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Commit e70e186e authored by jonas's avatar jonas
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pmilos init

parent ab211a89
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.gitignore
View file @ e70e186e
......@@ -15,4 +15,5 @@ dummy*.txt
_RTE.npz
*.npz
.env
run.py
\ No newline at end of file
run.py
P-MILOS/*
\ No newline at end of file
README.md
View file @ e70e186e
......@@ -64,7 +64,7 @@ OR : use `download_files.py` to download images from the attic repository: https
1. Compile milos:
```bash
make clean
make clear
make
```
......
hrt_pipe.py
View file @ e70e186e
......@@ -76,7 +76,7 @@ def demod_hrt(data,pmp_temp):
def phihrt_pipe(data_f, dark_f = '', flat_f = '', scale_data = True, bit_flat = True, norm_f = True, clean_f = False,
sigma = 59, flat_states = 24, prefilter_f = None,flat_c = True, dark_c = True, fs_c = True,
demod = True, norm_stokes = True, out_dir = './', out_demod_file = False, out_demod_filename = None,
ItoQUV = False, ctalk_params = None, rte = False, out_rte_filename = ''):
ItoQUV = False, ctalk_params = None, rte = False, out_rte_filename = None, pmilos = True):
'''
PHI-HRT data reduction pipeline
......@@ -96,7 +96,7 @@ def phihrt_pipe(data_f, dark_f = '', flat_f = '', scale_data = True, bit_flat =
13. calibration
a) ghost correction - not implemented yet
b) cross talk correction
14. rte inversion with cmilos (CE, RTE or CE+RTE)
14. rte inversion with pmilos/cmilos (CE, RTE or CE+RTE)
a) output rte data products to fits file
Parameters
......@@ -148,6 +148,8 @@ def phihrt_pipe(data_f, dark_f = '', flat_f = '', scale_data = True, bit_flat =
invert using cmilos, options: 'RTE' for Milne Eddington Inversion, 'CE' for Classical Estimates, 'CE+RTE' for combined
out_rte_filename: str, DEFAULT = ''
if '', takes last 10 characters of input scan filename (assumes its a DID), change if want other name
pmilos: bool, DEFAULT = True
if True, will execute the RTE inversion using the parallel version of the CMILOS code on 16 processors
Returns
-------
......@@ -874,162 +876,17 @@ def phihrt_pipe(data_f, dark_f = '', flat_f = '', scale_data = True, bit_flat =
if rte == 'RTE' or rte == 'CE' or rte == 'CE+RTE':
print(" ")
printc('-->>>>>>> RUNNING CMILOS ',color=bcolors.OKGREEN)
try:
CMILOS_LOC = os.path.realpath(__file__)
CMILOS_LOC = CMILOS_LOC[:-11] + 'cmilos/' #11 as hrt_pipe.py is 11 characters
if os.path.isfile(CMILOS_LOC+'milos'):
printc("Cmilos executable located at:", CMILOS_LOC,color=bcolors.WARNING)
else:
raise ValueError('Cannot find cmilos:', CMILOS_LOC)
except ValueError as err:
printc(err.args[0],color=bcolors.FAIL)
printc(err.args[1],color=bcolors.FAIL)
return
wavelength = 6173.3356
for scan in range(int(data_shape[-1])):
start_time = time.time()
if isinstance(data_f, str):
file_path = data_f
elif isinstance(data_f, list):
file_path = data_f[scan]
wave_axis = wve_axis_arr[scan]
#must invert each scan independently, as cmilos only takes in one dataset at a time
#get wave_axis from the header information of the science scans
if cpos_arr[0] == 0:
shift_w = wave_axis[3] - wavelength
elif cpos_arr[0] == 5:
shift_w = wave_axis[2] - wavelength
wave_axis = wave_axis - shift_w
print('It is assumed the wavelength array is given by the header')
#print(wave_axis,color = bcolors.WARNING)
print("Wave axis is: ", (wave_axis - wavelength)*1000.)
print('Saving data into dummy_in.txt for RTE input')
sdata = data[:,:,:,:,scan]
y,x,p,l = sdata.shape
#print(y,x,p,l)
filename = 'dummy_in.txt'
with open(filename,"w") as f:
for i in range(x):
for j in range(y):
for k in range(l):
f.write('%e %e %e %e %e \n' % (wave_axis[k],sdata[j,i,0,k],sdata[j,i,1,k],sdata[j,i,2,k],sdata[j,i,3,k])) #wv, I, Q, U, V
del sdata
printc(f' ---- >>>>> Inverting data scan number: {scan} .... ',color=bcolors.OKGREEN)
cmd = CMILOS_LOC+"./milos"
cmd = fix_path(cmd)
if rte == 'RTE':
rte_on = subprocess.call(cmd+" 6 15 0 0 dummy_in.txt > dummy_out.txt",shell=True)
if rte == 'CE':
rte_on = subprocess.call(cmd+" 6 15 2 0 dummy_in.txt > dummy_out.txt",shell=True)
if rte == 'CE+RTE':
rte_on = subprocess.call(cmd+" 6 15 1 0 dummy_in.txt > dummy_out.txt",shell=True)
#print(rte_on)
printc(' ---- >>>>> Reading results.... ',color=bcolors.OKGREEN)
del_dummy = subprocess.call("rm dummy_in.txt",shell=True)
#print(del_dummy)
res = np.loadtxt('dummy_out.txt')
npixels = res.shape[0]/12.
#print(npixels)
#print(npixels/x)
result = np.zeros((12,y*x)).astype(float)
rte_invs = np.zeros((12,y,x)).astype(float)
for i in range(y*x):
result[:,i] = res[i*12:(i+1)*12]
result = result.reshape(12,y,x)
result = np.einsum('ijk->ikj', result)
rte_invs = result
del result
rte_invs_noth = np.copy(rte_invs)
"""
From 0 to 11
Counter (PX Id)
Iterations
Strength
Inclination
Azimuth
Eta0 parameter
Doppler width
Damping
Los velocity
Constant source function
Slope source function
Minimum chisqr value
"""
noise_in_V = np.mean(data[:,:,3,cpos_arr[0],:])
low_values_flags = np.max(np.abs(data[:,:,3,:,scan]),axis=-1) < noise_in_V # Where values are low
rte_invs[2,low_values_flags] = 0
rte_invs[3,low_values_flags] = 0
rte_invs[4,low_values_flags] = 0
#np.savez_compressed(out_dir+'_RTE', rte_invs=rte_invs, rte_invs_noth=rte_invs_noth)
del_dummy = subprocess.call("rm dummy_out.txt",shell=True)
#print(del_dummy)
rte_data_products = np.zeros((6,rte_invs_noth.shape[1],rte_invs_noth.shape[1]))
if pmilos:
rte_data_products[0,:,:] = rte_invs_noth[9,:,:] + rte_invs_noth[10,:,:] #continuum
rte_data_products[1,:,:] = rte_invs_noth[2,:,:] #b mag strength
rte_data_products[2,:,:] = rte_invs_noth[3,:,:] #inclination
rte_data_products[3,:,:] = rte_invs_noth[4,:,:] #azimuth
rte_data_products[4,:,:] = rte_invs_noth[8,:,:] #vlos
rte_data_products[5,:,:] = rte_invs_noth[2,:,:]*np.cos(rte_invs_noth[3,:,:]*np.pi/180.) #blos
rte_data_products *= field_stop[np.newaxis,start_row:start_row + data_size[0],start_col:start_col + data_size[1]] #field stop, set outside to 0
if out_rte_filename == '':
filename_root = str(file_path.split('.fits')[0][-10:])
else:
filename_root = out_rte_filename
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products
hdu_list.writeto(out_dir+filename_root+'_rte_data_products.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[5,:,:]
hdu_list.writeto(out_dir+filename_root+'_blos_rte.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[4,:,:]
hdu_list.writeto(out_dir+filename_root+'_vlos_rte.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[0,:,:]
hdu_list.writeto(out_dir+filename_root+'_Icont_rte.fits', overwrite=True)
try:
pmilos(data_f, wve_axis_arr, data_shape, cpos_arr, data, rte, field_stop, start_row, start_col, out_rte_filename, out_dir)
except ValueError:
print("Running CMILOS instead!")
cmilos(data_f, wve_axis_arr, data_shape, cpos_arr, data, rte, field_stop, start_row, start_col, out_rte_filename, out_dir)
printc('--------------------------------------------------------------',bcolors.OKGREEN)
printc(f"------------- CMILOS RTE Run Time: {np.round(time.time() - start_time,3)} seconds ",bcolors.OKGREEN)
printc('--------------------------------------------------------------',bcolors.OKGREEN)
else:
cmilos(data_f, wve_axis_arr, data_shape, cpos_arr, data, rte, field_stop, start_row, start_col, out_rte_filename, out_dir)
else:
print(" ")
......
run.py
View file @ e70e186e
from hrt_pipe import phihrt_pipe
import numpy as np
sciencedata_fits_filenames = ['solo_L0_phi-hrt-ilam_20200420T142022_V202004221451C_0024160031000.fits','solo_L0_phi-hrt-ilam_20200420T142252_V202004221452C_0024160032000.fits','solo_L0_phi-hrt-ilam_20200420T142522_V202004221457C_0024160033000.fits','solo_L0_phi-hrt-ilam_20200420T142752_V202004221511C_0024160034000.fits','solo_L0_phi-hrt-ilam_20200420T143023_V202004221517C_0024160035000.fits', 'solo_L0_phi-hrt-ilam_20200420T143253_V202004221518C_0024160036000.fits','solo_L0_phi-hrt-ilam_20200420T143523_V202004221522C_0024160037000.fits', 'solo_L0_phi-hrt-ilam_20200420T143753_V202004231605C_0024160038000.fits','solo_L0_phi-hrt-ilam_20200420T144023_V202004231605C_0024160039000.fits']#'/data/slam/home/sinjan/fits_files/solo_L0_phi-hrt-ilam_20200420T141752_V202004221450C_0024160030000.fits'#solo_L1_phi-hrt-ilam_20201117T170209_V202107090920C_0051170001.fits'#solo_L1_phi-hrt-ilam_20201117T170209_V202107060746C_0051170001.fits'#['solo_L1_phi-hrt-ilam_20200528T171109_V202106111600C_0045140102.fits']
sciencedata_fits_filenames = ['solo_L0_phi-hrt-ilam_20200420T142022_V202004221451C_0024160031000.fits']#,'solo_L0_phi-hrt-ilam_20200420T142252_V202004221452C_0024160032000.fits','solo_L0_phi-hrt-ilam_20200420T142522_V202004221457C_0024160033000.fits','solo_L0_phi-hrt-ilam_20200420T142752_V202004221511C_0024160034000.fits','solo_L0_phi-hrt-ilam_20200420T143023_V202004221517C_0024160035000.fits', 'solo_L0_phi-hrt-ilam_20200420T143253_V202004221518C_0024160036000.fits','solo_L0_phi-hrt-ilam_20200420T143523_V202004221522C_0024160037000.fits', 'solo_L0_phi-hrt-ilam_20200420T143753_V202004231605C_0024160038000.fits','solo_L0_phi-hrt-ilam_20200420T144023_V202004231605C_0024160039000.fits']#'/data/slam/home/sinjan/fits_files/solo_L0_phi-hrt-ilam_20200420T141752_V202004221450C_0024160030000.fits'#solo_L1_phi-hrt-ilam_20201117T170209_V202107090920C_0051170001.fits'#solo_L1_phi-hrt-ilam_20201117T170209_V202107060746C_0051170001.fits'#['solo_L1_phi-hrt-ilam_20200528T171109_V202106111600C_0045140102.fits']
# ['solo_L0_phi-hrt-ilam_20210421T120003_V202106080929C_0144210101.fits', 'solo_L0_phi-hrt-ilam_20210424T120003_V202106141014C_0144240101.fits',
# 'solo_L0_phi-hrt-ilam_20210425T120002_V202106141020C_0144250101.fits', 'solo_L0_phi-hrt-ilam_20210426T120002_V202106162118C_0144260101.fits',
......@@ -45,12 +45,12 @@ c_talk_params[1,0] = q_int
c_talk_params[1,1] = u_int
c_talk_params[1,2] = v_int
out_names = ['0024160031000_noflat', '0024160032000_noflat', '0024160033000_noflat', '0024160034000_noflat', '0024160035000_noflat', '0024160036000_noflat', '0024160037000_noflat', '0024160038000_noflat', '0024160039000_noflat']
out_names = ['0024160031000_test_rte']#, '0024160032000_noflat', '0024160033000_noflat', '0024160034000_noflat', '0024160035000_noflat', '0024160036000_noflat', '0024160037000_noflat', '0024160038000_noflat', '0024160039000_noflat']
phihrt_pipe(sciencedata_fits_filenames, flat_f = flatfield_fits_filename, dark_f = darkfield_fits_filename, scale_data = False,
bit_flat = True, norm_f = True, clean_f = False, sigma = 59, flat_states = 24, norm_stokes = True, prefilter_f = None,
dark_c = False, flat_c = False, fs_c = True, demod = True, ctalk_params = c_talk_params, ItoQUV = False, out_demod_file = True,
out_demod_filename = out_names, out_dir = '/data/slam/home/sinjan/hrt_pipe_results/april_2020/', rte = 'False', out_rte_filename='')
dark_c = True, flat_c = True, fs_c = True, demod = True, ctalk_params = c_talk_params, ItoQUV = False, out_demod_file = True,
out_demod_filename = out_names, out_dir = '/data/slam/home/sinjan/hrt_pipe_results/april_2020/', rte = 'RTE', out_rte_filename='', pmilos = False)
"""
Input Parameters:
----------
......
utils.py
View file @ e70e186e
from astropy.io import fits
import numpy as np
import os
import time
import subprocess
class bcolors:
HEADER = '\033[95m'
......@@ -109,4 +112,311 @@ def fix_path(path,dir='forward',verbose=False):
print(path)
return path
else:
pass
\ No newline at end of file
pass
def cmilos(data_f, wve_axis_arr, data_shape, cpos_arr, data, rte, field_stop, start_row, start_col, out_rte_filename, out_dir):
print(" ")
printc('-->>>>>>> RUNNING CMILOS ',color=bcolors.OKGREEN)
try:
CMILOS_LOC = os.path.realpath(__file__)
CMILOS_LOC = CMILOS_LOC[:-8] + 'cmilos/' #-11 as hrt_pipe.py is 11 characters
if os.path.isfile(CMILOS_LOC+'milos'):
printc("Cmilos executable located at:", CMILOS_LOC,color=bcolors.WARNING)
else:
raise ValueError('Cannot find cmilos:', CMILOS_LOC)
except ValueError as err:
printc(err.args[0],color=bcolors.FAIL)
printc(err.args[1],color=bcolors.FAIL)
return
wavelength = 6173.3356
for scan in range(int(data_shape[-1])):
start_time = time.time()
file_path = data_f[scan]
wave_axis = wve_axis_arr[scan]
#must invert each scan independently, as cmilos only takes in one dataset at a time
#get wave_axis from the header information of the science scans
if cpos_arr[0] == 0:
shift_w = wave_axis[3] - wavelength
elif cpos_arr[0] == 5:
shift_w = wave_axis[2] - wavelength
wave_axis = wave_axis - shift_w
print('It is assumed the wavelength array is given by the header')
#print(wave_axis,color = bcolors.WARNING)
print("Wave axis is: ", (wave_axis - wavelength)*1000.)
print('Saving data into dummy_in.txt for RTE input')
sdata = data[:,:,:,:,scan]
y,x,p,l = sdata.shape
#print(y,x,p,l)
filename = 'dummy_in.txt'
with open(filename,"w") as f:
for i in range(x):
for j in range(y):
for k in range(l):
f.write('%e %e %e %e %e \n' % (wave_axis[k],sdata[j,i,0,k],sdata[j,i,1,k],sdata[j,i,2,k],sdata[j,i,3,k])) #wv, I, Q, U, V
del sdata
printc(f' ---- >>>>> Inverting data scan number: {scan} .... ',color=bcolors.OKGREEN)
cmd = CMILOS_LOC+"./milos"
cmd = fix_path(cmd)
if rte == 'RTE':
rte_on = subprocess.call(cmd+" 6 15 0 0 dummy_in.txt > dummy_out.txt",shell=True)
if rte == 'CE':
rte_on = subprocess.call(cmd+" 6 15 2 0 dummy_in.txt > dummy_out.txt",shell=True)
if rte == 'CE+RTE':
rte_on = subprocess.call(cmd+" 6 15 1 0 dummy_in.txt > dummy_out.txt",shell=True)
#print(rte_on)
printc(' ---- >>>>> Reading results.... ',color=bcolors.OKGREEN)
del_dummy = subprocess.call("rm dummy_in.txt",shell=True)
#print(del_dummy)
res = np.loadtxt('dummy_out.txt')
npixels = res.shape[0]/12.
#print(npixels)
#print(npixels/x)
result = np.zeros((12,y*x)).astype(float)
rte_invs = np.zeros((12,y,x)).astype(float)
for i in range(y*x):
result[:,i] = res[i*12:(i+1)*12]
result = result.reshape(12,y,x)
result = np.einsum('ijk->ikj', result)
rte_invs = result
del result
rte_invs_noth = np.copy(rte_invs)
"""
From 0 to 11
Counter (PX Id)
Iterations
Strength
Inclination
Azimuth
Eta0 parameter
Doppler width
Damping
Los velocity
Constant source function
Slope source function
Minimum chisqr value
"""
noise_in_V = np.mean(data[:,:,3,cpos_arr[0],:])
low_values_flags = np.max(np.abs(data[:,:,3,:,scan]),axis=-1) < noise_in_V # Where values are low
rte_invs[2,low_values_flags] = 0
rte_invs[3,low_values_flags] = 0
rte_invs[4,low_values_flags] = 0
#np.savez_compressed(out_dir+'_RTE', rte_invs=rte_invs, rte_invs_noth=rte_invs_noth)
del_dummy = subprocess.call("rm dummy_out.txt",shell=True)
#print(del_dummy)
rte_data_products = np.zeros((6,rte_invs_noth.shape[1],rte_invs_noth.shape[2]))
rte_data_products[0,:,:] = rte_invs_noth[9,:,:] + rte_invs_noth[10,:,:] #continuum
rte_data_products[1,:,:] = rte_invs_noth[2,:,:] #b mag strength
rte_data_products[2,:,:] = rte_invs_noth[3,:,:] #inclination
rte_data_products[3,:,:] = rte_invs_noth[4,:,:] #azimuth
rte_data_products[4,:,:] = rte_invs_noth[8,:,:] #vlos
rte_data_products[5,:,:] = rte_invs_noth[2,:,:]*np.cos(rte_invs_noth[3,:,:]*np.pi/180.) #blos
rte_data_products *= field_stop[np.newaxis,start_row:start_row + data.shape[0],start_col:start_col + data.shape[1]] #field stop, set outside to 0
if out_rte_filename is None:
filename_root = str(file_path.split('.fits')[0][-10:])
else:
filename_root = out_rte_filename
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products
hdu_list.writeto(out_dir+filename_root+'_rte_data_products.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[5,:,:]
hdu_list.writeto(out_dir+filename_root+'_blos_rte.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[4,:,:]
hdu_list.writeto(out_dir+filename_root+'_vlos_rte.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[0,:,:]
hdu_list.writeto(out_dir+filename_root+'_Icont_rte.fits', overwrite=True)
printc('--------------------------------------------------------------',bcolors.OKGREEN)
printc(f"------------- CMILOS RTE Run Time: {np.round(time.time() - start_time,3)} seconds ",bcolors.OKGREEN)
printc('--------------------------------------------------------------',bcolors.OKGREEN)
def pmilos(data_f, wve_axis_arr, data_shape, cpos_arr, data, rte, field_stop, start_row, start_col, out_rte_filename, out_dir):
print(" ")
printc('-->>>>>>> RUNNING PMILOS ',color=bcolors.OKGREEN)
try:
PMILOS_LOC = os.path.realpath(__file__)
PMILOS_LOC = PMILOS_LOC[:-8] + 'P-MILOS/' #11 as hrt_pipe.py is 11 characters -8 if in utils.py
if os.path.isfile(PMILOS_LOC+'pmilos.x'):
printc("Pmilos executable located at:", PMILOS_LOC,color=bcolors.WARNING)
else:
raise ValueError('Cannot find pmilos:', PMILOS_LOC)
except ValueError as err:
printc(err.args[0],color=bcolors.FAIL)
printc(err.args[1],color=bcolors.FAIL)
return
wavelength = 6173.3356
for scan in range(int(data_shape[-1])):
start_time = time.time()
file_path = data_f[scan]
wave_axis = wve_axis_arr[scan]
#must invert each scan independently, as cmilos only takes in one dataset at a time
#get wave_axis from the header information of the science scans
if cpos_arr[0] == 0:
shift_w = wave_axis[3] - wavelength
elif cpos_arr[0] == 5:
shift_w = wave_axis[2] - wavelength
wave_axis = wave_axis - shift_w
print('It is assumed the wavelength array is given by the header')
#print(wave_axis,color = bcolors.WARNING)
print("Wave axis is: ", (wave_axis - wavelength)*1000.)
print('Saving data into ./P-MILOS/run/data/input_tmp.fits for pmilos RTE input')
#write wavelengths to wavelength.fits file for the settings
wave_input = np.zeros((6,2))
wave_input[:,0] = int(1)
wave_input[:,1] = wave_axis
hdr = fits.Header()
primary_hdu = fits.PrimaryH0DU(wave_input, header = hdr)
hdul = fits.HDUList([primary_hdu])
hdul.writeto(f'./P-MILOS/run/wavelength_tmp.fits', overwrite=True)
#create input fits file for pmilos
sdata = data[:,:,:,:,scan]
hdr = fits.Header()
hdr['CTYPE1'] = 'HPLT-TAN'
hdr['CTYPE2'] = 'HPLN-TAN'
hdr['CTYPE3'] = 'STOKES' #check order of stokes
hdr['CTYPE4'] = 'WAVE-GRI'
primary_hdu = fits.PrimaryHDU(sdata, header = hdr)
hdul = fits.HDUList([primary_hdu])
hdul.writeto(f'./P-MILOS/run/data/input_tmp.fits', overwrite=True)
#need to change settings for CE or CE+RTE in the pmilos.minit file here
printc(f' ---- >>>>> Inverting data scan number: {scan} .... ',color=bcolors.OKGREEN)
cwd = os.getcwd()
os.chdir("./P-MILOS/run/")
cmd = "mpiexec -np 16 ../pmilos.x pmilos.minit" #PMILOS_LOC+"./milos"
if rte == 'RTE':
cmd = "mpiexec -np 16 ../pmilos.x pmilos.minit"
if rte == 'CE':
cmd = "mpiexec -np 16 ../pmilos.x pmilos_ce.minit"
if rte == 'CE+RTE':
print("CE+RTE not possible on PMILOS, performing RTE instead")
cmd = "mpiexec -np 16 ../pmilos.x pmilos.minit"
rte_on = subprocess.call(cmd,shell=True)
os.chdir(cwd)
with fits.open('./P-MILOS/run/results/inv_input_tmp_mod.fits') as hdu_list:
result = hdu_list[0].data
del_dummy = subprocess.call("rm ./P-MILOS/run/results/inv_input_tmp_mod.fits",shell=True) #must delete the output file
#result has dimensions [rows,cols,13]
"""
PMILOS Output 13 columns
0. eta0 = line-to-continuum absorption coefficient ratio
1. B = magnetic field strength [Gauss]
2. vlos = line-of-sight velocity [km/s]
3. dopp = Doppler width [Angstroms]
4. aa = damping parameter
5. gm = magnetic field inclination [deg]
6. az = magnetic field azimuth [deg]
7. S0 = source function constant
8. S1 = source function gradient
9. mac = macroturbulent velocity [km/s]
10. filling factor of the magnetic component [0-1]
11. Number of iterations performed
12. Chisqr value
"""
rte_data_products = np.zeros((6,result.shape[0],result.shape[1]))
rte_data_products[0,:,:] = result[:,:,7] + result[:,:,8] #continuum
rte_data_products[1,:,:] = result[1,:,:] #b mag strength
rte_data_products[2,:,:] = result[5,:,:] #inclination
rte_data_products[3,:,:] = result[6,:,:] #azimuth
rte_data_products[4,:,:] = result[2,:,:] #vlos
rte_data_products[5,:,:] = result[1,:,:]*np.cos(result[5,:,:]*np.pi/180.) #blos
rte_data_products *= field_stop[np.newaxis,start_row:start_row + data.shape[0],start_col:start_col + data.shape[1]] #field stop, set outside to 0
#flipping taken care of for the field stop in the hrt_pipe
if out_rte_filename is None:
filename_root = str(file_path.split('.fits')[0][-10:])
else:
filename_root = out_rte_filename
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products
hdu_list.writeto(out_dir+filename_root+'_rte_data_products.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[5,:,:]
hdu_list.writeto(out_dir+filename_root+'_blos_rte.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[4,:,:]
hdu_list.writeto(out_dir+filename_root+'_vlos_rte.fits', overwrite=True)
with fits.open(file_path) as hdu_list:
hdu_list[0].data = rte_data_products[0,:,:]
hdu_list.writeto(out_dir+filename_root+'_Icont_rte.fits', overwrite=True)
printc('--------------------------------------------------------------',bcolors.OKGREEN)
printc(f"------------- PMILOS RTE Run Time: {np.round(time.time() - start_time,3)} seconds ",bcolors.OKGREEN)
printc('--------------------------------------------------------------',bcolors.OKGREEN)
\ No newline at end of file
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