[weather.metoffice] v4.0.0

weather.metoffice/addon.xml

@@ -1,5 +1,5 @@
 <?xml version="1.0" encoding="UTF-8"?>
-<addon id="weather.metoffice" version="3.0.1" name="Met Office" provider-name="powlo">
+<addon id="weather.metoffice" version="4.0.0" name="Met Office" provider-name="powlo">
   <requires>
     <import addon="xbmc.python" version="3.0.0" />
     <import addon="script.module.pytz" version="2014.2" />

weather.metoffice/changelog.txt

@@ -20,4 +20,9 @@ v2.0.1
 - added user agent to requests
 
 v3.0.0
-- updated for Matrix
+- updated for Matrix
+
+v4.0.0
+- Cleaned up memory leaks
+- Removed unused imaging code.
+- Removed default API key and nudged user to get their own.

weather.metoffice/resources/settings.xml

@@ -1,21 +1,25 @@
 <?xml version="1.0" encoding="utf-8" standalone="yes"?>
 <settings>
   <category label="Location Settings">
-    <setting id="ObservationLocation" label="32000" type="action" action="RunScript($ID, ObservationLocation)" default="Heathrow" />
+    <setting id="ObservationLocation" label="32000" type="action"
+      action="RunScript($ID, ObservationLocation)" default="Heathrow" />
     <setting id="ObservationLocationID" type="text" visible="false" default="3772" />
-    <setting id="ForecastLocation" label="32001" type="action" action="RunScript($ID, ForecastLocation)" default="London" />
+    <setting id="ForecastLocation" label="32001" type="action"
+      action="RunScript($ID, ForecastLocation)" default="London" />
     <setting id="ForecastLocationID" type="text" visible="false" default="352409" />
     <setting id="ForecastLocationLatitude" type="text" visible="false" default="51.5081" />
     <setting id="ForecastLocationLongitude" type="text" visible="false" default="-0.1248" />
-    <setting id="RegionalLocation" label="32002" type="action" action="RunScript($ID, RegionalLocation)" default="London and Southeast England" />
+    <setting id="RegionalLocation" label="32002" type="action"
+      action="RunScript($ID, RegionalLocation)" default="London and Southeast England" />
     <setting id="RegionalLocationID" type="text" visible="false" default="514" />
     <setting id="RegionalLocationLatitude" type="text" visible="false" default="51.479" />
     <setting id="RegionalLocationLongitude" type="text" visible="false" default="-0.449" />
   </category>
   <category label="Configuration">
     <setting id="ApiKey" label="32003" type="text" default="a5408080-80af-44ea-b3a6-b86d320dc706" />
     <setting id="GeoLocation" label="32004" type="bool" default="true" />
-    <setting id="GeoIPProvider" label="32005" type="enum" values="www.ip-api.com|www.freegeoip.net|www.geoiplookup.net" enable="eq(-1,true)" default="0" />
+    <setting id="GeoIPProvider" label="32005" type="enum"
+      values="www.ip-api.com|www.freegeoip.net|www.geoiplookup.net" enable="eq(-1,true)" default="0" />
     <setting id="EraseCache" label="32006" type="bool" default="false" />
   </category>
 </settings>

weather.metoffice/src/default.py

@@ -14,52 +14,76 @@
 # *  along with XBMC; see the file COPYING. If not, write to
 # *  the Free Software Foundation, 675 Mass Ave, Cambridge, MA 02139, USA.
 # *  http://www.gnu.org/copyleft/gpl.html
-from metoffice.utilities import gettext as _
-from metoffice.constants import WINDOW, ADDON, API_KEY, ADDON_DATA_PATH, ADDON_BANNER_PATH
-from metoffice import urlcache, properties, utilities
 import socket
 import sys
+from urllib.error import HTTPError
+
+import xbmc
 
 import setlocation
+from metoffice import properties, urlcache, utilities
+from metoffice.constants import (
+    ADDON_BANNER_PATH,
+    ADDON_DATA_PATH,
+    API_KEY,
+    addon,
+    window,
+)
+from metoffice.utilities import gettext as _
 
 socket.setdefaulttimeout(20)
 
 
-@utilities.failgracefully
 def main():
-    if ADDON.getSetting('EraseCache') == 'true':
+    if addon().getSetting("EraseCache") == "true":
         try:
             urlcache.URLCache(ADDON_DATA_PATH).erase()
         finally:
-            ADDON.setSetting('EraseCache', 'false')
+            addon().setSetting("EraseCache", "false")
 
     if not API_KEY:
-        raise Exception(_("No API Key."), _("Enter your Met Office API Key under settings."))
+        raise Exception(
+            _("No API Key."), _("Enter your Met Office API Key under settings.")
+        )
 
-    if sys.argv[1] in ['ObservationLocation', 'ForecastLocation', 'RegionalLocation']:
+    if sys.argv[1] in ["ObservationLocation", "ForecastLocation", "RegionalLocation"]:
         setlocation.main(sys.argv[1])
 
-    properties.observation()
-    properties.daily()
-    properties.threehourly()
-    properties.sunrisesunset()
+    try:
+        properties.observation()
+        properties.daily()
+        properties.threehourly()
+        properties.sunrisesunset()
+    except HTTPError:
+        utilities.log(
+            (
+                "Error fetching data.\n"
+                "Ensure the API key in addon configuration is correct and try again.\n"
+                "You can get an API key by creating an account at\n"
+                "https://register.metoffice.gov.uk/WaveRegistrationClient/public/register.do?service=datapoint"
+            ),
+            xbmc.LOGERROR,
+        )
+        raise
 
-    WINDOW.setProperty('WeatherProvider', ADDON.getAddonInfo('name'))
-    WINDOW.setProperty('WeatherProviderLogo', ADDON_BANNER_PATH)
-    WINDOW.setProperty('ObservationLocation', ADDON.getSetting('ObservationLocation'))
-    WINDOW.setProperty('Current.Location', ADDON.getSetting('ForecastLocation'))
-    WINDOW.setProperty('ForecastLocation', ADDON.getSetting('ForecastLocation'))
-    WINDOW.setProperty('RegionalLocation', ADDON.getSetting('RegionalLocation'))
-    WINDOW.setProperty('Location1', ADDON.getSetting('ForecastLocation'))
-    WINDOW.setProperty('Locations', '1')
+    window().setProperty("WeatherProvider", addon().getAddonInfo("name"))
+    window().setProperty("WeatherProviderLogo", ADDON_BANNER_PATH)
+    window().setProperty(
+        "ObservationLocation", addon().getSetting("ObservationLocation")
+    )
+    window().setProperty("Current.Location", addon().getSetting("ForecastLocation"))
+    window().setProperty("ForecastLocation", addon().getSetting("ForecastLocation"))
+    window().setProperty("RegionalLocation", addon().getSetting("RegionalLocation"))
+    window().setProperty("Location1", addon().getSetting("ForecastLocation"))
+    window().setProperty("Locations", "1")
 
     # Explicitly set unused flags to false, so there are no unusual side
     # effects/residual data when moving from another weather provider.
-    WINDOW.setProperty('36Hour.IsFetched', '')
-    WINDOW.setProperty('Weekend.IsFetched', '')
-    WINDOW.setProperty('Map.IsFetched', '')
-    WINDOW.setProperty('Weather.CurrentView', '')
+    window().setProperty("36Hour.IsFetched", "")
+    window().setProperty("Weekend.IsFetched", "")
+    window().setProperty("Map.IsFetched", "")
+    window().setProperty("Weather.CurrentView", "")
 
 
-if __name__ == '__main__':
+if __name__ == "__main__":
     main()

weather.metoffice/src/metoffice/astronomy.py

@@ -2,9 +2,11 @@
 Sunrise and Sunset calculations courtesy of Michel Anders
 http://michelanders.blogspot.co.uk/2010/12/calulating-sunrise-and-sunset-in-python.html
 """
-from math import cos, sin, acos, asin, tan
-from math import degrees as deg, radians as rad
 from datetime import datetime, time
+from math import acos, asin, cos
+from math import degrees as deg
+from math import radians as rad
+from math import sin, tan
 
 from .constants import TZ
 
@@ -63,11 +65,11 @@ def __timefromdecimalday(day):
 
         day is a decimal day between 0.0 and 1.0, e.g. noon = 0.5
         """
-        hours = 24.0*day
+        hours = 24.0 * day
         h = int(hours)
-        minutes = (hours-h)*60
+        minutes = (hours - h) * 60
         m = int(minutes)
-        seconds = (minutes-m)*60
+        seconds = (minutes - m) * 60
         s = int(seconds)
         return time(hour=h, minute=m, second=s)
 
@@ -81,14 +83,14 @@ def __preptime(self, when):
         # OpenOffice spreadsheets with days numbered from
         # 1/1/1900. The difference are those numbers taken for
         # 18/12/2010
-        self.day = when.toordinal()-(734124-40529)
+        self.day = when.toordinal() - (734124 - 40529)
         t = when.time()
-        self.time = (t.hour + t.minute/60.0 + t.second/3600.0)/24.0
+        self.time = (t.hour + t.minute / 60.0 + t.second / 3600.0) / 24.0
 
         self.timezone = 0
         offset = when.utcoffset()
         if offset is not None:
-            self.timezone = offset.seconds/3600.0
+            self.timezone = offset.seconds / 3600.0
 
     def __calc(self):
         """
@@ -99,37 +101,56 @@ def __calc(self):
         sunrise_t, sunset_t and solarnoon_t
         """
         timezone = self.timezone  # in hours, east is positive
-        longitude = self.lng     # in decimal degrees, east is positive
-        latitude = self.lat      # in decimal degrees, north is positive
+        longitude = self.lng  # in decimal degrees, east is positive
+        latitude = self.lat  # in decimal degrees, north is positive
 
         time = self.time  # percentage past midnight, i.e. noon  is 0.5
-        day = self.day     # daynumber 1=1/1/1900
-
-        jday = day+2415018.5+time-timezone/24  # Julian day
-        jcent = (jday-2451545)/36525    # Julian century
-
-        manom = 357.52911+jcent*(35999.05029-0.0001537*jcent)
-        mlong = 280.46646+jcent*(36000.76983+jcent*0.0003032) % 360
-        eccent = 0.016708634-jcent*(0.000042037+0.0001537*jcent)
-        mobliq = 23+(26+((21.448-jcent*(46.815+jcent*(0.00059-jcent*0.001813))))/60)/60
-        obliq = mobliq+0.00256*cos(rad(125.04-1934.136*jcent))
-        vary = tan(rad(obliq/2))*tan(rad(obliq/2))
-        seqcent = sin(rad(manom))*(1.914602-jcent*(0.004817+0.000014*jcent)) +\
-            sin(rad(2*manom))*(0.019993-0.000101*jcent)+sin(rad(3*manom))*0.000289
-        struelong = mlong+seqcent
-        sapplong = struelong-0.00569-0.00478*sin(rad(125.04-1934.136*jcent))
-        declination = deg(asin(sin(rad(obliq))*sin(rad(sapplong))))
-
-        eqtime = 4*deg(vary*sin(2*rad(mlong))-2*eccent*sin(rad(manom)) +
-                       4*eccent*vary*sin(rad(manom))*cos(2*rad(mlong)) -
-                       0.5*vary*vary*sin(4*rad(mlong))-1.25*eccent*eccent*sin(2*rad(manom)))
-
-        hourangle = deg(acos(cos(rad(90.833))/(cos(rad(latitude)) *
-                                               cos(rad(declination)))-tan(rad(latitude))*tan(rad(declination))))
-
-        self.solarnoon_t = (720-4*longitude-eqtime+timezone*60)/1440
-        self.sunrise_t = self.solarnoon_t-hourangle*4/1440
-        self.sunset_t = self.solarnoon_t+hourangle*4/1440
+        day = self.day  # daynumber 1=1/1/1900
+
+        jday = day + 2415018.5 + time - timezone / 24  # Julian day
+        jcent = (jday - 2451545) / 36525  # Julian century
+
+        manom = 357.52911 + jcent * (35999.05029 - 0.0001537 * jcent)
+        mlong = 280.46646 + jcent * (36000.76983 + jcent * 0.0003032) % 360
+        eccent = 0.016708634 - jcent * (0.000042037 + 0.0001537 * jcent)
+        mobliq = (
+            23
+            + (
+                26
+                + ((21.448 - jcent * (46.815 + jcent * (0.00059 - jcent * 0.001813))))
+                / 60
+            )
+            / 60
+        )
+        obliq = mobliq + 0.00256 * cos(rad(125.04 - 1934.136 * jcent))
+        vary = tan(rad(obliq / 2)) * tan(rad(obliq / 2))
+        seqcent = (
+            sin(rad(manom)) * (1.914602 - jcent * (0.004817 + 0.000014 * jcent))
+            + sin(rad(2 * manom)) * (0.019993 - 0.000101 * jcent)
+            + sin(rad(3 * manom)) * 0.000289
+        )
+        struelong = mlong + seqcent
+        sapplong = struelong - 0.00569 - 0.00478 * sin(rad(125.04 - 1934.136 * jcent))
+        declination = deg(asin(sin(rad(obliq)) * sin(rad(sapplong))))
+
+        eqtime = 4 * deg(
+            vary * sin(2 * rad(mlong))
+            - 2 * eccent * sin(rad(manom))
+            + 4 * eccent * vary * sin(rad(manom)) * cos(2 * rad(mlong))
+            - 0.5 * vary * vary * sin(4 * rad(mlong))
+            - 1.25 * eccent * eccent * sin(2 * rad(manom))
+        )
+
+        hourangle = deg(
+            acos(
+                cos(rad(90.833)) / (cos(rad(latitude)) * cos(rad(declination)))
+                - tan(rad(latitude)) * tan(rad(declination))
+            )
+        )
+
+        self.solarnoon_t = (720 - 4 * longitude - eqtime + timezone * 60) / 1440
+        self.sunrise_t = self.solarnoon_t - hourangle * 4 / 1440
+        self.sunset_t = self.solarnoon_t + hourangle * 4 / 1440
 
 
 """