########################
### Start of program ###
########################
### Set file_path
file_path = sys.argv[1]
file_name = sys.argv[2]
file_name_floor = string.split(file_name,"_")[-1]
file_path_temp = file_path + "temp/"
file_path_reduced = file_path + "reduced/"
fits = pyfits.open(file_path+file_name_floor)
candidate = fits[0].header["OBJECT"]
### Find teff of target
teff,logg = functions.estimate_teff_logg(file_path,file_name_floor,candidate,"true","true",5500,4.5)
if teff >= 3800:
################################################
### Open file_path and find all RV_standards ###
################################################
RV_list = open(file_path_temp + "RV_Standard_list","w")
os.chdir(file_path)
file_list = glob.glob("*.fits")
for file_name in file_list:
hdulist = pyfits.open(file_name)
notes = hdulist[0].header["NOTES"]
### Find the region within which to flux normalise
flux_normalise_w1 = eval(functions.read_param_file("NORM_REGION_w1"))
flux_normalise_w2 = eval(functions.read_param_file("NORM_REGION_w2"))
### Find initial estimate of properties
hdulist = pyfits.open(file_path + file_name)
object_name = hdulist[0].header["OBJECT"]
hdulist.close()
print "Analysing ",object_name
hsmso_connect = functions.read_config_file("HSMSO_CONNECT")
hscand_connect = functions.read_config_file("HSCAND_CONNECT")
default_teff = float(functions.read_config_file("TEFF_ESTIMATE"))
default_logg = float(functions.read_config_file("LOGG_ESTIMATE"))
teff_ini,logg_ini = functions.estimate_teff_logg(object_name,hsmso_connect,hscand_connect,default_teff,default_logg)
feh_ini = 0.0
print "Initial estimate of teff, logg: ",str(teff_ini),str(logg_ini)
### Change directory to reduced/
program_dir = os.getcwd() + "/" #Save the current working directory
os.chdir(file_path_reduced) #Change to ../reduced/ dir
### Load in spectra
flux_spectrum = functions.read_ascii("fluxcal_" + file_name + ".dat")
flux_spectrum = functions.read_table(flux_spectrum)
flux_spectrum = transpose(array(flux_spectrum))
flux_spectrum = spectype_functions.normalise(flux_spectrum,flux_normalise_w1,flux_normalise_w2)
norm_spectrum = functions.read_ascii("norm_" + file_name + ".dat")
if aperture_weights[i] == max(aperture_weights):
best_aperture = i+1
break
print "best aperture is ", best_aperture
### Estimate teff and logg
hdulist = pyfits.open(file_path_reduced + "normspec_"+file_name)
object_name = hdulist[0].header['OBJECT']
hdulist.close()
hsmso_connect = functions.read_config_file("HSMSO_CONNECT")
hscand_connect = functions.read_config_file("HSCAND_CONNECT")
default_teff = float(functions.read_config_file("TEFF_ESTIMATE"))
default_logg = float(functions.read_config_file("LOGG_ESTIMATE"))
teff,logg = functions.estimate_teff_logg(file_path,file_name,object_name,hsmso_connect,hscand_connect,default_teff,default_logg)
### Change directory to reduced/
os.chdir(file_path_reduced) #Change to ../reduced/ dir
###########################
### Determine synthetic ###
###########################
### Check if synthetic template exists
### If not, use the closest one in logg
synthetic_template = "template_" + str(teff) + "_" + str(logg) + "_0.0.fits"
if os.path.exists(synthetic_library + synthetic_template):
print "Using synthetic template " + synthetic_template
else:
print "no template exists, using closest matching template"
