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plot_geometries.py
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plot_geometries.py
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# -*- coding: utf-8 -*-
"""
Created on Fri Sep 30 08:29:51 2016
@author: Eric Schmidt
"""
'''
See README.md for information.
'''
import numpy as np
def plot(geo_pack,steps,ax):
lw = 0.2
# Unpack 'geo_pack'
cal_theta_start = geo_pack[1]
cal_rad = geo_pack[2]
cal_box_theta_end = geo_pack[4]
so_rad = geo_pack[6]
so_theta_start = geo_pack[8]
so_theta_end = geo_pack[9]
sp_rad = geo_pack[10]
sp_theta_start = geo_pack[12]
sp_theta_end = geo_pack[13]
sqel_rad = geo_pack[15]
sqel_theta = geo_pack[16]
dqel_rad = geo_pack[17]
dqel_theta = geo_pack[18]
R_i = geo_pack[20]
cal_det_theta_end = geo_pack[27]
# Add inner radius
xt = np.linspace(-R_i,R_i,steps) # (m)
ax.plot(xt,np.sqrt((R_i)**2 - xt**2),'-.r',lw=lw)
ax.plot(xt,-np.sqrt(R_i**2 - xt**2),'-.r',lw=lw)
# Add support plates
count = len(sp_theta_start)
k = 0
while k < count:
ax.plot(
[sp_rad[0]*np.cos(sp_theta_start[k]),
sp_rad[0]*np.cos(sp_theta_end[k])],
[sp_rad[0]*np.sin(sp_theta_start[k]),
sp_rad[0]*np.sin(sp_theta_end[k])],
'k',lw=lw
)
ax.plot(
[sp_rad[1]*np.cos(sp_theta_start[k]),
sp_rad[1]*np.cos(sp_theta_end[k])],
[sp_rad[1]*np.sin(sp_theta_start[k]),
sp_rad[1]*np.sin(sp_theta_end[k])],
'k',lw=lw
)
k = k + 1
# Add HV Standoff
count = len(so_theta_start)
k = 0
while k < count:
ax.plot(
[so_rad[0]*np.cos(so_theta_start[k]),
so_rad[1]*np.cos(so_theta_start[k])],
[so_rad[0]*np.sin(so_theta_start[k]),
so_rad[1]*np.sin(so_theta_start[k])],
'k',lw=lw
)
ax.plot(
[so_rad[0]*np.cos(so_theta_end[k]),
so_rad[1]*np.cos(so_theta_end[k])],
[so_rad[0]*np.sin(so_theta_end[k]),
so_rad[1]*np.sin(so_theta_end[k])],
'k',lw=lw
)
k = k + 1
# Add single-quad electrodes
count = len(sqel_theta)
k = 0
M = 100
# Plot those for y > 0
while k < count/2:
xt = np.linspace(
sqel_rad[0]*np.cos(sqel_theta[k,0]),
sqel_rad[0]*np.cos(sqel_theta[k,1]),
M
)
ax.plot(xt,np.sqrt(sqel_rad[0]**2 - xt**2),'k',lw=lw)
xt = np.linspace(
sqel_rad[1]*np.cos(sqel_theta[k,0]),
sqel_rad[1]*np.cos(sqel_theta[k,1]),
M
)
ax.plot(xt,np.sqrt(sqel_rad[1]**2 - xt**2),'k',lw=lw)
k = k + 1
# Plot those for y < 0
while k < count:
xt = np.linspace(
sqel_rad[0]*np.cos(sqel_theta[k,0]),
sqel_rad[0]*np.cos(sqel_theta[k,1]),
M
)
ax.plot(xt,-np.sqrt(sqel_rad[0]**2 - xt**2),'k',lw=lw)
xt = np.linspace(
sqel_rad[1]*np.cos(sqel_theta[k,0]),
sqel_rad[1]*np.cos(sqel_theta[k,1]),
M
)
ax.plot(xt,-np.sqrt(sqel_rad[1]**2 - xt**2),'k',lw=lw)
k = k + 1
# Add double-quad electrodes
count = len(dqel_theta)
k = 0
M = 100
# Plot those for y > 0
while k < count/2:
xt = np.linspace(
dqel_rad[0]*np.cos(dqel_theta[k,0]),
dqel_rad[0]*np.cos(dqel_theta[k,1]),
M
)
ax.plot(xt,np.sqrt(float(dqel_rad[0])**2 - xt**2),'k',lw=lw)
xt = np.linspace(
dqel_rad[1]*np.cos(dqel_theta[k,0]),
dqel_rad[1]*np.cos(dqel_theta[k,1]),
M
)
ax.plot(xt,np.sqrt(dqel_rad[1]**2 - xt**2),'k',lw=lw)
k = k + 1
# Plot those for y < 0
while k < count:
xt = np.linspace(
dqel_rad[0]*np.cos(dqel_theta[k,0]),
dqel_rad[0]*np.cos(dqel_theta[k,1]),
M
)
ax.plot(xt,-np.sqrt(dqel_rad[0]**2 - xt**2),'k',lw=lw)
xt = np.linspace(
dqel_rad[1]*np.cos(dqel_theta[k,0]),
dqel_rad[1]*np.cos(dqel_theta[k,1]),
M
)
ax.plot(xt,-np.sqrt(dqel_rad[1]**2 - xt**2),'k',lw=lw)
k = k + 1
# Add calorimeters
count = len(cal_theta_start)
k = 0
while k < count:
ax.plot(
[cal_rad[0]*np.cos(cal_theta_start[k]),
cal_rad[1]*np.cos(cal_theta_start[k])],
[cal_rad[0]*np.sin(cal_theta_start[k]),
cal_rad[1]*np.sin(cal_theta_start[k])],
'k-',lw=lw
)
ax.plot(
[cal_rad[0]*np.cos(cal_det_theta_end[k]),
cal_rad[1]*np.cos(cal_det_theta_end[k])],
[cal_rad[0]*np.sin(cal_det_theta_end[k]),
cal_rad[1]*np.sin(cal_det_theta_end[k])],
'k-',lw=lw
)
ax.plot(
[cal_rad[0]*np.cos(cal_box_theta_end[k]),
cal_rad[1]*np.cos(cal_box_theta_end[k])],
[cal_rad[0]*np.sin(cal_box_theta_end[k]),
cal_rad[1]*np.sin(cal_box_theta_end[k])],
'k-',lw=lw
)
k = k + 1