QC documentation system: QC procedure pionier_OIFITS_fringeQC.py for PIONIER

This documentation is intended both for QC scientists and SciOps astronomers (who may want to ignore the technical information displayed in grey).
 
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pionier_badpix.py pionier_darkQC.py pionier_kappaQC.py pionier_speccalQC.py
pionier_OIFITS_fringeQC.py pionier_OIFITS_intfringeQC.py
 
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NAME pionier_OIFITS_fringeQC.py
VERSION 1.0 -- 2015-06-06
SYNTAX Python
CALL measureQuality
from $DFS_PRODUCT/CALIB_FRINGE/$DATE:
pionier_OIFITS_fringeQC.py -a $AB
INSTRUMENT PIONIER
RAWTYPE CALIB_FRINGE
PURPOSE a) generates QC reports
PROCINPUT No special input is required:
a) $DATE is read from the input AB
c) frames are implicitly read from the AB.
QC1TABLE trending | table(s) in QC1 database:
pionier_fringe
TRENDPLOT trending | HealthCheck plot(s) associated to this procedure:
trend_report_VIS_HC.html
QC1PAGE trending | associated documentation:
interferometry_qc1.html
QC1PLOTS
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r.PIONI.2016-06-01T01:57:29.124_0000.png

r.PIONI.2016-06-01T01:57:29.124_0000_avraw.png

r.PIONI.2016-06-01T01:57:29.124_0000_channels.png

r.PIONI.2016-06-01T01:57:29.124_0000_combined_raw.png

r.PIONI.2016-06-01T01:57:29.124_0000_raw.png

r.PIONI.2016-06-01T01:57:29.124_0001.png

r.PIONI.2016-06-01T01:57:29.124_0002.png

r.PIONI.2016-06-01T01:57:29.124_0003.png

r.PIONI.2016-06-01T01:57:29.124_0004.png
QC1PARAM QC1 parameters written into QC1 table :
SOURCE(header/script)       DBNAME                 value          description 
QC.FLUX1.AVG flux1_avg 300 flux_optical_train1_in_adu
QC.FLUX1.RMS flux1_rms 10 error_on_flux_optical_train1_in_adu
QC.FLUX2.AVG flux2_avg 300 flux_optical_train2_in_adu
QC.FLUX2.RMS flux2_rms 10 error_on_flux_optical_train2_in_adu
QC.FLUX3.AVG flux3_avg 300 flux_optical_train3_in_adu
QC.FLUX3.RMS flux3_rms 10 error_on_flux_optical_train3_in_adu
QC.FLUX4.AVG flux4_avg 300 flux_optical_train4_in_adu
QC.FLUX4.RMS flux4_rms 10 error_on_flux_optical_train4_in_adu
QC.PHI123.AVG phi123_avg Averaged_Closure_phase_baseline123
QC.PHI123.ERR phi123_err error_Closure_phase_baseline123
QC.PHI124.AVG phi124_avg Averaged_Closure_phase_baseline124
QC.PHI124.ERR phi124_err error_Closure_phase_baseline124
QC.PHI134.AVG phi134_avg Averaged_Closure_phase_baseline134
QC.PHI134.ERR phi134_err error_Closure_phase_baseline134
QC.PHI234.AVG phi234_avg Averaged_Closure_phase_baseline234
QC.PHI234.ERR phi234_err error_Closure_phase_baseline234
QC.SNR12.AVG snr12_avg 150 averaged_SNR_on_Vis12
QC.SNR12.RMS snr12_rms 10 error_on_SNR_on_Vis12
QC.SNR13.AVG snr13_avg 150 averaged_SNR_on_Vis13
QC.SNR13.RMS snr13_rms 10 error_on_SNR_on_Vis13
QC.SNR14.AVG snr14_avg 150 averaged_SNR_on_Vis14
QC.SNR14.RMS snr14_rms 10 error_on_SNR_on_Vis14
QC.SNR23.AVG snr23_avg 150 averaged_SNR_on_Vis23
QC.SNR23.RMS snr23_rms 10 error_on_SNR_on_Vis23
QC.SNR24.AVG snr24_avg 150 averaged_SNR_on_Vis24
QC.SNR24.RMS snr24_rms 10 error_on_SNR_on_Vis24
QC.SNR34.AVG snr34_avg 150 averaged_SNR_on_Vis34
QC.SNR34.RMS snr34_rms 10 error_on_SNR_on_Vis34
QC.TFVIS12.AVG tfvis12_avg 0.6 averaged_Transfer_Function_(if_calibrator)_Baseline12
QC.TFVIS13.AVG tfvis13_avg 0.76 averaged_Transfer_Function_(if_calibrator)_Baseline13
QC.TFVIS14.AVG tfvis14_avg 0.4 averaged_Transfer_Function_(if_calibrator)_Baseline14
QC.TFVIS23.AVG tfvis23_avg 0.3 averaged_Transfer_Function_(if_calibrator)_Baseline123br> QC.TFVIS24.AVG tfvis24_avg 0.9 averaged_Transfer_Function_(if_calibrator)_Baseline24
QC.TFVIS34.AVG tfvis34_avg 0.7 averaged_Transfer_Function_(if_calibrator)_Baseline34
QC.VIS12.AVG vis12_avg 0.6 averaged_Visibility_Baseline12
QC.VIS12.ERR vis12_err 0.001 error_on_Visibility_Baseline12
QC.VIS13.AVG vis13_avg 0.8 averaged_Visibility_Baseline13
QC.VIS13.ERR vis13_err 0.001 error_on_Visibility_Baseline13
QC.VIS14.AVG vis14_avg 0.8 averaged_Visibility_Baseline14
QC.VIS14.ERR vis14_err 0.001 error_on_Visibility_Baseline14
QC.VIS23.AVG vis23_avg 0.8 averaged_Visibility_Baseline23
QC.VIS23.ERR vis23_err 0.001 error_on_Visibility_Baseline23
QC.VIS24.AVG vis24_avg 0.8 averaged_Visibility_Baseline24
QC.VIS24.ERR vis24_err 0.001 error_on_Visibility_Baseline24
QC.VIS34.AVG vis34_avg 0.8 averaged_Visibility_Baseline34
QC.VIS34.ERR vis34_err 0.001 error_on_Visibility_Baseline34
QC.DB.HMAG db_hmag 2.3 H_magnitude_of_calibrator_(if_in_catalog)
QC.DB.DIAM db_diam 1.67 diameter_of_calibrator_(if_in_catalog)
QC.DB.DIAM.ERR diam_err 0.11 error_on_diameter_of_calibrator_(if_in_catalog)
QC.TRANS1 trans1 0.004 transmission_full_train_1
QC.TRANS2 trans2 0.006 transmission_full_train_2
QC.TRANS3 trans3 0.006 transmission_full_train_3
QC.TRANS4 trans4 0.006 transmission_full_train_4
ALGORITHM Uncalibrated dispersed Visibilities are calculated
A product is generated for each single raw file
Generally a complete OB is a set of 5 raw files (with re-centering of the fringes in between)
If the object observed is present in the calibrator catalogi (same RA and DEC):
PI_GCAL_150501_FAINT.fits
Its diameter, error, and magnitude in H are extracted
An averaged TF is given for each baseline as well
The transmission of the full optical train is calculated
CERTIF Products are rejected only if there was something wrong with the VLTI.
Products with no fringes or very low Visibilities are kept
COMMENTS None
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