctemperature',9,1,NULL,232,7,'MVPC Temperature',NULL,4,NULL,NULL,NULL,'MVPC Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7854,'pn_monitoringboardhumidity','pn_monitoringboardhumidity',9,1,NULL,179,7,'MVPC Humidity',NULL,4,NULL,NULL,NULL,'MVPC Humidity',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7855,'pn_monitoringboardtemperature','pn_monitoringboardtemperature',9,1,NULL,225,7,'MVPC Tempeature 2',NULL,4,NULL,NULL,NULL,'MVPC Tempeature 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7856,'pn_pitch','pn_pitch',9,1,NULL,87,7,'Pitch',NULL,4,NULL,NULL,NULL,'Pitch',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7857,'pn_primaryoobtemperature','pn_primaryoobtemperature',9,1,NULL,225,7,'OOB Temperature',NULL,4,NULL,NULL,NULL,'OOB Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7858,'pn_primarypowermoduletemperature','pn_primarypowermoduletemperature',9,1,NULL,225,7,'Primary Power Temperature',NULL,4,NULL,NULL,NULL,'Primary Power Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7859,'pn_primaryswtemperature','pn_primaryswtemperature',9,1,NULL,225,7,'Primary SW Temperature',NULL,4,NULL,NULL,NULL,'Primary SW Temperature',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7860,'pn_roll','pn_roll',9,1,NULL,87,7,'Roll',NULL,4,NULL,NULL,NULL,'Roll',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7855,'pn_monitoringboardtemperature','pn_monitoringboardtemperature',9,1,NULL,232,7,'MVPC Tempeature 2',NULL,4,NULL,NULL,NULL,'MVPC Tempeature 2',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7856,'pn_pitch','pn_pitch',9,1,NULL,95,7,'Pitch',NULL,4,NULL,NULL,NULL,'Pitch',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7857,'pn_primaryoobtemperature','pn_primaryoobtemperature',9,1,NULL,232,7,'OOB Temperature',NULL,4,NULL,NULL,NULL,'OOB Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7858,'pn_primarypowermoduletemperature','pn_primarypowermoduletemperature',9,1,NULL,232,7,'Primary Power Temperature',NULL,4,NULL,NULL,NULL,'Primary Power Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7859,'pn_primaryswtemperature','pn_primaryswtemperature',9,1,NULL,232,7,'Primary SW Temperature',NULL,4,NULL,NULL,NULL,'Primary SW Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7860,'pn_roll','pn_roll',9,1,NULL,95,7,'Roll',NULL,4,NULL,NULL,NULL,'Roll',NULL,NULL,1); INSERT INTO "parameter" VALUES(7861,'pn_scienceport1_status','pn_scienceport1_status',9,6,NULL,10,17,'Science Port 1 State',NULL,NULL,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(7862,'pn_scienceport1_current','pn_scienceport1_current',9,1,NULL,14,7,'Science Port 1 Current',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(7863,'pn_scienceport1_imbalancecurrent','pn_scienceport1_imbalancecurrent',9,1,NULL,133,7,'Science Port 1 Imbalance Current',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); @@ -4434,9 +4438,9 @@ INSERT INTO "parameter" VALUES(7878,'pn_scienceport6_imbalancecurrent','pn_scien INSERT INTO "parameter" VALUES(7879,'pn_scienceport7_status','pn_scienceport7_status',9,6,NULL,10,17,'Science Port 7 State',NULL,NULL,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(7880,'pn_scienceport7_current','pn_scienceport7_current',9,1,NULL,14,7,'Science Port 7 Current',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); INSERT INTO "parameter" VALUES(7881,'pn_scienceport7_imbalancecurrent','pn_scienceport7_imbalancecurrent',9,1,NULL,133,7,'Science Port 7 Imbalance Current',NULL,4,NULL,NULL,NULL,NULL,NULL,NULL,1); -INSERT INTO "parameter" VALUES(7882,'pn_secondaryoobtemperature','pn_secondaryoobtemperature',9,1,NULL,225,7,'Voltage Monitor 2',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7883,'pn_secondarypowermoduletemperature','pn_secondarypowermoduletemperature',9,1,NULL,225,7,'Voltage Monitor 2',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7884,'pn_secondaryswtemperature','pn_secondaryswtemperature',9,1,NULL,225,7,'Voltage Monitor 2',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7882,'pn_secondaryoobtemperature','pn_secondaryoobtemperature',9,1,NULL,232,7,'Voltage Monitor 2',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7883,'pn_secondarypowermoduletemperature','pn_secondarypowermoduletemperature',9,1,NULL,232,7,'Voltage Monitor 2',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7884,'pn_secondaryswtemperature','pn_secondaryswtemperature',9,1,NULL,232,7,'Voltage Monitor 2',NULL,4,NULL,NULL,NULL,'Voltage Monitor 2',NULL,NULL,1); INSERT INTO "parameter" VALUES(7890,'pn_oob_sfp_enabled','pn_oob_sfp_enabled',9,6,NULL,10,7,'SFP Enabled',NULL,NULL,NULL,NULL,NULL,'SFP Enabled',NULL,NULL,1); INSERT INTO "parameter" VALUES(7891,'pn_oob_sfp_inpackets','pn_oob_sfp_inpackets',9,4,NULL,66,7,'In Packets',NULL,0,NULL,NULL,NULL,'In Packets',NULL,NULL,1); INSERT INTO "parameter" VALUES(7892,'pn_oob_sfp_linkdownstate','pn_oob_sfp_linkdownstate',9,6,NULL,10,17,'Link Down',NULL,NULL,NULL,NULL,NULL,'Link Down',NULL,NULL,1); @@ -4444,24 +4448,24 @@ INSERT INTO "parameter" VALUES(7893,'pn_oob_sfp_outpackets','pn_oob_sfp_outpacke INSERT INTO "parameter" VALUES(7894,'pn_oob_sfp_rxerrors','pn_oob_sfp_rxerrors',9,4,NULL,66,7,'Rx Error Count',NULL,0,NULL,NULL,NULL,'Rx Error Count',NULL,NULL,1); INSERT INTO "parameter" VALUES(7895,'pn_oob_sfp_current','pn_oob_sfp_current',9,1,NULL,14,7,'SFP Current',NULL,4,NULL,NULL,NULL,'SFP Current',NULL,NULL,1); INSERT INTO "parameter" VALUES(7896,'pn_oob_sfp_rxpower','pn_oob_sfp_rxpower',9,1,NULL,74,7,'Rx Power',NULL,4,NULL,NULL,NULL,'Rx Power',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7897,'pn_oob_sfp_temp','pn_oob_sfp_temp',9,1,NULL,225,7,'Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7897,'pn_oob_sfp_temp','pn_oob_sfp_temp',9,1,NULL,232,7,'Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7898,'pn_oob_sfp_txpower','pn_oob_sfp_txpower',9,1,NULL,74,7,'Tx Power',NULL,4,NULL,NULL,NULL,'Tx Power',NULL,NULL,1); INSERT INTO "parameter" VALUES(7899,'pn_oob_sfp_voltage','pn_oob_sfp_voltage',9,1,NULL,40,7,'Voltage',NULL,4,NULL,NULL,NULL,'Voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(7900,'pn_oob_sfp_timeoutstate','pn_oob_sfp_timeoutstate',9,6,NULL,10,17,'Timeout State',NULL,NULL,NULL,NULL,NULL,'Timeout State',NULL,NULL,1); INSERT INTO "parameter" VALUES(7910,'otn_ifadminstatusdata','otn_ifadminstatusdata',9,6,NULL,10,17,'Admin Status',NULL,NULL,NULL,NULL,NULL,'Admin Status',NULL,NULL,1); INSERT INTO "parameter" VALUES(7911,'otn_ifoperstatusdata','otn_ifoperstatusdata',9,6,NULL,10,17,'Operational Status',NULL,NULL,NULL,NULL,NULL,'Operational Status',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7912,'otn_sfpdiagmoduletemperaturedegreescsfp','otn_sfpdiagmoduletemperaturedegreescsfp',9,1,NULL,225,7,'Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7912,'otn_sfpdiagmoduletemperaturedegreescsfp','otn_sfpdiagmoduletemperaturedegreescsfp',9,1,NULL,232,7,'Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7913,'otn_sfpdiagrxinputpowerdbmsfp','otn_sfpdiagrxinputpowerdbmsfp',9,1,NULL,74,7,'Rx Power',NULL,4,NULL,NULL,NULL,'Rx Power',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7914,'otn_sfpdiagrxlasertemperaturedegreescsfp','otn_sfpdiagrxlasertemperaturedegreescsfp',9,1,NULL,225,7,'Laser Temperature',NULL,4,NULL,NULL,NULL,'Laser Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7914,'otn_sfpdiagrxlasertemperaturedegreescsfp','otn_sfpdiagrxlasertemperaturedegreescsfp',9,1,NULL,232,7,'Laser Temperature',NULL,4,NULL,NULL,NULL,'Laser Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7915,'otn_sfpdiagtxoutputpowerdbmsfp','otn_sfpdiagtxoutputpowerdbmsfp',9,1,NULL,74,7,'Tx Power',NULL,4,NULL,NULL,NULL,'Tx Power',NULL,NULL,1); INSERT INTO "parameter" VALUES(7916,'otn_slotnconfigoperationmode','otn_slotnconfigoperationmode',9,6,NULL,10,17,'Configuration Operation Mode',NULL,NULL,NULL,NULL,NULL,'Configuration Operation Mode',NULL,NULL,1); INSERT INTO "parameter" VALUES(7917,'otn_slotnpmfecqfactorfe','otn_slotnpmfecqfactorfe',9,1,NULL,79,7,'Q Factor Far End',NULL,4,NULL,NULL,NULL,'Q Factor Far End',NULL,NULL,1); INSERT INTO "parameter" VALUES(7918,'otn_slotnpmfecqfactorne','otn_slotnpmfecqfactorne',9,1,NULL,79,7,'Q Factor Near End',NULL,4,NULL,NULL,NULL,'Q Factor Near End',NULL,NULL,1); INSERT INTO "parameter" VALUES(7919,'otn_ifadminstatussfp','otn_ifadminstatussfp',9,6,NULL,10,17,'Admin Status',NULL,NULL,NULL,NULL,NULL,'Admin Status',NULL,NULL,1); INSERT INTO "parameter" VALUES(7920,'otn_ifoperstatussfp','otn_ifoperstatussfp',9,6,NULL,10,17,'Operational Status',NULL,NULL,NULL,NULL,NULL,'Operational Status',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7921,'otn_sfpdiagmoduletemperaturesfp','otn_sfpdiagmoduletemperaturesfp',9,1,NULL,225,7,'Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7921,'otn_sfpdiagmoduletemperaturesfp','otn_sfpdiagmoduletemperaturesfp',9,1,NULL,232,7,'Temperature',NULL,4,NULL,NULL,NULL,'Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7922,'otn_sfpdiagrxinputpowersfp','otn_sfpdiagrxinputpowersfp',9,1,NULL,204,7,'Rx Power',NULL,4,NULL,NULL,NULL,'Rx Power',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7923,'otn_sfpdiagrxlasertemperaturesfp','otn_sfpdiagrxlasertemperaturesfp',9,1,NULL,225,7,'Laser Temperature',NULL,4,NULL,NULL,NULL,'Laser Temperature',NULL,NULL,1); +INSERT INTO "parameter" VALUES(7923,'otn_sfpdiagrxlasertemperaturesfp','otn_sfpdiagrxlasertemperaturesfp',9,1,NULL,232,7,'Laser Temperature',NULL,4,NULL,NULL,NULL,'Laser Temperature',NULL,NULL,1); INSERT INTO "parameter" VALUES(7924,'otn_sfpdiagrxmeasuredwavelengthsfp','otn_sfpdiagrxmeasuredwavelengthsfp',9,1,NULL,176,7,'Wavelength',NULL,4,NULL,NULL,NULL,'Wavelength',NULL,NULL,1); INSERT INTO "parameter" VALUES(7925,'otn_sfpdiagsupplyvoltagesfp','otn_sfpdiagsupplyvoltagesfp',9,1,NULL,40,7,'Supply Voltage',NULL,4,NULL,NULL,NULL,'Supply Voltage',NULL,NULL,1); INSERT INTO "parameter" VALUES(7926,'otn_sfpdiagtxbiassfp','otn_sfpdiagtxbiassfp',9,1,NULL,201,7,'Bias Current',NULL,4,NULL,NULL,NULL,'Bias Current',NULL,NULL,1); @@ -4516,10 +4520,10 @@ INSERT INTO "parameter" VALUES(7982,'ts_system_up_time','ts_system_up_time',9,4, INSERT INTO "parameter" VALUES(7983,'bin_depths','bin_depths',8,1,NULL,122,7,'Bin Depths',NULL,0,203,'{"sensor_depth": "PD8085", "bin_size": "PD623", "dist_first_bin": "PD651", "num_bins": "PD621", "adcp_orientation": "PD617"}','?','Bin Depths',NULL,NULL,1); INSERT INTO "parameter" VALUES(7984,'bin_depths','bin_depths',8,1,NULL,122,7,'Bin Depths',NULL,0,202,'{"pressure": "PD1527", "bin_size": "PD623", "adcp_orientation": "PD617", "latitude": "PD8105", "dist_first_bin": "PD651", "num_bins": "PD621"}','?','Bin Depths',NULL,NULL,1); INSERT INTO "parameter" VALUES(7985,'bin_depths','bin_depths',8,1,NULL,122,7,'Bin Depths',NULL,0,203,'{"sensor_depth": "CC_depth", "bin_size": "CC_bin_size", "dist_first_bin": "CC_dist_first_bin", "num_bins": "PD621", "adcp_orientation": "CC_orientation"}','?','Bin Depths',NULL,NULL,1); -INSERT INTO "parameter" VALUES(7986,'parad_m_par','parad_m_par',8,1,NULL,220,NULL,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,189,'{"scaler": "CC_bsipar_par_scaling", "value": "PD1470"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); -INSERT INTO "parameter" VALUES(7987,'ctdmo_seawater_pressure','ctdmo_seawater_pressure',8,1,NULL,80,5,'Seawater Pressure','sea_water_pressure',NULL,205,'{"pa0": "CC_pa0", "ptca1": "CC_ptca1", "p0": "PD195", "pa1": "CC_pa1", "pa2": "CC_pa2", "ptempa2": "CC_ptempa2", "ptca0": "CC_ptca0", "ptempa0": "CC_ptempa0", "ptempa1": "CC_ptempa1", "ptcb0": "CC_ptcb0", "ptcb1": "CC_ptcb1", "ptcb2": "CC_ptcb2", "ptca2": "CC_ptca2", "pt0": "PD196"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); -INSERT INTO "parameter" VALUES(7988,'ctdmo_seawater_temperature','ctdmo_seawater_temperature',8,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,206,'{"a1": "CC_a1", "a0": "CC_a0", "a3": "CC_a3", "a2": "CC_a2", "t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); -INSERT INTO "parameter" VALUES(7989,'ctdmo_seawater_conductivity','ctdmo_seawater_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',4,207,'{"p1": "PD7987", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD7988", "wbotc": "CC_wbotc", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); +INSERT INTO "parameter" VALUES(7986,'parad_m_par','parad_m_par',8,1,NULL,248,NULL,'Photosynthetically Active Radiation','downwelling_photosynthetic_photon_flux_in_sea_water',4,189,'{"scaler": "CC_bsipar_par_scaling", "value": "PD1470"}','OPTPARW_L1','Photosynthetically Active Radiation (PAR) is the measure of the density of photons per unit area that are in the spectral range of light (400-700 nanometers) that primary producers use for photosynthesis.',3,1,1); +INSERT INTO "parameter" VALUES(7987,'ctdmo_seawater_pressure','sea_water_pressure',8,1,NULL,80,5,'Seawater Pressure','sea_water_pressure',NULL,205,'{"pa0": "CC_pa0", "ptca1": "CC_ptca1", "p0": "PD195", "pa1": "CC_pa1", "pa2": "CC_pa2", "ptempa2": "CC_ptempa2", "ptca0": "CC_ptca0", "ptempa0": "CC_ptempa0", "ptempa1": "CC_ptempa1", "ptcb0": "CC_ptcb0", "ptcb1": "CC_ptcb1", "ptcb2": "CC_ptcb2", "ptca2": "CC_ptca2", "pt0": "PD196"}','PRESWAT_L1','Seawater Pressure refers to the pressure exerted on a sensor in situ by the weight of the column of seawater above it. It is calculated by subtracting one standard atmosphere from the absolute pressure at the sensor to remove the weight of the atmosphere on top of the water column. The pressure at a sensor in situ provides a metric of the depth of that sensor.',3,1,1); +INSERT INTO "parameter" VALUES(7988,'ctdmo_seawater_temperature','sea_water_temperature',8,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,206,'{"a1": "CC_a1", "a0": "CC_a0", "a3": "CC_a3", "a2": "CC_a2", "t0": "PD193"}','TEMPWAT_L1','Seawater temperature near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(7989,'ctdmo_seawater_conductivity','sea_water_electrical_conductivity',8,1,NULL,38,7,'Seawater Conductivity','sea_water_electrical_conductivity',4,207,'{"p1": "PD7987", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD7988", "wbotc": "CC_wbotc", "cpcor": "CC_cpcor", "c0": "PD194"}','CONDWAT_L1','Seawater conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',3,1,1); INSERT INTO "parameter" VALUES(7992,'cspp_date_time','cspp_date_time',9,8,NULL,194,10,'Device Date and Time',NULL,NULL,NULL,NULL,NULL,'CSPP Device Date and Time in seconds since 1/1/1900',2,0,1); INSERT INTO "parameter" VALUES(7993,'cspp_current_state','cspp_current_state',9,5,NULL,10,4,'Current Profiler State',NULL,NULL,NULL,NULL,NULL,'CSPP Current Profiler State',2,0,1); INSERT INTO "parameter" VALUES(7994,'cspp_previous_state','cspp_previous_state',9,5,NULL,10,4,'Previous Profiler State',NULL,NULL,NULL,NULL,NULL,'CSPP Previous Profiler State',2,0,1); @@ -4532,24 +4536,24 @@ INSERT INTO "parameter" VALUES(8000,'cspp_wave_height','cspp_wave_height',9,1,NU INSERT INTO "parameter" VALUES(8001,'cspp_wave_period','cspp_wave_period',9,1,NULL,194,7,'Wave Period',NULL,NULL,NULL,NULL,NULL,'CSPP Significant Wave Period',2,0,1); INSERT INTO "parameter" VALUES(8002,'cspp_wave_mode','cspp_wave_mode',9,5,NULL,10,4,'Wave Mode',NULL,NULL,NULL,NULL,NULL,'CSPP Wave Mode (0 = off, 1=calc enabled, 2 = ascent override enable)',2,0,1); INSERT INTO "parameter" VALUES(8003,'cspp_modem_distance','cspp_modem_distance',9,1,14,150,7,'Modem Distance',NULL,NULL,NULL,NULL,NULL,'Distance between the acoustic modems of the buoy and the profiler',2,0,1); -INSERT INTO "parameter" VALUES(8004,'cspp_dsp_battery_voltage','cspp_dsp_battery_voltage',9,1,NULL,209,7,'DSP Battery Voltage',NULL,NULL,NULL,NULL,NULL,'Modem processor battery voltage',2,0,1); -INSERT INTO "parameter" VALUES(8005,'cspp_transmit_battery_voltage','cspp_transmit_battery_voltage',9,1,NULL,209,7,'Transmitter Battery Voltage',NULL,NULL,NULL,NULL,NULL,'Modem transmitter battery voltage',2,0,1); +INSERT INTO "parameter" VALUES(8004,'cspp_dsp_battery_voltage','cspp_dsp_battery_voltage',9,1,NULL,40,7,'DSP Battery Voltage',NULL,NULL,NULL,NULL,NULL,'Modem processor battery voltage',2,0,1); +INSERT INTO "parameter" VALUES(8005,'cspp_transmit_battery_voltage','cspp_transmit_battery_voltage',9,1,NULL,40,7,'Transmitter Battery Voltage',NULL,NULL,NULL,NULL,NULL,'Modem transmitter battery voltage',2,0,1); INSERT INTO "parameter" VALUES(8006,'cspp_start_depth','cspp_start_depth',9,1,NULL,150,7,'Profile Start Depth',NULL,NULL,NULL,NULL,NULL,'Actual starting CTD depth for the profile',2,0,1); INSERT INTO "parameter" VALUES(8007,'cspp_end_depth','cspp_end_depth',9,1,NULL,150,7,'Profile End Depth',NULL,NULL,NULL,NULL,NULL,'Actual ending CTD depth for the profile',2,0,1); INSERT INTO "parameter" VALUES(8008,'cspp_travel_time','cspp_travel_time',9,1,NULL,163,7,'Profile Travel Time',NULL,NULL,NULL,NULL,NULL,'Travel time for profile from start to stop depth in minutes',2,0,1); -INSERT INTO "parameter" VALUES(8009,'cspp_system_voltage','cspp_system_voltage',9,1,NULL,209,7,'System Voltage',NULL,NULL,NULL,NULL,NULL,'The system voltage as seen by the winch motor controller',2,0,1); +INSERT INTO "parameter" VALUES(8009,'cspp_system_voltage','cspp_system_voltage',9,1,NULL,40,7,'System Voltage',NULL,NULL,NULL,NULL,NULL,'The system voltage as seen by the winch motor controller',2,0,1); INSERT INTO "parameter" VALUES(8010,'cspp_winch_end_position','cspp_winch_end_position',9,4,NULL,66,7,'Winch End Position',NULL,NULL,NULL,NULL,NULL,'The winch position at the end of the previous descent',2,0,1); INSERT INTO "parameter" VALUES(8011,'cspp_filename','cspp_filename',9,6,NULL,10,17,'Filename',NULL,NULL,NULL,NULL,NULL,'The name of the .ppb file for this profile',2,0,1); INSERT INTO "parameter" VALUES(8012,'cspp_file_size','cspp_file_size',9,4,NULL,51,7,'File Size',NULL,NULL,NULL,NULL,NULL,'The size in bytes of the file',2,0,1); INSERT INTO "parameter" VALUES(8013,'cspp_file_space','cspp_file_space',9,4,NULL,51,7,'File Space',NULL,NULL,NULL,NULL,NULL,'The remaining space in bytes on the package controller flash drive',2,0,1); -INSERT INTO "parameter" VALUES(8014,'cspp_num_files','cspp_num_files',9,4,NULL,66,7,'Number of Files',NULL,NULL,NULL,NULL,NULL,'The number of files in the current data directory on -the profiler',2,0,1); +INSERT INTO "parameter" VALUES(8014,'cspp_num_files','cspp_num_files',9,4,NULL,66,7,'Number of Files',NULL,NULL,NULL,NULL,NULL,'The number of files in the current data directory on + the profiler',2,0,1); INSERT INTO "parameter" VALUES(8015,'cspp_profile_number','cspp_profile_number',9,4,NULL,66,7,'Profile Number',NULL,NULL,NULL,NULL,NULL,'The number of the profile for the deployment',2,0,1); -INSERT INTO "parameter" VALUES(8016,'cspp_low_voltage','cspp_low_voltage',9,1,NULL,209,7,'Low Voltage',NULL,NULL,NULL,NULL,NULL,'The reported voltage of the lowest Bluefin battery in the system or 0 if a Bluefin battery is not installed.',2,0,1); -INSERT INTO "parameter" VALUES(8017,'cspp_low_cell_voltage','cspp_low_cell_voltage',9,1,NULL,209,7,'Low Cell Voltage',NULL,NULL,NULL,NULL,NULL,'The reported low cell voltage of the lowest voltage Bluefin battery in the system or 0 if a Bluefin battery is not installed.',2,0,1); +INSERT INTO "parameter" VALUES(8016,'cspp_low_voltage','cspp_low_voltage',9,1,NULL,40,7,'Low Voltage',NULL,NULL,NULL,NULL,NULL,'The reported voltage of the lowest Bluefin battery in the system or 0 if a Bluefin battery is not installed.',2,0,1); +INSERT INTO "parameter" VALUES(8017,'cspp_low_cell_voltage','cspp_low_cell_voltage',9,1,NULL,40,7,'Low Cell Voltage',NULL,NULL,NULL,NULL,NULL,'The reported low cell voltage of the lowest voltage Bluefin battery in the system or 0 if a Bluefin battery is not installed.',2,0,1); INSERT INTO "parameter" VALUES(8018,'cspp_watts_used','cspp_watts_used',9,1,NULL,43,7,'Watts Used',NULL,NULL,NULL,NULL,NULL,'The watts used as reported by the Bluefin battery',2,0,1); -INSERT INTO "parameter" VALUES(8019,'cspp_low_battery_number','cspp_low_battery_number',9,5,NULL,10,4,'Low Battery Number',NULL,NULL,NULL,NULL,NULL,'The battery number of the Bluefin with the lowest -overall voltage',2,0,1); +INSERT INTO "parameter" VALUES(8019,'cspp_low_battery_number','cspp_low_battery_number',9,5,NULL,10,4,'Low Battery Number',NULL,NULL,NULL,NULL,NULL,'The battery number of the Bluefin with the lowest + overall voltage',2,0,1); INSERT INTO "parameter" VALUES(8020,'cspp_home_depth','cspp_home_depth',9,1,NULL,150,7,'Home Depth',NULL,NULL,NULL,NULL,NULL,'home depth/home position',2,0,1); INSERT INTO "parameter" VALUES(8021,'cspp_start_time','cspp_start_time',9,8,NULL,194,10,'Profile Start Time',NULL,NULL,NULL,NULL,NULL,'time for the start of the next profile ascent ((number of seconds from when the command is received)',2,0,1); INSERT INTO "parameter" VALUES(8022,'cspp_setup_rate','cspp_setup_rate',9,1,NULL,123,7,'Setup Rate',NULL,NULL,NULL,NULL,NULL,'profile setup rate',2,0,1); @@ -4565,14 +4569,14 @@ INSERT INTO "parameter" VALUES(8031,'presf_tide_pressure_number','presf_tide_pre INSERT INTO "parameter" VALUES(8032,'presf_tide_temperature_number','presf_tide_temperature_number',9,4,NULL,67,7,'Seawater Temperature Number',NULL,0,NULL,NULL,NULL,'Seafloor Pressure family of instruments (PRESF) temperature measurement near the sensor.',4,0,1); INSERT INTO "parameter" VALUES(8033,'presf_wave_press_temp_comp_number','presf_wave_press_temp_comp_number',9,4,NULL,67,7,'Pressure Temperature Compensation Number',NULL,0,NULL,NULL,NULL,'Seafloor Pressure family of instruments (PRESF) pressure temperature compensation number.',4,0,1); INSERT INTO "parameter" VALUES(8034,'presf_wave_burst_pressure_number','presf_wave_burst_pressure_number',3,4,NULL,67,7,'Seafloor Pressure Number',NULL,0,NULL,NULL,NULL,'Seafloor Pressure wave measurements, from the Seafloor Pressure family of instruments (PRESF), used to calculate the OOI Level 1 Seafloor Pressure (SFLPRES) core data product.',4,0,1); -INSERT INTO "parameter" VALUES(8035,'presf_tide_pressure','presf_tide_pressure',8,1,NULL,80,7,'Seafloor Pressure','sea_water_pressure_at_sea_floor',4,131,'{"slope": "CC_slope_correction_factor", "p_dec_tide": "PD8031", "b": "CC_b", "m": "CC_m", "offset": "CC_offset_correction_factor"}','SFLPRES_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); -INSERT INTO "parameter" VALUES(8036,'presf_tide_temperature','presf_tide_temperature',8,1,NULL,225,7,'Seawater Temperature','sea_water_temperature',4,208,'{"t0": "PD8032"}','PRESTMP_L1','Seafloor Pressure family of instruments (PRESF) temperature measurement near the sensor.',3,1,1); -INSERT INTO "parameter" VALUES(8037,'presf_wave_burst_pressure','presf_wave_burst_pressure',8,1,NULL,80,7,'Seafloor Pressure','sea_water_pressure_at_sea_floor',4,132,'{"slope": "CC_slope_correction_factor", "ptcn": "PD8033", "t4": "CC_t4", "t1": "CC_t1", "t2": "CC_t2", "p_dec_wave": "PD8034", "u0": "CC_u0", "t3": "CC_t3", "c3": "CC_c3", "poff": "CC_pressure_offset_calibration_coefficient", "offset": "CC_offset_correction_factor", "y1": "CC_y1", "c2": "CC_c2", "y3": "CC_y3", "y2": "CC_y2", "d2": "CC_d2", "c1": "CC_c1", "d1": "CC_d1"}','SFLPRES-WAVE_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); -INSERT INTO "parameter" VALUES(8038,'oxy_calphase_voltage','oxy_calphase_voltage',8,1,NULL,40,7,'Calibrated Phase Difference',NULL,3,209,'{"counts": "PD835"}','DOCONCS-VLT_L0','Calibrated phase difference in Volts, used to calculate temperature compensated oxygen concentration.',4,0,1); -INSERT INTO "parameter" VALUES(8039,'oxy_temp_voltage','oxy_temp_voltage',8,1,NULL,40,7,'DOSTA Temperature',NULL,3,209,'{"counts": "PD836"}',NULL,'Oxygen sensor ambient temperature in Volts',4,0,1); -INSERT INTO "parameter" VALUES(8040,'dosta_calibrated_phase','dosta_calibrated_phase',8,1,NULL,95,7,'Calibrated Phase Difference',NULL,3,200,'{"phase_volt": "PD8038"}','DOCONCS-DEG_L0','Calibrated phase difference, used to calculate temperature compensated oxygen concentration.',3,1,1); -INSERT INTO "parameter" VALUES(8041,'dosta_optode_temperature','dosta_optode_temperature',8,1,NULL,225,7,'Oxygen Sensor Temperature',NULL,3,199,'{"T_optode_volt": "PD8039"}',NULL,'Oxygen sensor ambient temperature',3,1,1); -INSERT INTO "parameter" VALUES(8042,'dosta_tc_oxygen','dosta_tc_oxygen',8,1,NULL,218,7,'Dissolved Oxygen Concentration',NULL,4,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD8040", "csv": "CC_csv", "temp": "PD8041"}','DOCONCS_L1','Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen (DO) Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature from a collocated CTD.',3,2,1); +INSERT INTO "parameter" VALUES(8035,'presf_tide_pressure','sea_water_pressure_at_sea_floor',8,1,NULL,80,7,'Seafloor Pressure','sea_water_pressure_at_sea_floor',4,131,'{"slope": "CC_slope_correction_factor", "p_dec_tide": "PD8031", "b": "CC_b", "m": "CC_m", "offset": "CC_offset_correction_factor"}','SFLPRES_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); +INSERT INTO "parameter" VALUES(8036,'presf_tide_temperature','sea_water_temperature',8,1,NULL,232,7,'Seawater Temperature','sea_water_temperature',4,208,'{"t0": "PD8032"}','PRESTMP_L1','Seafloor Pressure family of instruments (PRESF) temperature measurement near the sensor.',3,1,1); +INSERT INTO "parameter" VALUES(8037,'presf_wave_burst_pressure','sea_water_pressure_at_sea_floor',8,1,NULL,80,7,'Seafloor Pressure','sea_water_pressure_at_sea_floor',4,132,'{"slope": "CC_slope_correction_factor", "ptcn": "PD8033", "t4": "CC_t4", "t1": "CC_t1", "t2": "CC_t2", "p_dec_wave": "PD8034", "u0": "CC_u0", "t3": "CC_t3", "c3": "CC_c3", "poff": "CC_pressure_offset_calibration_coefficient", "offset": "CC_offset_correction_factor", "y1": "CC_y1", "c2": "CC_c2", "y3": "CC_y3", "y2": "CC_y2", "d2": "CC_d2", "c1": "CC_c1", "d1": "CC_d1"}','SFLPRES-WAVE_L1','Seafloor Pressure is a measurement of the force on the seafloor exerted by the weight of the overlying seawater column plus the weight of the atmosphere (hydrostatic plus atmospheric).',3,1,1); +INSERT INTO "parameter" VALUES(8038,'oxy_calphase_voltage','oxy_calphase_voltage',8,1,NULL,40,7,'Calibrated Phase Difference',NULL,3,209,'{"counts": "PD835"}','DOCONCS-VLT_L0','Calibrated phase difference in Volts, used to calculate temperature compensated oxygen concentration. The phase difference is the difference between the phase obtained with blue light and the reference phase obtained with red light.',4,0,1); +INSERT INTO "parameter" VALUES(8039,'oxy_temp_voltage','oxy_temp_voltage',8,1,NULL,40,7,'DOSTA Temperature',NULL,3,209,'{"counts": "PD836"}',NULL,'Ambient temperature in Volts of the oxygen sensor as measured by the oxygen sensor.',4,0,1); +INSERT INTO "parameter" VALUES(8040,'dosta_calibrated_phase','dosta_calibrated_phase',8,1,NULL,95,7,'Calibrated Phase Difference',NULL,3,200,'{"phase_volt": "PD8038"}','DOCONCS-DEG_L0','Calibrated phase difference, used to calculate temperature compensated oxygen concentration. The phase difference is the difference between the phase obtained with blue light and the reference phase obtained with red light.',3,1,1); +INSERT INTO "parameter" VALUES(8041,'dosta_optode_temperature','dosta_optode_temperature',8,1,NULL,232,7,'Optode Temperature',NULL,3,199,'{"T_optode_volt": "PD8039"}',NULL,'Ambient temperature of the oxygen sensor as measured by the oxygen sensor.',3,1,1); +INSERT INTO "parameter" VALUES(8042,'dosta_tc_oxygen','dosta_tc_oxygen',8,1,NULL,246,7,'Dissolved Oxygen - Temp Corrected','mole_concentration_of_dissolved_molecular_oxygen_in_sea_water',4,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD8040", "csv": "CC_csv", "temp": "PD8041"}','DOCONCS_L1','Dissolved Oxygen (DO) Concentration from the Stable Response DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for temperature from a collocated CTD.',3,2,1); INSERT INTO "parameter" VALUES(8043,'sci_bb3slo_b470_sig','sci_bb3slo_b470_sig',9,1,NULL,10,NULL,'BB3SLO B470 Sig',NULL,4,NULL,NULL,'BB3SCT-470_L0',NULL,4,0,1); INSERT INTO "parameter" VALUES(8044,'sci_bb3slo_b470_units','sci_bb3slo_b470_units',8,1,NULL,128,NULL,'Total Volume Scattering Coefficient',NULL,6,81,'{"counts_dark": "CC_3_dark_counts_volume_scatter", "scale_factor": "CC_3_scale_factor_volume_scatter", "counts_output": "PD8043"}','BB3SCT-470_L1','Total Volume Scattering Coefficient values represent the volume scattering from particles and the molecular scattering from water at the light wavelength of 470 nm and the default angle of 117 degrees for the ECO meter.',NULL,1,1); INSERT INTO "parameter" VALUES(8045,'flort_o_bback_b470_total','flort_o_bback_b470_total',8,1,NULL,127,NULL,'Optical Backscatter',NULL,4,78,'{"beta": "PD8044", "degC": "PD1528", "theta": "CC_scattering_angle", "wlngth": "CC_3_measurement_wavelength", "xfactor": "CC_angular_resolution", "psu": "dpi_PRACSAL_L2"}','BB3SCT-470_L2','Optical Backscatter (Blue Wavelength) is a measure of the amount of blue light (470 nm wavelength) scattered in the backward direction due to suspended matter within seawater, providing a proxy for turbidity and suspended solids.',3,2,1); @@ -4610,13 +4614,13 @@ INSERT INTO "parameter" VALUES(8076,'zplsc_values_channel_3','zplsc_values_chann INSERT INTO "parameter" VALUES(8077,'zplsc_depth_range_channel_4','zplsc_depth_range_channel_4',3,1,NULL,122,7,'Channel 4 Depth Range',NULL,0,NULL,NULL,NULL,'Channel 4 depth range of the samples',NULL,NULL,1); INSERT INTO "parameter" VALUES(8078,'zplsc_frequency_channel_4','zplsc_frequency_channel_4',9,1,NULL,114,7,'Channel 4 Frequency',NULL,NULL,NULL,NULL,NULL,'Channel 4 Frequency (If channel is available, otherwise None)',NULL,NULL,1); INSERT INTO "parameter" VALUES(8079,'zplsc_values_channel_4','zplsc_values_channel_4',3,1,NULL,73,7,'Channel 4 Volume Backscattering (Sv)',NULL,0,NULL,NULL,NULL,'Channel 4 Volume Backscattering Strength (Sv) (If channel is available, otherwise None)',NULL,NULL,1); -INSERT INTO "parameter" VALUES(8080,'wavelength_a','wavelength_a',8,1,NULL,177,7,'Optical Absorption Wavelength',NULL,6,16,'{"x": "CC_awlngth"}',NULL,'The wavelength at which optical absorption measurements where taken in nm.',3,2,1); -INSERT INTO "parameter" VALUES(8081,'wavelength_c','wavelength_c',8,1,NULL,177,7,'Beam Attenuation Wavelength',NULL,6,16,'{"x": "CC_cwlngth"}',NULL,'The wavelength at which beam attenuation measurements where taken in nm.',3,2,1); +INSERT INTO "parameter" VALUES(8080,'wavelength_a','wavelength_a',8,1,NULL,177,7,'Optical Absorption Wavelength',NULL,6,16,'{"x": "CC_awlngth"}',NULL,'The wavelength at which optical absorption measurements were taken in nm',3,2,1); +INSERT INTO "parameter" VALUES(8081,'wavelength_c','wavelength_c',8,1,NULL,177,7,'Beam Attenuation Wavelength',NULL,6,16,'{"x": "CC_cwlngth"}',NULL,'The wavelength at which beam attenuation measurements were taken in nm',3,2,1); INSERT INTO "parameter" VALUES(8082,'wavelength','wavelength',8,4,NULL,10,7,'Wavelength',NULL,6,215,'{"x": "CC_cwlngth"}',NULL,'The wavelength dimension.',3,2,1); -INSERT INTO "parameter" VALUES(8083,'non_zero_pressure','non_zero_pressure',8,1,NULL,80,7,'Non-zero Pressure',NULL,3,216,'{"a1": "PD710", "a1_scale_factor": 0.001, "a2": ["dpi_PRESWAT_L1", "None"]}',NULL,'A non-zero pressure value.',NULL,1,0); -INSERT INTO "parameter" VALUES(8084,'depth_from_pressure','depth_from_pressure',8,1,NULL,122,7,'Depth calculated from pressure',NULL,3,217,'{"latitude": "CC_lat", "pressure": "PD8083"}',NULL,'Depth (m) calculated from pressure (dbar) and latitude.',NULL,1,0); -INSERT INTO "parameter" VALUES(8085,'non_zero_depth','non_zero_depth',8,1,NULL,122,7,'Non-zero Depth',NULL,3,216,'{"a1": "PD8084", "a2": "CC_depth"}',NULL,'A non-zero depth value.',NULL,1,0); -INSERT INTO "parameter" VALUES(8086,'bin_depths','bin_depths',8,1,NULL,122,7,'Bin Depths',NULL,3,201,'{"bin_size": "CC_bin_size", "pressure": "PD1639", "adcp_orientation": "CC_orientation", "latitude": "CC_lat", "dist_first_bin": "CC_dist_first_bin", "num_bins": "PD1641"}',NULL,'Bin Depths',NULL,1,1); +INSERT INTO "parameter" VALUES(8083,'non_zero_pressure','non_zero_pressure',8,1,NULL,80,7,'Non-zero Pressure',NULL,3,218,'{"a1": "PD710", "std": "CC_depth", "a1_scale_factor": 0.001, "a2": ["dpi_PRESWAT_L1", "None"]}',NULL,'A non-zero pressure value.',NULL,1,0); +INSERT INTO "parameter" VALUES(8084,'depth_from_pressure','depth_from_pressure',8,1,NULL,122,7,'Depth calculated from pressure',NULL,3,217,'{"latitude": "CC_lat", "pressure": "PD8083"}',NULL,'Depth (m) calculated from pressure (dbar) and latitude.',3,1,0); +INSERT INTO "parameter" VALUES(8085,'non_zero_depth','non_zero_depth',8,1,NULL,122,7,'Non-zero Depth',NULL,3,218,'{"a1": "PD8084", "std": "CC_depth", "a2": "CC_depth"}',NULL,'A non-zero depth value.',NULL,1,0); +INSERT INTO "parameter" VALUES(8086,'bin_depths','bin_depths',8,1,NULL,122,7,'Bin Depths',NULL,3,201,'{"bin_size": "CC_bin_size", "pressure": "PD8117", "adcp_orientation": "CC_orientation", "latitude": "CC_lat", "dist_first_bin": "CC_dist_first_bin", "num_bins": "PD1641"}',NULL,'Bin Depths',3,1,1); INSERT INTO "parameter" VALUES(8087,'x_accel_counts','x_accel_counts',9,4,NULL,67,10,'X-Axis Acceleration Counts',NULL,0,NULL,NULL,NULL,'X-Axis Accelerometer Counts',2,0,0); INSERT INTO "parameter" VALUES(8088,'y_accel_counts','y_accel_counts',9,4,NULL,67,10,'Y-Axis Acceleration Counts',NULL,0,NULL,NULL,NULL,'Y-Axis Accelerometer Counts',2,0,0); INSERT INTO "parameter" VALUES(8089,'z_accel_counts','z_accel_counts',9,4,NULL,67,10,'Z-Axis Acceleratiton Counts',NULL,0,NULL,NULL,NULL,'Z-Axis Accelerometer Counts',2,0,0); @@ -4637,10 +4641,90 @@ INSERT INTO "parameter" VALUES(8103,'depth','depth',8,1,NULL,122,7,'Depth calcul INSERT INTO "parameter" VALUES(8104,'depth','depth',8,1,NULL,122,7,'Depth calculated from pressure',NULL,3,217,'{"latitude": "CC_lat", "pressure": "PD2820", "pressure_scale_factor": 1}',NULL,'Depth (m) calculated from pressure (dbar) and latitude.',NULL,1,1); INSERT INTO "parameter" VALUES(8105,'interp_lat','interp_lat',9,1,NULL,94,NULL,'Interpolated GPS Latitude','latitude',4,NULL,NULL,NULL,'Interpolated GPS latitude in decimal degrees.',NULL,NULL,1); INSERT INTO "parameter" VALUES(8106,'interp_lon','interp_lon',9,1,NULL,93,NULL,'Interpolated GPS Longitude','longitude',4,NULL,NULL,NULL,'Interpolated GPS longitude in decimal degrees.',NULL,NULL,1); -INSERT INTO "parameter" VALUES(8107,'oxygen_from_calphase','oxygen_from_calphase',8,1,NULL,218,7,'DO from Phase',NULL,4,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD8040", "csv": "CC_csv", "temp": "PD8041"}',NULL,'Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen (DO) Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature from a collocated CTD.',3,1,1); -INSERT INTO "parameter" VALUES(8108,'corrected_dissolved_oxygen','corrected_dissolved_oxygen',8,1,NULL,219,7,'DO from Phase - Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,61,'{"DO": "PD8107", "SP": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "lon": "CC_lon", "P": ["PD2606", "dpi_PRESWAT_L1", "PD17"], "T": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "lat": "CC_lat"}',NULL,'Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This data product is corrected for salinity, temperature, and depth.',3,2,1); -INSERT INTO "parameter" VALUES(8109,'oxygen_from_calphase','oxygen_from_calphase',8,1,NULL,218,7,'DO from Phase',NULL,4,16,'{"x": "PD8107"}',NULL,'Dissolved Oxygen Concentration from a co-located Stable Response Dissolved Oxygen (DO) Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for temperature.',3,1,1); -INSERT INTO "parameter" VALUES(8110,'corrected_dissolved_oxygen','corrected_dissolved_oxygen',8,1,NULL,219,7,'DO from Phase - Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,16,'{"x": "PD8108"}',NULL,'Dissolved Oxygen Concentration from a co-located Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This data product is corrected for salinity, temperature, and depth.',3,2,1); +INSERT INTO "parameter" VALUES(8107,'oxygen_from_calphase','oxygen_from_calphase',8,1,NULL,246,7,'DO from Phase',NULL,4,59,'{"conc_coef": "CC_conc_coef", "calphase": "PD8040", "csv": "CC_csv", "temp": "PD8041"}',NULL,'Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen (DO) Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings.This data product is corrected for temperature from a collocated CTD.',3,1,1); +INSERT INTO "parameter" VALUES(8108,'corrected_dissolved_oxygen','corrected_dissolved_oxygen',8,1,NULL,247,7,'DO from Phase - Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,61,'{"DO": ["PD8107", "PD2843"], "SP": ["dpi_PRACSAL_L2", "dpi_SALSURF_L2"], "lon": "CC_lon", "P": ["PD2606", "dpi_PRESWAT_L1", "PD17"], "T": ["dpi_TEMPWAT_L1", "dpi_TEMPSRF_L1"], "lat": "CC_lat"}','DOXYGEN_L2','Dissolved Oxygen Concentration from the Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This data product is corrected for salinity, temperature, and depth.',3,2,1); +INSERT INTO "parameter" VALUES(8109,'oxygen_from_calphase','oxygen_from_calphase',8,1,NULL,246,7,'DO from Phase',NULL,4,16,'{"x": "PD8107"}',NULL,'Dissolved Oxygen Concentration from a co-located Stable Response Dissolved Oxygen (DO) Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This instrument measures dissolved oxygen concentrations on mobile assets, deep profilers, and moorings. This data product is corrected for temperature.',3,1,1); +INSERT INTO "parameter" VALUES(8110,'corrected_dissolved_oxygen','corrected_dissolved_oxygen',8,1,NULL,247,7,'DO from Phase - Corrected','moles_of_oxygen_per_unit_mass_in_sea_water',4,16,'{"x": "PD8108"}',NULL,'Dissolved Oxygen Concentration from a co-located Stable Response Dissolved Oxygen Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This data product is corrected for salinity, temperature, and depth.',3,2,1); +INSERT INTO "parameter" VALUES(8111,'corrected_dissolved_oxygen','corrected_dissolved_oxygen',8,1,NULL,247,7,'Dissolved Oxygen - Pressure Temp Sal Corrected (CTD)',NULL,4,16,'{"x": "PD3777"}',NULL,'Dissolved Oxygen (DO) Concentration from the Fast Response (Fastrep) DO Instrument is a measure of the concentration of gaseous oxygen mixed in seawater. This Instrument measures dissolved oxygen concentrations on shallow coastal profilers through rapid oxygen gradients. This data product is corrected for salinity, temperature, and depth from a collocated CTD.',3,2,1); +INSERT INTO "parameter" VALUES(8112,'bin_depths','bin_depths',8,1,NULL,122,7,'Bin Depths',NULL,0,203,'{"sensor_depth": "PD8085", "bin_size": "CC_bin_size", "dist_first_bin": "CC_dist_first_bin", "num_bins": "PD1641", "adcp_orientation": "CC_orientation"}','?','Bin Depths',NULL,NULL,1); +INSERT INTO "parameter" VALUES(8113,'raw_signal_beta_volts','raw_signal_beta_volts',8,1,NULL,40,7,'Optical Backscatter Measurement',NULL,4,209,'{"counts": "dpi_FLUBSCT_L0"}','FLUBSCT-VLT_L0','Optical backscatter unprocessed measurement output from the sensor.',4,0,1); +INSERT INTO "parameter" VALUES(8114,'raw_signal_chl_volts','raw_signal_chl_volts',8,1,NULL,40,7,'Chlorophyll-A Measurement',NULL,4,209,'{"counts": "dpi_CHLAFLO_L0"}','CHLAFLO-VLT_L0','Fluorometric chlorophyll-a unprocessed measurement output from the sensor.',4,0,1); +INSERT INTO "parameter" VALUES(8115,'fluorometric_chlorophyll_a','fluorometric_chlorophyll_a',8,1,NULL,243,7,'Chlorophyll-a Concentration','mass_concentration_of_chlorophyll_a_in_sea_water',6,80,'{"counts_dark": "CC_dark_counts_chlorophyll_a", "scale_factor": "CC_scale_factor_chlorophyll_a", "counts_output": "dpi_CHLAFLO-VLT_L0"}','CHLAFLO_L1','Fluorometric Chlorophyll-a Concentration is an estimate of phytoplankton biomass using fluorescence. The fluorometer emits light at a specific wavelength that is absorbed by chlorophyll and re-emitted as light at a different wavelength. By measuring the intensity of the re-emitted wavelength of light the chlorophyll-a concentration in the surrounding seawater can be estimated. Chlorophyll-a concentrations can be used as a proxy for phytoplankton biomass as it is a dominant photosynthetic pigment.',3,1,1); +INSERT INTO "parameter" VALUES(8116,'total_volume_scattering_coefficient','total_volume_scattering_coefficient',8,1,NULL,128,7,'Total Volume Scattering Coefficient',NULL,6,81,'{"counts_dark": "CC_dark_counts_volume_scatter", "scale_factor": "CC_scale_factor_volume_scatter", "counts_output": "dpi_FLUBSCT-VLT_L0"}','FLUBSCT_L1','Total Volume Scattering Coefficient values represent the volume scattering from particles and the molecular scattering from water at a given wavelength of light and the default angle of 117 degrees for the ECO meter.',3,1,1); +INSERT INTO "parameter" VALUES(8117,'non_zero_pressure','non_zero_pressure',8,4,NULL,76,7,'Non-zero Pressure',NULL,0,218,'{"a1": "PD1639", "std": "CC_depth", "std_scale_factor": 1000.0, "a2": ["dpi_PRESWAT_L1", "None"], "a2_scale_factor": 1000.0}',NULL,'A non-zero pressure value.',NULL,1,0); +INSERT INTO "parameter" VALUES(8118,'pco2_battery_volts','pco2_battery_volts',8,1,NULL,40,7,'Battery Voltage',NULL,4,219,'{"sami_bits": "CC_sami_bits", "braw": "PD358"}',NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(8119,'raw_temperature','raw_temperature',9,4,NULL,67,7,'Unprocessed (L0) Sea Surface Temperature',NULL,0,NULL,NULL,'TEMPSRF_L0','Unprocessed sea surface temperature measurement in counts.',4,0,1); +INSERT INTO "parameter" VALUES(8120,'raw_conductivity','raw_conductivity',9,4,NULL,67,7,'Unprocessed (L0) Sea Surface Conductivity',NULL,0,NULL,NULL,'CONDSRF_L0','Unprocessed sea surface conductivity data that are output directly from the sensor. Sea surface conductivity refers to the ability of seawater to conduct electricity. The presence of ions in the seawater, such as salt, increases the electrical conducting ability of seawater. As such, conductivity can be used as a proxy for determining the quantity of salt in a sample of seawater.',4,0,1); +INSERT INTO "parameter" VALUES(8121,'sea_surface_temperature','sea_surface_temperature',8,1,NULL,232,7,'Sea Surface Temperature','sea_surface_temperature',3,206,'{"a1": "CC_a1", "a0": "CC_a0", "a3": "CC_a3", "a2": "CC_a2", "t0": "PD8119"}','TEMPSRF_L1','Sea Surface Temperature is the temperature of the seawater near the ocean surface.',3,1,1); +INSERT INTO "parameter" VALUES(8122,'sea_surface_conductivity','sea_surface_conductivity',8,1,NULL,38,7,'Sea Surface Conductivity','sea_surface_conductivity',4,207,'{"p1": "CC_depth", "g": "CC_g", "i": "CC_i", "h": "CC_h", "j": "CC_j", "ctcor": "CC_ctcor", "t1": "PD8121", "wbotc": "CC_wbotc", "cpcor": "CC_cpcor", "c0": "PD8120"}','CONDSRF_L1','Sea Surface Conductivity is the conductivity of the seawater near the ocean surface.',3,1,1); +INSERT INTO "parameter" VALUES(8123,'volume_concentration','volume_concentration',3,1,NULL,240,7,'Volume Concentration',NULL,4,NULL,NULL,'VOLCONC_L1','Array of volume concentration for particles analyzed by instrument, binned by particle size.',3,1,1); +INSERT INTO "parameter" VALUES(8124,'laser_transmission_sensor','laser_transmission_sensor',9,1,NULL,145,7,'Laser Transmission Sensor',NULL,4,NULL,NULL,NULL,'The intensity of the laser reference sensor.',4,0,1); +INSERT INTO "parameter" VALUES(8125,'supply_voltage','supply_voltage',9,1,NULL,40,7,'Supply Voltage',NULL,2,NULL,NULL,NULL,'Voltage being supplied to the instrument.',4,0,1); +INSERT INTO "parameter" VALUES(8126,'laser_reference_sensor','laser_reference_sensor',9,1,NULL,145,7,'Laser Reference Sensor',NULL,4,NULL,NULL,NULL,'The intensity of the laser reference sensor. Used to correct scattering calculations for variations in beam output intensity.',4,0,1); +INSERT INTO "parameter" VALUES(8127,'depth','depth',9,1,NULL,122,7,'Depth','depth',2,NULL,NULL,NULL,'The vertical distance below the surface.',4,0,1); +INSERT INTO "parameter" VALUES(8128,'mean_diameter','mean_diameter',9,1,NULL,244,7,'Mean Diameter',NULL,2,NULL,NULL,'DIAMEAN_L1','The mean diameter of analyzed particles.',3,1,1); +INSERT INTO "parameter" VALUES(8129,'total_volume_concentration','total_volume_concentration',9,1,NULL,183,7,'Total Volume Concentration',NULL,4,NULL,NULL,'TVOLCON_L1','The total volume concentration of particles.',3,1,1); +INSERT INTO "parameter" VALUES(8130,'relative_humidity','relative_humidity',9,10,NULL,179,10,'Relative Humidity','relative_humidity',0,NULL,NULL,NULL,'Percent relative humidity internal to the sensor.',4,0,1); +INSERT INTO "parameter" VALUES(8131,'ambient_light','ambient_light',9,4,NULL,66,7,'Ambient Light',NULL,0,NULL,NULL,NULL,'Measure of light not produced by instrument laser.',4,0,1); +INSERT INTO "parameter" VALUES(8132,'computed_optical_transmission','computed_optical_transmission',9,1,NULL,10,7,'Computed Optical Transmission',NULL,3,NULL,NULL,NULL,'Measure of what proportion of light is transmitted through a turbid medium.',4,0,1); +INSERT INTO "parameter" VALUES(8133,'beam_attenuation','beam_attenuation',9,1,NULL,127,7,'Beam Attenuation','volume_beam_attenuation_coefficient_of_radiative_flux_in_sea_water',3,NULL,NULL,'PRTATTN_L1','The rate that the intensity of a beam of light will decrease in response to the combined effects of absorption and scatter as a function of propagation distance.',3,1,1); +INSERT INTO "parameter" VALUES(8134,'max_particle_size','max_particle_size',9,7,NULL,244,10,'Max Particle Size',NULL,0,NULL,NULL,NULL,'The upper size limit of a particle that will be binned into volume concentration.',4,0,1); +INSERT INTO "parameter" VALUES(8135,'particle_lower_size_bins','particle_lower_size_bins',3,1,NULL,244,7,'Lower Particle Size of Bins',NULL,2,NULL,NULL,NULL,'The lower particle size limit for each bin of volume concentration.',4,0,1); +INSERT INTO "parameter" VALUES(8136,'turbidity','turbidity',8,1,NULL,238,7,'Turbidity','sea_water_turbidity',4,74,'{"X": "PD1139", "off": "CC_dark_counts_turbd", "sf": "CC_scale_factor_turbd"}','TURBDTY_L1','Turbidity expressed in NTU (Nephelometric Turbidity Units) is the proportion of white light scattered back to a transceiver by the particulate load in a body of water, represented on an arbitrary scale referenced against measurements made in the laboratory on aqueous suspensions of formazine beads.',3,2,1); +INSERT INTO "parameter" VALUES(8137,'sample_number','sample_number',9,4,NULL,10,7,'Sample Number',NULL,NULL,NULL,NULL,NULL,'Sample number since beginning of IFCB deployment',2,0,1); +INSERT INTO "parameter" VALUES(8138,'sample_type','sample_type',9,6,NULL,10,17,'Sample Type',NULL,NULL,NULL,NULL,NULL,'Type of sample being run: Normal, beads',2,0,1); +INSERT INTO "parameter" VALUES(8139,'trigger_count','trigger_count',9,4,NULL,67,7,'Trigger Count',NULL,NULL,NULL,NULL,NULL,'Number of qualifying images detected in sample',2,0,1); +INSERT INTO "parameter" VALUES(8140,'roi_count','roi_count',9,4,NULL,67,7,'ROI Count',NULL,NULL,NULL,NULL,NULL,'Count of raw optical images in sample',2,0,1); +INSERT INTO "parameter" VALUES(8141,'humidity','humidity',9,1,NULL,179,7,'Humidity','relative_humidity',NULL,NULL,NULL,NULL,'Relative humidity',2,0,1); +INSERT INTO "parameter" VALUES(8142,'temperature','temperature',9,1,NULL,232,7,'Temperature','temperature',NULL,NULL,NULL,NULL,'Temperature in degrees celsius',2,0,1); +INSERT INTO "parameter" VALUES(8143,'run_time','run_time',9,1,NULL,194,7,'Run Time',NULL,NULL,NULL,NULL,NULL,'Run time of sample in seconds',2,0,1); +INSERT INTO "parameter" VALUES(8144,'inhibit_time','inhibit_time',9,1,NULL,194,7,'Inhibit Time',NULL,NULL,NULL,NULL,NULL,'Analysis time during which samples do not trigger',2,0,1); +INSERT INTO "parameter" VALUES(8145,'pump1_state','pump1_state',5,5,NULL,10,4,'Pump 1 State',NULL,NULL,NULL,NULL,NULL,'Logical on/off state',2,0,1); +INSERT INTO "parameter" VALUES(8146,'pump2_state','pump2_state',5,5,NULL,10,4,'Pump 2 State',NULL,NULL,NULL,NULL,NULL,'Logical on/off state',2,0,1); +INSERT INTO "parameter" VALUES(8147,'pmta_high_voltage','pmta_high_voltage',9,1,NULL,40,7,'PMTA High Voltage',NULL,NULL,NULL,NULL,NULL,'High voltage level at photomultiplier A',2,0,1); +INSERT INTO "parameter" VALUES(8148,'pmtb_high_voltage','pmtb_high_voltage',9,1,NULL,40,7,'PMTB High Voltage',NULL,NULL,NULL,NULL,NULL,'High voltage level at photomultiplier B',2,0,1); +INSERT INTO "parameter" VALUES(8149,'alt_flashlamp_control_voltage','alt_flashlamp_control_voltage',9,1,NULL,40,7,'Alt Flashlamp Control Voltage',NULL,NULL,NULL,NULL,NULL,'Control voltage at alternate flash lamp',2,0,1); +INSERT INTO "parameter" VALUES(8150,'pump_drive_voltage','pump_drive_voltage',9,1,NULL,40,7,'Pump Drive Voltage',NULL,NULL,NULL,NULL,NULL,'Voltage at pump drive',2,0,1); +INSERT INTO "parameter" VALUES(8151,'alt_pmta_high_voltage','alt_pmta_high_voltage',9,1,NULL,40,7,'Alt PMTA High Voltage',NULL,NULL,NULL,NULL,NULL,'High voltage level at alternate photomultiplier A',2,0,1); +INSERT INTO "parameter" VALUES(8152,'alt_pmtb_high_voltage','alt_pmtb_high_voltage',9,1,NULL,40,7,'Alt PMTB High Voltage',NULL,NULL,NULL,NULL,NULL,'High voltage level at alternate photomultiplier B',2,0,1); +INSERT INTO "parameter" VALUES(8153,'syringe_sampling_speed','syringe_sampling_speed',9,1,NULL,236,7,'Syringe Sampling Speed',NULL,NULL,NULL,NULL,NULL,'Syringe sampling speed in min/syringe',2,0,1); +INSERT INTO "parameter" VALUES(8154,'syringe_offset','syringe_offset',9,1,NULL,10,7,'Syringe Offset',NULL,NULL,NULL,NULL,NULL,'Syringe offset',2,0,1); +INSERT INTO "parameter" VALUES(8155,'number_syringes_to_autorun','number_syringes_to_autorun',9,4,NULL,67,7,'Number Syringes To Autorun',NULL,NULL,NULL,NULL,NULL,'Count of syringes to automatically run',2,0,1); +INSERT INTO "parameter" VALUES(8156,'syringe_sample_volume','syringe_sample_volume',9,1,NULL,138,7,'Syringe Sample Volume',NULL,NULL,NULL,NULL,NULL,'Sample volume of syringe in ml',2,0,1); +INSERT INTO "parameter" VALUES(8157,'alt_syringe_sample_volume','alt_syringe_sample_volume',9,1,NULL,138,7,'Alt Syringe Sample Volume',NULL,NULL,NULL,NULL,NULL,'Sample volume of alternate syringe in ml',2,0,1); +INSERT INTO "parameter" VALUES(8158,'sample_volume_2_skip','sample_volume_2_skip',9,4,NULL,138,7,'Sample Volume To Skip',NULL,NULL,NULL,NULL,NULL,'Amount of sample volume to skip processing',2,0,1); +INSERT INTO "parameter" VALUES(8159,'focus_motor_small_step_ms','focus_motor_small_step_ms',9,4,NULL,175,7,'Focus Motor Small Step',NULL,NULL,NULL,NULL,NULL,'Focus motor small step',2,0,1); +INSERT INTO "parameter" VALUES(8160,'focus_motor_large_step_ms','focus_motor_large_step_ms',9,4,NULL,175,7,'Focus Motor Large Step',NULL,NULL,NULL,NULL,NULL,'Focus motor large step',2,0,1); +INSERT INTO "parameter" VALUES(8161,'laser_motor_small_step_ms','laser_motor_small_step_ms',9,4,NULL,175,7,'Laser Motor Small Step',NULL,NULL,NULL,NULL,NULL,'Laser motor small step',2,0,1); +INSERT INTO "parameter" VALUES(8162,'laser_motor_large_step_ms','laser_motor_large_step_ms',9,4,NULL,175,7,'Laser Motor Large Step',NULL,NULL,NULL,NULL,NULL,'Laser motor large step',2,0,1); +INSERT INTO "parameter" VALUES(8163,'velocity_beam1','velocity_beam1',3,1,NULL,123,2,'Beam 1 Velocity Profiles',NULL,3,NULL,NULL,NULL,'Unprocessed velocity profile from beam 1.',4,0,1); +INSERT INTO "parameter" VALUES(8164,'velocity_beam2','velocity_beam2',3,1,NULL,123,2,'Beam 2 Velocity Profiles',NULL,3,NULL,NULL,NULL,'Unprocessed velocity profile from beam 2.',4,0,1); +INSERT INTO "parameter" VALUES(8165,'velocity_beam3','velocity_beam3',3,1,NULL,123,2,'Beam 3 Velocity Profiles',NULL,3,NULL,NULL,NULL,'Unprocessed velocity profile from beam 3.',4,0,1); +INSERT INTO "parameter" VALUES(8166,'velocity_beam4','velocity_beam4',3,1,NULL,123,2,'Beam 4 Velocity Profiles',NULL,3,NULL,NULL,NULL,'Unprocessed velocity profile from beam 4.',4,0,1); +INSERT INTO "parameter" VALUES(8167,'amplitude_beam1','amplitude_beam1',3,1,NULL,72,7,'Beam 1 Amplitude Profiles',NULL,1,NULL,NULL,NULL,'Beam 1 Amplitude, or signal strength, is the strength of the return signal from beam 1 and is output in dB',4,0,1); +INSERT INTO "parameter" VALUES(8168,'amplitude_beam2','amplitude_beam2',3,1,NULL,72,7,'Beam 2 Amplitude Profiles',NULL,1,NULL,NULL,NULL,'Beam 2 Amplitude, or signal strength, is the strength of the return signal from beam 2 and is output in dB',4,0,1); +INSERT INTO "parameter" VALUES(8169,'amplitude_beam3','amplitude_beam3',3,1,NULL,72,7,'Beam 3 Amplitude Profiles',NULL,1,NULL,NULL,NULL,'Beam 3 Amplitude, or signal strength, is the strength of the return signal from beam 3 and is output in dB',4,0,1); +INSERT INTO "parameter" VALUES(8170,'amplitude_beam4','amplitude_beam4',3,1,NULL,72,7,'Beam 4 Amplitude Profiles',NULL,1,NULL,NULL,NULL,'Beam 4 Amplitude, or signal strength, is the strength of the return signal from beam 4 and is output in dB',4,0,1); +INSERT INTO "parameter" VALUES(8171,'correlation_beam1','correlation_beam1',3,10,NULL,179,11,'Beam 1 Correlation',NULL,0,NULL,NULL,NULL,'A statistical measure of how similar the received signal from Beam 1 is to itself at a delayed time, and a measure of the quality of the velocity data. A drop to about 50% correlation is a commonly accepted threshold for determining the range of the instrument.',NULL,0,1); +INSERT INTO "parameter" VALUES(8172,'correlation_beam2','correlation_beam2',3,10,NULL,179,11,'Beam 2 Correlation',NULL,0,NULL,NULL,NULL,'A statistical measure of how similar the received signal from Beam 2 is to itself at a delayed time, and a measure of the quality of the velocity data. A drop to about 50% correlation is a commonly accepted threshold for determining the range of the instrument.',NULL,0,1); +INSERT INTO "parameter" VALUES(8173,'correlation_beam3','correlation_beam3',3,10,NULL,179,11,'Beam 3 Correlation',NULL,0,NULL,NULL,NULL,'A statistical measure of how similar the received signal from Beam 3 is to itself at a delayed time, and a measure of the quality of the velocity data. A drop to about 50% correlation is a commonly accepted threshold for determining the range of the instrument.',NULL,0,1); +INSERT INTO "parameter" VALUES(8174,'correlation_beam4','correlation_beam4',3,10,NULL,179,11,'Beam 4 Correlation',NULL,0,NULL,NULL,NULL,'A statistical measure of how similar the received signal from Beam 4 is to itself at a delayed time, and a measure of the quality of the velocity data. A drop to about 50% correlation is a commonly accepted threshold for determining the range of the instrument.',NULL,0,1); +INSERT INTO "parameter" VALUES(8175,'velocity_beam5','velocity_beam5',3,1,NULL,123,2,'Beam 5 Velocity Profiles',NULL,3,NULL,NULL,NULL,'Unprocessed velocity profile from beam 5.',4,0,1); +INSERT INTO "parameter" VALUES(8176,'amplitude_beam5','amplitude_beam5',3,1,NULL,72,7,'Beam 5 Amplitude Profiles',NULL,1,NULL,NULL,NULL,'Beam 5 Amplitude, or signal strength, is the strength of the return signal from beam 5 and is output in dB',4,0,1); +INSERT INTO "parameter" VALUES(8177,'correlation_beam5','correlation_beam5',3,10,NULL,179,11,'Percent Good Beam 5',NULL,0,NULL,NULL,NULL,'A statistical measure of how similar the received signal from Beam 5 is to itself at a delayed time, and a measure of the quality of the velocity data. A drop to about 50% correlation is a commonly accepted threshold for determining the range of the instrument.',NULL,0,1); +INSERT INTO "parameter" VALUES(8178,'cell_number','cell_number',3,10,NULL,10,10,'Cell Number',NULL,0,NULL,NULL,NULL,'Number of the velocity cell as projected along the axis of the beam',NULL,NULL,1); +INSERT INTO "parameter" VALUES(8179,'cell_position','cell_position',3,1,NULL,122,10,'Cell Position',NULL,1,NULL,NULL,NULL,'The cell position is centered at a vertical distance from the transducer equal to: Center of nth cell = Blanking + n*cell size',NULL,NULL,1); +INSERT INTO "parameter" VALUES(8180,'blanking_distance','blanking_distance',9,1,NULL,122,5,'Blanking Distance',NULL,2,NULL,NULL,NULL,'Blanking is the distance over which no measurements take place to give the transducers time to settle before the echo returns to the receiver.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(8181,'cell_size','cell_size',9,1,NULL,122,5,'Cell Size',NULL,2,NULL,NULL,NULL,'VADCP Bin size.',NULL,NULL,1); +INSERT INTO "parameter" VALUES(8182,'status_code','status_code',9,6,NULL,10,10,'Status Code',NULL,0,NULL,NULL,NULL,NULL,NULL,NULL,1); +INSERT INTO "parameter" VALUES(8183,'pitch','pitch',9,1,NULL,95,7,'Instrument Pitch',NULL,1,NULL,NULL,'platform_pitch_angle','The rotated angle about the pitch-axis relative to the horizontal plane. Rotation has a positive sign when the axis parallel to the plane of rotation (perpendicular to the rotational axis) moves away from the horizontal plane in the positive Z direction (e.g. positive rotation about the Y-axis causes the X-axis to tilt in the +Z direction).',NULL,NULL,1); +INSERT INTO "parameter" VALUES(8184,'roll','roll',9,1,NULL,95,7,'Instrument Roll',NULL,1,NULL,NULL,'platform_roll_angle','The rotated angle about the roll-axis relative to the horizontal plane. Rotation has a positive sign when the axis parallel to the plane of rotation (perpendicular to the rotational axis) moves away from the horizontal plane in the positive Z direction (e.g. positive rotation about the Y-axis causes the X-axis to tilt in the +Z direction).',NULL,NULL,1); +INSERT INTO "parameter" VALUES(8185,'pitch_stdev','pitch_stdev',9,1,NULL,95,5,'Pitch Standard Deviation',NULL,2,NULL,NULL,NULL,'Standard deviation of recorded pitch.',NULL,0,1); +INSERT INTO "parameter" VALUES(8186,'roll_stdev','roll_stdev',9,1,NULL,95,5,'Roll Standard Deviation',NULL,2,NULL,NULL,NULL,'Standard deviation of recorded roll.',NULL,0,1); +INSERT INTO "parameter" VALUES(8187,'heading_stdev','heading_stdev',9,1,NULL,95,5,'Heading Standard Deviation',NULL,2,NULL,NULL,NULL,'Standard deviation of recorded compass heading.',NULL,0,1); +INSERT INTO "parameter" VALUES(8188,'adcp_pressure','adcp_pressure',9,1,NULL,95,7,'Pressure',NULL,3,NULL,NULL,NULL,'Pressure measured by ADCP sensor.',NULL,0,1); +INSERT INTO "parameter" VALUES(8189,'adcp_pressure_stdev','adcp_pressure_stdev',9,1,NULL,95,5,'Pressure Standard Deviation',NULL,2,NULL,NULL,NULL,'Standard deviation of pressure recorded by ADCP sensor.',NULL,0,1); +INSERT INTO "parameter" VALUES(8190,'adcp_temperature','adcp_temperature',9,1,NULL,232,7,'Temperature',NULL,2,NULL,NULL,NULL,'Temperature recorded by ADCP sensor.',NULL,0,1); CREATE TABLE parameter_dimension ( parameter_id INTEGER NOT NULL, dimension_id INTEGER NOT NULL, @@ -4813,6 +4897,26 @@ INSERT INTO "parameter_dimension" VALUES(805,4); INSERT INTO "parameter_dimension" VALUES(2809,5); INSERT INTO "parameter_dimension" VALUES(3102,3); INSERT INTO "parameter_dimension" VALUES(724,5); +INSERT INTO "parameter_dimension" VALUES(8177,5); +INSERT INTO "parameter_dimension" VALUES(8174,5); +INSERT INTO "parameter_dimension" VALUES(8179,5); +INSERT INTO "parameter_dimension" VALUES(8176,5); +INSERT INTO "parameter_dimension" VALUES(8173,5); +INSERT INTO "parameter_dimension" VALUES(8164,5); +INSERT INTO "parameter_dimension" VALUES(8178,5); +INSERT INTO "parameter_dimension" VALUES(8172,5); +INSERT INTO "parameter_dimension" VALUES(8175,5); +INSERT INTO "parameter_dimension" VALUES(8112,5); +INSERT INTO "parameter_dimension" VALUES(8123,5); +INSERT INTO "parameter_dimension" VALUES(8166,5); +INSERT INTO "parameter_dimension" VALUES(8168,5); +INSERT INTO "parameter_dimension" VALUES(8169,5); +INSERT INTO "parameter_dimension" VALUES(8165,5); +INSERT INTO "parameter_dimension" VALUES(8167,5); +INSERT INTO "parameter_dimension" VALUES(8170,5); +INSERT INTO "parameter_dimension" VALUES(8163,5); +INSERT INTO "parameter_dimension" VALUES(8171,5); +INSERT INTO "parameter_dimension" VALUES(8135,5); CREATE TABLE parameter_function ( id INTEGER NOT NULL, name VARCHAR(250), @@ -5068,6 +5172,8 @@ INSERT INTO "parameter_function" VALUES(214,'SENSFLX_MINUTE_L2',2,'met_sensflx_m INSERT INTO "parameter_function" VALUES(215,'enumerate',2,'[[idx for idx, _ in enumerate(x[0])]]','__builtin__','Returns an array of indexes based on the number of data items in a single observation of data.',NULL); INSERT INTO "parameter_function" VALUES(216,'select_non_zero_arg',2,'select_non_zero_arg','ion_functions.data.generic_functions','Select a non-zero arg.',NULL); INSERT INTO "parameter_function" VALUES(217,'depth_from_pressure_dbar',2,'depth_from_pressure_dbar','ion_functions.data.adcp_functions','Calculates depth from pressure in decibar (dbar)',NULL); +INSERT INTO "parameter_function" VALUES(218,'select_arg_within_tolerance_of_std',2,'select_arg_within_tolerance_of_std','ion_functions.data.generic_functions','Select arg within tolerance of std.',NULL); +INSERT INTO "parameter_function" VALUES(219,'pco2_battery',2,'pco2_battery','ion_functions.data.co2_functions','Converts the raw measured battery voltage from counts to volts for the PCO2.',NULL); CREATE TABLE parameter_type ( id INTEGER NOT NULL, value VARCHAR(20) NOT NULL, @@ -5332,8 +5438,6 @@ INSERT INTO "stream" VALUES(434,'nutnr_b_dcl_conc_metadata',7,20160,2,76); INSERT INTO "stream" VALUES(435,'nutnr_b_dcl_conc_metadata_recovered',7,20160,2,76); INSERT INTO "stream" VALUES(436,'presf_abc_dcl_tide_measurement',7,20160,3,123); INSERT INTO "stream" VALUES(437,'presf_abc_dcl_tide_measurement_recovered',7,20160,3,123); -INSERT INTO "stream" VALUES(438,'presf_abc_dcl_wave_burst',7,20160,3,129); -INSERT INTO "stream" VALUES(439,'presf_abc_dcl_wave_burst_recovered',7,20160,3,129); INSERT INTO "stream" VALUES(444,'adcps_jln_instrument',7,20160,3,35); INSERT INTO "stream" VALUES(445,'adcps_jln_beam_instrument',7,1440,3,35); INSERT INTO "stream" VALUES(446,'pco2a_a_dcl_instrument_air_recovered',7,20160,3,67); @@ -5655,6 +5759,17 @@ INSERT INTO "stream" VALUES(775,'ctdav_auv_data',7,1440,3,35); INSERT INTO "stream" VALUES(776,'suna_dcl_recovered',7,1440,3,35); INSERT INTO "stream" VALUES(777,'suna_instrument_recovered',7,1440,3,35); INSERT INTO "stream" VALUES(778,'metbk_ct_dcl_instrument',7,20160,3,35); +INSERT INTO "stream" VALUES(779,'metbk_ct_instrument',7,20160,3,35); +INSERT INTO "stream" VALUES(780,'prtsz_a_instrument',7,10080,3,35); +INSERT INTO "stream" VALUES(781,'turbd_a_instrument',7,1440,3,35); +INSERT INTO "stream" VALUES(782,'plims_a_hdr_instrument',7,40320,2,76); +INSERT INTO "stream" VALUES(783,'ctdpf_p_wfp_instrument',7,10080,3,35); +INSERT INTO "stream" VALUES(784,'ctdpf_p_wfp_instrument_recovered',7,10080,3,35); +INSERT INTO "stream" VALUES(785,'dofst_p_wfp_instrument',7,10080,3,35); +INSERT INTO "stream" VALUES(786,'dofst_p_wfp_instrument_recovered',7,10080,3,35); +INSERT INTO "stream" VALUES(787,'vadcp_b_velocity_beam',7,720,3,35); +INSERT INTO "stream" VALUES(788,'vadcp_b_velocity_beam5',7,1440,3,35); +INSERT INTO "stream" VALUES(789,'vadcp_b_config',7,10080,2,141); CREATE TABLE stream_content ( id INTEGER NOT NULL, value VARCHAR(250) NOT NULL, @@ -5801,6 +5916,7 @@ INSERT INTO "stream_content" VALUES(137,'Winch Motor Metadata'); INSERT INTO "stream_content" VALUES(138,'X Flow Rate Data Products'); INSERT INTO "stream_content" VALUES(139,'Y Flow Rate Data Products'); INSERT INTO "stream_content" VALUES(140,'Z Flow Rate Data Products'); +INSERT INTO "stream_content" VALUES(141,'VADCP Configuration Data'); CREATE TABLE stream_dependency ( source_stream_id INTEGER NOT NULL, product_stream_id INTEGER NOT NULL, @@ -5819,18 +5935,6 @@ CREATE TABLE stream_parameter ( FOREIGN KEY(stream_id) REFERENCES stream (id), FOREIGN KEY(parameter_id) REFERENCES parameter (id) ); -INSERT INTO "stream_parameter" VALUES(439,7); -INSERT INTO "stream_parameter" VALUES(439,10); -INSERT INTO "stream_parameter" VALUES(439,11); -INSERT INTO "stream_parameter" VALUES(439,12); -INSERT INTO "stream_parameter" VALUES(439,16); -INSERT INTO "stream_parameter" VALUES(439,93); -INSERT INTO "stream_parameter" VALUES(439,96); -INSERT INTO "stream_parameter" VALUES(439,833); -INSERT INTO "stream_parameter" VALUES(439,863); -INSERT INTO "stream_parameter" VALUES(439,2709); -INSERT INTO "stream_parameter" VALUES(439,2710); -INSERT INTO "stream_parameter" VALUES(439,2810); INSERT INTO "stream_parameter" VALUES(420,7); INSERT INTO "stream_parameter" VALUES(420,10); INSERT INTO "stream_parameter" VALUES(420,11); @@ -6831,10 +6935,6 @@ INSERT INTO "stream_parameter" VALUES(778,10); INSERT INTO "stream_parameter" VALUES(778,11); INSERT INTO "stream_parameter" VALUES(778,12); INSERT INTO "stream_parameter" VALUES(778,16); -INSERT INTO "stream_parameter" VALUES(778,193); -INSERT INTO "stream_parameter" VALUES(778,194); -INSERT INTO "stream_parameter" VALUES(778,198); -INSERT INTO "stream_parameter" VALUES(778,312); INSERT INTO "stream_parameter" VALUES(778,863); INSERT INTO "stream_parameter" VALUES(529,7); INSERT INTO "stream_parameter" VALUES(529,10); @@ -7069,18 +7169,6 @@ INSERT INTO "stream_parameter" VALUES(460,2788); INSERT INTO "stream_parameter" VALUES(460,2789); INSERT INTO "stream_parameter" VALUES(460,2790); INSERT INTO "stream_parameter" VALUES(460,2825); -INSERT INTO "stream_parameter" VALUES(438,7); -INSERT INTO "stream_parameter" VALUES(438,10); -INSERT INTO "stream_parameter" VALUES(438,11); -INSERT INTO "stream_parameter" VALUES(438,12); -INSERT INTO "stream_parameter" VALUES(438,16); -INSERT INTO "stream_parameter" VALUES(438,93); -INSERT INTO "stream_parameter" VALUES(438,96); -INSERT INTO "stream_parameter" VALUES(438,833); -INSERT INTO "stream_parameter" VALUES(438,863); -INSERT INTO "stream_parameter" VALUES(438,2709); -INSERT INTO "stream_parameter" VALUES(438,2710); -INSERT INTO "stream_parameter" VALUES(438,2810); INSERT INTO "stream_parameter" VALUES(340,7); INSERT INTO "stream_parameter" VALUES(340,10); INSERT INTO "stream_parameter" VALUES(340,11); @@ -10530,7 +10618,6 @@ INSERT INTO "stream_parameter" VALUES(523,7); INSERT INTO "stream_parameter" VALUES(523,10); INSERT INTO "stream_parameter" VALUES(523,11); INSERT INTO "stream_parameter" VALUES(523,12); -INSERT INTO "stream_parameter" VALUES(523,14); INSERT INTO "stream_parameter" VALUES(523,16); INSERT INTO "stream_parameter" VALUES(523,863); INSERT INTO "stream_parameter" VALUES(523,942); @@ -11598,7 +11685,6 @@ INSERT INTO "stream_parameter" VALUES(522,7); INSERT INTO "stream_parameter" VALUES(522,10); INSERT INTO "stream_parameter" VALUES(522,11); INSERT INTO "stream_parameter" VALUES(522,12); -INSERT INTO "stream_parameter" VALUES(522,14); INSERT INTO "stream_parameter" VALUES(522,16); INSERT INTO "stream_parameter" VALUES(522,863); INSERT INTO "stream_parameter" VALUES(522,942); @@ -11879,7 +11965,6 @@ INSERT INTO "stream_parameter" VALUES(595,2272); INSERT INTO "stream_parameter" VALUES(595,2273); INSERT INTO "stream_parameter" VALUES(595,2274); INSERT INTO "stream_parameter" VALUES(595,2275); -INSERT INTO "stream_parameter" VALUES(595,8086); INSERT INTO "stream_parameter" VALUES(490,7); INSERT INTO "stream_parameter" VALUES(490,10); INSERT INTO "stream_parameter" VALUES(490,11); @@ -14608,8 +14693,6 @@ INSERT INTO "stream_parameter" VALUES(769,10); INSERT INTO "stream_parameter" VALUES(769,11); INSERT INTO "stream_parameter" VALUES(769,12); INSERT INTO "stream_parameter" VALUES(769,16); -INSERT INTO "stream_parameter" VALUES(769,22); -INSERT INTO "stream_parameter" VALUES(769,24); INSERT INTO "stream_parameter" VALUES(769,198); INSERT INTO "stream_parameter" VALUES(769,863); INSERT INTO "stream_parameter" VALUES(769,1139); @@ -15119,7 +15202,6 @@ INSERT INTO "stream_parameter" VALUES(337,908); INSERT INTO "stream_parameter" VALUES(337,909); INSERT INTO "stream_parameter" VALUES(337,910); INSERT INTO "stream_parameter" VALUES(337,2310); -INSERT INTO "stream_parameter" VALUES(337,3777); INSERT INTO "stream_parameter" VALUES(337,8102); INSERT INTO "stream_parameter" VALUES(58,7); INSERT INTO "stream_parameter" VALUES(58,10); @@ -19133,6 +19215,223 @@ INSERT INTO "stream_parameter" VALUES(22,8108); INSERT INTO "stream_parameter" VALUES(768,14); INSERT INTO "stream_parameter" VALUES(726,14); INSERT INTO "stream_parameter" VALUES(727,14); +INSERT INTO "stream_parameter" VALUES(560,8118); +INSERT INTO "stream_parameter" VALUES(561,8118); +INSERT INTO "stream_parameter" VALUES(562,8118); +INSERT INTO "stream_parameter" VALUES(337,8111); +INSERT INTO "stream_parameter" VALUES(563,8118); +INSERT INTO "stream_parameter" VALUES(301,8117); +INSERT INTO "stream_parameter" VALUES(23,8109); +INSERT INTO "stream_parameter" VALUES(23,8110); +INSERT INTO "stream_parameter" VALUES(595,8083); +INSERT INTO "stream_parameter" VALUES(595,8084); +INSERT INTO "stream_parameter" VALUES(595,8085); +INSERT INTO "stream_parameter" VALUES(595,8112); +INSERT INTO "stream_parameter" VALUES(787,7); +INSERT INTO "stream_parameter" VALUES(787,10); +INSERT INTO "stream_parameter" VALUES(787,11); +INSERT INTO "stream_parameter" VALUES(787,12); +INSERT INTO "stream_parameter" VALUES(787,16); +INSERT INTO "stream_parameter" VALUES(787,436); +INSERT INTO "stream_parameter" VALUES(787,562); +INSERT INTO "stream_parameter" VALUES(787,567); +INSERT INTO "stream_parameter" VALUES(787,863); +INSERT INTO "stream_parameter" VALUES(787,8163); +INSERT INTO "stream_parameter" VALUES(787,8164); +INSERT INTO "stream_parameter" VALUES(787,8165); +INSERT INTO "stream_parameter" VALUES(787,8166); +INSERT INTO "stream_parameter" VALUES(787,8167); +INSERT INTO "stream_parameter" VALUES(787,8168); +INSERT INTO "stream_parameter" VALUES(787,8169); +INSERT INTO "stream_parameter" VALUES(787,8170); +INSERT INTO "stream_parameter" VALUES(787,8171); +INSERT INTO "stream_parameter" VALUES(787,8172); +INSERT INTO "stream_parameter" VALUES(787,8173); +INSERT INTO "stream_parameter" VALUES(787,8174); +INSERT INTO "stream_parameter" VALUES(787,8178); +INSERT INTO "stream_parameter" VALUES(787,8179); +INSERT INTO "stream_parameter" VALUES(787,8182); +INSERT INTO "stream_parameter" VALUES(787,8183); +INSERT INTO "stream_parameter" VALUES(787,8184); +INSERT INTO "stream_parameter" VALUES(787,8185); +INSERT INTO "stream_parameter" VALUES(787,8186); +INSERT INTO "stream_parameter" VALUES(787,8187); +INSERT INTO "stream_parameter" VALUES(787,8188); +INSERT INTO "stream_parameter" VALUES(787,8189); +INSERT INTO "stream_parameter" VALUES(787,8190); +INSERT INTO "stream_parameter" VALUES(784,1); +INSERT INTO "stream_parameter" VALUES(784,2); +INSERT INTO "stream_parameter" VALUES(784,5); +INSERT INTO "stream_parameter" VALUES(784,6); +INSERT INTO "stream_parameter" VALUES(784,7); +INSERT INTO "stream_parameter" VALUES(784,10); +INSERT INTO "stream_parameter" VALUES(784,11); +INSERT INTO "stream_parameter" VALUES(784,12); +INSERT INTO "stream_parameter" VALUES(784,13); +INSERT INTO "stream_parameter" VALUES(784,16); +INSERT INTO "stream_parameter" VALUES(784,863); +INSERT INTO "stream_parameter" VALUES(784,8100); +INSERT INTO "stream_parameter" VALUES(571,2636); +INSERT INTO "stream_parameter" VALUES(414,2636); +INSERT INTO "stream_parameter" VALUES(416,8118); +INSERT INTO "stream_parameter" VALUES(429,2636); +INSERT INTO "stream_parameter" VALUES(779,7); +INSERT INTO "stream_parameter" VALUES(779,10); +INSERT INTO "stream_parameter" VALUES(779,11); +INSERT INTO "stream_parameter" VALUES(779,12); +INSERT INTO "stream_parameter" VALUES(779,16); +INSERT INTO "stream_parameter" VALUES(779,198); +INSERT INTO "stream_parameter" VALUES(779,312); +INSERT INTO "stream_parameter" VALUES(779,863); +INSERT INTO "stream_parameter" VALUES(779,8119); +INSERT INTO "stream_parameter" VALUES(779,8120); +INSERT INTO "stream_parameter" VALUES(779,8121); +INSERT INTO "stream_parameter" VALUES(779,8122); +INSERT INTO "stream_parameter" VALUES(420,8118); +INSERT INTO "stream_parameter" VALUES(421,8118); +INSERT INTO "stream_parameter" VALUES(422,8118); +INSERT INTO "stream_parameter" VALUES(423,8118); +INSERT INTO "stream_parameter" VALUES(428,2636); +INSERT INTO "stream_parameter" VALUES(522,8108); +INSERT INTO "stream_parameter" VALUES(523,8108); +INSERT INTO "stream_parameter" VALUES(385,8118); +INSERT INTO "stream_parameter" VALUES(312,2636); +INSERT INTO "stream_parameter" VALUES(788,7); +INSERT INTO "stream_parameter" VALUES(788,10); +INSERT INTO "stream_parameter" VALUES(788,11); +INSERT INTO "stream_parameter" VALUES(788,12); +INSERT INTO "stream_parameter" VALUES(788,16); +INSERT INTO "stream_parameter" VALUES(788,436); +INSERT INTO "stream_parameter" VALUES(788,562); +INSERT INTO "stream_parameter" VALUES(788,567); +INSERT INTO "stream_parameter" VALUES(788,863); +INSERT INTO "stream_parameter" VALUES(788,8175); +INSERT INTO "stream_parameter" VALUES(788,8176); +INSERT INTO "stream_parameter" VALUES(788,8177); +INSERT INTO "stream_parameter" VALUES(788,8178); +INSERT INTO "stream_parameter" VALUES(788,8179); +INSERT INTO "stream_parameter" VALUES(788,8182); +INSERT INTO "stream_parameter" VALUES(788,8183); +INSERT INTO "stream_parameter" VALUES(788,8184); +INSERT INTO "stream_parameter" VALUES(788,8185); +INSERT INTO "stream_parameter" VALUES(788,8186); +INSERT INTO "stream_parameter" VALUES(788,8187); +INSERT INTO "stream_parameter" VALUES(788,8188); +INSERT INTO "stream_parameter" VALUES(788,8189); +INSERT INTO "stream_parameter" VALUES(788,8190); +INSERT INTO "stream_parameter" VALUES(783,1); +INSERT INTO "stream_parameter" VALUES(783,2); +INSERT INTO "stream_parameter" VALUES(783,5); +INSERT INTO "stream_parameter" VALUES(783,6); +INSERT INTO "stream_parameter" VALUES(783,7); +INSERT INTO "stream_parameter" VALUES(783,10); +INSERT INTO "stream_parameter" VALUES(783,11); +INSERT INTO "stream_parameter" VALUES(783,12); +INSERT INTO "stream_parameter" VALUES(783,13); +INSERT INTO "stream_parameter" VALUES(783,16); +INSERT INTO "stream_parameter" VALUES(783,863); +INSERT INTO "stream_parameter" VALUES(783,8100); +INSERT INTO "stream_parameter" VALUES(330,8109); +INSERT INTO "stream_parameter" VALUES(330,8110); +INSERT INTO "stream_parameter" VALUES(384,8118); +INSERT INTO "stream_parameter" VALUES(417,8118); +INSERT INTO "stream_parameter" VALUES(570,2636); +INSERT INTO "stream_parameter" VALUES(778,1056); +INSERT INTO "stream_parameter" VALUES(778,1057); +INSERT INTO "stream_parameter" VALUES(781,7); +INSERT INTO "stream_parameter" VALUES(781,10); +INSERT INTO "stream_parameter" VALUES(781,11); +INSERT INTO "stream_parameter" VALUES(781,12); +INSERT INTO "stream_parameter" VALUES(781,16); +INSERT INTO "stream_parameter" VALUES(781,1138); +INSERT INTO "stream_parameter" VALUES(781,1139); +INSERT INTO "stream_parameter" VALUES(781,8136); +INSERT INTO "stream_parameter" VALUES(152,2636); +INSERT INTO "stream_parameter" VALUES(786,7); +INSERT INTO "stream_parameter" VALUES(786,10); +INSERT INTO "stream_parameter" VALUES(786,11); +INSERT INTO "stream_parameter" VALUES(786,12); +INSERT INTO "stream_parameter" VALUES(786,14); +INSERT INTO "stream_parameter" VALUES(786,16); +INSERT INTO "stream_parameter" VALUES(786,863); +INSERT INTO "stream_parameter" VALUES(786,940); +INSERT INTO "stream_parameter" VALUES(786,942); +INSERT INTO "stream_parameter" VALUES(785,7); +INSERT INTO "stream_parameter" VALUES(785,10); +INSERT INTO "stream_parameter" VALUES(785,11); +INSERT INTO "stream_parameter" VALUES(785,12); +INSERT INTO "stream_parameter" VALUES(785,14); +INSERT INTO "stream_parameter" VALUES(785,16); +INSERT INTO "stream_parameter" VALUES(785,863); +INSERT INTO "stream_parameter" VALUES(785,940); +INSERT INTO "stream_parameter" VALUES(785,942); +INSERT INTO "stream_parameter" VALUES(780,4); +INSERT INTO "stream_parameter" VALUES(780,7); +INSERT INTO "stream_parameter" VALUES(780,10); +INSERT INTO "stream_parameter" VALUES(780,11); +INSERT INTO "stream_parameter" VALUES(780,12); +INSERT INTO "stream_parameter" VALUES(780,16); +INSERT INTO "stream_parameter" VALUES(780,3057); +INSERT INTO "stream_parameter" VALUES(780,8123); +INSERT INTO "stream_parameter" VALUES(780,8124); +INSERT INTO "stream_parameter" VALUES(780,8125); +INSERT INTO "stream_parameter" VALUES(780,8126); +INSERT INTO "stream_parameter" VALUES(780,8127); +INSERT INTO "stream_parameter" VALUES(780,8128); +INSERT INTO "stream_parameter" VALUES(780,8129); +INSERT INTO "stream_parameter" VALUES(780,8130); +INSERT INTO "stream_parameter" VALUES(780,8131); +INSERT INTO "stream_parameter" VALUES(780,8132); +INSERT INTO "stream_parameter" VALUES(780,8133); +INSERT INTO "stream_parameter" VALUES(780,8134); +INSERT INTO "stream_parameter" VALUES(780,8135); +INSERT INTO "stream_parameter" VALUES(769,8113); +INSERT INTO "stream_parameter" VALUES(769,8114); +INSERT INTO "stream_parameter" VALUES(769,8115); +INSERT INTO "stream_parameter" VALUES(769,8116); +INSERT INTO "stream_parameter" VALUES(782,7); +INSERT INTO "stream_parameter" VALUES(782,10); +INSERT INTO "stream_parameter" VALUES(782,11); +INSERT INTO "stream_parameter" VALUES(782,12); +INSERT INTO "stream_parameter" VALUES(782,16); +INSERT INTO "stream_parameter" VALUES(782,8137); +INSERT INTO "stream_parameter" VALUES(782,8138); +INSERT INTO "stream_parameter" VALUES(782,8139); +INSERT INTO "stream_parameter" VALUES(782,8140); +INSERT INTO "stream_parameter" VALUES(782,8141); +INSERT INTO "stream_parameter" VALUES(782,8142); +INSERT INTO "stream_parameter" VALUES(782,8143); +INSERT INTO "stream_parameter" VALUES(782,8144); +INSERT INTO "stream_parameter" VALUES(782,8145); +INSERT INTO "stream_parameter" VALUES(782,8146); +INSERT INTO "stream_parameter" VALUES(782,8147); +INSERT INTO "stream_parameter" VALUES(782,8148); +INSERT INTO "stream_parameter" VALUES(782,8149); +INSERT INTO "stream_parameter" VALUES(782,8150); +INSERT INTO "stream_parameter" VALUES(782,8151); +INSERT INTO "stream_parameter" VALUES(782,8152); +INSERT INTO "stream_parameter" VALUES(782,8153); +INSERT INTO "stream_parameter" VALUES(782,8154); +INSERT INTO "stream_parameter" VALUES(782,8155); +INSERT INTO "stream_parameter" VALUES(782,8156); +INSERT INTO "stream_parameter" VALUES(782,8157); +INSERT INTO "stream_parameter" VALUES(782,8158); +INSERT INTO "stream_parameter" VALUES(782,8159); +INSERT INTO "stream_parameter" VALUES(782,8160); +INSERT INTO "stream_parameter" VALUES(782,8161); +INSERT INTO "stream_parameter" VALUES(782,8162); +INSERT INTO "stream_parameter" VALUES(789,7); +INSERT INTO "stream_parameter" VALUES(789,10); +INSERT INTO "stream_parameter" VALUES(789,11); +INSERT INTO "stream_parameter" VALUES(789,12); +INSERT INTO "stream_parameter" VALUES(789,16); +INSERT INTO "stream_parameter" VALUES(789,312); +INSERT INTO "stream_parameter" VALUES(789,475); +INSERT INTO "stream_parameter" VALUES(789,497); +INSERT INTO "stream_parameter" VALUES(789,621); +INSERT INTO "stream_parameter" VALUES(789,863); +INSERT INTO "stream_parameter" VALUES(789,8180); +INSERT INTO "stream_parameter" VALUES(789,8181); CREATE TABLE stream_type ( id INTEGER NOT NULL, value VARCHAR(250) NOT NULL, @@ -19373,6 +19672,33 @@ INSERT INTO "unit" VALUES(222,'µmol/L'); INSERT INTO "unit" VALUES(223,'µmol/kg'); INSERT INTO "unit" VALUES(224,'µrad'); INSERT INTO "unit" VALUES(225,'ºC'); +INSERT INTO "unit" VALUES(226,'0.001 degrees_Celsius'); +INSERT INTO "unit" VALUES(227,'1E-03'); +INSERT INTO "unit" VALUES(228,'A h'); +INSERT INTO "unit" VALUES(229,'cHz'); +INSERT INTO "unit" VALUES(230,'cdegrees_Celsius'); +INSERT INTO "unit" VALUES(231,'degrees_Celcius'); +INSERT INTO "unit" VALUES(232,'degrees_Celsius'); +INSERT INTO "unit" VALUES(233,'degrees_east'); +INSERT INTO "unit" VALUES(234,'degrees_north'); +INSERT INTO "unit" VALUES(235,'m^2 Hz-1'); +INSERT INTO "unit" VALUES(236,'min syringe-1'); +INSERT INTO "unit" VALUES(237,'mm^2 Hz-1'); +INSERT INTO "unit" VALUES(238,'ntu'); +INSERT INTO "unit" VALUES(239,'percentrelative'); +INSERT INTO "unit" VALUES(240,'uL L-1'); +INSERT INTO "unit" VALUES(241,'uW cm-2 nm-1'); +INSERT INTO "unit" VALUES(242,'uatm'); +INSERT INTO "unit" VALUES(243,'ug L-1'); +INSERT INTO "unit" VALUES(244,'um'); +INSERT INTO "unit" VALUES(245,'umol'); +INSERT INTO "unit" VALUES(246,'umol L-1'); +INSERT INTO "unit" VALUES(247,'umol kg-1'); +INSERT INTO "unit" VALUES(248,'umol photons m-2 s-1'); +INSERT INTO "unit" VALUES(249,'umol photons m-2 s-1 count-1'); +INSERT INTO "unit" VALUES(250,'umol/L'); +INSERT INTO "unit" VALUES(251,'umol/kg'); +INSERT INTO "unit" VALUES(252,'urad'); CREATE TABLE value_encoding ( id INTEGER NOT NULL, value VARCHAR(20) NOT NULL,