Line = TextLines[m].split()
pv.Current_Label, pv.Current_Ion, pv.Current_TheoLoc = Line[0], Line[1], float(Line[2]),
pv.Wave1, pv.Wave2, pv.Wave3, pv.Wave4, pv.Wave5, pv.Wave6 = float(Line[4]), float(Line[5]), float(Line[6]), float(Line[7]), float(Line[8]), float(Line[9])
pv.Selections = [pv.Wave1, pv.Wave2, pv.Wave3, pv.Wave4, pv.Wave5, pv.Wave6]
Ind_min = np_searchsorted(Wave, pv.Wave1)
Ind_max = np_searchsorted(Wave, pv.Wave6)
SubWave = Wave[Ind_min - 1 : Ind_max + 1]
SubInt = Int[Ind_min - 1 : Ind_max + 1]
pv.ind1, pv.ind2, pv.ind3, pv.ind4, pv.ind5, pv.ind6 = np_searchsorted(SubWave, pv.Wave1), np_searchsorted(SubWave, pv.Wave2), np_searchsorted(SubWave, pv.Wave3), np_searchsorted(SubWave, pv.Wave4), np_searchsorted(SubWave, pv.Wave5), np_searchsorted(SubWave, pv.Wave6)
print '---Emission', pv.Current_Label
#Clear the dictionaries with the line data
pv.Fitting_dict = pv.Fitting_dict.fromkeys(pv.Fitting_dict)
pv.Parameter_dict = pv.Parameter_dict.fromkeys(pv.Parameter_dict)
#Calculation and plotting of continuum properties
pv.LocalMedian, pv.ContinuumFlux, pv.SigmaContinuum, pv.Continuum_Gradient, pv.Continuum_n, WPoint1, Wpoint2, FPoint1, FPoint2 = pv.ContinuumRegions(SubInt, SubWave)
#Check if emission or absorption line as well as line mixture
pv.Check_GaussianMixture(SubWave)
#Convert emission lines to gaussian equivalents
GaussianWave, GaussianInt = pv.Measure_LineIntensity(SubWave, SubInt, Methodology = 'kmpfit_GaussHermite_MCMC')
except:
pv.log_emLine_error(CodeName, pv.Current_Label)
print "\nAll data treated", pv.display_errors('emLine measurement')
