| 1 | /* ======================================================================== *\
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| 2 | !
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| 3 | ! *
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| 4 | ! * This file is part of MARS, the MAGIC Analysis and Reconstruction
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| 5 | ! * Software. It is distributed to you in the hope that it can be a useful
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| 6 | ! * and timesaving tool in analysing Data of imaging Cerenkov telescopes.
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| 7 | ! * It is distributed WITHOUT ANY WARRANTY.
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| 8 | ! *
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| 9 | ! * Permission to use, copy, modify and distribute this software and its
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| 10 | ! * documentation for any purpose is hereby granted without fee,
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| 11 | ! * provided that the above copyright notice appear in all copies and
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| 12 | ! * that both that copyright notice and this permission notice appear
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| 13 | ! * in supporting documentation. It is provided "as is" without express
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| 14 | ! * or implied warranty.
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| 15 | ! *
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| 16 | !
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| 17 | !
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| 18 | ! Author(s): Markus Gaug 02/2004 <mailto:markus@ifae.es>
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| 19 | !
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| 20 | ! Copyright: MAGIC Software Development, 2000-2004
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| 21 | !
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| 22 | !
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| 23 | \* ======================================================================== */
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| 24 |
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| 25 | //////////////////////////////////////////////////////////////////////////////
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| 26 | //
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| 27 | // MCalibrationChargeCalc
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| 28 | //
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| 29 | // Task to calculate the calibration conversion factors from the FADC
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| 30 | // time slices. The integrated time slices have to be delivered by an
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| 31 | // MExtractedSignalCam. The pedestals by an MPedestalCam.
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| 32 | //
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| 33 | // The output container MCalibrationCam holds one entry of type MCalibrationChargePix
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| 34 | // for every pixel. It is filled in the following way:
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| 35 | //
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| 36 | // ProProcess: Initialize MCalibrationCam
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| 37 | // Initialize pulser light wavelength
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| 38 | //
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| 39 | // ReInit: MCalibrationCam::InitSize(NumPixels) is called from MGeomApply (which allocates
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| 40 | // memory in a TClonesArray of type MCalibrationChargePix)
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| 41 | // Initializes pointer to MBadPixelsCam
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| 42 | //
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| 43 | // Process: Nothing done by this class, histograms are filled by
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| 44 | // MHCalibrationChargeCam
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| 45 | //
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| 46 | // PstProcess: Fit results from MHCalibrationChargeCam are retrieved
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| 47 | // and used for the calculation of the reduced sigma,
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| 48 | // the F-Factor method, the blind pixel method (photon flux
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| 49 | // inside plexiglass) and
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| 50 | // the PINDiode method (photon flux
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| 51 | // outside plexiglass)
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| 52 | //
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| 53 | // Hi-Gain vs. Lo-Gain Calibration (very memory-intensive)
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| 54 | // can be skipped with the command:
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| 55 | // MalibrationCam::SkipHiLoGainCalibration()
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| 56 | //
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| 57 | // Input Containers:
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| 58 | // MRawEvtData
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| 59 | // MPedestalCam
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| 60 | // MBadPixelsCam
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| 61 | //
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| 62 | // Output Containers:
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| 63 | // MCalibrationCam
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| 64 | // MBadPixelsCam
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| 65 | //
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| 66 | //
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| 67 | // Preliminary description of the calibration in photons (email from 12/02/04)
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| 68 | //
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| 69 | // Why calibrating in photons:
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| 70 | // ===========================
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| 71 | //
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| 72 | // At the Barcelona meeting in 2002, we decided to calibrate the camera in
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| 73 | // photons. This for the following reasons:
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| 74 | //
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| 75 | // * The physical quantity arriving at the camera are photons. This is
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| 76 | // the direct physical information from the air shower. The photons
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| 77 | // have a flux and a spectrum.
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| 78 | //
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| 79 | // * The photon fluxes depend mostly on the shower energy (with
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| 80 | // corrections deriving from the observation conditions), while the photon
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| 81 | // spectra depend mostly on the observation conditions: zenith angle,
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| 82 | // quality of the air, also the impact parameter of the shower.
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| 83 | //
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| 84 | // * The photomultiplier, in turn, has different response properties
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| 85 | // (quantum efficiencies) for photons of different colour. (Moreover,
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| 86 | // different pixels have slightly different quantum efficiencies).
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| 87 | // The resulting number of photo-electrons is then amplified (linearly)
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| 88 | // with respect to the photo-electron flux.
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| 89 | //
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| 90 | // * In the ideal case, one would like to disentagle the effects
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| 91 | // of the observation conditions from the primary particle energy (which
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| 92 | // one likes to measure). To do so, one needs:
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| 93 | //
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| 94 | // 1) A reliable calibration relating the FADC counts to the photo-electron
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| 95 | // flux -> This is accomplished with the F-Factor method.
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| 96 | //
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| 97 | // 2) A reliable calibration of the wavelength-dependent quantum efficiency
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| 98 | // -> This is accomplished with the combination of the three methods,
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| 99 | // together with QE-measurements performed by David in order to do
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| 100 | // the interpolation.
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| 101 | //
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| 102 | // 3) A reliable calibration of the observation conditions. This means:
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| 103 | // - Tracing the atmospheric conditions -> LIDAR
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| 104 | // - Tracing the observation zenith angle -> Drive System
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| 105 | // 4) Some knowlegde about the impact parameter:
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| 106 | // - This is the only part which cannot be accomplished well with a
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| 107 | // single telescope. We would thus need to convolute the spectrum
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| 108 | // over the distribution of impact parameters.
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| 109 | //
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| 110 | //
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| 111 | // How an ideal calibration would look like:
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| 112 | // =========================================
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| 113 | //
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| 114 | // We know from the combined PIN-Diode and Blind-Pixel Method the response of
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| 115 | // each pixel to well-measured light fluxes in three representative
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| 116 | // wavelengths (green, blue, UV). We also know the response to these light
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| 117 | // fluxes in photo-electrons. Thus, we can derive:
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| 118 | //
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| 119 | // - conversion factors to photo-electrons
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| 120 | // - conversion factors to photons in three wavelengths.
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| 121 | //
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| 122 | // Together with David's measurements and some MC-simulation, we should be
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| 123 | // able to derive tables for typical Cherenkov-photon spectra - convoluted
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| 124 | // with the impact parameters and depending on the athmospheric conditions
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| 125 | // and the zenith angle (the "outer parameters").
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| 126 | //
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| 127 | // From these tables we can create "calibration tables" containing some
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| 128 | // effective quantum efficiency depending on these outer parameters and which
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| 129 | // are different for each pixel.
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| 130 | //
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| 131 | // In an ideal MCalibrate, one would thus have to convert first the FADC
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| 132 | // slices to Photo-electrons and then, depending on the outer parameters,
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| 133 | // look up the effective quantum efficiency and get the mean number of
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| 134 | // photons which is then used for the further analysis.
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| 135 | //
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| 136 | // How the (first) MAGIC calibration should look like:
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| 137 | // ===================================================
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| 138 | //
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| 139 | // For the moment, we have only one reliable calibration method, although
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| 140 | // with very large systematic errors. This is the F-Factor method. Knowing
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| 141 | // that the light is uniform over the whole camera (which I would not at all
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| 142 | // guarantee in the case of the CT1 pulser), one could in principle already
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| 143 | // perform a relative calibration of the quantum efficiencies in the UV.
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| 144 | // However, the spread in QE at UV is about 10-15% (according to the plot
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| 145 | // that Abelardo sent around last time. The spread in photo-electrons is 15%
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| 146 | // for the inner pixels, but much larger (40%) for the outer ones.
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| 147 | //
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| 148 | // I'm not sure if we can already say that we have measured the relative
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| 149 | // difference in quantum efficiency for the inner pixels and produce a first
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| 150 | // QE-table for each pixel. To so, I would rather check in other wavelengths
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| 151 | // (which we can do in about one-two weeks when the optical transmission of
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| 152 | // the calibration trigger is installed).
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| 153 | //
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| 154 | // Thus, for the moment being, I would join Thomas proposal to calibrate in
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| 155 | // photo-electrons and apply one stupid average quantum efficiency for all
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| 156 | // pixels. This keeping in mind that we will have much preciser information
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| 157 | // in about one to two weeks.
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| 158 | //
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| 159 | //
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| 160 | // What MCalibrate should calculate and what should be stored:
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| 161 | // ===========================================================
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| 162 | //
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| 163 | // It is clear that in the end, MCerPhotEvt will store photons.
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| 164 | // MCalibrationCam stores the conversionfactors to photo-electrons and also
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| 165 | // some tables of how to apply the conversion to photons, given the outer
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| 166 | // parameters. This is not yet implemented and not even discussed.
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| 167 | //
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| 168 | // To start, I would suggest that we define the "average quantum efficiency"
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| 169 | // (maybe something like 25+-3%) and apply them equally to all
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| 170 | // photo-electrons. Later, this average factor can be easily replaced by a
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| 171 | // pixel-dependent factor and later by a (pixel-dependent) table.
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| 172 | //
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| 173 | //
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| 174 | //
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| 175 | //////////////////////////////////////////////////////////////////////////////
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| 176 | #include "MCalibrationChargeCalc.h"
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| 177 |
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| 178 | #include <TSystem.h>
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| 179 | #include <TH1.h>
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| 180 |
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| 181 | #include "MLog.h"
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| 182 | #include "MLogManip.h"
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| 183 |
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| 184 | #include "MParList.h"
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| 185 |
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| 186 | #include "MGeomCam.h"
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| 187 | #include "MRawRunHeader.h"
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| 188 | #include "MRawEvtPixelIter.h"
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| 189 |
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| 190 | #include "MPedestalCam.h"
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| 191 | #include "MPedestalPix.h"
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| 192 |
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| 193 | #include "MCalibrationChargeCam.h"
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| 194 | #include "MCalibrationChargePix.h"
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| 195 | #include "MCalibrationChargePINDiode.h"
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| 196 | #include "MCalibrationChargeBlindPix.h"
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| 197 |
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| 198 | #include "MExtractedSignalCam.h"
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| 199 | #include "MExtractedSignalPix.h"
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| 200 |
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| 201 | #include "MBadPixelsCam.h"
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| 202 | #include "MBadPixelsPix.h"
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| 203 |
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| 204 |
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| 205 | ClassImp(MCalibrationChargeCalc);
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| 206 |
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| 207 | using namespace std;
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| 208 |
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| 209 | // --------------------------------------------------------------------------
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| 210 | //
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| 211 | // Default constructor.
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| 212 | //
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| 213 | MCalibrationChargeCalc::MCalibrationChargeCalc(const char *name, const char *title)
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| 214 | : fPedestals(NULL), fCam(NULL),
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| 215 | fRawEvt(NULL), fRunHeader(NULL), fGeom(NULL),
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| 216 | fBadPixels(NULL), fEvtTime(NULL),
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| 217 | fSignals(NULL), fPINDiode(NULL), fBlindPixel(NULL)
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| 218 | {
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| 219 |
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| 220 | fName = name ? name : "MCalibrationChargeCalc";
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| 221 | fTitle = title ? title : "Task to calculate the calibration constants and MCalibrationCam ";
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| 222 |
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| 223 | AddToBranchList("MRawEvtData.fHiGainPixId");
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| 224 | AddToBranchList("MRawEvtData.fLoGainPixId");
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| 225 | AddToBranchList("MRawEvtData.fHiGainFadcSamples");
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| 226 | AddToBranchList("MRawEvtData.fLoGainFadcSamples");
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| 227 |
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| 228 | Clear();
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| 229 | }
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| 230 |
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| 231 | void MCalibrationChargeCalc::Clear(const Option_t *o)
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| 232 | {
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| 233 |
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| 234 | SETBIT(fFlags, kUseQualityChecks);
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| 235 | SETBIT(fFlags, kHiLoGainCalibration);
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| 236 |
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| 237 | fNumHiGainSamples = 0.;
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| 238 | fNumLoGainSamples = 0.;
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| 239 | fConversionHiLo = 0;
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| 240 |
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| 241 | }
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| 242 |
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| 243 |
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| 244 | // --------------------------------------------------------------------------
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| 245 | //
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| 246 | // The PreProcess searches for the following input containers:
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| 247 | // - MRawEvtData
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| 248 | // - MPedestalCam
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| 249 | //
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| 250 | // The following output containers are also searched and created if
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| 251 | // they were not found:
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| 252 | //
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| 253 | // - MCalibrationCam
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| 254 | //
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| 255 | // The following output containers are only searched, but not created
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| 256 | //
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| 257 | // - MTime
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| 258 | //
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| 259 | Int_t MCalibrationChargeCalc::PreProcess(MParList *pList)
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| 260 | {
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| 261 |
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| 262 | fRawEvt = (MRawEvtData*)pList->FindObject("MRawEvtData");
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| 263 | if (!fRawEvt)
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| 264 | {
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| 265 | *fLog << err << "MRawEvtData not found... aborting." << endl;
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| 266 | return kFALSE;
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| 267 | }
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| 268 |
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| 269 | fCam = (MCalibrationChargeCam*)pList->FindCreateObj("MCalibrationChargeCam");
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| 270 | if (!fCam)
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| 271 | return kFALSE;
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| 272 |
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| 273 | fPINDiode = (MCalibrationChargePINDiode*)pList->FindCreateObj("MCalibrationChargePINDiode");
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| 274 | if (!fPINDiode)
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| 275 | return kFALSE;
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| 276 |
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| 277 | fBlindPixel = (MCalibrationChargeBlindPix*)pList->FindCreateObj("MCalibrationChargeBlindPix");
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| 278 | if (!fBlindPixel)
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| 279 | return kFALSE;
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| 280 |
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| 281 | fCam->SetPINDiode(fPINDiode);
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| 282 | fCam->SetBlindPixel(fBlindPixel);
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| 283 |
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| 284 | fEvtTime = (MTime*)pList->FindObject("MTime");
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| 285 |
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| 286 | fPedestals = (MPedestalCam*)pList->FindObject("MPedestalCam");
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| 287 | if (!fPedestals)
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| 288 | {
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| 289 | *fLog << err << "MPedestalCam not found... aborting" << endl;
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| 290 | return kFALSE;
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| 291 | }
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| 292 |
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| 293 | fSignals = (MExtractedSignalCam*)pList->FindObject("MExtractedSignalCam");
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| 294 | if (!fSignals)
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| 295 | {
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| 296 | *fLog << err << "MExtractedSignalCam not found... aborting" << endl;
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| 297 | return kFALSE;
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| 298 | }
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| 299 |
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| 300 | return kTRUE;
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| 301 | }
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| 302 |
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| 303 |
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| 304 | // --------------------------------------------------------------------------
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| 305 | //
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| 306 | // The ReInit searches for the following input containers:
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| 307 | // - MRawRunHeader
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| 308 | //
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| 309 | Bool_t MCalibrationChargeCalc::ReInit(MParList *pList )
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| 310 | {
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| 311 |
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| 312 | fRunHeader = (MRawRunHeader*)pList->FindObject("MRawRunHeader");
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| 313 | if (!fRunHeader)
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| 314 | {
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| 315 | *fLog << err << "MRawRunHeader not found... aborting." << endl;
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| 316 | return kFALSE;
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| 317 | }
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| 318 |
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| 319 | fGeom = (MGeomCam*)pList->FindObject("MGeomCam");
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| 320 | if (!fGeom)
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| 321 | {
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| 322 | *fLog << err << "No MGeomCam found... aborting." << endl;
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| 323 | return kFALSE;
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| 324 | }
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| 325 |
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| 326 | fBadPixels = (MBadPixelsCam*)pList->FindCreateObj("MBadPixelsCam");
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| 327 | if (!fBadPixels)
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| 328 | {
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| 329 | *fLog << err << "Could not find or create MBadPixelsCam ... aborting." << endl;
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| 330 | return kFALSE;
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| 331 | }
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| 332 |
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| 333 | fCam->SetGeomCam(fGeom);
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| 334 | fCam->SetBadPixelsCam(fBadPixels);
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| 335 |
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| 336 | fNumHiGainSamples = fSignals->GetNumUsedHiGainFADCSlices();
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| 337 | fNumLoGainSamples = fSignals->GetNumUsedLoGainFADCSlices();
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| 338 | fSqrtHiGainSamples = TMath::Sqrt(fNumHiGainSamples);
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| 339 | fSqrtLoGainSamples = TMath::Sqrt(fNumLoGainSamples);
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| 340 |
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| 341 | UInt_t npixels = fGeom->GetNumPixels();
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| 342 |
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| 343 | for (UInt_t i=0; i<npixels; i++)
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| 344 | {
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| 345 | MCalibrationChargePix &pix = (*fCam)[i];
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| 346 | MBadPixelsPix &bad = (*fBadPixels)[i];
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| 347 |
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| 348 | pix.DefinePixId(i);
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| 349 |
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| 350 | if (bad.IsBad())
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| 351 | {
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| 352 | pix.SetExcluded();
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| 353 | continue;
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| 354 | }
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| 355 |
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| 356 | pix.SetAbsTimeBordersHiGain(fSignals->GetFirstUsedSliceHiGain(),
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| 357 | fSignals->GetLastUsedSliceHiGain());
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| 358 | pix.SetAbsTimeBordersLoGain(fSignals->GetFirstUsedSliceLoGain(),
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| 359 | fSignals->GetLastUsedSliceLoGain());
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| 360 | }
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| 361 |
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| 362 | return kTRUE;
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| 363 | }
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| 364 |
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| 365 |
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| 366 | // --------------------------------------------------------------------------
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| 367 | //
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| 368 | // Calculate the integral of the FADC time slices and store them as a new
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| 369 | // pixel in the MCerPhotEvt container.
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| 370 | //
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| 371 | Int_t MCalibrationChargeCalc::Process()
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| 372 | {
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| 373 | return kTRUE;
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| 374 | }
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| 375 |
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| 376 | Int_t MCalibrationChargeCalc::PostProcess()
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| 377 | {
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| 378 |
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| 379 | //
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| 380 | // loop over the pedestal events and check if we have calibration
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| 381 | //
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| 382 | Int_t nvalid = 0;
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| 383 | Float_t avinnerped = 0;
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| 384 | Float_t avinnerprms = 0;
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| 385 | Float_t avinnernum = 0;
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| 386 | Float_t avouterped = 0;
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| 387 | Float_t avouterprms = 0;
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| 388 | Float_t avouternum = 0;
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| 389 |
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| 390 | for (Int_t pixid=0; pixid<fPedestals->GetSize(); pixid++)
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| 391 | {
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| 392 |
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| 393 | MCalibrationChargePix &pix = (*fCam)[pixid];
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| 394 | MBadPixelsPix &bad = (*fBadPixels)[pixid];
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| 395 |
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| 396 | //
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| 397 | // Check if the pixel has been excluded from the fits
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| 398 | //
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| 399 | if (pix.IsExcluded())
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| 400 | continue;
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| 401 |
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| 402 | //
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| 403 | // get the pedestals
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| 404 | //
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| 405 | const Float_t ped = (*fPedestals)[pixid].GetPedestal();
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| 406 | const Float_t prms = (*fPedestals)[pixid].GetPedestalRms();
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| 407 | const Float_t num = TMath::Sqrt((Float_t)fPedestals->GetTotalEntries());
|
|---|
| 408 |
|
|---|
| 409 | if (fGeom->GetPixRatio(pixid) == 1.)
|
|---|
| 410 | {
|
|---|
| 411 | avinnerped += ped;
|
|---|
| 412 | avinnerprms += prms;
|
|---|
| 413 | avinnernum++;
|
|---|
| 414 | }
|
|---|
| 415 | else
|
|---|
| 416 | {
|
|---|
| 417 | avouterped += ped;
|
|---|
| 418 | avouterprms += prms;
|
|---|
| 419 | avouternum++;
|
|---|
| 420 | }
|
|---|
| 421 | //
|
|---|
| 422 | // set them in the calibration camera
|
|---|
| 423 | //
|
|---|
| 424 | if (pix.IsHiGainSaturation())
|
|---|
| 425 | {
|
|---|
| 426 | pix.SetPedestal(ped * fNumLoGainSamples,
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|---|
| 427 | prms * fSqrtLoGainSamples,
|
|---|
| 428 | prms * fNumLoGainSamples / num);
|
|---|
| 429 | pix.SetNumLoGainSamples(fNumLoGainSamples);
|
|---|
| 430 | pix.ApplyLoGainConversion();
|
|---|
| 431 | }
|
|---|
| 432 | else
|
|---|
| 433 | {
|
|---|
| 434 | pix.SetPedestal(ped * fNumHiGainSamples,
|
|---|
| 435 | prms * fSqrtHiGainSamples,
|
|---|
| 436 | prms * fNumHiGainSamples / num);
|
|---|
| 437 | }
|
|---|
| 438 |
|
|---|
| 439 | pix.CheckChargeValidity(&bad);
|
|---|
| 440 | pix.CheckTimeValidity(&bad);
|
|---|
| 441 |
|
|---|
| 442 | if (!bad.IsCalibrationSignalOK())
|
|---|
| 443 | continue;
|
|---|
| 444 |
|
|---|
| 445 | nvalid++;
|
|---|
| 446 |
|
|---|
| 447 | if (!pix.CalcReducedSigma())
|
|---|
| 448 | continue;
|
|---|
| 449 |
|
|---|
| 450 | pix.CalcFFactorMethod();
|
|---|
| 451 |
|
|---|
| 452 | }
|
|---|
| 453 |
|
|---|
| 454 |
|
|---|
| 455 |
|
|---|
| 456 | //
|
|---|
| 457 | // The Michele check ...
|
|---|
| 458 | //
|
|---|
| 459 | if (nvalid == 0)
|
|---|
| 460 | {
|
|---|
| 461 | *fLog << err << GetDescriptor() << ": Dear Michele! All pixels have non-valid calibration. "
|
|---|
| 462 | << "Did you forget to fill the histograms (filling MHCalibrationChargeCam from MExtractedSignalCam using MFillH) ? " << endl;
|
|---|
| 463 | return kFALSE;
|
|---|
| 464 | }
|
|---|
| 465 |
|
|---|
| 466 | MCalibrationChargePix *avinnerpix = fCam->GetAverageInnerPix();
|
|---|
| 467 | MCalibrationChargePix *avouterpix = fCam->GetAverageOuterPix();
|
|---|
| 468 | //
|
|---|
| 469 | // set the pedestans in the calibration camera
|
|---|
| 470 | //
|
|---|
| 471 | if (avinnerpix->IsHiGainSaturation())
|
|---|
| 472 | {
|
|---|
| 473 | avinnerpix->SetPedestal(avinnerped/avinnernum * fNumLoGainSamples,
|
|---|
| 474 | avinnerprms/avinnernum * fSqrtLoGainSamples,
|
|---|
| 475 | avinnerprms/avinnernum * fSqrtLoGainSamples/avinnernum);
|
|---|
| 476 | avinnerpix->SetNumLoGainSamples(fNumLoGainSamples);
|
|---|
| 477 | avinnerpix->ApplyLoGainConversion();
|
|---|
| 478 | }
|
|---|
| 479 | else
|
|---|
| 480 | {
|
|---|
| 481 | avinnerpix->SetPedestal(avinnerped/avinnernum * fNumHiGainSamples,
|
|---|
| 482 | avinnerprms/avinnernum * fSqrtHiGainSamples,
|
|---|
| 483 | avinnerprms/avinnernum * fSqrtHiGainSamples/avinnernum);
|
|---|
| 484 | }
|
|---|
| 485 |
|
|---|
| 486 | if (avouterpix->IsHiGainSaturation())
|
|---|
| 487 | {
|
|---|
| 488 | avouterpix->SetPedestal(avouterped/avouternum * fNumLoGainSamples,
|
|---|
| 489 | avouterprms/avouternum * fSqrtLoGainSamples,
|
|---|
| 490 | avouterprms/avouternum * fSqrtLoGainSamples/avouternum);
|
|---|
| 491 | avouterpix->SetNumLoGainSamples(fNumLoGainSamples);
|
|---|
| 492 | avouterpix->ApplyLoGainConversion();
|
|---|
| 493 | }
|
|---|
| 494 | else
|
|---|
| 495 | {
|
|---|
| 496 | avouterpix->SetPedestal(avouterped/avouternum * fNumHiGainSamples,
|
|---|
| 497 | avouterprms/avouternum * fSqrtHiGainSamples,
|
|---|
| 498 | avouterprms/avouternum * fSqrtHiGainSamples/avouternum);
|
|---|
| 499 | }
|
|---|
| 500 |
|
|---|
| 501 | MBadPixelsPix *bad = fCam->GetAverageInnerBadPix();
|
|---|
| 502 |
|
|---|
| 503 | avinnerpix->CheckChargeValidity(bad);
|
|---|
| 504 | avinnerpix->CheckTimeValidity(bad);
|
|---|
| 505 |
|
|---|
| 506 | if (bad->IsCalibrationSignalOK())
|
|---|
| 507 | if (!avinnerpix->CalcReducedSigma())
|
|---|
| 508 | avinnerpix->CalcFFactorMethod();
|
|---|
| 509 |
|
|---|
| 510 | bad = fCam->GetAverageInnerBadPix();
|
|---|
| 511 |
|
|---|
| 512 | avouterpix->CheckChargeValidity(bad);
|
|---|
| 513 | avouterpix->CheckTimeValidity(bad);
|
|---|
| 514 |
|
|---|
| 515 | if (bad->IsCalibrationSignalOK())
|
|---|
| 516 | if (!avouterpix->CalcReducedSigma())
|
|---|
| 517 | avouterpix->CalcFFactorMethod();
|
|---|
| 518 |
|
|---|
| 519 | if (!fBlindPixel->CheckChargeFitValidity())
|
|---|
| 520 | {
|
|---|
| 521 | *fLog << warn << "Could not calculate the flux of photons from the PIN Diode, charge fit not valid " << endl;
|
|---|
| 522 | fCam->SetBlindPixelMethodValid(kFALSE);
|
|---|
| 523 | }
|
|---|
| 524 | else
|
|---|
| 525 | {
|
|---|
| 526 | if (!fBlindPixel->CalcFluxInsidePlexiglass())
|
|---|
| 527 | {
|
|---|
| 528 | *fLog << warn << "Could not calculate the flux of photons from the PIN Diode, will skip PIN Diode Calibration " << endl;
|
|---|
| 529 | fCam->SetBlindPixelMethodValid(kFALSE);
|
|---|
| 530 | }
|
|---|
| 531 | else
|
|---|
| 532 | {
|
|---|
| 533 | fCam->SetBlindPixelMethodValid(kTRUE);
|
|---|
| 534 | fCam->ApplyBlindPixelCalibration();
|
|---|
| 535 | }
|
|---|
| 536 | }
|
|---|
| 537 |
|
|---|
| 538 | if (!fPINDiode->CheckChargeFitValidity() || !fPINDiode->CheckTimeFitValidity())
|
|---|
| 539 | {
|
|---|
| 540 | *fLog << warn << "Could not calculate the flux of photons from the PIN Diode, charge fit not valid " << endl;
|
|---|
| 541 | fCam->SetPINDiodeMethodValid(kFALSE);
|
|---|
| 542 | }
|
|---|
| 543 | else
|
|---|
| 544 | {
|
|---|
| 545 | if (!fPINDiode->CalcFluxOutsidePlexiglass())
|
|---|
| 546 | {
|
|---|
| 547 | *fLog << warn << "Could not calculate the flux of photons from the PIN Diode, will skip PIN Diode Calibration " << endl;
|
|---|
| 548 | fCam->SetPINDiodeMethodValid(kFALSE);
|
|---|
| 549 | }
|
|---|
| 550 | else
|
|---|
| 551 | {
|
|---|
| 552 | fCam->SetPINDiodeMethodValid(kTRUE);
|
|---|
| 553 | fCam->ApplyPINDiodeCalibration();
|
|---|
| 554 | }
|
|---|
| 555 | }
|
|---|
| 556 | fCam->SetReadyToSave();
|
|---|
| 557 |
|
|---|
| 558 | return kTRUE;
|
|---|
| 559 | }
|
|---|
