Conversion of standardized ReadMe file for
file /./ftp/cats/J/ApJ/836/99 into FORTRAN code for loading all data files into arrays.
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 2024-Mar-28 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/ApJ/836/99 NuSTAR serendipitous survey: the 40-month catalog (Lansbury+, 2017) *================================================================================ *The NuSTAR serendipitous survey: the 40-month catalog and the properties of the *distant high-energy X-ray source population. * Lansbury G.B., Stern D., Aird J., Alexander D.M., Fuentes C., * Harrison F.A., Treister E., Bauer F.E., Tomsick J.A., Balokovic M., * Del Moro A., Gandhi P., Ajello M., Annuar A., Ballantyne D.R., Boggs S.E., * Brandt W.N., Brightman M., Chen C.-T.J., Christensen F.E., Civano F., * Comastri A., Craig W.W., Forster K., Grefenstette B.W., Hailey C.J., * Hickox R.C., Jiang B., Jun H.D., Koss M., Marchesi S., Melo A.D., * Mullaney J.R., Noirot G., Schulze S., Walton D.J., Zappacosta L., * Zhang W.W. * <Astrophys. J., 836, 99-99 (2017)> * =2017ApJ...836...99L (SIMBAD/NED BibCode) C============================================================================= C Internal variables integer*4 i__ c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - C Declarations for 'table1.dat' ! Details of the individual NuSTAR observations which make up the serendipitous survey integer*4 nr__ parameter (nr__=591) ! Number of records character*82 ar__ ! Full-size record C J2000 position composed of: RAdeg DEdeg character*4 Field (nr__) ! Field identifier (1) character*23 Target (nr__) ! Primary science target identifier integer*4 NObs (nr__) ! [1/15]? Number of individual exposures in Field integer*8 ObsID (nr__) ! ? Observation identifier character*10 Date (nr__) ! ("Y/M/D") ? Field observation start UT date real*4 RAdeg (nr__) ! (deg) ? Aim point Right Ascension (J2000) real*4 DEdeg (nr__) ! (deg) ? Aim point Declination (J2000) real*4 Exp (nr__) ! (ks) [1.8/1104] Exposure time (2) integer*4 N (nr__) ! [0/12]? Number of serendipitous sources detected integer*4 A15 (nr__) ! [0/1]? Aird+ 2015ApJ...815...66A flag (3) integer*4 H16 (nr__) ! [0/1]? Harrison+ 2016ApJ...831..185H flag (3) *Note (1): For fields with multiple NuSTAR exposures (i.e., Nobs>1), each * individual component exposure is listed with a letter suffixed to the * field ID (e.g., 3a and 3b). *Note (2): For a single focal plane module (i.e., averaged over FPMA and FPMB). *Note (3): Binary flags to highlight the serendipitous survey fields used for * the Aird+ 2015ApJ...815...66A and Harrison+ 2016ApJ...831..185H * studies. c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - C Declarations for 'table5.dat' ! The primary NuSTAR serendipitous source catalog integer*4 nr__1 parameter (nr__1=498) ! Number of records character*903 ar__1 ! Full-size record C J2000 position composed of: RAdeg DEdeg integer*4 Seq (nr__1) ! [1/498] Running sequence number character*14 NuSTAR (nr__1) ! Unique NuSTAR source name (JHHMMSS+DDMM.m) real*8 RAdeg_1 (nr__1) ! (deg) Right Ascension in decimal degrees (J2000) real*8 DEdeg_1 (nr__1) ! (deg) Declination in decimal degrees (J2000) integer*4 SFl (nr__1) ! [0/1] Soft (3-8keV) band detection flag (1) integer*4 HFl (nr__1) ! [0/1] Hard (8-24keV) band detection flag (1) integer*4 FFl (nr__1) ! [0/1] Full (3-24keV) band detection flag (1) integer*4 SdbFl (nr__1) ! [0/1] Deblended soft band detection flag (2) integer*4 HdbFl (nr__1) ! [0/1] Deblended hard band detection flag (2) integer*4 FdbFl (nr__1) ! [0/1] Deblended full band detection flag (2) real*8 logSP (nr__1) ! ([-]) [-44/-0.003]?=-999 Log of soft band false * probability; Section 2.3 real*8 logHP (nr__1) ! ([-]) [-42/-0.03]?=-999 Log of hard band false * probability; Section 2.3 real*8 logFP (nr__1) ! ([-]) [-44/-1.7]?=-999 Log of full band false * probability; Section 2.3 real*8 logSdbP (nr__1) ! ([-]) [-306/-0.003]?=-999 Log of deblended soft band * false probability real*8 logHdbP (nr__1) ! ([-]) [-231/-0.03]?=-999 Log of deblended hard band * false probability real*8 logFdbP (nr__1) ! ([-]) [-246/-1.7]?=-999 Log of deblended full band * false probability integer*4 dbFl (nr__1) ! [0/1] Source remains significant after * deblending flag (3) real*8 Scts (nr__1) ! (ct) [8/11132] Total soft (3-8keV) band counts (4) real*8 e_Scts (nr__1) ! (ct) [3/107] The 84% confidence level in Scts real*8 SBck (nr__1) ! (ct) [10/2568] Soft background counts scaled * to source aperture (4) real*8 SNet (nr__1) ! (ct) [5/9881] Net soft (3-8keV) band counts; * Scts-SBck (4) real*8 e_SNet (nr__1) ! (ct) [-99/107] The error in SNet (5) real*4 Hcts (nr__1) ! (ct) [15/6680] Total hard (8-24keV) band counts (4) real*4 e_Hcts (nr__1) ! (ct) [4/83] The 84% confidence level in Hcts real*8 HBck (nr__1) ! (ct) [7/1620] Hard background counts scaled * to source aperture (4) real*8 HNet (nr__1) ! (ct) [5/5854] Net hard (8-24keV) band counts; * Hcts-HBck (4) real*8 e_HNet (nr__1) ! (ct) [-99/83] The error in HNet (5) real*8 Fcts (nr__1) ! (ct) [32/17765] Total full (3-24keV) band counts (4) real*8 e_Fcts (nr__1) ! (ct) [6/135] The 84% confidence level in Fcts real*8 FBck (nr__1) ! (ct) [18/4178] Full background counts scaled * to source aperture (4) real*8 FNet (nr__1) ! (ct) [18/15694] Net full (3-24keV) band counts; * Fcts-FBck (4) real*8 e_FNet (nr__1) ! (ct) [-99/135] The error in FNet (5) real*8 Sdbcts (nr__1) ! (ct) [8/11132] Total deblended soft band counts (4) real*8 e_Sdbcts (nr__1) ! (ct) [10/2568] The 84% confidence level in Sdbcts real*8 SdbNet (nr__1) ! (ct) [5/9881] Net deblended soft band * counts; Sdbcts-SdbBck (4) real*8 e_SdbNet (nr__1) ! (ct) [-99/107] The error in SdbNet (5) real*4 Hdbcts (nr__1) ! (ct) [15/6680] Total deblended hard band counts (4) real*8 e_Hdbcts (nr__1) ! (ct) [7/1620] The 84% confidence level in Hdbcts real*8 HdbNet (nr__1) ! (ct) [5/5854] Net deblended hard band * counts; Hdbcts-HdbBck (4) real*8 e_HdbNet (nr__1) ! (ct) [-99/83] The error in HdbNet (5) real*8 Fdbcts (nr__1) ! (ct) [32/17765] Total deblended full band counts (4) real*8 e_Fdbcts (nr__1) ! (ct) [18/4178] The 84% confidence level in Fdbcts real*8 FdbNet (nr__1) ! (ct) [18/15694] Net deblended full band * counts; Fdbcts-FdbBck (4) real*8 e_FdbNet (nr__1) ! (ct) [-99/135] The error in FdbNet (5) real*8 Sexp (nr__1) ! (s) [12556/] Soft band exposure time (6) real*8 Hexp (nr__1) ! (s) [10166/] Hard band exposure time (6) real*8 Fexp (nr__1) ! (s) [10172/] Full band exposure time (6) real*4 SCR (nr__1) ! (ct/s) [0.0004/0.06] Total soft band count rate (7) real*4 e_SCR (nr__1) ! (ct/s) [/0.002] The 84% confidence level in SCR real*4 SCRBck (nr__1) ! (ct/s) [0.0004/0.007] Soft background count rate (7) real*4 SNCR (nr__1) ! (ct/s) [/0.06] Net soft count rate (7) real*4 e_SNCR (nr__1) ! (ct/s) [-99/0.002] The error in SNCR (5) real*4 HCR (nr__1) ! (ct/s) [0.0005/0.05] Total hard band count rate (7) real*4 e_HCR (nr__1) ! (ct/s) [/0.001] The 84% confidence level in HCR real*4 HCRBck (nr__1) ! (ct/s) [0.0006/0.005] Hard background count rate (7) real*4 HNCR (nr__1) ! (ct/s) [/0.04] Net hard count rate (7) real*4 e_HNCR (nr__1) ! (ct/s) [-99/0.001] The error in HNCR (5) real*4 FCR (nr__1) ! (ct/s) [0.001/0.2] Total full band count rate (7) real*4 e_FCR (nr__1) ! (ct/s) [/0.002] The 84% confidence level in FCR real*4 FCRBck (nr__1) ! (ct/s) [0.001/0.02] Full background count rate (7) real*4 FNCR (nr__1) ! (ct/s) [0.0001/0.1] Net full count rate (7) real*4 e_FNCR (nr__1) ! (ct/s) [-99/0.002] The error in FNCR (5) real*4 SdbNCR (nr__1) ! (ct/s) [/0.06] Deblended net soft count rate (7) real*4 e_SdbNCR (nr__1) ! (ct/s) [-99/0.002] The 84% confidence level * in SdbNCR real*4 HdbNCR (nr__1) ! (ct/s) [/0.04] Deblended net hard count rate (7) real*4 e_HdbNCR (nr__1) ! (ct/s) [-99/0.001] The 84% confidence level * in HdbNCR real*4 FdbNCR (nr__1) ! (ct/s) [0.0001/0.1] Deblended net full count rate (7) real*4 e_FdbNCR (nr__1) ! (ct/s) [-99/0.002] The 84% confidence level * in FdbNCR real*4 H_S (nr__1) ! [/7.5]?=0 Hard to Soft band ratio real*8 E_H_S (nr__1) ! [-99/1] Upper error on H/S (8) real*8 e_H_S_1 (nr__1) ! [-99/1] Lower error on H/S (8) real*4 gamma (nr__1) ! [-0.5/3]? Effective photon index real*8 E_gamma (nr__1) ! [-99/1]? Upper error on gamma (8) real*8 e_gamma_1 (nr__1) ! [-99/0.6]? Lower error on gamma (8) real*4 SFlux (nr__1) ! (mW/m2) Observed-frame soft flux (9) real*4 e_SFlux (nr__1) ! (mW/m2) ?=-99 The 84% confidence level in SFlux real*4 HFlux (nr__1) ! (mW/m2) Observed-frame hard flux (9) real*4 e_HFlux (nr__1) ! (mW/m2) ?=-99 The 84% confidence level in HFlux real*4 FFlux (nr__1) ! (mW/m2) Observed-frame full flux (9) real*4 e_FFlux (nr__1) ! (mW/m2) ?=-99 The 84% confidence level in FFlux character*8 XOrig (nr__1) ! Soft X-ray counterpart code (10) real*8 RAXdeg (nr__1) ! (deg) ? Soft X-ray counterpart Right Ascension in * decimal degrees (J2000) real*8 DEXdeg (nr__1) ! (deg) ? Soft X-ray counterpart Declination in * decimal degrees (J2000) real*4 XOff (nr__1) ! (arcsec) [0.5/37]? Soft X-ray and NuSTAR position offset real*4 XFlux (nr__1) ! (mW/m2) [0/2e-12]? Observed-frame 3-8 keV X-ray * counterpart flux (11) real*4 XTFlux (nr__1) ! (mW/m2) [0/2e-12]? Total combined 3-8 keV X-ray flux * within 30" of NUSTAR real*8 RAWdeg (nr__1) ! (deg) ? WISE counterpart Right Ascension in * decimal degrees (J2000) real*8 DEWdeg (nr__1) ! (deg) ? WISE counterpart Declination in * decimal degrees (J2000) real*4 IROff (nr__1) ! (arcsec) [0.05/6]? WISE and NuSTAR position offset real*4 W1mag (nr__1) ! (mag) [5.6/18.8]? WISE W1 band, 3.4um, profile-fit * Vega magnitude real*4 e_W1mag (nr__1) ! (mag) [0.02/0.3]? Error in W1mag (12) real*4 W2mag (nr__1) ! (mag) [3.8/17.4]? WISE W2 band, 4.6um, profile-fit * Vega magnitude real*4 e_W2mag (nr__1) ! (mag) ? Error in W2mag (12) real*4 W3mag (nr__1) ! (mag) [4/14]? WISE W3 band, 12 micron, profile-fit * Vega magnitude real*4 e_W3mag (nr__1) ! (mag) ? Error in W3mag (12) real*4 W4mag (nr__1) ! (mag) [1.7/10.2]? WISE W4 band, 22um, profile-fit * Vega magnitude real*4 e_W4mag (nr__1) ! (mag) ? Error in W4mag (12) character*9 OOrig (nr__1) ! Adopted optical counterpart code (13) real*8 RAOdeg (nr__1) ! (deg) ? Optical counterpart Right Ascension in * decimal degrees (J2000) real*8 DEOdeg (nr__1) ! (deg) ? Optical counterpart Declination in * decimal degrees (J2000) real*4 OOff (nr__1) ! (arcsec) [0.02/6]? Optical and NuSTAR position offset real*8 Rmag (nr__1) ! (mag) [-99/24.3]? Optical counterpart R band Vega * magnitude (14) real*4 zsp (nr__1) ! [0/3.5]? Spectroscopic redshift (15) real*4 XLum (nr__1) ! (10-7W) ? Rest-frame 10-40 keV luminosity (16) integer*4 PFl (nr__1) ! [0/1] Source associated with primary science * target (17) integer*4 A15Fl (nr__1) ! [0/1] Aird+ 2015ApJ...815...66A flag (18) *Note (1): A binary flag indicating whether the source is detected with a false * probability lower than our threshold of log(PFalse)=-6. *Note (2): Same as previous columns but after deblending has been performed to * account for contamination of the source counts from very nearby * sources (see Section 2.4 of this paper, and Section 2.3.2 of * Mullaney+ (2015, J/ApJ/808/184). Deblending only affects a * very small fraction of the overall sample (e.g., see Section 2.4). *Note (3): A binary flag indicating whether the NuSTAR detected source remains * significant after deblending, in at least one of the three standard * energy bands. *Note (4): Calculated at the source coordinates, and using a source aperture of * 30" radius (see Section 2.4). The values are non-aperture-corrected; * i.e., they correspond to the 30" values, and have not been corrected * to the full PSF values. *Note (5): For the net source counts, we give 90% CL upper limits for sources * not detected in a given band. Throughout the table, upper limits are * flagged with a -99 value in the error column. *Note (6): The average net, vignetting-corrected exposure time at the source * coordinates. These correspond to the A+B data, so should be divided * by two to obtain the average exposure per FPM. *Note (7): Non-aperture-corrected. Determined from the photometric values * and the exposure times. *Note (8): Upper limits, lower limits, and sources with no constraints are * flagged with -99, -88, and -77 values, respectively, in the * error columns. *Note (9): After deblending has been performed. These are aperture corrected * values (i.e., they correspond to the full NuSTAR PSF), and are * calculated from the count rates using the conversion factors * listed in Section 2.4. *Note (10): An abbreviated code indicating the origin of the adopted soft (i.e., * low energy; <10keV) X-ray counterpart. Code as follows: * CXO_CSC = counterparts from the Chandra Source Catalog (CSC; 82 occurrences; * Evans+ 2010, Cat. IX/45). * XMM_3XMM = counterparts from the third XMM-Newton serendipitous source catalog * (3XMM; 203 occurrences; Watson+ 2009, J/A+A/493/339 ; * Rosen+ 2016, IX/50). * CXO_MAN = sources manually identified using archival Chandra (27 occurrences) * XMM_MAN = sources manually identified using archival XMM-Newton * (24 occurrences) * XRT_MAN = sources manually identified using archival Swift XRT data * (60 occurrences). * Section 3.1 details the counterpart matching. *Note (11): For sources with counterparts in the CSC and 3XMM catalogs. For CSC * sources we convert to the 3-8keV flux from the 2-7keV flux using a * conversion factor of 0.83, and for the 3XMM sources we convert from * the 4.5-12keV flux using a conversion factor of 0.92. *Note (12): Blanks in the errors indicates the magnitude is a WISE upper limit. *Note (13): An abbreviated code indicating the origin of the adopted optical * counterpart to the NuSTAR source. Code as follows: * SDSS = sources with soft X-ray counterparts and successful matches in * the SDSS DR7 catalog (York+ 2000AJ....120.1579Y); 127 occurrences * USNO = sources with soft X-ray counterparts and successful matches in * the USNOB1 catalog (Monet+ 2003, I/284); 166 occurrences * MAN = sources with a soft X-ray counterpart and a corresponding optical * counterpart manually identified in the available optical coverage; * 181 occurrences * SDSS_WISE = there is no soft X-ray counterpart to the NuSTAR position, but a * WISE AGN candidate is identified within the NuSTAR error circle * and successfully matched to the SDSS DR7 (these are mainly used as * candidates for spectroscopic followup); 11 occurrences. * USNO_WISE = there is no soft X-ray counterpart to the NuSTAR position, but a * WISE AGN candidate is identified within the NuSTAR error circle * and successfully matched to the USNOB1 catalog (these are mainly * used as candidates for spectroscopic followup; 6 occurrences). * We give a detailed description of the procedure used to identify * optical counterparts in Section 3.2. *Note (14): For the SDSS DR7 matches, this is calculated as R=r-0.16. For * the USNOB1 matches, this is taken as the mean of the two independent * photographic plate measurements, R1mag and R2mag. For the manual * identifications, the magnitude is taken from another optical catalog * or manually determined from the imaging data. *Note (15): The large majority of the redshifts were obtained through our own * campaign of ground-based spectroscopic followup of NuSTAR * serendipitous survey sources (see Section 3.3.1 and * the "Description" section above). *Note (16): Estimated from the observed-frame fluxes, following the procedure * outlined in Section 2.4. Negative values indicate upper limits. The * luminosities are observed values, uncorrected for any absorption * along the line of sight. The intrinsic luminosities may therefore * be higher, for highly absorbed AGNs. *Note (17): A binary flag indicating the few sources which show evidence for * being associated with the primary science targets of their * respective NuSTAR observations, according to the definition in * Section 2.3 [{Delta}(cz)<0.05cz]. *Note (18): A binary flag highlighting the sources used in the * Aird+ (2015ApJ...815...66A) study. c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - C Declarations for 'table6.dat' ! Summary of the optical spectroscopy for the NuSTAR serendipitous survey sources integer*4 nr__2 parameter (nr__2=303) ! Number of records character*234 ar__2 ! Full-size record integer*4 Seq_1 (nr__2) ! [1/498] Unique source identification number character*14 NuSTAR_1 (nr__2) ! Unique NuSTAR source name (JHHMMSS+DDMM.m) real*4 z (nr__2) ! [0/3.5]? Source spectroscopic redshift character*7 Type (nr__2) ! Classification (1) character*122 Lines (nr__2) ! Emission/absorption lines identified (2) character*68 Notes (nr__2) ! Source notes and literature spectra references character*2 Run (nr__2) ! Unique observing run identification number (3) *Note (1): Classification (for primary sources) as follows: * BL = broad-line AGN (151 occurrences + 11 BL?) * NL = narrow-line AGN (84 occurrences + 13 NL?) * BL Lac? = BL Lac object candidate (1 occurrence) * Gal = Galactic objects (z=0; 16 occurrences) * * See Section 3.3.2 for further details. *Note (2): Absorption line/feature marked with "dg" footnote. *Note (3): As defined in Table 4 ("S" and "L" mark spectra obtained from the * SDSS and from elsewhere in the literature, respectively). c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - C Declarations for 'table7.dat' ! The secondary NuSTAR serendipitous source catalog integer*4 nr__3 parameter (nr__3=64) ! Number of records character*377 ar__3 ! Full-size record C J2000 position composed of: RAdeg DEdeg integer*4 Seq_2 (nr__3) ! [1/64] Unique source identification number character*14 NuSTAR_2 (nr__3) ! Unique NuSTAR source name (JHHMMSS+DDMM.m) real*8 RAdeg_2 (nr__3) ! (deg) Right Ascension in decimal degrees (J2000) real*8 DEdeg_2 (nr__3) ! (deg) Declination in decimal degrees (J2000) real*8 Scts_1 (nr__3) ! (ct) [36/7049]? Total soft band (3-8keV) counts (1) real*8 SBck_1 (nr__3) ! (ct) ? Soft background counts (1) real*8 SNet_1 (nr__3) ! (ct) [16/6633]? Net soft band counts (1) real*8 e_SNet_1 (nr__3) ! (ct) [-99/85]? The error in SNet (2) real*8 Hcts_1 (nr__3) ! (ct) ? Total hard band (8-24 keV) counts (1) real*8 HBck_1 (nr__3) ! (ct) ? Hard background counts (1) real*8 HNet_1 (nr__3) ! (ct) [13/4306]? Net hard band counts (1) real*8 e_HNet_1 (nr__3) ! (ct) [-99/69]? The error in HNet (2) real*8 Fcts_1 (nr__3) ! (ct) [85/11617]? Total full band (3-24keV) counts (1) real*8 FBck_1 (nr__3) ! (ct) ? Full background counts (1) real*8 FNet_1 (nr__3) ! (ct) [22/10900]? Net full band counts (1) real*8 e_FNet_1 (nr__3) ! (ct) [-99/109]? The error in FNet (2) real*8 Sexp_1 (nr__3) ! (s) [14375/643091]? Soft band exposure time (3) real*8 Hexp_1 (nr__3) ! (s) ? Hard band exposure time (3) real*8 Fexp_1 (nr__3) ! (s) ? Full band exposure time (3) real*4 SNCR_1 (nr__3) ! (ct/s) [0.0003/0.5]? Net soft count rate, * aperture-corrected (4) real*4 e_SNCR_1 (nr__3) ! (ct/s) [-99/0.006]? The error in SNCR (2) real*4 HNCR_1 (nr__3) ! (ct/s) [0.0003/0.4]? Net hard count rate, * aperture-corrected (4) real*4 e_HNCR_1 (nr__3) ! (ct/s) [-99/0.006]? The error in HNCR (2) real*4 FNCR_1 (nr__3) ! (ct/s) [0.0005/1]? Net full count rate, * aperture-corrected (4) real*4 e_FNCR_1 (nr__3) ! (ct/s) [-99/0.01]? The error in FNCR (2) real*4 SFlux_1 (nr__3) ! (mW/m2) ? Observed-frame soft flux (5) real*4 e_SFlux_1 (nr__3) ! (mW/m2) [-99/]? The 84% confidence level in SFlux real*4 HFlux_1 (nr__3) ! (mW/m2) ? Observed-frame hard flux (5) real*4 e_HFlux_1 (nr__3) ! (mW/m2) [-99/]? The 84% confidence level in HFlux real*4 FFlux_1 (nr__3) ! (mW/m2) ? Observed-frame full flux (5) real*4 e_FFlux_1 (nr__3) ! (mW/m2) [-99/]? The 84% confidence level in FFlux character*3 XName (nr__3) ! Lower energy X-ray counterpart observatory name real*8 RAXdeg_1 (nr__3) ! (deg) ? Lower energy X-ray counterpart Right Ascension * in decimal degrees (J2000) real*8 DEXdeg_1 (nr__3) ! (deg) ? Lower energy X-ray counterpart Declination * in decimal degrees (J2000) character*4 OName (nr__3) ! Other, optical or WISE, counterpart * observatory name real*8 RAOdeg_1 (nr__3) ! (deg) ? Other counterpart Right Ascension in * decimal degrees (J2000) real*8 DEOdeg_1 (nr__3) ! (deg) ? Other counterpart Declination in * decimal degrees (J2000) real*4 zsp_1 (nr__3) ! [0/1.9]? Spectroscopic redshift (6) real*4 XLum_1 (nr__3) ! (10-7W) ? Non-absorption-corrected, rest-frame * 10-40keV luminosity (7) character*1 Fl (nr__3) ! Primary catalog code (8) *Note (1): Calculated at the source coordinates. The values are * non-aperture-corrected. *Note (2): For the net source counts, we give 90% CL upper limits for sources * not detected in a given band. Throughout the table, upper limits are * flagged with a -99 value in the error column. The photometric columns * are blank where the A+B data prohibit reliable photometric * constraints. *Note (3): The average net, vignetting-corrected exposure time at the source * coordinates. These correspond to the A+B data, so should be divided * by two to obtain the average exposure per FPM. *Note (4): Determined from the photometric values and the exposure times. *Note (5): After deblending has been performed. These are aperture corrected * values (i.e., they correspond to the full NuSTAR PSF), and are * calculated from the count rates using the conversion factors * listed in Section 2.4. *Note (6): The large majority of the redshifts were obtained through our own * campaign of ground-based spectroscopic followup of NuSTAR * serendipitous survey sources (see Section 3.3.1 and * the "Description" section above). *Note (7): Estimated from the observed-frame fluxes, following the procedure * outlined in Section 2.4. Negative values indicate upper limits. The * luminosities are observed values, uncorrected for any absorption * along the line of sight. The intrinsic luminosities may therefore * be higher, for highly absorbed AGNs. *Note (8): A character indicating the reason for not being included in the * primary catalog. These are categorised into four groups as follows: * E = the source is within or very close to the peripheral region of the NuSTAR * mosaic, which is excluded from the primary source detection (33% of * cases); * T = the source is narrowly offset from the central science target position * for the NuSTAR observation (and thus automatically excluded; * see Section 2.3), or from another bright source in the field (11%); * X = the source lies in a region which is masked out, or in a NuSTAR field * which is excluded, from the primary source detection (44%; e.g., due to * highly contaminating stray light or a bright science target); or * L = the source has a comparatively low detection significance (12%). c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - C Declarations for 'table8.dat' ! Summary of the optical spectroscopy for the secondary catalog sources integer*4 nr__4 parameter (nr__4=46) ! Number of records character*234 ar__4 ! Full-size record integer*4 Seq_3 (nr__4) ! [1/498] Unique source identification number character*14 NuSTAR_3 (nr__4) ! Unique NuSTAR source name (JHHMMSS+DDMM.m) real*4 z_1 (nr__4) ! [0/3.5]? Source spectroscopic redshift character*7 Type_1 (nr__4) ! Classification (1) character*122 Lines_1 (nr__4) ! Emission/absorption lines identified (2) character*68 Notes_1 (nr__4) ! Source notes and literature spectra references character*2 Run_1 (nr__4) ! Unique observing run identification number (3) *Note (1): Classification (for primary sources) as follows: * BL = broad-line AGN (151 occurrences + 11 BL?) * NL = narrow-line AGN (84 occurrences + 13 NL?) * BL Lac? = BL Lac object candidate (1 occurrence) * Gal = Galactic objects (z=0; 16 occurrences) * * See Section 3.3.2 for further details. *Note (2): Absorption line/feature marked with "dg" footnote. *Note (3): As defined in Table 4 ("S" and "L" mark spectra obtained from the * SDSS and from elsewhere in the literature, respectively). C============================================================================= C Loading file 'table1.dat' ! Details of the individual NuSTAR observations which * make up the serendipitous survey C Format for file interpretation 1 format( + A4,1X,A23,1X,I2,1X,I11,1X,A10,1X,F6.2,1X,F6.2,1X,F6.1,1X,I2, + 1X,I1,1X,I1) C Effective file loading open(unit=1,status='old',file= +'table1.dat') write(6,*) '....Loading file: table1.dat' do i__=1,591 read(1,'(A82)')ar__ read(ar__,1) + Field(i__),Target(i__),NObs(i__),ObsID(i__),Date(i__), + RAdeg(i__),DEdeg(i__),Exp(i__),N(i__),A15(i__),H16(i__) if(ar__(30:31) .EQ. '') NObs(i__) = iNULL__ if(ar__(33:43) .EQ. '') ObsID(i__) = iNULL__ if(ar__(56:61) .EQ. '') RAdeg(i__) = rNULL__ if(ar__(63:68) .EQ. '') DEdeg(i__) = rNULL__ if(ar__(77:78) .EQ. '') N(i__) = iNULL__ if(ar__(80:80) .EQ. '') A15(i__) = iNULL__ if(ar__(82:82) .EQ. '') H16(i__) = iNULL__ c ..............Just test output........... write(6,1) + Field(i__),Target(i__),NObs(i__),ObsID(i__),Date(i__), + RAdeg(i__),DEdeg(i__),Exp(i__),N(i__),A15(i__),H16(i__) c .......End.of.Just test output........... end do close(1) C============================================================================= C Loading file 'table5.dat' ! The primary NuSTAR serendipitous source catalog C Format for file interpretation 2 format( + I3,7X,A14,1X,F10.6,1X,F10.6,1X,I1,1X,I1,1X,I1,1X,I1,1X,I1,1X, + I1,1X,F8.3,1X,F8.3,1X,F8.3,1X,F8.3,1X,F8.3,1X,F8.3,1X,I1,1X, + F7.1,1X,F7.3,1X,F8.3,1X,F8.3,1X,F7.3,1X,F6.1,1X,F6.3,1X,F8.3, + 1X,F8.3,1X,F7.3,1X,F7.1,1X,F7.3,1X,F8.3,1X,F9.3,1X,F7.3,1X, + F7.1,1X,F8.3,1X,F8.3,1X,F7.3,1X,F6.1,1X,F8.3,1X,F8.3,1X,F7.3, + 1X,F7.1,1X,F8.3,1X,F9.3,1X,F7.3,1X,F9.1,1X,F9.1,1X,F9.1,1X, + E9.3,1X,E9.3,1X,E9.3,1X,E9.3,1X,E10.3,1X,E9.3,1X,E9.3,1X,E9.3, + 1X,E9.3,1X,E10.3,1X,E9.3,1X,E9.3,1X,E9.3,1X,E9.3,1X,E10.3,1X, + E9.3,1X,E10.3,1X,E9.3,1X,E10.3,1X,E9.3,1X,E10.3,1X,F5.3,1X, + F7.3,1X,F7.3,1X,F6.3,1X,F7.3,1X,F7.3,1X,E9.3,1X,E10.3,1X,E9.3, + 1X,E10.3,1X,E9.3,1X,E10.3,1X,A8,1X,F10.6,1X,F10.6,1X,F5.2,1X, + E9.3,1X,E9.3,1X,F10.6,1X,F10.6,1X,F5.3,1X,F6.3,1X,F5.3,1X, + F6.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,A9,1X,F12.8, + 1X,F12.8,1X,F5.3,1X,F7.3,1X,F5.3,1X,E10.3,1X,I1,1X,I1) C Effective file loading open(unit=1,status='old',file= +'table5.dat') write(6,*) '....Loading file: table5.dat' do i__=1,498 read(1,'(A903)')ar__1 read(ar__1,2) + Seq(i__),NuSTAR(i__),RAdeg_1(i__),DEdeg_1(i__),SFl(i__), + HFl(i__),FFl(i__),SdbFl(i__),HdbFl(i__),FdbFl(i__),logSP(i__), + logHP(i__),logFP(i__),logSdbP(i__),logHdbP(i__),logFdbP(i__), + dbFl(i__),Scts(i__),e_Scts(i__),SBck(i__),SNet(i__), + e_SNet(i__),Hcts(i__),e_Hcts(i__),HBck(i__),HNet(i__), + e_HNet(i__),Fcts(i__),e_Fcts(i__),FBck(i__),FNet(i__), + e_FNet(i__),Sdbcts(i__),e_Sdbcts(i__),SdbNet(i__), + e_SdbNet(i__),Hdbcts(i__),e_Hdbcts(i__),HdbNet(i__), + e_HdbNet(i__),Fdbcts(i__),e_Fdbcts(i__),FdbNet(i__), + e_FdbNet(i__),Sexp(i__),Hexp(i__),Fexp(i__),SCR(i__), + e_SCR(i__),SCRBck(i__),SNCR(i__),e_SNCR(i__),HCR(i__), + e_HCR(i__),HCRBck(i__),HNCR(i__),e_HNCR(i__),FCR(i__), + e_FCR(i__),FCRBck(i__),FNCR(i__),e_FNCR(i__),SdbNCR(i__), + e_SdbNCR(i__),HdbNCR(i__),e_HdbNCR(i__),FdbNCR(i__), + e_FdbNCR(i__),H_S(i__),E_H_S(i__),e_H_S_1(i__),gamma(i__), + E_gamma(i__),e_gamma_1(i__),SFlux(i__),e_SFlux(i__), + HFlux(i__),e_HFlux(i__),FFlux(i__),e_FFlux(i__),XOrig(i__), + RAXdeg(i__),DEXdeg(i__),XOff(i__),XFlux(i__),XTFlux(i__), + RAWdeg(i__),DEWdeg(i__),IROff(i__),W1mag(i__),e_W1mag(i__), + W2mag(i__),e_W2mag(i__),W3mag(i__),e_W3mag(i__),W4mag(i__), + e_W4mag(i__),OOrig(i__),RAOdeg(i__),DEOdeg(i__),OOff(i__), + Rmag(i__),zsp(i__),XLum(i__),PFl(i__),A15Fl(i__) if(ar__1(611:616) .EQ. '') gamma(i__) = rNULL__ if(ar__1(618:624) .EQ. '') E_gamma(i__) = rNULL__ if(ar__1(626:632) .EQ. '') e_gamma_1(i__) = rNULL__ if(ar__1(706:715) .EQ. '') RAXdeg(i__) = rNULL__ if(ar__1(717:726) .EQ. '') DEXdeg(i__) = rNULL__ if(ar__1(728:732) .EQ. '') XOff(i__) = rNULL__ if(ar__1(734:742) .EQ. '') XFlux(i__) = rNULL__ if(ar__1(744:752) .EQ. '') XTFlux(i__) = rNULL__ if(ar__1(754:763) .EQ. '') RAWdeg(i__) = rNULL__ if(ar__1(765:774) .EQ. '') DEWdeg(i__) = rNULL__ if(ar__1(776:780) .EQ. '') IROff(i__) = rNULL__ if(ar__1(782:787) .EQ. '') W1mag(i__) = rNULL__ if(ar__1(789:793) .EQ. '') e_W1mag(i__) = rNULL__ if(ar__1(795:800) .EQ. '') W2mag(i__) = rNULL__ if(ar__1(802:806) .EQ. '') e_W2mag(i__) = rNULL__ if(ar__1(808:813) .EQ. '') W3mag(i__) = rNULL__ if(ar__1(815:819) .EQ. '') e_W3mag(i__) = rNULL__ if(ar__1(821:826) .EQ. '') W4mag(i__) = rNULL__ if(ar__1(828:832) .EQ. '') e_W4mag(i__) = rNULL__ if(ar__1(844:855) .EQ. '') RAOdeg(i__) = rNULL__ if(ar__1(857:868) .EQ. '') DEOdeg(i__) = rNULL__ if(ar__1(870:874) .EQ. '') OOff(i__) = rNULL__ if(ar__1(876:882) .EQ. '') Rmag(i__) = rNULL__ if(ar__1(884:888) .EQ. '') zsp(i__) = rNULL__ if(ar__1(890:899) .EQ. '') XLum(i__) = rNULL__ c ..............Just test output........... write(6,2) + Seq(i__),NuSTAR(i__),RAdeg_1(i__),DEdeg_1(i__),SFl(i__), + HFl(i__),FFl(i__),SdbFl(i__),HdbFl(i__),FdbFl(i__),logSP(i__), + logHP(i__),logFP(i__),logSdbP(i__),logHdbP(i__),logFdbP(i__), + dbFl(i__),Scts(i__),e_Scts(i__),SBck(i__),SNet(i__), + e_SNet(i__),Hcts(i__),e_Hcts(i__),HBck(i__),HNet(i__), + e_HNet(i__),Fcts(i__),e_Fcts(i__),FBck(i__),FNet(i__), + e_FNet(i__),Sdbcts(i__),e_Sdbcts(i__),SdbNet(i__), + e_SdbNet(i__),Hdbcts(i__),e_Hdbcts(i__),HdbNet(i__), + e_HdbNet(i__),Fdbcts(i__),e_Fdbcts(i__),FdbNet(i__), + e_FdbNet(i__),Sexp(i__),Hexp(i__),Fexp(i__),SCR(i__), + e_SCR(i__),SCRBck(i__),SNCR(i__),e_SNCR(i__),HCR(i__), + e_HCR(i__),HCRBck(i__),HNCR(i__),e_HNCR(i__),FCR(i__), + e_FCR(i__),FCRBck(i__),FNCR(i__),e_FNCR(i__),SdbNCR(i__), + e_SdbNCR(i__),HdbNCR(i__),e_HdbNCR(i__),FdbNCR(i__), + e_FdbNCR(i__),H_S(i__),E_H_S(i__),e_H_S_1(i__),gamma(i__), + E_gamma(i__),e_gamma_1(i__),SFlux(i__),e_SFlux(i__), + HFlux(i__),e_HFlux(i__),FFlux(i__),e_FFlux(i__),XOrig(i__), + RAXdeg(i__),DEXdeg(i__),XOff(i__),XFlux(i__),XTFlux(i__), + RAWdeg(i__),DEWdeg(i__),IROff(i__),W1mag(i__),e_W1mag(i__), + W2mag(i__),e_W2mag(i__),W3mag(i__),e_W3mag(i__),W4mag(i__), + e_W4mag(i__),OOrig(i__),RAOdeg(i__),DEOdeg(i__),OOff(i__), + Rmag(i__),zsp(i__),XLum(i__),PFl(i__),A15Fl(i__) c .......End.of.Just test output........... end do close(1) C============================================================================= C Loading file 'table6.dat' ! Summary of the optical spectroscopy for the NuSTAR * serendipitous survey sources C Format for file interpretation 3 format(I3,7X,A14,1X,F5.3,1X,A7,2X,A122,1X,A68,1X,A2) C Effective file loading open(unit=1,status='old',file= +'table6.dat') write(6,*) '....Loading file: table6.dat' do i__=1,303 read(1,'(A234)')ar__2 read(ar__2,3) + Seq_1(i__),NuSTAR_1(i__),z(i__),Type(i__),Lines(i__), + Notes(i__),Run(i__) if(ar__2(26:30) .EQ. '') z(i__) = rNULL__ c ..............Just test output........... write(6,3) + Seq_1(i__),NuSTAR_1(i__),z(i__),Type(i__),Lines(i__), + Notes(i__),Run(i__) c .......End.of.Just test output........... end do close(1) C============================================================================= C Loading file 'table7.dat' ! The secondary NuSTAR serendipitous source catalog C Format for file interpretation 4 format( + I2,7X,A14,1X,F10.6,1X,F10.6,1X,F8.3,1X,F8.3,1X,F8.3,1X,F7.3, + 1X,F8.3,1X,F8.3,1X,F8.3,1X,F7.3,1X,F9.3,1X,F8.3,1X,F9.3,1X, + F7.3,1X,F8.1,1X,F8.1,1X,F8.1,1X,E9.3,1X,E10.3,1X,E9.3,1X, + E10.3,1X,E9.3,1X,E10.3,1X,E9.3,1X,E10.3,1X,E9.3,1X,E10.3,1X, + E9.3,1X,E10.3,1X,A3,1X,F10.6,1X,F10.6,1X,A4,1X,F10.6,1X,F10.6, + 1X,F5.3,1X,E10.3,1X,A1) C Effective file loading open(unit=1,status='old',file= +'table7.dat') write(6,*) '....Loading file: table7.dat' do i__=1,64 read(1,'(A377)')ar__3 read(ar__3,4) + Seq_2(i__),NuSTAR_2(i__),RAdeg_2(i__),DEdeg_2(i__), + Scts_1(i__),SBck_1(i__),SNet_1(i__),e_SNet_1(i__),Hcts_1(i__), + HBck_1(i__),HNet_1(i__),e_HNet_1(i__),Fcts_1(i__),FBck_1(i__), + FNet_1(i__),e_FNet_1(i__),Sexp_1(i__),Hexp_1(i__),Fexp_1(i__), + SNCR_1(i__),e_SNCR_1(i__),HNCR_1(i__),e_HNCR_1(i__), + FNCR_1(i__),e_FNCR_1(i__),SFlux_1(i__),e_SFlux_1(i__), + HFlux_1(i__),e_HFlux_1(i__),FFlux_1(i__),e_FFlux_1(i__), + XName(i__),RAXdeg_1(i__),DEXdeg_1(i__),OName(i__), + RAOdeg_1(i__),DEOdeg_1(i__),zsp_1(i__),XLum_1(i__),Fl(i__) if(ar__3(47:54) .EQ. '') Scts_1(i__) = rNULL__ if(ar__3(56:63) .EQ. '') SBck_1(i__) = rNULL__ if(ar__3(65:72) .EQ. '') SNet_1(i__) = rNULL__ if(ar__3(74:80) .EQ. '') e_SNet_1(i__) = rNULL__ if(ar__3(82:89) .EQ. '') Hcts_1(i__) = rNULL__ if(ar__3(91:98) .EQ. '') HBck_1(i__) = rNULL__ if(ar__3(100:107) .EQ. '') HNet_1(i__) = rNULL__ if(ar__3(109:115) .EQ. '') e_HNet_1(i__) = rNULL__ if(ar__3(117:125) .EQ. '') Fcts_1(i__) = rNULL__ if(ar__3(127:134) .EQ. '') FBck_1(i__) = rNULL__ if(ar__3(136:144) .EQ. '') FNet_1(i__) = rNULL__ if(ar__3(146:152) .EQ. '') e_FNet_1(i__) = rNULL__ if(ar__3(154:161) .EQ. '') Sexp_1(i__) = rNULL__ if(ar__3(163:170) .EQ. '') Hexp_1(i__) = rNULL__ if(ar__3(172:179) .EQ. '') Fexp_1(i__) = rNULL__ if(ar__3(181:189) .EQ. '') SNCR_1(i__) = rNULL__ if(ar__3(191:200) .EQ. '') e_SNCR_1(i__) = rNULL__ if(ar__3(202:210) .EQ. '') HNCR_1(i__) = rNULL__ if(ar__3(212:221) .EQ. '') e_HNCR_1(i__) = rNULL__ if(ar__3(223:231) .EQ. '') FNCR_1(i__) = rNULL__ if(ar__3(233:242) .EQ. '') e_FNCR_1(i__) = rNULL__ if(ar__3(244:252) .EQ. '') SFlux_1(i__) = rNULL__ if(ar__3(254:263) .EQ. '') e_SFlux_1(i__) = rNULL__ if(ar__3(265:273) .EQ. '') HFlux_1(i__) = rNULL__ if(ar__3(275:284) .EQ. '') e_HFlux_1(i__) = rNULL__ if(ar__3(286:294) .EQ. '') FFlux_1(i__) = rNULL__ if(ar__3(296:305) .EQ. '') e_FFlux_1(i__) = rNULL__ if(ar__3(311:320) .EQ. '') RAXdeg_1(i__) = rNULL__ if(ar__3(322:331) .EQ. '') DEXdeg_1(i__) = rNULL__ if(ar__3(338:347) .EQ. '') RAOdeg_1(i__) = rNULL__ if(ar__3(349:358) .EQ. '') DEOdeg_1(i__) = rNULL__ if(ar__3(360:364) .EQ. '') zsp_1(i__) = rNULL__ if(ar__3(366:375) .EQ. '') XLum_1(i__) = rNULL__ c ..............Just test output........... write(6,4) + Seq_2(i__),NuSTAR_2(i__),RAdeg_2(i__),DEdeg_2(i__), + Scts_1(i__),SBck_1(i__),SNet_1(i__),e_SNet_1(i__),Hcts_1(i__), + HBck_1(i__),HNet_1(i__),e_HNet_1(i__),Fcts_1(i__),FBck_1(i__), + FNet_1(i__),e_FNet_1(i__),Sexp_1(i__),Hexp_1(i__),Fexp_1(i__), + SNCR_1(i__),e_SNCR_1(i__),HNCR_1(i__),e_HNCR_1(i__), + FNCR_1(i__),e_FNCR_1(i__),SFlux_1(i__),e_SFlux_1(i__), + HFlux_1(i__),e_HFlux_1(i__),FFlux_1(i__),e_FFlux_1(i__), + XName(i__),RAXdeg_1(i__),DEXdeg_1(i__),OName(i__), + RAOdeg_1(i__),DEOdeg_1(i__),zsp_1(i__),XLum_1(i__),Fl(i__) c .......End.of.Just test output........... end do close(1) C============================================================================= C Loading file 'table8.dat' ! Summary of the optical spectroscopy for * the secondary catalog sources C Format for file interpretation 5 format(I3,7X,A14,1X,F5.3,1X,A7,2X,A122,1X,A68,1X,A2) C Effective file loading open(unit=1,status='old',file= +'table8.dat') write(6,*) '....Loading file: table8.dat' do i__=1,46 read(1,'(A234)')ar__4 read(ar__4,5) + Seq_3(i__),NuSTAR_3(i__),z_1(i__),Type_1(i__),Lines_1(i__), + Notes_1(i__),Run_1(i__) if(ar__4(26:30) .EQ. '') z_1(i__) = rNULL__ c ..............Just test output........... write(6,5) + Seq_3(i__),NuSTAR_3(i__),z_1(i__),Type_1(i__),Lines_1(i__), + Notes_1(i__),Run_1(i__) c .......End.of.Just test output........... end do close(1) C============================================================================= stop end