Conversion of standardized ReadMe file for
file /./ftp/cats/J/A_A/661/A5 into FORTRAN code for reading data files line by line.
Note that special values are assigned to unknown or unspecified
numbers (also called NULL numbers);
when necessary, the coordinate components making up the right ascension
and declination are converted into floating-point numbers
representing these angles in degrees.
program load_ReadMe
C=============================================================================
C F77-compliant program generated by readme2f_1.81 (2015-09-23), on 2026-May-20
C=============================================================================
* This code was generated from the ReadMe file documenting a catalogue
* according to the "Standard for Documentation of Astronomical Catalogues"
* currently in use by the Astronomical Data Centers (CDS, ADC, A&A)
* (see full documentation at URL http://vizier.u-strasbg.fr/doc/catstd.htx)
* Please report problems or questions to
C=============================================================================
implicit none
* Unspecified or NULL values, generally corresponding to blank columns,
* are assigned one of the following special values:
* rNULL__ for unknown or NULL floating-point values
* iNULL__ for unknown or NULL integer values
real*4 rNULL__
integer*4 iNULL__
parameter (rNULL__=--2147483648.) ! NULL real number
parameter (iNULL__=(-2147483647-1)) ! NULL int number
integer idig ! testing NULL number
C=============================================================================
Cat. J/A+A/661/A5 The eFEDS AGN catalog (Liu+, 2022)
*================================================================================
*The eROSITA Final Equatorial-Depth Survey (eFEDS).
*The AGN catalog and its X-ray spectral properties.
* Liu T., Buchner J., Nandra K., Merloni A., Dwelly T., Sanders J.S.,
* Salvato M., Arcodia R., Brusa M., Wolf J., Georgakakis A., Boller T.,
* Krumpe M., Lamer G., Waddell S., Urrutia T., Schwope A., Robrade J.,
* Wilms J., Dauser T., Comparat J., Toba Y., Ichikawa K., Iwasawa K.,
* Shen Y., Medel H.I.
* <Astron. Astrophys. 661, A5 (2022)>
* =2022A&A...661A...5L
C=============================================================================
C Internal variables
integer*4 i__
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table1.dat' ! The eFEDS AGN catalog
integer*4 nr__
parameter (nr__=22079) ! Number of records
character*736 ar__ ! Full-size record
C J2000 position composed of: RAcdeg DEcdeg
integer*4 ID_SRC ! [1/32683] ID of the sources in the eFEDS
* main X-ray catalog (Paper I) (ID_SRC)
real*8 RAcdeg ! (deg) [126.24/145.59] Right ascension (J2000),
* astrometric corrected (Paper I)
* (RA_CORR)
real*4 DEcdeg ! (deg) [-2.91/5.97] Declination (J2000),
* astrometric corrected (Paper I)
* (DEC_CORR)
real*8 DetLike ! 0.2-2.3 keV source detection likelihood
* (Paper I) (DET_LIKE)
real*4 inArea90 ! Whether located inside the inner
* 90%-area region of eFEDS (Paper I)
* (inArea90)
character*11 CTPLS8 ! ID of the best LS8 counterpart
* (Paper II) (CTP_LS8_UNIQUE_OBJID)
real*8 RALdeg ! (deg) [126.23/145.59] Right ascension (J2000)
* of the best LS8 counterpart (Paper II)
* (CTP_LS8_RA)
real*4 DELdeg ! (deg) [-2.91/5.97] Declination (J2000) of the
* best LS8 counterpart (Paper II)
* (CTP_LS8_DEC)
integer*4 CTPqual ! [2/4] Counterpart quality (Paper II)
* A value >=2 is recommended
* (CTP_quality)
integer*4 CTPClass ! [2/3] Classification of the optical
* counterpart (Paper II) (CTP_CLASS) (1)
real*8 CTPz ! [0.0/8.0] Redshift of the optical
* counterpart (Paper II) (CTP_REDSHIFT)
integer*4 CTPzgrade ! [2/5] Redshift Grade (Paper II)
* A value >=3 is recommended
* (CTP_REDSHIFT_GRADE)
integer*4 inKiDSFlag ! [0/1] Whether located inside the region
* of the KiDS survey (Paper II)
* (in_KiDS_flag)
integer*4 LxModel ! [1/5] Index of selected model for
* luminosity measurement (LxModel) (2)
integer*4 NHclass ! [1/4] Class of AGN NH measurement with
* model 1 (single-powerlaw) (NHclass) (3)
integer*4 FSModel ! [3/6] Index of selected model for
* 0.5-2keV flux (FSModel) (4)
integer*4 FHModel ! [5/7] Index of selected model for
* 2.3-5keV flux (FHModel) (5)
real*4 galNH ! (cm-2) Total column density of Galactic
* absorption (galNH)
real*4 galNHI ! (cm-2) HI column density from HI4PI (galNHI)
real*8 SrcCts ! (ct) Source net counts in the 0.2-5 keV band
* (SrcCts)
real*4 FluxcMedS ! (mW/m2) Absorption corrected flux in observed
* 0.5-2 keV, posterior median
* (FluxCorr_Med_s)
real*4 b_FluxcS ! (mW/m2) Absorption corrected flux in observed
* 0.5-2 keV, 1sigma lower limit
* (FluxCorr_Lo1_s)
real*4 B_FluxcS_1 ! (mW/m2) Absorption corrected flux in observed
* 0.5-2 keV, 1sigma upper limit
* (FluxCorr_Up1_s)
real*4 FluxcMedT ! (mW/m2) Absorption corrected flux in observed
* 2.3-5 keV, posterior median
* (FluxCorr_Med_t)
real*4 b_FluxcT ! (mW/m2) Absorption corrected flux in observed
* 2.3-5 keV, 1sigma lower limit
* (FluxCorr_Lo1_t)
real*4 B_FluxcT_1 ! (mW/m2) Absorption corrected flux in observed
* 2.3-5 keV, 1sigma upper limit
* (FluxCorr_Up1_t)
real*4 FluxIMedS ! (mW/m2) Absorption corrected flux in rest-frame
* 0.5-2 keV, posterior median
* (FluxIntr_Med_s)
real*4 b_FluxIS ! (mW/m2) Absorption corrected flux in rest-frame
* 0.5-2keV, 1sigma lower limit
* (FluxIntr_Lo1_s)
real*4 B_FluxIS_1 ! (mW/m2) Absorption corrected flux in rest-frame
* 0.5-2keV, 1sigma upper limit
* (FluxIntr_Up1_s)
real*4 FluxIMed2keV ! (mW/m2/eV) Absorption corrected flux at rest-frame
* 2keV, median (FluxIntr_Med_2keV)
real*4 b_FluxI2keV ! (mW/m2/eV) Absorption corrected flux at rest-frame
* 2keV, 1sigma lower limit
* (FluxIntr_Lo1_2keV)
real*4 B_FluxI2keV_1 ! (mW/m2/eV) Absorption corrected flux at rest-frame
* 2keV, 1sigma upper limit
* (FluxIntr_Up1_2keV)
real*8 LumIMedS ! (10-7W) Intrinsic luminosity in rest-frame
* 0.5-2 keV, posterior median
* (LumiIntr_Med_s)
real*8 b_LumIS ! (10-7W) Intrinsic luminosity in rest-frame
* 0.5-2 keV, 1sigma lower limit
* (LumiIntr_Lo1_s)
real*8 B_LumIS_1 ! (10-7W) Intrinsic luminosity in rest-frame
* 0.5-2 keV, 1sigma upper limit
* (LumiIntr_Up1_s)
real*8 LumIMed2keV ! (10-7W/eV) Intrinsic luminosity at rest-frame 2keV,
* posterior median in erg/s/eV
* (LumiIntr_Med_2keV)
real*8 b_LumI2keV ! (10-7W/eV) Intrinsic luminosity at rest-frame 2keV,
* 1sigma lower limit in erg/s/eV
* (LumiIntr_Lo1_2keV)
real*8 B_LumI2keV_1 ! (10-7W/eV) Intrinsic luminosity at rest-frame 2keV,
* 1sigma upper limit in erg/s/eV
* (LumiIntr_Up1_2keV)
real*4 FluxObsMedS ! (mW/m2) Observed flux in observed 0.5-2 keV,
* posterior median (FluxObsv_Med_s)
real*4 b_FluxObsS ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma lower limit (FluxObsv_Lo1_s)
real*4 B_FluxObsS_1 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma upper limit (FluxObsv_Up1_s)
real*4 FluxObsMedT ! (mW/m2) Observed flux in observed 2.3-5 keV,
* posterior median (FluxObsv_Med_t)
real*4 b_FluxObsT ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma lower limit (FluxObsv_Lo1_t)
real*4 B_FluxObsT_1 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma upper limit (FluxObsv_Up1_t)
real*8 lognHKLm1 ! log AGN column density, KL divergence
* (in nats units) (lognH_KL_m1)
real*8 b_lognHm1 ! ([cm-2]) log AGN column density, HDI lower limit
* (lognH_HLo_m1)
real*8 B_lognHm1_1 ! ([cm-2]) log AGN column density, HDI upper limit
* (lognH_HUp_m1)
real*8 lognHMedm1 ! ([cm-2]) log AGN column density, posterior median
* (lognH_Med_m1)
real*8 GammaKLm3 ! primary power-law slope in model 3,
* KL divergence (in nats units)
* (Gamma_KL_m3)
real*8 b_GammaHm3 ! primary power-law slope in model 3,
* HDI lower limit (Gamma_HLo_m3)
real*8 B_GammaHm3_1 ! primary power-law slope in model 3,
* HDI upper limit (Gamma_HUp_m3)
real*8 GammaMedm3 ! primary power-law slope in model 3,
* posterior median (Gamma_Med_m3)
real*8 logZm0 ! ([-]) log Bayesian evidence with model 0:
* APEC (logZ_m0)
real*8 logZm1 ! ([-]) log Bayesian evidence with model 1:
* single powerlaw (logZ_m1)
real*8 logZm2 ! ([-]) log Bayesian evidence with model 2:
* double powerlaw (logZ_m2)
real*8 logZm3 ! ([-]) log Bayesian evidence with model 3:
* powerlaw + blackbody (logZ_m3)
real*8 logZm4 ! ([-]) log Bayesian evidence with model 4:
* powerlaw with Gamma fixed at 2.0
* (logZ_m4)
real*8 logZm5 ! ([-]) log Bayesian evidence with model 5:
* shape-fixed powerlaw (logZ_m5)
real*8 L2500 ! (10-7W/Hz) ?=-99.0 The rest-frame 2500 luminosity
* in erg/s/Hz (L2500)
real*8 L5100 ! (10-7W/Hz) ?=-99.0 The rest-frame 5100 luminosity
* in erg/s/Hz (L5100)
real*8 W1mag ! (mag) ? LS8-WISE W1 AB magnitude (Paper II)
* (W1)
real*4 e_W1mag ! (mag) ? LS8-WISE W1 magnitude error (Paper II)
* (W1_ERR)
real*8 W2mag ! (mag) ? LS8-WISE W2 AB magnitude (Paper II)
* (W2)
real*4 e_W2mag ! (mag) ? LS8-WISE W2 magnitude error (Paper II)
* (W2_ERR)
*Note (1): Classification of the optical counterpart as follows:
* 0 = likely Galactic
* 1 = secure Galactic
* 2 = likely extraGalactic
* 3 = secure extraGalactic
*Note (2): Index of selected model for luminosity measurement as follows:
* 1 = single-powerlaw
* 3 = powerlaw+bb
* 4 = powerlaw with Gamma
*Note (3): Class of AGN NH measurement with model 1 (single-powerlaw) as follows:
* 1 = uninformative
* 2 = unobscured
* 3 = mildly-measured
* 4 = well-measured
*Note (4): Index of selected model for 0.5-2keV flux as follows:
* 5 = counts-based measurement for faint sources
* 0 = robust spectra-based measurement
* 3 = robust spectra-based measurement
* 6 = robust spectra-based measurement
*Note (5): Index of selected model for 2.3-5keV flux as follows:
* 5 = counts-based measurement for faint sources
* 7 = robust spectra-based measurement
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table2.dat' ! Spectral properties
integer*4 nr__1
parameter (nr__1=27910) ! Number of records
character*645 ar__1 ! Full-size record
C J2000 position composed of: RAdeg DEdeg
integer*4 ID_SRC_1 ! [1/32683] ID of the sources in the eFEDS
* main X-ray catalog (Paper I) (ID_SRC)
real*8 RAcdeg_1 ! (deg) [126.24/145.66] Right ascension (J2000),
* astrometric corrected (Paper I) (RA_CORR)
real*4 DEcdeg_1 ! (deg) [-2.91/5.97] Declination (J2000),
* astrometric corrected (Paper I)
* (DEC_CORR)
real*8 DetLike_1 ! [6.0/33254.59] 0.2-2.3 keV source
* detection likelihood (Paper I) (DET_LIKE)
real*8 ExtLike ! X-ray source extent likelihood (Paper I)
* (EXT_LIKE)
real*4 inArea90_1 ! Whether located inside the inner 90%-area
* region of eFEDS (Paper I) (inArea90)
real*4 galNH_1 ! (cm-2) Total column density of Galactic
* absorption (galNH)
real*4 galNHI_1 ! (cm-2) HI column density from HI4PI (galNHI)
real*8 ExpTime ! (s) Spectra exposure time (Exposure)
real*8 SrcCts_1 ! (ct) Source net counts in the 0.2-5 keV band
* (SrcCts)
real*8 RAdeg ! (deg) [126.24/145.66] Right ascension (J2000)
* before astrometric correction (Paper I)
* (RA)
real*4 DEdeg ! (deg) [-2.91/5.97] Declination (J2000) before
* astrometric correction (Paper I) (DEC)
integer*4 Rad ! (arcsec) [12/259] Source extraction radius (Rad)
integer*4 Ann1 ! (arcsec) [22/515] Inner radius of background
* extraction region (Ann1)
integer*4 Ann2 ! (arcsec) [171/900] Outer radius of background
* extraction region (Ann2)
real*4 RegArea ! (deg2) Geometry area of source extraction region
* (REGAREA_s)
real*4 Backscal ! (deg2) Source BACKSCAL (Backscal_s)
real*8 BackscalBkg ! (deg2) Background BACKSCAL (Backscal_b)
integer*4 FSModel_1 ! [0/6] Index of selected model for
* 0.5-2keV flux (FSModel) (1)
integer*4 FHModel_1 ! [5/7] Index of selected model for
* 2.3-5keV flux (FHModel) (2)
real*4 Rate0_2_2_3 ! (ct/s) Net count rate in 0.2-2.3 keV
* (Rate_d2_2d3)
real*8 e_Rate0_2_2_3 ! (ct/s) Net count rate error in 0.2-2.3 keV
* (RateErr_d2_2d3)
real*4 Rate0_2_0_5 ! (ct/s) Net count rate in 0.2-0.5 keV (Rate_d2_d5)
real*4 e_Rate0_2_0_5 ! (ct/s) Net count rate error in 0.2-0.5 keV
* (RateErr_d2_d5)
real*4 Rate0_5_1 ! (ct/s) Net count rate in 0.5-1 keV (Rate_d5_1)
real*4 e_Rate0_5_1 ! (ct/s) Net count rate error in 0.5-1 keV
* (RateErr_d5_1)
real*4 Rate1_2 ! (ct/s) Net count rate in 1-2 keV (Rate_1_2)
real*4 e_Rate1_2 ! (ct/s) Net count rate error in 1-2 keV
* (RateErr_1_2)
real*4 Rate2_4_5 ! (ct/s) Net count rate in 2-4.5 keV (Rate_2_4d5)
real*4 e_Rate2_4_5 ! (ct/s) Net count rate error in 2-4.5 keV
* (RateErr_2_4d5)
real*4 Rate2_3_5 ! (ct/s) Net count rate in 2.3-5 keV (Rate_2d3_5)
real*4 e_Rate2_3_5 ! (ct/s) Net count rate error in 2.3-5 keV
* (RateErr_2d3_5)
real*4 Rate5_8 ! (ct/s) Net count rate in 5-8 keV (Rate_5_8)
real*4 e_Rate5_8 ! (ct/s) Net count rate error in 5-8 keV
* (RateErr_5_8)
real*4 BkgCts0_2_0_6 ! (ct) Background counts in 0.2-0.6 keV
* (BkgCts_d2_d6)
real*8 e_BkgCts0_2_0_6 ! (ct) Background counts error in 0.2-0.6 keV
* (BkgCtsErr_d2_d6)
real*4 BkgCts0_6_2_3 ! (ct) Background counts in 0.6-2.3 keV
* (BkgCts_d6_2d3)
real*8 e_BkgCts0_6_2_3 ! (ct) Background counts error in 0.6-2.3 keV
* (BkgCtsErr_d6_2d3)
real*4 BkgCts2_3_5 ! (ct) Background counts in 2.3-5 keV
* (BkgCts_2d3_5)
real*8 e_BkgCts2_3_5 ! (ct) Background counts error in 2.3-5 keV
* (BkgCtsErr_2d3_5)
real*4 BkgCts5_8 ! (ct) Background counts in 5-8 keV (BkgCts_5_8)
real*8 e_BkgCts5_8 ! (ct) Background counts error in 5-8 keV
* (BkgCtsErr_5_8)
real*8 PSFCor0_2_0_5 ! PSF-loss correction (ARF CORRPSF) averaged
* in 0.2-0.5 keV (PSFCor_d2_d5)
real*8 PSFCor0_5_1 ! PSF-loss correction (ARF CORRPSF) averaged
* in 0.5-1 keV (PSFCor_d5_1)
real*8 PSFCor1_2 ! PSF-loss correction (ARF CORRPSF) averaged
* in 1-2 keV (PSFCor_1_2)
real*8 PSFCor2_3_5 ! PSF-loss correction (ARF CORRPSF) averaged
* in 2.3-5 keV (PSFCor_2d3_5)
integer*4 Nempty ! [35/771] Number of empty channels between
* channel 20 and 900 (Nempty)
real*4 FluxObsMedS_1 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* posterior median (FluxObsv_Med_s)
real*4 b_FluxObsS_2 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma lower limit (FluxObsv_Lo1_s)
real*4 B_FluxObsS_3 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma upper limit (FluxObsv_Up1_s)
real*4 FluxObsMedT_1 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* posterior median (FluxObsv_Med_t)
real*4 b_FluxObsT_2 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma lower limit (FluxObsv_Lo1_t)
real*4 B_FluxObsT_3 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma upper limit (FluxObsv_Up1_t)
*Note (1): Index of selected model for 0.5-2keV flux as follows:
* 5 = counts-based measurement for faint sources
* 0 = robust spectra-based measurement
* 3 = robust spectra-based measurement
* 6 = robust spectra-based measurement
*Note (2): Index of selected model for 2.3-5keV flux as follows:
* 5 = counts-based measurement for faint sources
* 7 = robust spectra-based measurement
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table3.dat' ! APEC fitting results
integer*4 nr__2
parameter (nr__2=27910) ! Number of records
character*715 ar__2 ! Full-size record
integer*4 ID_SRC_2 ! [1/32683] ID of the sources in the eFEDS
* main X-ray catalog (Paper I) (ID_SRC)
real*4 z ! The redshift adopted for the spectral
* model (Redshift)
real*8 lognHKL ! log AGN column density, KL divergence
* (in nats units) (lognH_KL)
real*8 b_lognHH ! ([cm-2]) log AGN column density, HDI lower limit
* (lognH_HLo)
real*8 B_lognHH_1 ! ([cm-2]) log AGN column density, HDI upper limit
* (lognH_HUp)
real*8 logkTKL ! log temperature, KL divergence
* (in nats units) (logkT_KL)
real*4 b_logkTH ! ([keV]) log temperature, HDI lower limit
* (logkT_HLo)
real*4 B_logkTH_1 ! ([keV]) log temperature, HDI upper limit
* (logkT_HUp)
real*8 logAbundKL ! log abundance, KL divergence
* (in nats units) (logAbundanc_KL)
real*8 b_logAbunH ! log abundance, HDI lower limit
* (logAbundanc_HLo)
real*4 B_logAbunH_1 ! log abundance, HDI upper limit
* (logAbundanc_HUp)
real*8 logApecNormKL ! log APEC normalization, KL divergence
* (in nats units) (logApecNorm_KL)
real*8 b_logApecNormH ! ([cm-5]) log APEC normalization, HDI lower limit
* (logApecNorm_HLo)
real*8 B_logApecNormH_1 ! ([cm-5]) log APEC normalization, HDI upper limit
* (logApecNorm_HUp)
real*8 lognHBF ! ([cm-2]) log AGN column density, best-fit model
* (lognH_BF)
real*4 logkTBF ! ([keV]) log temperature, best-fit model
* (logkT_BF)
real*4 logAbundBF ! log abundance, best-fit model
* (logAbundanc_BF)
real*8 logApecNBF ! ([cm-5]) log APEC normalization, best-fit model
* (logApecNorm_BF)
real*4 FluxObsBFS ! (mW/m2) Observed flux in observed 0.5-2 keV,
* best-fit model (FluxObsv_BF_s)
real*4 FluxObsMedS_2 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* posterior median (FluxObsv_Med_s)
real*4 b_FluxObsS_4 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma lower limit (FluxObsv_Lo1_s)
real*4 B_FluxObsS_5 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma upper limit (FluxObsv_Up1_s)
real*4 b2_FluxObsS ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 2sigma lower limit (FluxObsv_Lo2_s)
real*4 B2_FluxObsS_1 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 2sigma upper limit (FluxObsv_Up2_s)
real*4 FluxObsBFT ! (mW/m2) Observed flux in observed 2.3-5 keV,
* best-fit model (FluxObsv_BF_t)
real*4 FluxObsMedT_2 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* posterior median (FluxObsv_Med_t)
real*4 b_FluxObsT_4 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma lower limit (FluxObsv_Lo1_t)
real*4 B_FluxObsT_5 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma upper limit (FluxObsv_Up1_t)
real*4 b2_FluxObsT ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 2sigma lower limit (FluxObsv_Lo2_t)
real*4 B2_FluxObsT_1 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 2sigma upper limit (FluxObsv_Up2_t)
real*8 lognHMed ! ([cm-2]) log AGN column density, posterior median
* (lognH_Med)
real*8 b_lognH ! ([cm-2]) log AGN column density, percentile
* lower limit (lognH_Lo)
real*8 B_lognH_1 ! ([cm-2]) log AGN column density, percentile
* upper limit (lognH_Up)
real*8 lognHMean ! ([cm-2]) log AGN column density, mean (lognH_Mean)
real*8 s_lognH ! ([cm-2]) log AGN column density,
* standard deviation (lognH_Std)
real*4 logkTMed ! ([keV]) log temperature, posterior median
* (logkT_Med)
real*4 b_logkT ! ([keV]) log temperature, percentile lower limit
* (logkT_Lo)
real*4 B_logkT_1 ! ([keV]) log temperature, percentile upper limit
* (logkT_Up)
real*4 logkTMean ! ([keV]) log temperature, mean (logkT_Mean)
real*8 s_logkT ! ([keV]) log temperature, standard deviation
* (logkT_Std)
real*8 logAbundMed ! log abundance, posterior median
* (logAbundanc_Med)
real*8 b_logAbund ! log abundance, percentile lower limit
* (logAbundanc_Lo)
real*8 B_logAbund_1 ! log abundance, percentile upper limit
* (logAbundanc_Up)
real*8 logAbundMean ! log abundance, mean (logAbundanc_Mean)
real*8 s_logAbund ! log abundance, standard deviation
* (logAbundanc_Std)
real*8 logApecNMed ! ([cm-5]) log APEC normalization, posterior median
* (logApecNorm_Med)
real*8 b_logApecN ! ([cm-5]) log APEC normalization, percentile
* lower limit (logApecNorm_Lo)
real*8 B_logApecN_1 ! ([cm-5]) log APEC normalization, percentile
* upper limit (logApecNorm_Up)
real*8 logApecNMean ! ([cm-5]) log APEC normalization, mean
* (logApecNorm_Mean)
real*8 s_logApecN ! ([cm-5]) log APEC normalization,
* standard deviation (logApecNorm_Std)
real*4 logBkgNMed ! log background normalization,
* posterior median (logBkgNorm_Med)
real*4 b_logBkgN ! log background normalization,
* percentile lower limit (logBkgNorm_Lo)
real*4 B_logBkgN_1 ! log background normalization,
* percentile upper limit (logBkgNorm_Up)
real*4 logBkgNMean ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 s_logBkgN ! log background normalization,
* standard deviation (logBkgNorm_Std)
real*8 chi25 ! ?=-99 Chi^2 of the best-fit model against
* the rebinned data (>=25 cts/bin) (chi25)
integer*4 dof25 ! ?=-99 DOF of the rebinned data, which
* has at least 25 counts per bin (dof25)
real*8 logZ ! log10 Bayesian evidence (logZ)
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table4.dat' ! Single-powerlaw results
integer*4 nr__3
parameter (nr__3=27910) ! Number of records
character*990 ar__3 ! Full-size record
integer*4 ID_SRC_3 ! [1/32683] ID of the sources in the
* eFEDS main X-ray catalog (Paper I)
* (ID_SRC)
real*4 z_1 ! [-0.01/8.0] The redshift adopted for
* the spectral model (Redshift)
real*8 GammaKL ! power-law slope, KL divergence
* (in nats units) (Gamma_KL)
real*8 b_GammaH ! power-law slope, HDI lower limit
* (Gamma_HLo)
real*8 B_GammaH_1 ! power-law slope, HDI upper limit
* (Gamma_HUp)
real*8 lognHKL_1 ! log AGN column density,
* KL divergence (in nats units)
* (lognH_KL)
real*8 b_lognHH_2 ! ([cm-2]) log AGN column density,
* HDI lower limit (lognH_HLo)
real*8 B_lognHH_3 ! ([cm-2]) log AGN column density,
* HDI upper limit (lognH_HUp)
real*8 logPowNKL ! log power-law normalization,
* KL divergence (in nats units)
* (logPowNorm_KL)
real*8 b_logPowNH ! (ph/keV/cm2/s) log power-law normalization,
* HDI lower limit (logPowNorm_HLo)
real*8 B_logPowNH_1 ! (ph/keV/cm2/s) log power-law normalization,
* HDI upper limit (logPowNorm_HUp)
real*8 GammaBF ! power-law slope, best-fit model
* (Gamma_BF)
real*8 lognHBF_1 ! ([cm-2]) log AGN column density,
* best-fit model (lognH_BF)
real*8 logPowNBF ! (ph/keV/cm2/s) log power-law normalization,
* best-fit model (logPowNorm_BF)
real*4 FluxObsBFS_1 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* best-fit model (FluxObsv_BF_s)
real*4 FluxObsMedS_3 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* posterior median (FluxObsv_Med_s)
real*4 b_FluxObsS_6 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma lower limit (FluxObsv_Lo1_s)
real*4 B_FluxObsS_7 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 1sigma upper limit (FluxObsv_Up1_s)
real*4 b2_FluxObsS_2 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 2sigma lower limit (FluxObsv_Lo2_s)
real*4 B2_FluxObsS_3 ! (mW/m2) Observed flux in observed 0.5-2 keV,
* 2sigma upper limit (FluxObsv_Up2_s)
real*4 FluxObsBFT_1 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* best-fit model (FluxObsv_BF_t)
real*4 FluxObsMedT_3 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* posterior median (FluxObsv_Med_t)
real*4 b_FluxObsT_6 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma lower limit (FluxObsv_Lo1_t)
real*4 B_FluxObsT_7 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 1sigma upper limit (FluxObsv_Up1_t)
real*4 b2_FluxObsT_2 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 2sigma lower limit (FluxObsv_Lo2_t)
real*4 B2_FluxObsT_3 ! (mW/m2) Observed flux in observed 2.3-5 keV,
* 2sigma upper limit (FluxObsv_Up2_t)
real*4 FluxcBFS ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* best-fit model (FluxCorr_BF_s)
real*4 FluxcMedS_1 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* posterior median (FluxCorr_Med_s)
real*4 b_FluxcS_2 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* 1sigma lower limit (FluxCorr_Lo1_s)
real*4 B_FluxcS_3 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* 1sigma upper limit (FluxCorr_Up1_s)
real*4 b2_FluxcS ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* 2sigma lower limit (FluxCorr_Lo2_s)
real*4 B2_FluxcS_1 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* 2sigma upper limit (FluxCorr_Up2_s)
real*4 FluxcBFT ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, best-fit model
* (FluxCorr_BF_t)
real*4 FluxcMedT_1 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV,
* posterior median (FluxCorr_Med_t)
real*4 b_FluxcT_2 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV,
* 1sigma lower limit (FluxCorr_Lo1_t)
real*4 B_FluxcT_3 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV,
* 1sigma upper limit (FluxCorr_Up1_t)
real*4 b2_FluxcT ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV,
* 2sigma lower limit (FluxCorr_Lo2_t)
real*4 B2_FluxcT_1 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV,
* 2sigma upper limit (FluxCorr_Up2_t)
real*4 FluxIBFS ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV,
* best-fit model (FluxIntr_BF_s)
real*4 FluxIMedS_1 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV,
* posterior median (FluxIntr_Med_s)
real*4 b_FluxIS_2 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV,
* 1sigma lower limit (FluxIntr_Lo1_s)
real*4 B_FluxIS_3 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV,
* 1sigma upper limit (FluxIntr_Up1_s)
real*4 b2_FluxIS ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV,
* 2sigma lower limit (FluxIntr_Lo2_s)
real*4 B2_FluxIS_1 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV,
* 2sigma upper limit (FluxIntr_Up2_s)
real*4 FluxIBF2keV ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, best- fit
* (FluxIntr_BF_2keV)
real*4 FluxIMed2keV_1 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, median
* (FluxIntr_Med_2keV)
real*4 b_FluxI2keV_2 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* lower limit (FluxIntr_Lo1_2keV)
real*4 B_FluxI2keV_3 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* upper limit (FluxIntr_Up1_2keV)
real*4 b2_FluxI2keV ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* lower limit (FluxIntr_Lo2_2keV)
real*4 B2_FluxI2keV_1 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* upper limit (FluxIntr_Up2_2keV)
real*8 LumIBFS ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* best-fit model (LumiIntr_BF_s)
real*8 LumIMedS_1 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* posterior median (LumiIntr_Med_s)
real*8 b_LumIS_2 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 1sigma lower limit (LumiIntr_Lo1_s)
real*8 B_LumIS_3 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 1sigma upper limit (LumiIntr_Up1_s)
real*8 b2_LumIS ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 2sigma lower limit (LumiIntr_Lo2_s)
real*8 B2_LumIS_1 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 2sigma upper limit (LumiIntr_Up2_s)
real*8 LumIBF2keV ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, best-fit model
* (LumiIntr_BF_2keV)
real*8 LumIMed2keV_1 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, posterior median
* (LumiIntr_Med_2keV)
real*8 b_LumI2keV_2 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma lower limit
* (LumiIntr_Lo1_2keV)
real*8 B_LumI2keV_3 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma upper limit
* (LumiIntr_Up1_2keV)
real*8 b2_LumI2keV ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma lower limit
* (LumiIntr_Lo2_2keV)
real*8 B2_LumI2keV_1 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma upper limit
* (LumiIntr_Up2_2keV)
real*8 GammaMed ! power-law slope, posterior median
* (Gamma_Med)
real*8 b_Gamma ! power-law slope, percentile
* lower limit (Gamma_Lo)
real*8 B_Gamma_1 ! power-law slope, percentile
* upper limit (Gamma_Up)
real*8 GammaMean ! power-law slope, mean (Gamma_Mean)
real*8 s_Gamma ! power-law slope, standard deviation
* (Gamma_Std)
real*8 lognHMed_1 ! ([cm-2]) log AGN column density,
* posterior median (lognH_Med)
real*8 b_lognH_2 ! ([cm-2]) log AGN column density,
* percentile lower limit (lognH_Lo)
real*8 B_lognH_3 ! ([cm-2]) log AGN column density,
* percentile upper limit (lognH_Up)
real*8 lognHMean_1 ! ([cm-2]) log AGN column density,
* mean (lognH_Mean)
real*8 s_lognH_1 ! ([cm-2]) log AGN column density,
* standard deviation (lognH_Std)
real*8 logPowNMed ! (ph/keV/cm2/s) log power-law normalization,
* posterior median (logPowNorm_Med)
real*8 b_logPowN ! (ph/keV/cm2/s) log power-law normalization,
* percentile lower limit
* (logPowNorm_Lo)
real*8 B_logPowN_1 ! (ph/keV/cm2/s) log power-law normalization,
* percentile upper limit
* (logPowNorm_Up)
real*8 logPowNMean ! (ph/keV/cm2/s) log power-law normalization,
* mean (logPowNorm_Mean)
real*8 s_logPowN ! (ph/keV/cm2/s) log power-law normalization,
* standard deviation (logPowNorm_Std)
real*4 logBkgNMed_1 ! log background normalization,
* posterior median (logBkgNorm_Med)
real*8 b_logBkgN_2 ! log background normalization,
* percentile lower limit
* (logBkgNorm_Lo)
real*4 B_logBkgN_3 ! log background normalization,
* percentile upper limit
* (logBkgNorm_Up)
real*4 logBkgNMean_1 ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 s_logBkgN_1 ! log background normalization,
* standard deviation (logBkgNorm_Std)
real*8 chi25_1 ! ?=-99 Chi^2 of the best-fit model
* against the rebinned data
* (>=25 cts/bin) (chi25)
integer*4 dof25_1 ! ?=-99 DOF of the rebinned data,
* which has at least 25 counts per
* bin (dof25)
real*8 logZ_1 ! log10 Bayesian evidence (logZ)
integer*4 NHclass_1 ! [1/4] Class of AGN NH measurement
* with model 1 (single-powerlaw)
* (NHclass) (1)
*Note (1): Class of AGN NH measurement with model 1 (single-powerlaw)
* as follows:
* 1 = uninformative
* 2 = unobscured
* 3 = mildly-measured
* 4 = well-measured
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table5.dat' ! Double-powerlaw results
integer*4 nr__4
parameter (nr__4=27910) ! Number of records
character*1175 ar__4 ! Full-size record
integer*4 ID_SRC_4 ! [1/32683] ID of the sources in
* the eFEDS main X-ray catalog
* (Paper I) (ID_SRC)
real*4 z_2 ! [-0.01/8.0] The redshift adopted
* for the spectral model
* (Redshift)
real*8 dGmKL ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* KL divergence (in nats units)
* (dGm_KL)
real*8 b_dGmH ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* HDI lower limit (dGm_HLo)
real*8 B_dGmH_1 ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* HDI upper limit (dGm_HUp)
real*8 GammaKL_1 ! ? power-law slope,
* KL divergence (in nats units)
* (Gamma_KL)
real*8 b_GammaH_2 ! power-law slope, HDI lower limit
* (Gamma_HLo)
real*8 B_GammaH_3 ! power-law slope, HDI upper limit
* (Gamma_HUp)
real*8 lognHKL_2 ! log AGN column density,
* KL divergence (in nats units)
* (lognH_KL)
real*8 b_lognHH_4 ! ([cm-2]) log AGN column density,
* HDI lower limit (lognH_HLo)
real*8 B_lognHH_5 ! ([cm-2]) log AGN column density,
* HDI upper limit (lognH_HUp)
real*8 logPowNKL_1 ! log power-law normalization,
* KL divergence (in nats units)
* (logPowNorm_KL)
real*8 b_logPowNH_2 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI lower limit
* (logPowNorm_HLo)
real*8 B_logPowNH_3 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI upper limit
* (logPowNorm_HUp)
real*8 logFracKL ! ? Constant factor multiplied to
* the soft power-law,
* KL divergence (in nats units)
* (logFrac_KL)
real*8 b_logFracH ! Constant factor multiplied to
* the soft power-law,
* HDI lower limit (logFrac_HLo)
real*4 B_logFracH_1 ! Constant factor multiplied to
* the soft power-law,
* HDI upper limit (logFrac_HUp)
real*8 dGmBF ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* best-fit model (dGm_BF)
real*8 GammaBF_1 ! power-law slope, best-fit model
* (Gamma_BF)
real*8 lognHBF_2 ! ([cm-2]) log AGN column density,
* best-fit model (lognH_BF)
real*8 logPowNBF_1 ! ([ph/keV/cm2/s]) log power-law normalization,
* best-fit model (logPowNorm_BF)
real*4 logFracBF ! Constant factor multiplied to
* the soft power-law, best-fit
* model (logFrac_BF)
real*4 FluxObsBFS_2 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, best-fit model
* (FluxObsv_BF_s)
real*4 FluxObsMedS_4 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, posterior median
* (FluxObsv_Med_s)
real*4 b_FluxObsS_8 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma lower limit
* (FluxObsv_Lo1_s)
real*4 B_FluxObsS_9 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma upper limit
* (FluxObsv_Up1_s)
real*4 b2_FluxObsS_4 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma lower limit
* (FluxObsv_Lo2_s)
real*4 B2_FluxObsS_5 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma upper limit
* (FluxObsv_Up2_s)
real*4 FluxObsBFT_2 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, best-fit model
* (FluxObsv_BF_t)
real*4 FluxObsMedT_4 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, posterior median
* (FluxObsv_Med_t)
real*4 b_FluxObsT_8 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma lower limit
* (FluxObsv_Lo1_t)
real*4 B_FluxObsT_9 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma upper limit
* (FluxObsv_Up1_t)
real*4 b2_FluxObsT_4 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma lower limit
* (FluxObsv_Lo2_t)
real*4 B2_FluxObsT_5 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma upper limit
* (FluxObsv_Up2_t)
real*4 FluxCBFS_1 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* best-fit model (FluxCorr_BF_s)
real*4 FluxCMedS_2 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, posterior
* median (FluxCorr_Med_s)
real*4 b_FluxCS_4 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* lower limit (FluxCorr_Lo1_s)
real*4 B_FluxCS_5 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* upper limit (FluxCorr_Up1_s)
real*4 b2_FluxCS_2 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* lower limit (FluxCorr_Lo2_s)
real*4 B2_FluxCS_3 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* upper limit (FluxCorr_Up2_s)
real*4 FluxCBFT_1 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV,
* best-fit model (FluxCorr_BF_t)
real*4 FluxCMedT_2 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, posterior
* median (FluxCorr_Med_t)
real*4 b_FluxCT_4 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* lower limit (FluxCorr_Lo1_t)
real*4 B_FluxCT_5 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* upper limit (FluxCorr_Up1_t)
real*4 b2_FluxCT_2 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* lower limit (FluxCorr_Lo2_t)
real*4 B2_FluxCT_3 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* upper limit (FluxCorr_Up2_t)
real*4 FluxIBFS_1 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV,
* best-fit model (FluxIntr_BF_s)
real*4 FluxIMedS_2 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV,
* posterior median
* (FluxIntr_Med_s)
real*4 b_FluxIS_4 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* lower limit (FluxIntr_Lo1_s)
real*4 B_FluxIS_5 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* upper limit (FluxIntr_Up1_s)
real*4 b2_FluxIS_2 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* lower limit (FluxIntr_Lo2_s)
real*4 B2_FluxIS_3 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* upper limit (FluxIntr_Up2_s)
real*4 FluxIBF2keV_1 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, best-fit
* (FluxIntr_BF_2keV)
real*4 FluxIMed2keV_2 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, median
* (FluxIntr_Med_2keV)
real*4 b_FluxI2keV_4 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* lower limit (FluxIntr_Lo1_2keV)
real*4 B_FluxI2keV_5 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* upper limit (FluxIntr_Up1_2keV)
real*4 b2_FluxI2keV_2 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* lower limit (FluxIntr_Lo2_2keV)
real*4 B2_FluxI2keV_3 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* upper limit (FluxIntr_Up2_2keV)
real*8 LumIBFS_1 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* best-fit model (LumiIntr_BF_s)
real*8 LumIMedS_2 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, posterior
* median (LumiIntr_Med_s)
real*8 b_LumIS_4 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 1sigma lower limit
* (LumiIntr_Lo1_s)
real*8 B_LumIS_5 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 1sigma upper limit
* (LumiIntr_Up1_s)
real*8 b2_LumIS_2 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 2sigma lower limit
* (LumiIntr_Lo2_s)
real*8 B2_LumIS_3 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV,
* 2sigma upper limit
* (LumiIntr_Up2_s)
real*8 LumIBF2keV_1 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, best-fit
* model (LumiIntr_BF_2keV)
real*8 LumIMed2keV_2 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, posterior
* median (LumiIntr_Med_2keV)
real*8 b_LumI2keV_4 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma
* lower limit (LumiIntr_Lo1_2keV)
real*8 B_LumI2keV_5 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma
* upper limit (LumiIntr_Up1_2keV)
real*8 b2_LumI2keV_2 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma
* lower limit (LumiIntr_Lo2_2keV)
real*8 B2_LumI2keV_3 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma
* upper limit (LumiIntr_Up2_2keV)
real*8 dGmMed ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* posterior median (dGm_Med)
real*8 b_dGm ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* 1sigma lower limit (dGm_Lo)
real*8 B_dGm_1 ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* 1sigma upper limit (dGm_Up)
real*8 dGmMean ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* mean (dGm_Mean)
real*8 s_dGm ! Soft-powerlaw slope minus
* primary-powerlaw slope,
* standard deviation (dGm_Std)
real*8 GammaMed_1 ! power-law slope, posterior
* median (Gamma_Med)
real*8 b_Gamma_2 ! power-law slope, percentile
* lower limit (Gamma_Lo)
real*8 B_Gamma_3 ! power-law slope, percentile
* upper limit (Gamma_Up)
real*8 GammaMean_1 ! power-law slope, mean
* (Gamma_Mean)
real*4 s_Gamma_1 ! power-law slope,
* standard deviation (Gamma_Std)
real*8 lognHMed_2 ! ([cm-2]) log AGN column density,
* posterior median (lognH_Med)
real*8 b_lognH_4 ! ([cm-2]) log AGN column density,
* percentile lower limit
* (lognH_Lo)
real*8 B_lognH_5 ! ([cm-2]) log AGN column density,
* percentile upper limit
* (lognH_Up)
real*8 lognHMean_2 ! ([cm-2]) log AGN column density,
* mean (lognH_Mean)
real*8 s_lognH_2 ! ([cm-2]) log AGN column density,
* standard deviation (lognH_Std)
real*8 logPowNMed_1 ! ([ph/keV/cm2/s]) log power-law normalization,
* posterior median
* (logPowNorm_Med)
real*8 b_logPowN_2 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile lower limit
* (logPowNorm_Lo)
real*8 B_logPowN_3 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile upper limit
* (logPowNorm_Up)
real*8 logPowNMean_1 ! ([ph/keV/cm2/s]) log power-law normalization,
* mean (logPowNorm_Mean)
real*8 s_logPowN_1 ! ([ph/keV/cm2/s]) log power-law normalization,
* standard deviation
* (logPowNorm_Std)
real*8 logFracMed ! Constant factor multiplied to
* the soft power-law,
* posterior median (logFrac_Med)
real*8 b_logFrac ! Constant factor multiplied to
* the soft power-law,
* 1sigma lower limit (logFrac_Lo)
real*8 B_logFrac_1 ! Constant factor multiplied to
* the soft power-law,
* 1sigma upper limit (logFrac_Up)
real*8 logFracMean ! Constant factor multiplied to
* the soft power-law,
* mean (logFrac_Mean)
real*8 s_logFrac ! Constant factor multiplied to
* the soft power-law,
* standard deviation
* (logFrac_Std)
real*4 logBkgNMed_2 ! log background normalization,
* posterior median
* (logBkgNorm_Med)
real*8 b_logBkgN_4 ! log background normalization,
* percentile lower limit
* (logBkgNorm_Lo)
real*4 B_logBkgN_5 ! log background normalization,
* percentile upper limit
* (logBkgNorm_Up)
real*4 logBkgNMean_2 ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 s_logBkgN_2 ! log background normalization,
* standard deviation
* (logBkgNorm_Std)
real*8 chi25_2 ! ?=-99 Chi^2 of the best-fit
* model against the rebinned
* data (>=25 cts/bin) (chi25)
integer*4 dof25_2 ! ?=-99 DOF of the rebinned data,
* which has at least 25 counts
* per bin (dof25)
real*8 logZ_2 ! log10 Bayesian evidence (logZ)
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table6.dat' ! Powerlaw+blackbody results
integer*4 nr__5
parameter (nr__5=27910) ! Number of records
character*1217 ar__5 ! Full-size record
integer*4 ID_SRC_5 ! [1/32683] ID of the sources in
* the eFEDS main X-ray catalog
* (Paper I) (ID_SRC)
real*4 z_3 ! [-0.01/8.0] The redshift adopted
* for the spectral model
* (Redshift)
real*8 GammaKL_2 ! power-law slope, KL divergence
* (in nats units) (Gamma_KL)
real*8 b_GammaH_4 ! power-law slope, HDI lower limit
* (Gamma_HLo)
real*8 B_GammaH_5 ! power-law slope, HDI upper limit
* (Gamma_HUp)
real*8 lognHKL_3 ! log AGN column density,
* KL divergence (in nats units)
* (lognH_KL)
real*8 b_lognHH_6 ! ([cm-2]) log AGN column density,
* HDI lower limit (lognH_HLo)
real*8 B_lognHH_7 ! ([cm-2]) log AGN column density,
* HDI upper limit (lognH_HUp)
real*8 logPowNKL_2 ! log power-law normalization,
* KL divergence (in nats units)
* (logPowNorm_KL)
real*8 b_logPowNH_4 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI lower limit
* (logPowNorm_HLo)
real*8 B_logPowNH_5 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI upper limit (logPowNorm_HUp)
real*8 logkTKL_1 ! log temperature,
* KL divergence (in nats units)
* (logkT_KL)
real*8 b_logkTH_2 ! ([keV]) log temperature, HDI lower limit
* (logkT_HLo)
real*8 B_logkTH_3 ! ([keV]) log temperature, HDI upper limit
* (logkT_HUp)
real*8 logBBNKL ! log blackbody normalization,
* KL divergence (in nats units)
* (logBBNorm_KL)
real*8 b_logBBNH ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/pc^2^, HDI
* lower limit (logBBNorm_HLo)
real*8 B_logBBNH_1 ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/pc^2^, HDI
* upper limit (logBBNorm_HUp)
real*8 GammaBF_2 ! power-law slope, best-fit model
* (Gamma_BF)
real*8 lognHBF_3 ! ([cm-2]) log AGN column density,
* best-fit model (lognH_BF)
real*8 logPowNBF_2 ! ([ph/keV/cm2/s]) log power- law normalization,
* best-fit model (logPowNorm_BF)
real*8 logkTBF_1 ! ([keV]) log temperature, best- fit model
* (logkT_BF)
real*8 logBBNBF ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/pc^2^, best-fit
* model (logBBNorm_BF)
real*4 FluxObsBFS_3 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, best-fit model
* (FluxObsv_BF_s)
real*4 FluxObsMedS_5 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, posterior median
* (FluxObsv_Med_s)
real*4 b_FluxObsS_10 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma lower limit
* (FluxObsv_Lo1_s)
real*4 B_FluxObsS_11 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma upper limit
* (FluxObsv_Up1_s)
real*4 b2_FluxObsS_6 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma lower limit
* (FluxObsv_Lo2_s)
real*4 B2_FluxObsS_7 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma upper limit
* (FluxObsv_Up2_s)
real*4 FluxObsBFT_3 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, best-fit model
* (FluxObsv_BF_t)
real*4 FluxObsMedT_5 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, posterior median
* (FluxObsv_Med_t)
real*4 b_FluxObsT_10 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma lower limit
* (FluxObsv_Lo1_t)
real*4 B_FluxObsT_11 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma upper limit
* (FluxObsv_Up1_t)
real*4 b2_FluxObsT_6 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma lower limit
* (FluxObsv_Lo2_t)
real*4 B2_FluxObsT_7 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma upper limit
* (FluxObsv_Up2_t)
real*4 FluxCBFS_2 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, best-fit
* model (FluxCorr_BF_s)
real*4 FluxCMedS_3 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, posterior
* median (FluxCorr_Med_s)
real*4 b_FluxCS_6 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* lower limit (FluxCorr_Lo1_s)
real*4 B_FluxCS_7 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* upper limit (FluxCorr_Up1_s)
real*4 b2_FluxCS_4 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* lower limit (FluxCorr_Lo2_s)
real*4 B2_FluxCS_5 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* upper limit (FluxCorr_Up2_s)
real*4 FluxCBFT_2 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, best-fit
* model (FluxCorr_BF_t)
real*4 FluxCMedT_3 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, posterior
* median (FluxCorr_Med_t)
real*4 b_FluxCT_6 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* lower limit (FluxCorr_Lo1_t)
real*4 B_FluxCT_7 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* upper limit (FluxCorr_Up1_t)
real*4 b2_FluxCT_4 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* lower limit (FluxCorr_Lo2_t)
real*4 B2_FluxCT_5 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* upper limit (FluxCorr_Up2_t)
real*4 FluxIBFS_2 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV,
* best-fit model (FluxIntr_BF_s)
real*4 FluxIMedS_3 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, posterior
* median (FluxIntr_Med_s)
real*4 b_FluxIS_6 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* lower limit (FluxIntr_Lo1_s)
real*4 B_FluxIS_7 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* upper limit (FluxIntr_Up1_s)
real*4 b2_FluxIS_4 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* lower limit (FluxIntr_Lo2_s)
real*4 B2_FluxIS_5 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* upper limit (FluxIntr_Up2_s)
real*4 FluxIBF2keV_2 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, best-fit
* (FluxIntr_BF_2keV)
real*4 FluxIMed2keV_3 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, median
* (FluxIntr_Med_2keV)
real*4 b_FluxI2keV_6 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* lower limit (FluxIntr_Lo1_2keV)
real*4 B_FluxI2keV_7 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* upper limit (FluxIntr_Up1_2keV)
real*4 b2_FluxI2keV_4 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* lower limit (FluxIntr_Lo2_2keV)
real*4 B2_FluxI2keV_5 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* upper limit (FluxIntr_Up2_2keV)
real*8 LumIBFS_2 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, best-fit
* model (LumiIntr_BF_s)
real*8 LumIMedS_3 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, posterior
* median (LumiIntr_Med_s)
real*8 b_LumIS_6 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 1sigma
* lower limit (LumiIntr_Lo1_s)
real*8 B_LumIS_7 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 1sigma
* upper limit (LumiIntr_Up1_s)
real*8 b2_LumIS_4 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 2sigma
* lower limit (LumiIntr_Lo2_s)
real*8 B2_LumIS_5 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 2sigma
* upper limit (LumiIntr_Up2_s)
real*8 LumIBF2keV_2 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, best-fit
* model (LumiIntr_BF_2keV)
real*8 LumIMed2keV_3 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, posterior
* median (LumiIntr_Med_2keV)
real*8 b_LumI2keV_6 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma
* lower limit (LumiIntr_Lo1_2keV)
real*8 B_LumI2keV_7 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma
* upper limit (LumiIntr_Up1_2keV)
real*8 b2_LumI2keV_4 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma
* lower limit (LumiIntr_Lo2_2keV)
real*8 B2_LumI2keV_5 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma
* upper limit (LumiIntr_Up2_2keV)
real*8 GammaMed_2 ! power-law slope, posterior
* median (Gamma_Med)
real*8 b_Gamma_4 ! power-law slope, percentile
* lower limit (Gamma_Lo)
real*8 B_Gamma_5 ! power-law slope, percentile
* upper limit (Gamma_Up)
real*8 GammaMean_2 ! power-law slope, mean
* (Gamma_Mean)
real*8 s_Gamma_2 ! power-law slope,
* standard deviation (Gamma_Std)
real*8 lognHMed_3 ! ([cm-2]) log AGN column density,
* posterior median (lognH_Med)
real*8 b_lognH_6 ! ([cm-2]) log AGN column density,
* percentile lower limit
* (lognH_Lo)
real*8 B_lognH_7 ! ([cm-2]) log AGN column density,
* percentile upper limit
* (lognH_Up)
real*8 lognHMean_3 ! ([cm-2]) log AGN column density,
* mean (lognH_Mean)
real*8 s_lognH_3 ! ([cm-2]) log AGN column density,
* standard deviation (lognH_Std)
real*8 logPowNMed_2 ! ([ph/keV/cm2/s]) log power-law normalization,
* posterior median
* (logPowNorm_Med)
real*8 b_logPowN_4 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile lower limit
* (logPowNorm_Lo)
real*8 B_logPowN_5 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile upper limit
* (logPowNorm_Up)
real*8 logPowNMean_2 ! ([ph/keV/cm2/s]) log power-law normalization,
* mean (logPowNorm_Mean)
real*8 s_logPowN_2 ! ([ph/keV/cm2/s]) log power-law normalization,
* standard deviation
* (logPowNorm_Std)
real*8 logkTMed_1 ! ([keV]) log temperature, posterior
* median (logkT_Med)
real*8 b_logkT_2 ! ([keV]) log temperature, percentile
* lower limit (logkT_Lo)
real*8 B_logkT_3 ! ([keV]) log temperature, percentile
* upper limit (logkT_Up)
real*8 logkTMean_1 ! ([keV]) log temperature, mean
* (logkT_Mean)
real*8 s_logkT_1 ! ([keV]) log temperature, standard
* deviation (logkT_Std)
real*8 logBBNMed ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/s/pc^2^, posterior
* median (logBBNorm_Med)
real*8 b_logBBN ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/s/pc^2^, percentile
* lower limit (logBBNorm_Lo)
real*8 B_logBBN_1 ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/s/pc^2^, percentile
* upper limit (logBBNorm_Up)
real*8 logBBNMean ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/s/pc^2^,
* mean (logBBNorm_Mean)
real*8 s_logBBN ! ([10+24W/pc2]) log blackbody normalization in
* 10^+31^erg/s/pc^2^, standard
* deviation (logBBNorm_Std)
real*4 logBkgNMed_3 ! log background normalization,
* posterior median
* (logBkgNorm_Med)
real*8 b_logBkgN_6 ! log background normalization,
* percentile lower limit
* (logBkgNorm_Lo)
real*4 B_logBkgN_7 ! log background normalization,
* percentile upper limit
* (logBkgNorm_Up)
real*4 logBkgNMean_3 ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 s_logBkgN_3 ! log background normalization,
* standard deviation
* (logBkgNorm_Std)
real*8 chi25_3 ! ?=-99 Chi^2 of the best-fit
* model against the rebinned
* data (>=25 cts/bin) (chi25)
integer*4 dof25_3 ! ?=-99 DOF of the rebinned data,
* which has at least
* 25 counts per bin (dof25)
real*8 logZ_3 ! log10 Bayesian evidence (logZ)
real*8 logRbb ! log blackbody relative strength
* at 1keV (logRbb)
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table7.dat' ! Gamma-fixed-powerlaw results
integer*4 nr__6
parameter (nr__6=27910) ! Number of records
character*841 ar__6 ! Full-size record
integer*4 ID_SRC_6 ! [1/32683] ID of the sources in the
* eFEDS main X-ray catalog
* (Paper I) (ID_SRC)
real*4 z_4 ! [-0.01/8.0] The redshift adopted
* for the spectral model (Redshift)
real*8 lognHKL_4 ! log AGN column density,
* KL divergence (in nats units)
* (lognH_KL)
real*8 b_lognHH_8 ! ([cm-2]) log AGN column density,
* HDI lower limit (lognH_HLo)
real*8 B_lognHH_9 ! ([cm-2]) log AGN column density,
* HDI upper limit (lognH_HUp)
real*8 logPowNKL_3 ! log power-law normalization,
* KL divergence (in nats units)
* (logPowNorm_KL)
real*8 b_logPowNH_6 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI lower limit (logPowNorm_HLo)
real*8 B_logPowNH_7 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI upper limit (logPowNorm_HUp)
real*8 lognHBF_4 ! ([cm-2]) log AGN column density,
* best-fit model (lognH_BF)
real*8 logPowNBF_3 ! ([ph/keV/cm2/s]) log power-law normalization,
* best-fit model (logPowNorm_BF)
real*4 FluxObsBFS_4 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, best-fit model
* (FluxObsv_BF_s)
real*4 FluxObsMedS_6 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, posterior median
* (FluxObsv_Med_s)
real*4 b_FluxObsS_12 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma lower limit
* (FluxObsv_Lo1_s)
real*4 B_FluxObsS_13 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma upper limit
* (FluxObsv_Up1_s)
real*4 b2_FluxObsS_8 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma lower limit
* (FluxObsv_Lo2_s)
real*4 B2_FluxObsS_9 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma upper limit
* (FluxObsv_Up2_s)
real*4 FluxObsBFT_4 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, best-fit model
* (FluxObsv_BF_t)
real*4 FluxObsMedT_6 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, posterior median
* (FluxObsv_Med_t)
real*4 b_FluxObsT_12 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma lower limit
* (FluxObsv_Lo1)
real*4 B_FluxObsT_13 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma upper limit
* (FluxObsv_Up1)
real*4 b2_FluxObsT_8 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma lower limit
* (FluxObsv_Lo2)
real*4 B2_FluxObsT_9 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma upper limit
* (FluxObsv_Up2)
real*4 FluxCBFS_3 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, best-fit
* model (FluxCorr_BF_s)
real*4 FluxCMedS_4 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, posterior
* median (FluxCorr_Med_s)
real*4 b_FluxCS_8 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* lower limit (FluxCorr_Lo1_s)
real*4 B_FluxCS_9 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* upper limit (FluxCorr_Up1_s)
real*4 b2_FluxCS_6 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* lower limit (FluxCorr_Lo2_s)
real*4 B2_FluxCS_7 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* upper limit (FluxCorr_Up2_s)
real*4 FluxCBFT_3 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, best-fit
* model (FluxCorr_BF_t)
real*4 FluxCMedT_4 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, posterior
* median (FluxCorr_Med_t)
real*4 b_FluxCT_8 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* lower limit (FluxCorr_Lo1)
real*4 B_FluxCT_9 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* upper limit (FluxCorr_Up1)
real*4 b2_FluxCT_6 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* lower limit (FluxCorr_Lo2)
real*4 B2_FluxCT_7 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* upper limit (FluxCorr_Up2)
real*4 FluxIBFS_3 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, best-fit
* model (FluxIntr_BF_s)
real*4 FluxIMedS_4 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, posterior
* median (FluxIntr_Med_s)
real*4 b_FluxIS_8 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* lower limit (FluxIntr_Lo1_s)
real*4 B_FluxIS_9 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* upper limit (FluxIntr_Up1_s)
real*4 b2_FluxIS_6 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* lower limit (FluxIntr_Lo2_s)
real*4 B2_FluxIS_7 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* upper limit (FluxIntr_Up2_s)
real*4 FluxIBF2keV_3 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, best- fit
* (FluxIntr_BF_2keV)
real*4 FluxIMed2keV_4 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, median
* (FluxIntr_Med_2keV)
real*4 b_FluxI2keV_8 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* lower limit (FluxIntr_Lo1_2keV)
real*4 B_FluxI2keV_9 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* upper limit (FluxIntr_Up1_2keV)
real*4 b2_FluxI2keV_6 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* lower limit (FluxIntr_Lo2_2keV)
real*4 B2_FluxI2keV_7 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* upper limit (FluxIntr_Up2_2keV)
real*8 LumIBFS_3 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, best-fit
* model (LumiIntr_BF_s)
real*8 LumIMedS_4 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, posterior
* median (LumiIntr_Med_s)
real*8 b_LumIS_8 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 1sigma
* lower limit (LumiIntr_Lo1_s)
real*8 B_LumIS_9 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 1sigma
* upper limit (LumiIntr_Up1_s)
real*8 b2_LumIS_6 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 2sigma
* lower limit (LumiIntr_Lo2_s)
real*8 B2_LumIS_7 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 2sigma
* upper limit (LumiIntr_Up2_s)
real*8 LumIBF2keV_3 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, best-fit model
* (LumiIntr_BF_2keV)
real*8 LumIMed2keV_4 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, posterior
* median (LumiIntr_Med_2keV)
real*8 b_LumI2keV_8 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma
* lower limit (LumiIntr_Lo1_2keV)
real*8 B_LumI2keV_9 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma
* upper limit (LumiIntr_Up1_2keV)
real*8 b2_LumI2keV_6 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma
* lower limit (LumiIntr_Lo2_2keV)
real*8 B2_LumI2keV_7 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma upper
* limit (LumiIntr_Up2_2keV)
real*8 lognHMed_4 ! ([cm-2]) log AGN column density,
* posterior median (lognH_Med)
real*8 b_lognH_8 ! ([cm-2]) log AGN column density,
* percentile lower limit (lognH_Lo)
real*8 B_lognH_9 ! ([cm-2]) log AGN column density,
* percentile upper limit (lognH_Up)
real*8 lognHMean_4 ! ([cm-2]) log AGN column density, mean
* (lognH_Mean)
real*8 s_lognH_4 ! ([cm-2]) log AGN column density,
* standard deviation (lognH_Std)
real*8 logPowNMed_3 ! ([ph/keV/cm2/s]) log power-law normalization,
* posterior median (logPowNorm_Med)
real*8 b_logPowN_6 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile lower limit
* (logPowNorm_Lo)
real*8 B_logPowN_7 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile upper limit
* (logPowNorm_Up)
real*8 logPowNMean_3 ! ([ph/keV/cm2/s]) log power-law normalization,
* mean (logPowNorm_Mean)
real*8 s_logPowN_3 ! ([ph/keV/cm2/s]) log power-law normalization,
* standard deviation
* (logPowNorm_Std)
real*4 logBkgNMed_4 ! log background normalization,
* posterior median (logBkgNorm_Med)
real*4 b_logBkgN_8 ! log background normalization,
* percentile lower limit
* (logBkgNorm_Lo)
real*4 B_logBkgN_9 ! log background normalization,
* percentile upper limit
* (logBkgNorm_Up)
real*4 logBkgNMean_4 ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 s_logBkgN_4 ! log background normalization,
* standard deviation
* (logBkgNorm_Std)
real*8 logZ_4 ! log10 Bayesian evidence (logZ)
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table8.dat' ! Shape-fixed-powerlaw results
integer*4 nr__7
parameter (nr__7=27910) ! Number of records
character*746 ar__7 ! Full-size record
integer*4 ID_SRC_7 ! [1/32683] ID of the sources in
* the eFEDS main X-ray catalog
* (Paper I) (ID_SRC)
real*4 z_5 ! [-0.01/8.0] The redshift adopted
* for the spectral model
* (Redshift)
real*8 logPowNKL_4 ! log power-law normalization,
* KL divergence (in nats units)
* (logPowNorm_KL)
real*8 b_logPowNH_8 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI lower limit (logPowNorm_HLo)
real*8 B_logPowNH_9 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI upper limit (logPowNorm_HUp)
real*8 logPowNBF_4 ! ([ph/keV/cm2/s]) log power-law normalization,
* best-fit model (logPowNorm_BF)
real*4 FluxObsBFS_5 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, best-fit model
* (FluxObsv_BF_s)
real*4 FluxObsMedS_7 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, posterior median
* (FluxObsv_Med_s)
real*4 b_FluxObsS_14 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma lower limit
* (FluxObsv_Lo1_s)
real*4 B_FluxObsS_15 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma upper limit
* (FluxObsvs)
real*4 b2_FluxObsS_10 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma lower limit
* (FluxObsvs)
real*4 B2_FluxObsS_11 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma upper limit
* (FluxObsvs)
real*4 FluxObsBFT_5 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, best-fit model
* (FluxObsv_BF_t)
real*4 FluxObsMedT_7 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, posterior median
* (FluxObsv_Med_t)
real*4 b_FluxObsT_14 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma lower limit
* (FluxObsv_Lo1_t)
real*4 B_FluxObsT_15 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 1sigma upper limit
* (FluxObsvt)
real*4 b2_FluxObsT_10 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma lower limit
* (FluxObsvt)
real*4 B2_FluxObsT_11 ! (mW/m2) Observed flux in observed
* 2.3-5 keV, 2sigma upper limit
* (FluxObsvt)
real*4 FluxCBFS_4 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV,
* best-fit model (FluxCorr_BF_s)
real*4 FluxCMedS_5 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, posterior
* median (FluxCorr_Med_s)
real*4 b_FluxCS_10 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* lower limit (FluxCorr_Lo1_s)
real*4 B_FluxCS_11 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 1sigma
* upper limit (FluxCorrs)
real*4 b2_FluxCS_8 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* lower limit (FluxCorrs)
real*4 B2_FluxCS_9 ! (mW/m2) Absorption corrected flux in
* observed 0.5-2 keV, 2sigma
* upper limit (FluxCorrs)
real*4 FluxCBFT_4 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, best-fit
* model (FluxCorr_BF_t)
real*4 FluxCMedT_5 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, posterior
* median (FluxCorr_Med_t)
real*4 b_FluxCT_10 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* lower limit (FluxCorr_Lo1_t)
real*4 B_FluxCT_11 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* upper limit (FluxCorrt)
real*4 b2_FluxCT_8 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* lower limit (FluxCorrt)
real*4 B2_FluxCT_9 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* upper limit (FluxCorrt)
real*4 FluxIBFS_4 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, best-fit
* model (FluxIntr_BF_s)
real*4 FluxIMedS_5 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, posterior
* median (FluxIntr_Med_s)
real*4 b_FluxIS_10 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* lower limit (FluxIntr_Lo1_s)
real*4 B_FluxIS_11 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2keV, 1sigma
* upper limit (FluxIntrs)
real*4 b2_FluxIS_8 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* lower limit (FluxIntrs)
real*4 B2_FluxIS_9 ! (mW/m2) Absorption corrected flux in
* rest-frame 0.5-2 keV, 2sigma
* upper limit (FluxIntrs)
real*4 FluxIBF2keV_4 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, best- fit
* (FluxIntr_BF_2keV)
real*4 FluxIMed2keV_5 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, median
* (FluxIntr_Med_2keV)
real*4 b_FluxI2keV_10 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* lower limit (FluxIntr_Lo1_2keV)
real*4 B_FluxI2keV_11 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 1sigma
* upper limit (FluxIntr_Up1_2keV)
real*4 b2_FluxI2keV_8 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* lower limit (FluxIntr_Lo2_2keV)
real*4 B2_FluxI2keV_9 ! (mW/m2/eV) Absorption corrected flux at
* rest-frame 2keV, 2sigma
* upper limit (FluxIntr_Up2_2keV)
real*8 LumIBFS_4 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, best-fit
* model (LumiIntr_BF_s)
real*8 LumIMedS_5 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, posterior
* median (LumiIntr_Med_s)
real*8 b_LumIS_10 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 1sigma
* lower limit (LumiIntr_Lo1_s)
real*8 B_LumIS_11 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 1sigma
* upper limit (LumiIntrs)
real*8 b2_LumI2S ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 2sigma
* lower limit (LumiIntrs)
real*8 B2_LumIS_8 ! (10-7W) ?=-99 Intrinsic luminosity in
* rest-frame 0.5-2 keV, 2sigma
* upper limit (LumiIntrs)
real*8 LumIBF2keV_4 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, best-fit model
* (LumiIntr_BF_2keV)
real*8 LumIMed2keV_5 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, posterior
* median (LumiIntr_Med_2keV)
real*8 b_LumI2keV_10 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma lower
* limit (LumiIntr_Lo1_2keV)
real*8 B_LumI2keV_11 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 1sigma upper
* limit (LumiIntr_Up1_2keV)
real*8 b2_LumI2keV_8 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma lower
* limit (LumiIntr_Lo2_2keV)
real*8 B2_LumI2keV_9 ! (10-7W/eV) ?=-99 Intrinsic luminosity at
* rest-frame 2keV, 2sigma upper
* limit (LumiIntr_Up2_2keV)
real*8 logPowNMed_4 ! ([ph/keV/cm2/s]) log power-law normalization,
* posterior median
* (logPowNorm_Med)
real*8 b_logPowN_8 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile lower limit
* (logPowNorm_Lo)
real*8 B_logPowN_9 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile upper limit
* (logPowNorm_Up)
real*8 logPowNMean_4 ! ([ph/keV/cm2/s]) log power-law normalization,
* mean (logPowNorm_Mean)
real*8 s_logPowN_4 ! ([ph/keV/cm2/s]) log power-law normalization,
* standard deviation
* (logPowNorm_Std)
real*4 logBkgNMed_5 ! log background normalization,
* posterior median
* (logBkgNorm_Med)
real*4 b_logBkgN_10 ! log background normalization,
* percentile lower limit
* (logBkgNorm_Lo)
real*4 B_logBkgN_11 ! log background normalization,
* percentile upper limit
* (logBkgNorm_Up)
real*4 logBkgNMean_5 ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 s_logBkgN_5 ! log background normalization,
* standard deviation
* (logBkgNorm_Std)
real*8 logZ_5 ! log10 Bayesian evidence (logZ)
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table9.dat' ! Soft-band fitting results
integer*4 nr__8
parameter (nr__8=27910) ! Number of records
character*489 ar__8 ! Full-size record
integer*4 ID_SRC_8 ! [1/32683] ID of the sources in the
* eFEDS main X-ray catalog
* (Paper I) (ID_SRC)
real*4 z_6 ! [-0.01/8.0] The redshift adopted
* for the spectral model (Redshift)
real*8 GammaKL_3 ! power-law slope, KL divergence
* (in nats units) (Gamma_KL)
real*8 b_GammaH_6 ! power-law slope, HDI lower limit
* (Gamma_HLo)
real*8 B_GammaH_7 ! power-law slope, HDI upper limit
* (Gamma_HUp)
real*8 lognHKL_5 ! log AGN column density,
* KL divergence (in nats units)
* (lognH_KL)
real*8 b_lognHH_10 ! ([cm-2]) log AGN column density,
* HDI lower limit (lognH_HLo)
real*8 B_lognHH_11 ! ([cm-2]) log AGN column density,
* HDI upper limit (lognH_HUp)
real*8 logPowNKL_5 ! log power-law normalization,
* KL divergence (in nats units)
* (logPowNorm_KL)
real*8 b_logPowNH_10 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI lower limit (logPowNorm_HLo)
real*8 B_logPowNH_11 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI upper limit (logPowNorm_HUp)
real*8 GammaBF_3 ! power-law slope, best-fit model
* (Gamma_BF)
real*8 lognHBF_5 ! ([cm-2]) log AGN column density,
* best-fit model (lognH_BF)
real*4 logPowNBF_5 ! ([ph/keV/cm2/s]) log power-law normalization,
* best-fit model (logPowNorm_BF)
real*4 FluxObsBFS_6 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, best-fit model
* (FluxObsv_BF_s)
real*4 FluxObsMedS_8 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, posterior median
* (FluxObsv_Med_s)
real*4 b_FluxObsS_16 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma lower limit
* (FluxObsv_Lo1_s)
real*4 B_FluxObsS_17 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 1sigma upper limit
* (FluxObsv_Up1_s)
real*4 b2_FluxObsS_12 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma lower limit
* (FluxObsv_Lo2_s)
real*4 B2_FluxObsS_13 ! (mW/m2) Observed flux in observed
* 0.5-2 keV, 2sigma upper limit
* (FluxObsv_Up2_s)
real*8 GammaMed_3 ! power-law slope, posterior median
* (Gamma_Med)
real*8 b_Gamma_6 ! power-law slope, percentile
* lower limit (Gamma_Lo)
real*8 B_Gamma_7 ! power-law slope, percentile
* upper limit (Gamma_Up)
real*8 GammaMean_3 ! power-law slope, mean (Gamma_Mean)
real*8 s_Gamma_3 ! power-law slope,
* standard deviation (Gamma_Std)
real*8 lognHMed_5 ! ([cm-2]) log AGN column density,
* posterior median (lognH_Med)
real*8 b_lognH_10 ! ([cm-2]) log AGN column density, percentile
* lower limit (lognH_Lo)
real*8 B_lognH_11 ! ([cm-2]) log AGN column density, percentile
* upper limit (lognH_Up)
real*8 lognHMean_5 ! ([cm-2]) log AGN column density,
* mean (lognH_Mean)
real*8 s_lognH_5 ! ([cm-2]) log AGN column density,
* standard deviation (lognH_Std)
real*8 logPowNMed_5 ! ([ph/keV/cm2/s]) log power-law normalization,
* posterior median (logPowNorm_Med)
real*8 b_logPowN_10 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile lower limit
* (logPowNorm_Lo)
real*8 B_logPowN_11 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile upper limit
* (logPowNorm_Up)
real*8 logPowNMean_5 ! ([ph/keV/cm2/s]) log power-law normalization,
* mean (logPowNorm_Mean)
real*8 s_logPowN_5 ! ([ph/keV/cm2/s]) log power-law normalization,
* standard deviation
* (logPowNorm_Std)
real*4 logBkgNMed_6 ! log background normalization,
* posterior median (logBkgNorm_Med)
real*4 blogBkgN ! log background normalization,
* percentile lower limit
* (logBkgNorm_Lo)
real*4 BlogBkgN_1 ! log background normalization,
* percentile upper limit
* (logBkgNorm_Up)
real*4 logBkgNMean_6 ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 logBkgN ! log background normalization,
* standard deviation
* (logBkgNorm_Std)
real*8 logZ_6 ! log10 Bayesian evidence (logZ)
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'table10.dat' ! Hard-band fitting results
integer*4 nr__9
parameter (nr__9=27910) ! Number of records
character*543 ar__9 ! Full-size record
integer*4 ID_SRC_9 ! [1/32683] ID of the sources in the
* eFEDS main X-ray catalog
* (Paper I) (ID_SRC)
real*4 z_7 ! [-0.01/8.0] The redshift adopted
* for the spectral model (Redshift)
real*8 GammaKL_4 ! power-law slope, KL divergence
* (in nats units) (Gamma_KL)
real*8 e_Gamma ! power-law slope, HDI lower limit
* (Gamma_HLo)
real*8 E_Gamma_1 ! power-law slope, HDI upper limit
* (Gamma_HUp)
real*8 lognHKL_6 ! log AGN column density,
* KL divergence (in nats units)
* (lognH_KL)
real*8 b_lognH_12 ! ([cm-2]) log AGN column density,
* HDI lower limit (lognH_HLo)
real*8 B_lognH_13 ! ([cm-2]) log AGN column density,
* HDI upper limit (lognH_HUp)
real*8 logPowNKL_6 ! log power-law normalization,
* KL divergence (in nats units)
* (logPowNorm_KL)
real*8 b_logPowN_12 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI lower limit (logPowNorm_HLo)
real*8 B_logPowN_13 ! ([ph/keV/cm2/s]) log power-law normalization,
* HDI upper limit (logPowNorm_HUp)
real*8 GammaBF_4 ! power-law slope, best-fit model
* (Gamma_BF)
real*8 lognHBF_6 ! ([cm-2]) log AGN column density,
* best-fit model (lognH_BF)
real*8 logPowNBF_6 ! ([ph/keV/cm2/s]) log power-law normalization,
* best-fit model (logPowNorm_BF)
real*4 FluxObsBFT_6 ! (mW/m2) Observed flux in observed 2.3-5keV,
* best-fit model (FluxObsv_BF_t)
real*4 FluxObsMedT_8 ! (mW/m2) Observed flux in observed 2.3-5keV,
* posterior median (FluxObsv_Med_t)
real*4 b_FluxObsT_16 ! (mW/m2) Observed flux in observed 2.3-5keV,
* 1sigma lower limit
* (FluxObsv_Lo1_t)
real*4 B_FluxObsT_17 ! (mW/m2) Observed flux in observed 2.3-5keV,
* 1sigma upper limit
* (FluxObsv_Up1_t)
real*4 b2_FluxObsT_12 ! (mW/m2) Observed flux in observed 2.3-5keV,
* 2sigma lower limit
* (FluxObsv_Lo2_t)
real*4 B2_FluxObsT_13 ! (mW/m2) Observed flux in observed 2.3-5keV,
* 2sigma upper limit
* (FluxObsv_Up2_t)
real*4 FluxCBFT_5 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, best-fit model
* (FluxCorr_BF_t)
real*4 FluxCMedT_6 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, posterior
* median (FluxCorr_Med_t)
real*4 b_FluxCMedT ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* lower limit (FluxCorr_Lo1_t)
real*4 B_FluxCMedT_1 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 1sigma
* upper limit (FluxCorr_Up1_t)
real*4 b2_FluxCMedT ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* lower limit (FluxCorr_Lo2_t)
real*4 B2_FluxCMedT_1 ! (mW/m2) Absorption corrected flux in
* observed 2.3-5 keV, 2sigma
* upper limit (FluxCorr_Up2_t)
real*8 GammaMed_4 ! power-law slope, posterior median
* (Gamma_Med)
real*8 b_GammaMed ! power-law slope, percentile
* lower limit (Gamma_Lo)
real*8 B_GammaMed_1 ! power-law slope, percentile
* upper limit (Gamma_Up)
real*8 GammaMean_4 ! power-law slope, mean (Gamma_Mean)
real*8 s_Gamma_4 ! power-law slope,
* standard deviation (Gamma_Std)
real*8 lognHMed_6 ! ([cm-2]) log AGN column density,
* posterior median (lognH_Med)
real*8 b_lognHMed ! ([cm-2]) log AGN column density,
* percentile lower limit (lognH_Lo)
real*8 B_lognHMed_1 ! ([cm-2]) log AGN column density,
* percentile upper limit (lognH_Up)
real*8 lognHMean_6 ! ([cm-2]) log AGN column density,
* mean (lognH_Mean)
real*8 s_lognH_6 ! ([cm-2]) log AGN column density,
* standard deviation (lognH_Std)
real*8 logPowNMed_6 ! ([ph/keV/cm2/s]) log power-law normalization,
* posterior median (logPowNorm_Med)
real*8 b_logPowNMed ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile lower limit
* (logPowNorm_Lo)
real*8 B_logPowNMed_1 ! ([ph/keV/cm2/s]) log power-law normalization,
* percentile upper limit
* (logPowNorm_Up)
real*8 logPowNMean_6 ! ([ph/keV/cm2/s]) log power-law normalization,
* mean (logPowNorm_Mean)
real*8 s_logPowN_6 ! ([ph/keV/cm2/s]) log power-law normalization,
* standard deviation
* (logPowNorm_Std)
real*4 logBkgNMed_7 ! log background normalization,
* posterior median (logBkgNorm_Med)
real*4 b_logBkgNMed ! log background normalization,
* percentile lower limit
* (logBkgNorm_Lo)
real*4 B_logBkgNMed_1 ! log background normalization,
* percentile upper limit
* (logBkgNorm_Up)
real*4 logBkgNMean_7 ! log background normalization,
* mean (logBkgNorm_Mean)
real*8 s_logBkgN_6 ! log background normalization,
* standard deviation
* (logBkgNorm_Std)
real*8 logZ_7 ! log10 Bayesian evidence (logZ)
C=============================================================================
C Loading file 'table1.dat' ! The eFEDS AGN catalog
C Format for file interpretation
1 format(
+ I5,1X,F18.14,1X,E24.17,1X,F13.7,1X,E5.4,1X,A11,1X,F18.14,1X,
+ E23.17,1X,I1,1X,I1,1X,F12.10,1X,I1,1X,I1,1X,I1,1X,I1,1X,I1,1X,
+ I1,1X,E22.17,1X,E22.17,1X,F24.18,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E14.9,1X,E14.9,1X,E14.9,1X,F7.4,1X,F7.4,1X,F7.4,1X,F9.6,1X,
+ F9.6,1X,F9.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,F11.9,1X,F9.6,1X,F9.6,1X,F9.6,1X,F11.9,1X,F11.9,1X,
+ F9.7,1X,F10.8,1X,F11.6,1X,F11.6,1X,F11.6,1X,F11.6,1X,F11.6,1X,
+ F11.6,1X,F10.6,1X,F10.6,1X,F11.7,1X,E13.8,1X,F11.7,1X,E13.7)
C Effective file loading
open(unit=1,status='old',file=
+'table1.dat')
write(6,*) '....Loading file: table1.dat'
do i__=1,22079
read(1,'(A736)')ar__
read(ar__,1)
+ ID_SRC,RAcdeg,DEcdeg,DetLike,inArea90,CTPLS8,RALdeg,DELdeg,
+ CTPqual,CTPClass,CTPz,CTPzgrade,inKiDSFlag,LxModel,NHclass,
+ FSModel,FHModel,galNH,galNHI,SrcCts,FluxcMedS,b_FluxcS,
+ B_FluxcS_1,FluxcMedT,b_FluxcT,B_FluxcT_1,FluxIMedS,b_FluxIS,
+ B_FluxIS_1,FluxIMed2keV,b_FluxI2keV,B_FluxI2keV_1,LumIMedS,
+ b_LumIS,B_LumIS_1,LumIMed2keV,b_LumI2keV,B_LumI2keV_1,
+ FluxObsMedS,b_FluxObsS,B_FluxObsS_1,FluxObsMedT,b_FluxObsT,
+ B_FluxObsT_1,lognHKLm1,b_lognHm1,B_lognHm1_1,lognHMedm1,
+ GammaKLm3,b_GammaHm3,B_GammaHm3_1,GammaMedm3,logZm0,logZm1,
+ logZm2,logZm3,logZm4,logZm5,L2500,L5100,W1mag,e_W1mag,W2mag,
+ e_W2mag
if(ar__(686:696) .EQ. '') W1mag = rNULL__
if(ar__(698:710) .EQ. '') e_W1mag = rNULL__
if(ar__(712:722) .EQ. '') W2mag = rNULL__
if(ar__(724:736) .EQ. '') e_W2mag = rNULL__
c ..............Just test output...........
write(6,1)
+ ID_SRC,RAcdeg,DEcdeg,DetLike,inArea90,CTPLS8,RALdeg,DELdeg,
+ CTPqual,CTPClass,CTPz,CTPzgrade,inKiDSFlag,LxModel,NHclass,
+ FSModel,FHModel,galNH,galNHI,SrcCts,FluxcMedS,b_FluxcS,
+ B_FluxcS_1,FluxcMedT,b_FluxcT,B_FluxcT_1,FluxIMedS,b_FluxIS,
+ B_FluxIS_1,FluxIMed2keV,b_FluxI2keV,B_FluxI2keV_1,LumIMedS,
+ b_LumIS,B_LumIS_1,LumIMed2keV,b_LumI2keV,B_LumI2keV_1,
+ FluxObsMedS,b_FluxObsS,B_FluxObsS_1,FluxObsMedT,b_FluxObsT,
+ B_FluxObsT_1,lognHKLm1,b_lognHm1,B_lognHm1_1,lognHMedm1,
+ GammaKLm3,b_GammaHm3,B_GammaHm3_1,GammaMedm3,logZm0,logZm1,
+ logZm2,logZm3,logZm4,logZm5,L2500,L5100,W1mag,e_W1mag,W2mag,
+ e_W2mag
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table2.dat' ! Spectral properties
C Format for file interpretation
2 format(
+ I5,1X,F18.14,1X,E24.17,1X,F13.7,1X,F11.7,1X,E5.4,1X,E22.17,1X,
+ E22.17,1X,F11.6,1X,F24.18,1X,F10.6,1X,E10.3,1X,I3,1X,I3,1X,I3,
+ 1X,E13.8,1X,E13.8,1X,F12.10,1X,I1,1X,I1,1X,E13.7,1X,F13.11,1X,
+ E16.9,1X,E13.8,1X,E16.9,1X,E13.8,1X,E16.9,1X,E13.8,1X,E16.9,
+ 1X,E14.9,1X,E16.9,1X,E14.9,1X,E16.9,1X,E14.9,1X,F6.1,1X,F10.7,
+ 1X,F6.1,1X,F10.7,1X,F6.1,1X,F10.7,1X,F6.1,1X,F10.7,1X,F8.6,1X,
+ F8.6,1X,F8.6,1X,F9.7,1X,I3,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6)
C Effective file loading
open(unit=1,status='old',file=
+'table2.dat')
write(6,*) '....Loading file: table2.dat'
do i__=1,27910
read(1,'(A645)')ar__1
read(ar__1,2)
+ ID_SRC_1,RAcdeg_1,DEcdeg_1,DetLike_1,ExtLike,inArea90_1,
+ galNH_1,galNHI_1,ExpTime,SrcCts_1,RAdeg,DEdeg,Rad,Ann1,Ann2,
+ RegArea,Backscal,BackscalBkg,FSModel_1,FHModel_1,Rate0_2_2_3,
+ e_Rate0_2_2_3,Rate0_2_0_5,e_Rate0_2_0_5,Rate0_5_1,e_Rate0_5_1,
+ Rate1_2,e_Rate1_2,Rate2_4_5,e_Rate2_4_5,Rate2_3_5,e_Rate2_3_5,
+ Rate5_8,e_Rate5_8,BkgCts0_2_0_6,e_BkgCts0_2_0_6,BkgCts0_6_2_3,
+ e_BkgCts0_6_2_3,BkgCts2_3_5,e_BkgCts2_3_5,BkgCts5_8,
+ e_BkgCts5_8,PSFCor0_2_0_5,PSFCor0_5_1,PSFCor1_2,PSFCor2_3_5,
+ Nempty,FluxObsMedS_1,b_FluxObsS_2,B_FluxObsS_3,FluxObsMedT_1,
+ b_FluxObsT_2,B_FluxObsT_3
c ..............Just test output...........
write(6,2)
+ ID_SRC_1,RAcdeg_1,DEcdeg_1,DetLike_1,ExtLike,inArea90_1,
+ galNH_1,galNHI_1,ExpTime,SrcCts_1,RAdeg,DEdeg,Rad,Ann1,Ann2,
+ RegArea,Backscal,BackscalBkg,FSModel_1,FHModel_1,Rate0_2_2_3,
+ e_Rate0_2_2_3,Rate0_2_0_5,e_Rate0_2_0_5,Rate0_5_1,e_Rate0_5_1,
+ Rate1_2,e_Rate1_2,Rate2_4_5,e_Rate2_4_5,Rate2_3_5,e_Rate2_3_5,
+ Rate5_8,e_Rate5_8,BkgCts0_2_0_6,e_BkgCts0_2_0_6,BkgCts0_6_2_3,
+ e_BkgCts0_6_2_3,BkgCts2_3_5,e_BkgCts2_3_5,BkgCts5_8,
+ e_BkgCts5_8,PSFCor0_2_0_5,PSFCor0_5_1,PSFCor1_2,PSFCor2_3_5,
+ Nempty,FluxObsMedS_1,b_FluxObsS_2,B_FluxObsS_3,FluxObsMedT_1,
+ b_FluxObsT_2,B_FluxObsT_3
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table3.dat' ! APEC fitting results
C Format for file interpretation
3 format(
+ I5,1X,F3.1,1X,F12.10,1X,F10.7,1X,F10.7,1X,F11.9,1X,E15.8,1X,
+ E15.8,1X,F12.10,1X,F11.8,1X,E15.8,1X,F10.8,1X,F10.7,1X,F10.7,
+ 1X,F10.7,1X,E15.8,1X,E15.8,1X,F10.7,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,F10.7,1X,F10.7,1X,F10.7,1X,
+ F10.7,1X,F12.10,1X,E14.8,1X,E14.7,1X,E14.8,1X,E15.8,1X,F12.10,
+ 1X,F12.9,1X,F11.8,1X,F12.9,1X,F11.8,1X,F12.10,1X,F10.7,1X,
+ F11.7,1X,F10.7,1X,F10.7,1X,F12.10,1X,E16.9,1X,E13.7,1X,E13.8,
+ 1X,E15.9,1X,F12.10,1X,F12.6,1X,I3,1X,F11.6)
C Effective file loading
open(unit=1,status='old',file=
+'table3.dat')
write(6,*) '....Loading file: table3.dat'
do i__=1,27910
read(1,'(A715)')ar__2
read(ar__2,3)
+ ID_SRC_2,z,lognHKL,b_lognHH,B_lognHH_1,logkTKL,b_logkTH,
+ B_logkTH_1,logAbundKL,b_logAbunH,B_logAbunH_1,logApecNormKL,
+ b_logApecNormH,B_logApecNormH_1,lognHBF,logkTBF,logAbundBF,
+ logApecNBF,FluxObsBFS,FluxObsMedS_2,b_FluxObsS_4,B_FluxObsS_5,
+ b2_FluxObsS,B2_FluxObsS_1,FluxObsBFT,FluxObsMedT_2,
+ b_FluxObsT_4,B_FluxObsT_5,b2_FluxObsT,B2_FluxObsT_1,lognHMed,
+ b_lognH,B_lognH_1,lognHMean,s_lognH,logkTMed,b_logkT,
+ B_logkT_1,logkTMean,s_logkT,logAbundMed,b_logAbund,
+ B_logAbund_1,logAbundMean,s_logAbund,logApecNMed,b_logApecN,
+ B_logApecN_1,logApecNMean,s_logApecN,logBkgNMed,b_logBkgN,
+ B_logBkgN_1,logBkgNMean,s_logBkgN,chi25,dof25,logZ
c ..............Just test output...........
write(6,3)
+ ID_SRC_2,z,lognHKL,b_lognHH,B_lognHH_1,logkTKL,b_logkTH,
+ B_logkTH_1,logAbundKL,b_logAbunH,B_logAbunH_1,logApecNormKL,
+ b_logApecNormH,B_logApecNormH_1,lognHBF,logkTBF,logAbundBF,
+ logApecNBF,FluxObsBFS,FluxObsMedS_2,b_FluxObsS_4,B_FluxObsS_5,
+ b2_FluxObsS,B2_FluxObsS_1,FluxObsBFT,FluxObsMedT_2,
+ b_FluxObsT_4,B_FluxObsT_5,b2_FluxObsT,B2_FluxObsT_1,lognHMed,
+ b_lognH,B_lognH_1,lognHMean,s_lognH,logkTMed,b_logkT,
+ B_logkT_1,logkTMean,s_logkT,logAbundMed,b_logAbund,
+ B_logAbund_1,logAbundMean,s_logAbund,logApecNMed,b_logApecN,
+ B_logApecN_1,logApecNMean,s_logApecN,logBkgNMed,b_logBkgN,
+ B_logBkgN_1,logBkgNMean,s_logBkgN,chi25,dof25,logZ
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table4.dat' ! Single-powerlaw results
C Format for file interpretation
4 format(
+ I5,1X,E9.2,1X,F12.9,1X,F10.8,1X,F9.7,1X,F11.9,1X,F9.6,1X,F9.6,
+ 1X,F10.8,1X,F10.7,1X,F10.7,1X,F12.9,1X,F9.6,1X,F10.7,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E14.8,1X,E14.8,1X,E14.8,1X,
+ E14.8,1X,E14.8,1X,E14.8,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,
+ F8.4,1X,F8.4,1X,F10.6,1X,F10.6,1X,F10.6,1X,F10.6,1X,F10.6,1X,
+ F10.6,1X,F10.8,1X,F10.8,1X,F9.7,1X,F10.8,1X,F11.9,1X,F9.6,1X,
+ F9.6,1X,F9.6,1X,F9.6,1X,F11.9,1X,F10.7,1X,F10.7,1X,F10.7,1X,
+ F10.7,1X,F12.10,1X,E16.9,1X,F14.11,1X,E14.7,1X,E16.9,1X,
+ F12.10,1X,F12.6,1X,I3,1X,F11.6,1X,I1)
C Effective file loading
open(unit=1,status='old',file=
+'table4.dat')
write(6,*) '....Loading file: table4.dat'
do i__=1,27910
read(1,'(A990)')ar__3
read(ar__3,4)
+ ID_SRC_3,z_1,GammaKL,b_GammaH,B_GammaH_1,lognHKL_1,b_lognHH_2,
+ B_lognHH_3,logPowNKL,b_logPowNH,B_logPowNH_1,GammaBF,
+ lognHBF_1,logPowNBF,FluxObsBFS_1,FluxObsMedS_3,b_FluxObsS_6,
+ B_FluxObsS_7,b2_FluxObsS_2,B2_FluxObsS_3,FluxObsBFT_1,
+ FluxObsMedT_3,b_FluxObsT_6,B_FluxObsT_7,b2_FluxObsT_2,
+ B2_FluxObsT_3,FluxcBFS,FluxcMedS_1,b_FluxcS_2,B_FluxcS_3,
+ b2_FluxcS,B2_FluxcS_1,FluxcBFT,FluxcMedT_1,b_FluxcT_2,
+ B_FluxcT_3,b2_FluxcT,B2_FluxcT_1,FluxIBFS,FluxIMedS_1,
+ b_FluxIS_2,B_FluxIS_3,b2_FluxIS,B2_FluxIS_1,FluxIBF2keV,
+ FluxIMed2keV_1,b_FluxI2keV_2,B_FluxI2keV_3,b2_FluxI2keV,
+ B2_FluxI2keV_1,LumIBFS,LumIMedS_1,b_LumIS_2,B_LumIS_3,
+ b2_LumIS,B2_LumIS_1,LumIBF2keV,LumIMed2keV_1,b_LumI2keV_2,
+ B_LumI2keV_3,b2_LumI2keV,B2_LumI2keV_1,GammaMed,b_Gamma,
+ B_Gamma_1,GammaMean,s_Gamma,lognHMed_1,b_lognH_2,B_lognH_3,
+ lognHMean_1,s_lognH_1,logPowNMed,b_logPowN,B_logPowN_1,
+ logPowNMean,s_logPowN,logBkgNMed_1,b_logBkgN_2,B_logBkgN_3,
+ logBkgNMean_1,s_logBkgN_1,chi25_1,dof25_1,logZ_1,NHclass_1
c ..............Just test output...........
write(6,4)
+ ID_SRC_3,z_1,GammaKL,b_GammaH,B_GammaH_1,lognHKL_1,b_lognHH_2,
+ B_lognHH_3,logPowNKL,b_logPowNH,B_logPowNH_1,GammaBF,
+ lognHBF_1,logPowNBF,FluxObsBFS_1,FluxObsMedS_3,b_FluxObsS_6,
+ B_FluxObsS_7,b2_FluxObsS_2,B2_FluxObsS_3,FluxObsBFT_1,
+ FluxObsMedT_3,b_FluxObsT_6,B_FluxObsT_7,b2_FluxObsT_2,
+ B2_FluxObsT_3,FluxcBFS,FluxcMedS_1,b_FluxcS_2,B_FluxcS_3,
+ b2_FluxcS,B2_FluxcS_1,FluxcBFT,FluxcMedT_1,b_FluxcT_2,
+ B_FluxcT_3,b2_FluxcT,B2_FluxcT_1,FluxIBFS,FluxIMedS_1,
+ b_FluxIS_2,B_FluxIS_3,b2_FluxIS,B2_FluxIS_1,FluxIBF2keV,
+ FluxIMed2keV_1,b_FluxI2keV_2,B_FluxI2keV_3,b2_FluxI2keV,
+ B2_FluxI2keV_1,LumIBFS,LumIMedS_1,b_LumIS_2,B_LumIS_3,
+ b2_LumIS,B2_LumIS_1,LumIBF2keV,LumIMed2keV_1,b_LumI2keV_2,
+ B_LumI2keV_3,b2_LumI2keV,B2_LumI2keV_1,GammaMed,b_Gamma,
+ B_Gamma_1,GammaMean,s_Gamma,lognHMed_1,b_lognH_2,B_lognH_3,
+ lognHMean_1,s_lognH_1,logPowNMed,b_logPowN,B_logPowN_1,
+ logPowNMean,s_logPowN,logBkgNMed_1,b_logBkgN_2,B_logBkgN_3,
+ logBkgNMean_1,s_logBkgN_1,chi25_1,dof25_1,logZ_1,NHclass_1
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table5.dat' ! Double-powerlaw results
C Format for file interpretation
5 format(
+ I5,1X,E9.2,1X,F12.10,1X,F10.8,1X,F9.7,1X,F13.9,1X,F10.8,1X,
+ F9.7,1X,F11.9,1X,F9.6,1X,F9.6,1X,F11.9,1X,F10.7,1X,F10.7,1X,
+ F13.10,1X,F11.8,1X,E16.9,1X,F8.6,1X,F11.8,1X,F9.6,1X,F10.7,1X,
+ E15.8,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,F8.4,1X,F8.4,1X,F8.4,
+ 1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,
+ F8.4,1X,F8.4,1X,F9.7,1X,F10.8,1X,F9.7,1X,F9.7,1X,F11.9,1X,
+ F10.8,1X,F10.8,1X,F9.7,1X,F10.8,1X,E12.7,1X,F9.6,1X,F9.6,1X,
+ F9.6,1X,F9.6,1X,F11.9,1X,F10.7,1X,F10.7,1X,F10.7,1X,F10.7,1X,
+ F12.10,1X,F11.8,1X,F11.8,1X,F12.9,1X,F11.8,1X,F10.8,1X,E16.9,
+ 1X,F14.11,1X,E14.7,1X,E16.9,1X,F12.10,1X,F12.6,1X,I3,1X,F11.6)
C Effective file loading
open(unit=1,status='old',file=
+'table5.dat')
write(6,*) '....Loading file: table5.dat'
do i__=1,27910
read(1,'(A1175)')ar__4
read(ar__4,5)
+ ID_SRC_4,z_2,dGmKL,b_dGmH,B_dGmH_1,GammaKL_1,b_GammaH_2,
+ B_GammaH_3,lognHKL_2,b_lognHH_4,B_lognHH_5,logPowNKL_1,
+ b_logPowNH_2,B_logPowNH_3,logFracKL,b_logFracH,B_logFracH_1,
+ dGmBF,GammaBF_1,lognHBF_2,logPowNBF_1,logFracBF,FluxObsBFS_2,
+ FluxObsMedS_4,b_FluxObsS_8,B_FluxObsS_9,b2_FluxObsS_4,
+ B2_FluxObsS_5,FluxObsBFT_2,FluxObsMedT_4,b_FluxObsT_8,
+ B_FluxObsT_9,b2_FluxObsT_4,B2_FluxObsT_5,FluxCBFS_1,
+ FluxCMedS_2,b_FluxCS_4,B_FluxCS_5,b2_FluxCS_2,B2_FluxCS_3,
+ FluxCBFT_1,FluxCMedT_2,b_FluxCT_4,B_FluxCT_5,b2_FluxCT_2,
+ B2_FluxCT_3,FluxIBFS_1,FluxIMedS_2,b_FluxIS_4,B_FluxIS_5,
+ b2_FluxIS_2,B2_FluxIS_3,FluxIBF2keV_1,FluxIMed2keV_2,
+ b_FluxI2keV_4,B_FluxI2keV_5,b2_FluxI2keV_2,B2_FluxI2keV_3,
+ LumIBFS_1,LumIMedS_2,b_LumIS_4,B_LumIS_5,b2_LumIS_2,
+ B2_LumIS_3,LumIBF2keV_1,LumIMed2keV_2,b_LumI2keV_4,
+ B_LumI2keV_5,b2_LumI2keV_2,B2_LumI2keV_3,dGmMed,b_dGm,B_dGm_1,
+ dGmMean,s_dGm,GammaMed_1,b_Gamma_2,B_Gamma_3,GammaMean_1,
+ s_Gamma_1,lognHMed_2,b_lognH_4,B_lognH_5,lognHMean_2,
+ s_lognH_2,logPowNMed_1,b_logPowN_2,B_logPowN_3,logPowNMean_1,
+ s_logPowN_1,logFracMed,b_logFrac,B_logFrac_1,logFracMean,
+ s_logFrac,logBkgNMed_2,b_logBkgN_4,B_logBkgN_5,logBkgNMean_2,
+ s_logBkgN_2,chi25_2,dof25_2,logZ_2
if(ar__4(51:63) .EQ. '') GammaKL_1 = rNULL__
if(ar__4(152:164) .EQ. '') logFracKL = rNULL__
c ..............Just test output...........
write(6,5)
+ ID_SRC_4,z_2,dGmKL,b_dGmH,B_dGmH_1,GammaKL_1,b_GammaH_2,
+ B_GammaH_3,lognHKL_2,b_lognHH_4,B_lognHH_5,logPowNKL_1,
+ b_logPowNH_2,B_logPowNH_3,logFracKL,b_logFracH,B_logFracH_1,
+ dGmBF,GammaBF_1,lognHBF_2,logPowNBF_1,logFracBF,FluxObsBFS_2,
+ FluxObsMedS_4,b_FluxObsS_8,B_FluxObsS_9,b2_FluxObsS_4,
+ B2_FluxObsS_5,FluxObsBFT_2,FluxObsMedT_4,b_FluxObsT_8,
+ B_FluxObsT_9,b2_FluxObsT_4,B2_FluxObsT_5,FluxCBFS_1,
+ FluxCMedS_2,b_FluxCS_4,B_FluxCS_5,b2_FluxCS_2,B2_FluxCS_3,
+ FluxCBFT_1,FluxCMedT_2,b_FluxCT_4,B_FluxCT_5,b2_FluxCT_2,
+ B2_FluxCT_3,FluxIBFS_1,FluxIMedS_2,b_FluxIS_4,B_FluxIS_5,
+ b2_FluxIS_2,B2_FluxIS_3,FluxIBF2keV_1,FluxIMed2keV_2,
+ b_FluxI2keV_4,B_FluxI2keV_5,b2_FluxI2keV_2,B2_FluxI2keV_3,
+ LumIBFS_1,LumIMedS_2,b_LumIS_4,B_LumIS_5,b2_LumIS_2,
+ B2_LumIS_3,LumIBF2keV_1,LumIMed2keV_2,b_LumI2keV_4,
+ B_LumI2keV_5,b2_LumI2keV_2,B2_LumI2keV_3,dGmMed,b_dGm,B_dGm_1,
+ dGmMean,s_dGm,GammaMed_1,b_Gamma_2,B_Gamma_3,GammaMean_1,
+ s_Gamma_1,lognHMed_2,b_lognH_4,B_lognH_5,lognHMean_2,
+ s_lognH_2,logPowNMed_1,b_logPowN_2,B_logPowN_3,logPowNMean_1,
+ s_logPowN_1,logFracMed,b_logFrac,B_logFrac_1,logFracMean,
+ s_logFrac,logBkgNMed_2,b_logBkgN_4,B_logBkgN_5,logBkgNMean_2,
+ s_logBkgN_2,chi25_2,dof25_2,logZ_2
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table6.dat' ! Powerlaw+blackbody results
C Format for file interpretation
6 format(
+ I5,1X,E9.2,1X,F12.9,1X,F11.9,1X,F9.7,1X,F11.9,1X,F9.6,1X,F9.6,
+ 1X,F11.9,1X,F10.7,1X,F10.7,1X,F12.10,1X,F11.8,1X,F11.8,1X,
+ F12.10,1X,F10.7,1X,F10.7,1X,F11.8,1X,F9.6,1X,F10.7,1X,F11.8,
+ 1X,F10.7,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E14.8,1X,
+ E14.8,1X,E14.8,1X,E14.8,1X,E14.8,1X,E14.8,1X,F8.4,1X,F8.4,1X,
+ F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F10.6,1X,F10.6,1X,F10.6,1X,
+ F10.6,1X,F10.6,1X,F10.6,1X,F10.8,1X,F10.8,1X,F9.7,1X,F10.8,1X,
+ F11.9,1X,F9.6,1X,F9.6,1X,F9.6,1X,F9.6,1X,F11.9,1X,F10.7,1X,
+ F10.7,1X,F10.7,1X,F10.7,1X,F12.10,1X,F11.8,1X,F11.8,1X,F11.8,
+ 1X,F11.8,1X,F12.10,1X,F10.7,1X,F10.7,1X,F10.7,1X,F10.7,1X,
+ F11.9,1X,E16.9,1X,F14.11,1X,E15.8,1X,E16.9,1X,F12.10,1X,F11.6,
+ 1X,I3,1X,F11.6,1X,F15.11)
C Effective file loading
open(unit=1,status='old',file=
+'table6.dat')
write(6,*) '....Loading file: table6.dat'
do i__=1,27910
read(1,'(A1217)')ar__5
read(ar__5,6)
+ ID_SRC_5,z_3,GammaKL_2,b_GammaH_4,B_GammaH_5,lognHKL_3,
+ b_lognHH_6,B_lognHH_7,logPowNKL_2,b_logPowNH_4,B_logPowNH_5,
+ logkTKL_1,b_logkTH_2,B_logkTH_3,logBBNKL,b_logBBNH,
+ B_logBBNH_1,GammaBF_2,lognHBF_3,logPowNBF_2,logkTBF_1,
+ logBBNBF,FluxObsBFS_3,FluxObsMedS_5,b_FluxObsS_10,
+ B_FluxObsS_11,b2_FluxObsS_6,B2_FluxObsS_7,FluxObsBFT_3,
+ FluxObsMedT_5,b_FluxObsT_10,B_FluxObsT_11,b2_FluxObsT_6,
+ B2_FluxObsT_7,FluxCBFS_2,FluxCMedS_3,b_FluxCS_6,B_FluxCS_7,
+ b2_FluxCS_4,B2_FluxCS_5,FluxCBFT_2,FluxCMedT_3,b_FluxCT_6,
+ B_FluxCT_7,b2_FluxCT_4,B2_FluxCT_5,FluxIBFS_2,FluxIMedS_3,
+ b_FluxIS_6,B_FluxIS_7,b2_FluxIS_4,B2_FluxIS_5,FluxIBF2keV_2,
+ FluxIMed2keV_3,b_FluxI2keV_6,B_FluxI2keV_7,b2_FluxI2keV_4,
+ B2_FluxI2keV_5,LumIBFS_2,LumIMedS_3,b_LumIS_6,B_LumIS_7,
+ b2_LumIS_4,B2_LumIS_5,LumIBF2keV_2,LumIMed2keV_3,b_LumI2keV_6,
+ B_LumI2keV_7,b2_LumI2keV_4,B2_LumI2keV_5,GammaMed_2,b_Gamma_4,
+ B_Gamma_5,GammaMean_2,s_Gamma_2,lognHMed_3,b_lognH_6,
+ B_lognH_7,lognHMean_3,s_lognH_3,logPowNMed_2,b_logPowN_4,
+ B_logPowN_5,logPowNMean_2,s_logPowN_2,logkTMed_1,b_logkT_2,
+ B_logkT_3,logkTMean_1,s_logkT_1,logBBNMed,b_logBBN,B_logBBN_1,
+ logBBNMean,s_logBBN,logBkgNMed_3,b_logBkgN_6,B_logBkgN_7,
+ logBkgNMean_3,s_logBkgN_3,chi25_3,dof25_3,logZ_3,logRbb
c ..............Just test output...........
write(6,6)
+ ID_SRC_5,z_3,GammaKL_2,b_GammaH_4,B_GammaH_5,lognHKL_3,
+ b_lognHH_6,B_lognHH_7,logPowNKL_2,b_logPowNH_4,B_logPowNH_5,
+ logkTKL_1,b_logkTH_2,B_logkTH_3,logBBNKL,b_logBBNH,
+ B_logBBNH_1,GammaBF_2,lognHBF_3,logPowNBF_2,logkTBF_1,
+ logBBNBF,FluxObsBFS_3,FluxObsMedS_5,b_FluxObsS_10,
+ B_FluxObsS_11,b2_FluxObsS_6,B2_FluxObsS_7,FluxObsBFT_3,
+ FluxObsMedT_5,b_FluxObsT_10,B_FluxObsT_11,b2_FluxObsT_6,
+ B2_FluxObsT_7,FluxCBFS_2,FluxCMedS_3,b_FluxCS_6,B_FluxCS_7,
+ b2_FluxCS_4,B2_FluxCS_5,FluxCBFT_2,FluxCMedT_3,b_FluxCT_6,
+ B_FluxCT_7,b2_FluxCT_4,B2_FluxCT_5,FluxIBFS_2,FluxIMedS_3,
+ b_FluxIS_6,B_FluxIS_7,b2_FluxIS_4,B2_FluxIS_5,FluxIBF2keV_2,
+ FluxIMed2keV_3,b_FluxI2keV_6,B_FluxI2keV_7,b2_FluxI2keV_4,
+ B2_FluxI2keV_5,LumIBFS_2,LumIMedS_3,b_LumIS_6,B_LumIS_7,
+ b2_LumIS_4,B2_LumIS_5,LumIBF2keV_2,LumIMed2keV_3,b_LumI2keV_6,
+ B_LumI2keV_7,b2_LumI2keV_4,B2_LumI2keV_5,GammaMed_2,b_Gamma_4,
+ B_Gamma_5,GammaMean_2,s_Gamma_2,lognHMed_3,b_lognH_6,
+ B_lognH_7,lognHMean_3,s_lognH_3,logPowNMed_2,b_logPowN_4,
+ B_logPowN_5,logPowNMean_2,s_logPowN_2,logkTMed_1,b_logkT_2,
+ B_logkT_3,logkTMean_1,s_logkT_1,logBBNMed,b_logBBN,B_logBBN_1,
+ logBBNMean,s_logBBN,logBkgNMed_3,b_logBkgN_6,B_logBkgN_7,
+ logBkgNMean_3,s_logBkgN_3,chi25_3,dof25_3,logZ_3,logRbb
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table7.dat' ! Gamma-fixed-powerlaw results
C Format for file interpretation
7 format(
+ I5,1X,E9.2,1X,F11.9,1X,F9.6,1X,F9.6,1X,F10.8,1X,F10.7,1X,
+ F10.7,1X,F9.6,1X,F10.7,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,F8.4,1X,
+ F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,
+ 1X,F8.4,1X,F8.4,1X,F8.4,1X,F9.6,1X,F9.6,1X,F9.6,1X,F9.6,1X,
+ F12.10,1X,F10.7,1X,F10.7,1X,F10.7,1X,F10.7,1X,F12.10,1X,E16.9,
+ 1X,E14.7,1X,E15.8,1X,E16.9,1X,F12.10,1X,F11.6)
C Effective file loading
open(unit=1,status='old',file=
+'table7.dat')
write(6,*) '....Loading file: table7.dat'
do i__=1,27910
read(1,'(A841)')ar__6
read(ar__6,7)
+ ID_SRC_6,z_4,lognHKL_4,b_lognHH_8,B_lognHH_9,logPowNKL_3,
+ b_logPowNH_6,B_logPowNH_7,lognHBF_4,logPowNBF_3,FluxObsBFS_4,
+ FluxObsMedS_6,b_FluxObsS_12,B_FluxObsS_13,b2_FluxObsS_8,
+ B2_FluxObsS_9,FluxObsBFT_4,FluxObsMedT_6,b_FluxObsT_12,
+ B_FluxObsT_13,b2_FluxObsT_8,B2_FluxObsT_9,FluxCBFS_3,
+ FluxCMedS_4,b_FluxCS_8,B_FluxCS_9,b2_FluxCS_6,B2_FluxCS_7,
+ FluxCBFT_3,FluxCMedT_4,b_FluxCT_8,B_FluxCT_9,b2_FluxCT_6,
+ B2_FluxCT_7,FluxIBFS_3,FluxIMedS_4,b_FluxIS_8,B_FluxIS_9,
+ b2_FluxIS_6,B2_FluxIS_7,FluxIBF2keV_3,FluxIMed2keV_4,
+ b_FluxI2keV_8,B_FluxI2keV_9,b2_FluxI2keV_6,B2_FluxI2keV_7,
+ LumIBFS_3,LumIMedS_4,b_LumIS_8,B_LumIS_9,b2_LumIS_6,
+ B2_LumIS_7,LumIBF2keV_3,LumIMed2keV_4,b_LumI2keV_8,
+ B_LumI2keV_9,b2_LumI2keV_6,B2_LumI2keV_7,lognHMed_4,b_lognH_8,
+ B_lognH_9,lognHMean_4,s_lognH_4,logPowNMed_3,b_logPowN_6,
+ B_logPowN_7,logPowNMean_3,s_logPowN_3,logBkgNMed_4,
+ b_logBkgN_8,B_logBkgN_9,logBkgNMean_4,s_logBkgN_4,logZ_4
c ..............Just test output...........
write(6,7)
+ ID_SRC_6,z_4,lognHKL_4,b_lognHH_8,B_lognHH_9,logPowNKL_3,
+ b_logPowNH_6,B_logPowNH_7,lognHBF_4,logPowNBF_3,FluxObsBFS_4,
+ FluxObsMedS_6,b_FluxObsS_12,B_FluxObsS_13,b2_FluxObsS_8,
+ B2_FluxObsS_9,FluxObsBFT_4,FluxObsMedT_6,b_FluxObsT_12,
+ B_FluxObsT_13,b2_FluxObsT_8,B2_FluxObsT_9,FluxCBFS_3,
+ FluxCMedS_4,b_FluxCS_8,B_FluxCS_9,b2_FluxCS_6,B2_FluxCS_7,
+ FluxCBFT_3,FluxCMedT_4,b_FluxCT_8,B_FluxCT_9,b2_FluxCT_6,
+ B2_FluxCT_7,FluxIBFS_3,FluxIMedS_4,b_FluxIS_8,B_FluxIS_9,
+ b2_FluxIS_6,B2_FluxIS_7,FluxIBF2keV_3,FluxIMed2keV_4,
+ b_FluxI2keV_8,B_FluxI2keV_9,b2_FluxI2keV_6,B2_FluxI2keV_7,
+ LumIBFS_3,LumIMedS_4,b_LumIS_8,B_LumIS_9,b2_LumIS_6,
+ B2_LumIS_7,LumIBF2keV_3,LumIMed2keV_4,b_LumI2keV_8,
+ B_LumI2keV_9,b2_LumI2keV_6,B2_LumI2keV_7,lognHMed_4,b_lognH_8,
+ B_lognH_9,lognHMean_4,s_lognH_4,logPowNMed_3,b_logPowN_6,
+ B_logPowN_7,logPowNMean_3,s_logPowN_3,logBkgNMed_4,
+ b_logBkgN_8,B_logBkgN_9,logBkgNMean_4,s_logBkgN_4,logZ_4
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table8.dat' ! Shape-fixed-powerlaw results
C Format for file interpretation
8 format(
+ I5,1X,E9.2,1X,F10.8,1X,F10.7,1X,F10.7,1X,F10.7,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,
+ F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F8.4,1X,F10.7,
+ 1X,F10.7,1X,F10.7,1X,F10.7,1X,F12.10,1X,E15.9,1X,E15.8,1X,
+ E15.8,1X,E16.9,1X,F12.10,1X,F11.6)
C Effective file loading
open(unit=1,status='old',file=
+'table8.dat')
write(6,*) '....Loading file: table8.dat'
do i__=1,27910
read(1,'(A746)')ar__7
read(ar__7,8)
+ ID_SRC_7,z_5,logPowNKL_4,b_logPowNH_8,B_logPowNH_9,
+ logPowNBF_4,FluxObsBFS_5,FluxObsMedS_7,b_FluxObsS_14,
+ B_FluxObsS_15,b2_FluxObsS_10,B2_FluxObsS_11,FluxObsBFT_5,
+ FluxObsMedT_7,b_FluxObsT_14,B_FluxObsT_15,b2_FluxObsT_10,
+ B2_FluxObsT_11,FluxCBFS_4,FluxCMedS_5,b_FluxCS_10,B_FluxCS_11,
+ b2_FluxCS_8,B2_FluxCS_9,FluxCBFT_4,FluxCMedT_5,b_FluxCT_10,
+ B_FluxCT_11,b2_FluxCT_8,B2_FluxCT_9,FluxIBFS_4,FluxIMedS_5,
+ b_FluxIS_10,B_FluxIS_11,b2_FluxIS_8,B2_FluxIS_9,FluxIBF2keV_4,
+ FluxIMed2keV_5,b_FluxI2keV_10,B_FluxI2keV_11,b2_FluxI2keV_8,
+ B2_FluxI2keV_9,LumIBFS_4,LumIMedS_5,b_LumIS_10,B_LumIS_11,
+ b2_LumI2S,B2_LumIS_8,LumIBF2keV_4,LumIMed2keV_5,b_LumI2keV_10,
+ B_LumI2keV_11,b2_LumI2keV_8,B2_LumI2keV_9,logPowNMed_4,
+ b_logPowN_8,B_logPowN_9,logPowNMean_4,s_logPowN_4,
+ logBkgNMed_5,b_logBkgN_10,B_logBkgN_11,logBkgNMean_5,
+ s_logBkgN_5,logZ_5
c ..............Just test output...........
write(6,8)
+ ID_SRC_7,z_5,logPowNKL_4,b_logPowNH_8,B_logPowNH_9,
+ logPowNBF_4,FluxObsBFS_5,FluxObsMedS_7,b_FluxObsS_14,
+ B_FluxObsS_15,b2_FluxObsS_10,B2_FluxObsS_11,FluxObsBFT_5,
+ FluxObsMedT_7,b_FluxObsT_14,B_FluxObsT_15,b2_FluxObsT_10,
+ B2_FluxObsT_11,FluxCBFS_4,FluxCMedS_5,b_FluxCS_10,B_FluxCS_11,
+ b2_FluxCS_8,B2_FluxCS_9,FluxCBFT_4,FluxCMedT_5,b_FluxCT_10,
+ B_FluxCT_11,b2_FluxCT_8,B2_FluxCT_9,FluxIBFS_4,FluxIMedS_5,
+ b_FluxIS_10,B_FluxIS_11,b2_FluxIS_8,B2_FluxIS_9,FluxIBF2keV_4,
+ FluxIMed2keV_5,b_FluxI2keV_10,B_FluxI2keV_11,b2_FluxI2keV_8,
+ B2_FluxI2keV_9,LumIBFS_4,LumIMedS_5,b_LumIS_10,B_LumIS_11,
+ b2_LumI2S,B2_LumIS_8,LumIBF2keV_4,LumIMed2keV_5,b_LumI2keV_10,
+ B_LumI2keV_11,b2_LumI2keV_8,B2_LumI2keV_9,logPowNMed_4,
+ b_logPowN_8,B_logPowN_9,logPowNMean_4,s_logPowN_4,
+ logBkgNMed_5,b_logBkgN_10,B_logBkgN_11,logBkgNMean_5,
+ s_logBkgN_5,logZ_5
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table9.dat' ! Soft-band fitting results
C Format for file interpretation
9 format(
+ I5,1X,E9.2,1X,F12.9,1X,F10.8,1X,F9.7,1X,F11.9,1X,F9.6,1X,F9.6,
+ 1X,F11.9,1X,F11.8,1X,F13.10,1X,F11.8,1X,F9.6,1X,E15.8,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,F10.8,
+ 1X,F10.8,1X,F9.7,1X,F9.7,1X,F11.9,1X,F9.6,1X,F9.6,1X,F9.6,1X,
+ F9.6,1X,F11.9,1X,F11.8,1X,F11.8,1X,F12.9,1X,F11.8,1X,F12.10,
+ 1X,E16.9,1X,E15.8,1X,E16.9,1X,E15.8,1X,F12.10,1X,F12.7)
C Effective file loading
open(unit=1,status='old',file=
+'table9.dat')
write(6,*) '....Loading file: table9.dat'
do i__=1,27910
read(1,'(A489)')ar__8
read(ar__8,9)
+ ID_SRC_8,z_6,GammaKL_3,b_GammaH_6,B_GammaH_7,lognHKL_5,
+ b_lognHH_10,B_lognHH_11,logPowNKL_5,b_logPowNH_10,
+ B_logPowNH_11,GammaBF_3,lognHBF_5,logPowNBF_5,FluxObsBFS_6,
+ FluxObsMedS_8,b_FluxObsS_16,B_FluxObsS_17,b2_FluxObsS_12,
+ B2_FluxObsS_13,GammaMed_3,b_Gamma_6,B_Gamma_7,GammaMean_3,
+ s_Gamma_3,lognHMed_5,b_lognH_10,B_lognH_11,lognHMean_5,
+ s_lognH_5,logPowNMed_5,b_logPowN_10,B_logPowN_11,
+ logPowNMean_5,s_logPowN_5,logBkgNMed_6,blogBkgN,BlogBkgN_1,
+ logBkgNMean_6,logBkgN,logZ_6
c ..............Just test output...........
write(6,9)
+ ID_SRC_8,z_6,GammaKL_3,b_GammaH_6,B_GammaH_7,lognHKL_5,
+ b_lognHH_10,B_lognHH_11,logPowNKL_5,b_logPowNH_10,
+ B_logPowNH_11,GammaBF_3,lognHBF_5,logPowNBF_5,FluxObsBFS_6,
+ FluxObsMedS_8,b_FluxObsS_16,B_FluxObsS_17,b2_FluxObsS_12,
+ B2_FluxObsS_13,GammaMed_3,b_Gamma_6,B_Gamma_7,GammaMean_3,
+ s_Gamma_3,lognHMed_5,b_lognH_10,B_lognH_11,lognHMean_5,
+ s_lognH_5,logPowNMed_5,b_logPowN_10,B_logPowN_11,
+ logPowNMean_5,s_logPowN_5,logBkgNMed_6,blogBkgN,BlogBkgN_1,
+ logBkgNMean_6,logBkgN,logZ_6
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'table10.dat' ! Hard-band fitting results
C Format for file interpretation
10 format(
+ I5,1X,E9.2,1X,F11.9,1X,F9.7,1X,F9.7,1X,F12.10,1X,F9.6,1X,F9.6,
+ 1X,F11.9,1X,F10.7,1X,F12.9,1X,F11.8,1X,F9.6,1X,F13.10,1X,
+ E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,
+ 1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,E11.6,1X,F9.7,1X,F9.7,
+ 1X,F9.7,1X,F9.7,1X,F10.8,1X,F9.6,1X,F9.6,1X,F9.6,1X,F9.6,1X,
+ F10.8,1X,F10.7,1X,F10.7,1X,F11.8,1X,F10.7,1X,F10.8,1X,E15.9,
+ 1X,E15.8,1X,E15.8,1X,E15.8,1X,F12.10,1X,F11.7)
C Effective file loading
open(unit=1,status='old',file=
+'table10.dat')
write(6,*) '....Loading file: table10.dat'
do i__=1,27910
read(1,'(A543)')ar__9
read(ar__9,10)
+ ID_SRC_9,z_7,GammaKL_4,e_Gamma,E_Gamma_1,lognHKL_6,b_lognH_12,
+ B_lognH_13,logPowNKL_6,b_logPowN_12,B_logPowN_13,GammaBF_4,
+ lognHBF_6,logPowNBF_6,FluxObsBFT_6,FluxObsMedT_8,
+ b_FluxObsT_16,B_FluxObsT_17,b2_FluxObsT_12,B2_FluxObsT_13,
+ FluxCBFT_5,FluxCMedT_6,b_FluxCMedT,B_FluxCMedT_1,b2_FluxCMedT,
+ B2_FluxCMedT_1,GammaMed_4,b_GammaMed,B_GammaMed_1,GammaMean_4,
+ s_Gamma_4,lognHMed_6,b_lognHMed,B_lognHMed_1,lognHMean_6,
+ s_lognH_6,logPowNMed_6,b_logPowNMed,B_logPowNMed_1,
+ logPowNMean_6,s_logPowN_6,logBkgNMed_7,b_logBkgNMed,
+ B_logBkgNMed_1,logBkgNMean_7,s_logBkgN_6,logZ_7
c ..............Just test output...........
write(6,10)
+ ID_SRC_9,z_7,GammaKL_4,e_Gamma,E_Gamma_1,lognHKL_6,b_lognH_12,
+ B_lognH_13,logPowNKL_6,b_logPowN_12,B_logPowN_13,GammaBF_4,
+ lognHBF_6,logPowNBF_6,FluxObsBFT_6,FluxObsMedT_8,
+ b_FluxObsT_16,B_FluxObsT_17,b2_FluxObsT_12,B2_FluxObsT_13,
+ FluxCBFT_5,FluxCMedT_6,b_FluxCMedT,B_FluxCMedT_1,b2_FluxCMedT,
+ B2_FluxCMedT_1,GammaMed_4,b_GammaMed,B_GammaMed_1,GammaMean_4,
+ s_Gamma_4,lognHMed_6,b_lognHMed,B_lognHMed_1,lognHMean_6,
+ s_lognH_6,logPowNMed_6,b_logPowNMed,B_logPowNMed_1,
+ logPowNMean_6,s_logPowN_6,logBkgNMed_7,b_logBkgNMed,
+ B_logBkgNMed_1,logBkgNMean_7,s_logBkgN_6,logZ_7
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
stop
end