/
discostar.py
132 lines (91 loc) · 2.81 KB
/
discostar.py
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#from __future__ import print_function
import numpy as np
import subprocess
import datetime
import matplotlib.pyplot as plt
direct = "./" # directory for LC`s
logs = "LOGS"
with open("parameters", 'r') as f:
name, value = np.loadtxt(f, dtype=('str'), usecols=(0,1), unpack=True)
p = dict(zip(name, value))
def boolifier(p, p_name):
try:
if p[p_name] in ['true', 'True', 'TRUE', 'T', '1']:
p[p_name] = '1'
elif p[p_name] in ['false', 'False', 'FALSE', 'F', '0']:
p[p_name] = '0'
else:
raise ValueError(p[p_name])
except ValueError:
raise
boolifier(p, 'do_lc')
boolifier(p, 'do_corona')
# filter parameters check
# try:
# if (p['filter'] in ['B', 'V', 'WASP', 'vis']):
# pass
# else:
# float(p['filter'])
# except ValueError:
# print("filter must be either float number or one of the following: 'B', 'V', 'WASP', 'vis'")
# raise
# convert degrees to radians
p['inclination'] = str(float(p['inclination']) * (np.pi/180.0))
p['NS_phi'] = str(float(p['NS_phi']) * (np.pi/180.0))
p['NS_kappa'] = str(float(p['NS_kappa']) * (np.pi/180.0))
p['NS_theta'] = str(float(p['NS_theta']) * (np.pi/180.0))
p['theta_out'] = str(float(p['theta_out']) * (np.pi/180.0))
p['phi_out'] = str(float(p['phi_out']) * (np.pi/180.0))
p['theta_in'] = str(float(p['theta_in']) * (np.pi/180.0))
p['phi_in'] = str(float(p['phi_in']) * (np.pi/180.0))
output_filename = "TEST.data"
arg = ('./disco' + ' ' +
p['q'] + ' ' +
p['mu'] + ' ' +
p['beta'] + ' ' +
p['u'] + ' ' +
p['X_albedo'] + ' ' +
p['T_star_polar'] + ' ' +
p['a'] + ' ' +
p['inclination'] + ' ' +
p['Lx'] + ' ' +
p['NS_phi'] + ' ' +
p['NS_kappa'] + ' ' +
p['NS_theta'] + ' ' +
p['h_out'] + ' ' +
p['r_out'] + ' ' +
p['r_in'] + ' ' +
p['gamma'] + ' ' +
p['theta_out'] + ' ' +
p['phi_out'] + ' ' +
p['theta_in'] + ' ' +
p['phi_in'] + ' ' +
p['do_lc'] + ' ' +
p['N_lc'] + ' ' +
p['N_theta'] + ' ' +
p['N_r'] + ' ' +
p['OMP_threads'] + ' ' +
p['do_corona'] + ' ' +
p['N_corona'] + ' ' +
p['h_corona'] + ' ' +
p['rs_corona'] + ' ' +
p['filter']
)
print(arg)
f = open('./'+direct+'/'+output_filename, "w")
f_logs = open('./'+logs, "a")
subprocess.call(arg, stdout=f, shell=True)
#subprocess.call(arg, shell=True)
f_logs.write(output_filename+' '+arg+'\n')
f.close
f_logs.close
print("done")
print(output_filename)
with open("TEST.data", "r") as f:
phase, flux = np.loadtxt(f, dtype=('float'), usecols=(0,1), unpack=True)
s = len(flux)
#phase = np.roll(phase, s//2)
flux = np.roll(flux, s//2)
plt.plot(phase, flux)
plt.grid()
plt.show()