Name: tsObj-rrrrrr-c-v-ffff.fit, where rrrrrr is the imaging run number, c is the camera column (1-6), and v is the rerun number and ffff is the first field number of the segment.
Produced by: ts
Used by: ts, sx
Size: 7 * 2880 + (2240 * Nstars) {rounded up to nearest multiple of 2880) * Nfields. For a single pipeline run with 1000 fields, 400 objects per field, 887.06 Mb.
Archived? Yes, by sx.
SIMPLE = T BITPIX = 8 NAXIS = 0 EXTEND = T RUN = XXX / Imaging run number. CAMCOL = XXX / Column in the imaging camera. RERUN = XXX / Rerun number FIELD0 = XXX / First field reduced. NFIELDS = XXX / Number of fields reduced. STRIPE = XXX / Stripe number STRIP = 'X ' / N - north, S - south EQUINOX = XXXX.XXXXXX / Equinox of great circle scanned (Julian years) NODE = XXX.XXXXXX / Ascending node of great circle scanned (deg) INCL = XXX.XXXXXX / Inclincation of great circle scanned (deg) C_OBS = XXXXX.XXX / CCD clock rate (usec/unbinned-row) TRACKING= XXXXX.XXX / Tracking rate (arcsec/TAI-sec) PHOTO_ID= 'XXX ' / Photometric pipeline run id. TASTR_ID= 'XXX ' / Astrometric pipeline run id for target. EASTR_ID= 'XXX ' / Astrometric pipeline run id for export. TFCAL_ID= 'XXX ' / Photometric calibration run id for target. EFCAL_ID= 'XXX ' / Photometric calibration run id for export. PHOT_VER= 'XXX ' / Version of frames pipeline used. TAST_VER= 'XXX ' / Version of astrometric pipeline for target. EAST_VER= 'XXX ' / Version of astrometric pipeline for export. TFCA_VER= 'XXX ' / Version of fcalib for target. EFCA_VER= 'XXX ' / Version of fcalib for export. TARG_VER= 'XXX ' / Version of target pipeline used. EXPO_VER= 'XXX ' / Version of export pipeline used. FILTERS = 'XXX XXX ...' / Filter order in array fields OBJ_SRC = 'XXX ' / Source of objects: COMMENT / OPDB_PRELIM = OPDB, preliminary data COMMENT / OPDB_EXPORT = OPDB, exported to SX COMMENT / SX = Science Database COMMENT / FLATFILES = Flat files TARG_SRC= 'XXX ' / Source of target info: COMMENT / OPDB_PRELIM = OPDB, preliminary data COMMENT / OPDB_EXPORT = OPDB, exported to SX COMMENT / SX = Science Database COMMENT / FLATFILES = Flat files RESOLVED= T / Data from a resolved segment EXPORTED= XXX / Type of objects exported in this file: COMMENT / 1 = spectroscopic targets only COMMENT / 2 = primaries only COMMENT / 3 = primaries and secondaries COMMENT / 4 = all objects FAMILIES= T / Contains family members of included objects REF_BAND= 2 / band used for canonical centre DARK_VAR= '4 4 4 4 4' / Per-pixel variances at zero DN (DN^2) GAIN = '3.5 3.5 3.5 3.5 3.5' / Mean gains of amplifiers (e/DN) END
'BAD ' /* Not acceptable for the survey */ 'ACCEPTABLE' /* Acceptable for the survey, but we'd better data */ 'GOOD ' /* Fully acceptable --- no desire for better data */ 'MISSING ' /* No objects in this field, because data is missing, but we * accept the field into the survey as a hole in the survey */ 'HOLE ' /* Data in this field is not acceptable, but we will accept the * field into the survey as a hole in the survey, meaning none * of the objects in the field are part of the survey */The "STATUS_X" keywords record the status of the PSF fit for that field in that filter, and can take the following meanings:
'UNKNOWN ' /* ??? */ 'OK ' /* PSF fitted by 2nd order parabolas */ 'PSF22 ' /* PSF fitted by linear functions */ 'PSF11 ' /* PSF fitted by a constant */ 'NOPSF ' /* PSF fit from previous frame used*/ 'ABORTED ' /* ??? */ 'MISSING ' /* ??? */PSP_STAT is the maximum value of STATUS_X over all 5 filters.
The objc_type, objc_flags, objc_flags2, flags, flags2, and type fields are enumerated types or bit masks, with the same set of legal values as found for the same fields in the fpObjc file.
The status field is a bit mask specifying the status of the object in the survey. The bits are defined as:
AR_OBJECT_STATUS_SET = 0x1, /* This object's status has been set */ /* in reference to its own run. */ AR_OBJECT_STATUS_GOOD = 0x2, /* Good as determined by its */ /* object flags. Absence implies */ /* bad. This flag is set by */ /* "setObjectStatus". */ AR_OBJECT_STATUS_DUPLICATE = 0x4, /* This object has one or more */ /* duplicate detections in an */ /* adjacent field of the same Frames */ /* Pipeline Run. This is set by */ /* "setObjectStatus". */ AR_OBJECT_STATUS_OK_RUN = 0x10, /* Located within the primary range */ /* of rows for this field. This is */ /* usable object. This flag is set */ /* by "setObjectStatus". */ AR_OBJECT_STATUS_RESOLVED = 0x20, /* This object has been resolved */ /* against other runs. */ AR_OBJECT_STATUS_PSEGMENT = 0x40, /* Belongs to a PRIMARY segment. */ /* This does not imply that this is a*/ /* primary object. */ AR_OBJECT_STATUS_FIRST_FIELD= 0x100, /* Belongs to the first field in its */ /* segment. Used to distinguish */ /* objects in fields shared by two */ /* segments. */ AR_OBJECT_STATUS_OK_SCANLINE= 0x200, /* Lies within valid nu range */ /* for its scanline. */ AR_OBJECT_STATUS_OK_STRIPE = 0x400, /* Lies within valid eta range for */ /* its stripe. */ AR_OBJECT_STATUS_SECONDARY = 0x1000, /* This is a secondary survey object.*/ AR_OBJECT_STATUS_PRIMARY = 0x2000, /* This is a primary survey object. */ AR_OBJECT_STATUS_TARGET = 0x4000 /* This is a spectroscopic target. */
The primTarget field is a bit mask specifying which primary target catagories the object was selected in. The bits are defined as:
AR_TARGET_QSO_HIZ = 0x1, AR_TARGET_QSO_CAP = 0x2, AR_TARGET_QSO_SKIRT = 0x4, AR_TARGET_QSO_FIRST_CAP = 0x8, AR_TARGET_QSO_FIRST_SKIRT = 0x10, AR_TARGET_QSO_MAG_OUTLIER = 0x2000000, AR_TARGET_QSO_REJECT = 0x20000000, AR_TARGET_GALAXY_RED = 0x20, AR_TARGET_GALAXY_RED_II = 0x4000000, AR_TARGET_GALAXY = 0x40, AR_TARGET_GALAXY_BIG = 0x80, AR_TARGET_GALAXY_BRIGHT_CORE= 0x100, AR_TARGET_ROSAT_A = 0x200, AR_TARGET_ROSAT_B = 0x400, AR_TARGET_ROSAT_C = 0x800, AR_TARGET_ROSAT_D = 0x1000, AR_TARGET_ROSAT_E = 0x8000000, AR_TARGET_STAR_BHB = 0x2000, AR_TARGET_STAR_CARBON = 0x4000, AR_TARGET_STAR_BROWN_DWARF = 0x8000, AR_TARGET_STAR_SUB_DWARF = 0x10000, AR_TARGET_STAR_CATY_VAR = 0x20000, AR_TARGET_STAR_RED_DWARF = 0x40000, AR_TARGET_STAR_WHITE_DWARF = 0x80000, AR_TARGET_STAR_PN = 0x10000000, AR_TARGET_SERENDIP_BLUE = 0x100000, AR_TARGET_SERENDIP_FIRST = 0x200000, AR_TARGET_SERENDIP_RED = 0x400000, AR_TARGET_SERENDIP_DISTANT = 0x800000, AR_TARGET_SERENDIP_MANUAL = 0x1000000The secTarget field is a bit mask specifying which secondary target catagories the object was selected in. The bits are defined as:
TAR_TARGET_LIGHT_TRAP = 0x1, TAR_TARGET_REDDEN_STD = 0x2, TAR_TARGET_TEST_TARGET = 0x4, TAR_TARGET_QA = 0x8, TAR_TARGET_SKY = 0x10, TAR_TARGET_SPECTROPHOTO_STD = 0x20, TAR_TARGET_GUIDE_STAR = 0x40, TAR_TARGET_BUNDLE_HOLE = 0x80, TAR_TARGET_QUALITY_HOLE = 0x100, TAR_TARGET_HOT_STD = 0x200The CULLED keyword is a bit mask with the same bit values as the primTarget field. If a bit is set, then all targets of that target type were culled during target selection, and thus this field is excluded from that science sample.
XTENSION= 'BINTABLE' BITPIX = 8 NAXIS = 2 NAXIS1 = 2732 NAXIS2 = XXX PCOUNT = 0 GCOUNT = 1 TFIELDS = 146 FIELD = XXX / Field sequence number within the run. QUALITY = 'XXX ' / Quality of field in terms of survey acceptance CULLED = XXX / Culling bit mask MJD_U = XXXXX.XXXXXX / MJD(TAI) when row 0 of u' frame was read MJD_G = XXXXX.XXXXXX / MJD(TAI) when row 0 of g' frame was read MJD_R = XXXXX.XXXXXX / MJD(TAI) when row 0 of r' frame was read MJD_I = XXXXX.XXXXXX / MJD(TAI) when row 0 of i' frame was read MJD_Z = XXXXX.XXXXXX / MJD(TAI) when row 0 of z' frame was read SEEING_U= XX.X / Seeing on the u' frame (FWHM, arcsecs) SEEING_G= XX.X / Seeing on the g' frame (FWHM, arcsecs) SEEING_R= XX.X / Seeing on the r' frame (FWHM, arcsecs) SEEING_I= XX.X / Seeing on the i' frame (FWHM, arcsecs) SEEING_Z= XX.X / Seeing on the z' frame (FWHM, arcsecs) STATUS_U= 'XXX ' / PSF fit status on u' frame STATUS_G= 'XXX ' / PSF fit status on g' frame STATUS_R= 'XXX ' / PSF fit status on r' frame STATUS_I= 'XXX ' / PSF fit status on i' frame STATUS_Z= 'XXX ' / PSF fit status on z' frame PSP_STAT= 'XXX ' / Maximum of STATUS value on all 5 frames PSFERR_U= XXX.XX / Photometric err due to imperfect PSF model(mag) PSFERR_G= XXX.XX / Photometric err due to imperfect PSF model(mag) PSFERR_R= XXX.XX / Photometric err due to imperfect PSF model(mag) PSFERR_I= XXX.XX / Photometric err due to imperfect PSF model(mag) PSFERR_Z= XXX.XX / Photometric err due to imperfect PSF model(mag) SKY_U = XXX.XX / Global sky value after obj sub (mag/arcsec^2) SKY_G = XXX.XX / Global sky value after obj sub (mag/arcsec^2) SKY_R = XXX.XX / Global sky value after obj sub (mag/arcsec^2) SKY_I = XXX.XX / Global sky value after obj sub (mag/arcsec^2) SKY_Z = XXX.XX / Global sky value after obj sub (mag/arcsec^2) TFORM1 = '1J ' TTYPE1 = 'run ' / Run ID TUNIT1 = 'unitless' TFORM2 = '1J ' TTYPE2 = 'camCol ' / Camera column TUNIT2 = 'unitless' TFORM3 = '1J ' TTYPE3 = 'rerun ' / Rerun number TUNIT3 = 'unitless' TFORM4 = '1J ' TTYPE4 = 'field ' / Field ID TUNIT4 = 'unitless' TFORM5 = '1J ' TTYPE5 = 'parent ' / Parent TUNIT5 = 'unitless' TFORM6 = '1J ' TTYPE6 = 'id ' / Object ID, unique within its field (1 indexed) TUNIT6 = 'unitless' TFORM7 = '1J ' TTYPE7 = 'nchild ' / Number of Children TUNIT7 = 'unitless' TFORM8 = '1J ' TTYPE8 = 'objc_type' / Classification TUNIT8 = 'unitless' TFORM9 = '1E ' TTYPE9 = 'objc_prob_psf' / Probablity object is a star TUNIT9 = 'unitless' TFORM10 = '1J ' TTYPE10 = 'catID ' / Catalog ID TUNIT10 = 'unitless' TFORM11 = '1J ' TTYPE11 = 'objc_flags' / Object flags TUNIT11 = 'unitless' TFORM12 = '1J ' TTYPE12 = 'objc_flags2' / More object flags TUNIT12 = 'unitless' TFORM13 = '1E ' TTYPE13 = 'objc_rowc' / Nominal row position (r' coordinates) TUNIT13 = 'pixels ' TFORM14 = '1E ' TTYPE14 = 'objc_rowcErr' / Nominal row position (r' coordinates) error COMMENT / This is the centroiding error only. It does COMMENT / not include errors from the TRANS structures. TUNIT14 = 'pixels ' TFORM15 = '1E ' TTYPE15 = 'objc_colc' / Nominal column position (r' coordinates) TUNIT15 = 'pixels ' TFORM16 = '1E ' TTYPE16 = 'objc_colcErr' / Nominal column position (r' coordinates) error COMMENT / This is the centroiding error only. It does COMMENT / not include errors from the TRANS structures. TUNIT16 = 'pixels ' TFORM17 = '1E ' TTYPE17 = 'rowv ' / Row-component of object's velocity TUNIT17 = 'deg/day ' TFORM18 = '1E ' TTYPE18 = 'rowvErr ' / Row-component of object's velocity error TUNIT18 = 'deg/day ' TFORM19 = '1E ' TTYPE19 = 'colv' / Column-component of object's velocity TUNIT19 = 'deg/day' TFORM20 = '1E ' TTYPE20 = 'colvErr' / Column-component of obejct's velocity error TUNIT20 = 'deg/day' TFORM21 = '5E ' TTYPE21 = 'rowc ' / Row center TUNIT21 = 'pixels ' TFORM22 = '5E ' TTYPE22 = 'rowcErr ' / Row center error TUNIT22 = 'pixels ' TFORM23 = '5E ' TTYPE23 = 'colc ' / Center colum TUNIT23 = 'pixels ' TFORM24 = '5E ' TTYPE24 = 'colcErr ' / Center column error TUNIT24 = 'pixels ' TFORM25 = '5E ' TTYPE25 = 'sky ' / Sky flux TUNIT25 = 'asinh mag/arcsec^2' TFORM26 = '5E ' TTYPE26 = 'skyErr ' / Sky flux error TUNIT26 = 'asinh mag/arcsec^2' TFORM27 = '5E ' TTYPE27 = 'psfCounts' / PSF flux TUNIT27 = 'asinh mag ' TFORM28 = '5E ' TTYPE28 = 'psfCountsErr' / PSF flux error TUNIT28 = 'asinh mag ' TFORM29 = '5E ' TTYPE29 = 'fiberCounts' / Flux in 3 arcsec diameter fiber radius TUNIT29 = 'asinh mag ' TFORM30 = '5E ' TTYPE30 = 'fiberCountsErr' / Flux in 3 arcsec diameter fiber radius error TUNIT30 = 'asinh mag ' TFORM31 = '5E ' TTYPE31 = 'petroCounts' / Petrosian flux TUNIT31 = 'asinh mag ' TFORM32 = '5E ' TTYPE32 = 'petroCountsErr' / Petrosian flux error TUNIT32 = 'asinh mag ' TFORM33 = 5E ' TTYPE33 = 'petroRad' / Petrosian radius TUNIT33 = 'arcsec ' TFORM34 = '5E ' TTYPE34 = 'petroRadErr' / Petrosian radius error TUNIT34 = 'arcsec ' TFORM35 = '5E ' TTYPE35 = 'petroR50' / Radius with 50 percent of Petrosian light TUNIT35 = 'arcsec ' TFORM36 = '5E ' TTYPE36 = 'petroR50Err' / Radius with 50 percent of Petrosian light error TUNIT36 = 'arcsec ' TFORM37 = '5E ' TTYPE37 = 'petroR90' / Radius with 90 percent of Petrosian light TUNIT37 = 'arcsec ' TFORM38 = '5E ' TTYPE38 = 'petroR90Err' / Radius with 90 percent of Petrosian light error TUNIT38 = 'arcsec ' TFORM39 = '5E ' TTYPE39 = 'Q ' / Stokes Q parameter TUNIT39 = 'unitless' TFORM40 = '5E ' TTYPE40 = 'QErr ' / Stokes Q parameter error TUNIT40 = 'unitless' TFORM41 = '5E ' TTYPE41 = 'U ' / Stokes U parameter TUNIT41 = 'unitless' TFORM42 = '5E ' TTYPE42 = 'UErr ' / Stokes U parameter error TUNIT42 = 'unitless' TFORM43 = '5E ' TTYPE43 = 'M_e1 ' / Adaptive E1 shape measure TUNIT43 = 'unitless' TFORM44 = '5E ' TTYPE44 = 'M_e2 ' / Adaptive E2 shape measure TUNIT44 = 'unitless' TFORM45 = '5E ' TTYPE45 = 'M_e1e1Err' / Covariance in E1-E1 shape measure TUNIT45 = 'unitless' TFORM46 = '5E ' TTYPE46 = 'M_e1e2Err' / Covariance in E1-E2 shape measure TUNIT46 = 'unitless' TFORM47 = '5E ' TTYPE47 = 'M_e2e2Err' / Covariance in E2-E2 shape measure TUNIT47 = 'unitless' TFORM48 = '5E ' TTYPE48 = 'M_rr_cc ' / Adaptive (+ ) TUNIT48 = 'unitless' TFORM49 = '5E ' TTYPE49 = 'M_rr_ccErr' / Error in adaptive ( + ) TUNIT49 = 'unitless' TFORM50 = '5E ' TTYPE50 = 'M_cr4 ' / Adaptive fourth moment TUNIT50 = 'unitless' TFORM51 = '5E ' TTYPE51 = 'M_e1_psf' / Adaptive E1 for PSF TUNIT51 = 'unitless' TFORM52 = '5E ' TTYPE52 = 'M_e2_psf' / Adaptive E2 for PSF TUNIT52 = 'unitless' TFORM53 = '5E ' TTYPE53 = 'M_rr_cc_psf' / Adaptive ( ) for PSF TUNIT53 = 'unitless' TFORM54 = '5E ' TTYPE54 = 'M_cr4_psf' / Adaptive fourth moment for PSF TUNIT54 = 'unitless' TFORM55 = '5E ' TTYPE55 = 'iso_rowc' / Isophotal row centroid TUNIT55 = 'pixels ' TFORM56 = '5E ' TTYPE56 = 'iso_rowcErr' / Isophotal row centroid error TUNIT56 = 'pixels ' TFORM57 = '5E ' TTYPE57 = 'iso_rowcGrad' / Gradient in row centroid with isophote TUNIT57 = 'pixels/mag/arcsec^2' TFORM58 = '5E ' TTYPE58 = 'iso_colc' / Isophotal column centroid TUNIT58 = 'pixels ' TFORM59 = '5E ' TTYPE59 = 'iso_colcErr' / Isophotal column centroid error TUNIT59 = 'pixels ' TFORM60 = '5E ' TTYPE60 = 'iso_colcGrad' / Gradient in column centroid with isophote TUNIT60 = 'pixels/mag/arcsec^2' TFORM61 = '5E ' TTYPE61 = 'iso_a ' / Isophotal major axis TUNIT61 = 'arcsec ' TFORM62 = '5E ' TTYPE62 = 'iso_aErr' / Isophotal major axis error TUNIT62 = 'arcsec ' TFORM63 = '5E ' TTYPE63 = 'iso_aGrad' / Gradient in major axis with isophote TUNIT63 = 'arcsec/mag/arcsec^2' TFORM64 = '5E ' TTYPE64 = 'iso_b ' / Isophotal minor axis TUNIT64 = 'arcsec ' TFORM65 = '5E ' TTYPE65 = 'iso_bErr' / Isophotal minor axis error TUNIT65 = 'arcsec ' TFORM66 = '5E ' TTYPE66 = 'iso_bGrad' / Gradient in minor axis with isophote TUNIT66 = 'arcsec/mag/arcsec^2' TFORM67 = '5E ' TTYPE67 = 'iso_phi ' / Isophotal position angle TUNIT67 = 'degrees (+N thru E)' TFORM68 = '5E ' TTYPE68 = 'iso_phiErr' / Isophotal position angle error TUNIT68 = 'degrees ' TFORM69 = '5E ' TTYPE69 = 'iso_phiGrad' / Gradient in positional angle with isophote TUNIT69 = 'degrees/mag/arcsec^2' TFORM70 = '5E ' TTYPE70 = 'r_deV ' / De Vaucouleurs fit scale radius TUNIT70 = 'arcsec ' TFORM71 = '5E ' TTYPE71 = 'r_deVErr' / De Vaucouleurs fit scale radius error TUNIT71 = 'arcsec ' TFORM72 = '5E ' TTYPE72 = 'ab_deV ' / De Vaucouleurs fit a/b TUNIT72 = 'unitless' TFORM73 = '5E ' TTYPE73 = 'ab_deVErr' / De Vaucouleurs fit a/b error TUNIT73 = 'unitless' TFORM74 = '5E ' TTYPE74 = 'phi_deV ' / De Vaucouleurs fit position angle TUNIT74 = 'degrees (+N thru E)' TFORM75 = '5E ' TTYPE75 = 'phi_deVErr' / De Vaucouleurs fit position angle error TUNIT75 = 'degrees ' TFORM76 = '5E ' TTYPE76 = 'counts_deV' / De Vaucouleurs magnitude fit TUNIT76 = 'asinh mag ' TFORM77 = '5E ' TTYPE77 = 'counts_deVErr' / De Vaucouleurs magnitude fit error TUNIT77 = 'asinh mag ' TFORM78 = '5E ' TTYPE78 = 'r_exp ' / Exponetial fit scale radius TUNIT78 = 'arcsec ' TFORM79 = '5E ' TTYPE79 = 'r_expErr' / Exponetial fit scale radius error TUNIT79 = 'arcsec ' TFORM80 = '5E ' TTYPE80 = 'ab_exp ' / Exponential fit a/b TUNIT80 = 'unitless' TFORM81 = '5E ' TTYPE81 = 'ab_expErr' / Exponential fit a/b error TUNIT81 = 'unitless' TFORM82 = '5E ' TTYPE82 = 'phi_exp ' / Exponential fit position angle TUNIT82 = 'degrees (+N thru E)' TFORM83 = '5E ' TTYPE83 = 'phi_expErr' / Exponential fit position angle error TUNIT83 = 'degrees ' TFORM84 = '5E ' TTYPE84 = 'counts_exp' / Exponential fit TUNIT84 = 'asinh mag ' TFORM85 = '5E ' TTYPE85 = 'counts_expErr' / Exponential fit error TUNIT85 = 'asinh mag ' TFORM86 = '5E ' TTYPE86 = 'counts_model' / Better of DeV/Exp magnitude fit TUNIT86 = 'asinh mag ' TFORM87 = '5E ' TTYPE87 = 'counts_modelErr' / Better of DeV/Exp magnitude fit error TUNIT87 = 'asinh mag ' TFORM88 = '5E ' TTYPE88 = 'texture ' / Texture parameter TUNIT88 = 'unitless' TFORM89 = '5E ' TTYPE89 = 'star_L ' / Star likelihood TUNIT89 = 'unitless' TFORM90 = '5E ' TTYPE90 = 'star_lnL' / Star ln(likelihood) TUNIT90 = 'unitless' TFORM91 = '5E ' TTYPE91 = 'exp_L ' / Exponential disk fit likelihood TUNIT91 = 'unitless' TFORM92 = '5E ' TTYPE92 = 'exp_lnL ' / Exponential disk fit ln(likelihood) TUNIT92 = 'unitless' TFORM93 = '5E ' TTYPE93 = 'deV_L ' / De Vaucouleurs fit likelihood TUNIT93 = 'unitless' TFORM94 = '5E ' TTYPE94 = 'deV_lnL ' / De Vaucouleurs fit ln(likelihood) TUNIT94 = 'unitless' TFORM95 = '5E ' TTYPE95 = 'fracPSF ' / Fraction of light in PSF TUNIT95 = 'unitless' TFORM96 = '5J ' TTYPE96 = 'flags ' / Object flags TUNIT96 = 'unitless' TFORM97 = '5J ' TTYPE97 = 'flags2 ' / More object flags TUNIT97 = 'unitless' TFORM98 = '5J ' TTYPE98 = 'type ' / Object type TUNIT98 = 'unitless' TFORM99 = '5E ' TTYPE99 = 'prob_psf' / Probablity object is a star in each filter TUNIT99 = 'unitless' TFORM100= '5J ' TTYPE100= 'nprof ' / Number of radial bins TUNIT100= 'unitless' TFORM101= '75E ' TTYPE101= 'profMean' / Mean pixel flux in annulus TUNIT101= 'maggies/arcsec^2' TDIM101 = '(15,5) ' TFORM102= '75E ' TTYPE102= 'profErr ' / Standard deviation of profMean TUNIT102= 'maggies/arcsec^2' TDIM102 = '(15,5) ' TFORM103= '1J ' TTYPE103= 'status ' / Survey status TUNIT103= 'unitless' TFORM104= '1D ' TTYPE104= 'ra ' / J2000 right ascension (r') TUNIT104= 'degrees ' TFORM105= '1D ' TTYPE105= 'dec ' / J2000 declination (r') TUNIT105= 'degrees ' TFORM106= '1D ' TTYPE106= 'lambda ' / Survey longitude (r') TUNIT106= 'degrees ' TFORM107= '1D ' TTYPE107= 'eta ' / Survey latitude (r') TUNIT107= 'degrees ' TFORM108= '1D ' TTYPE108= 'l ' / Galactic longitude (lII, r') TUNIT108= 'degrees ' TFORM109= '1D ' TTYPE109= 'b ' / Galactic latitude (bII, r') TUNIT109= 'degrees ' TFORM110= '5E ' TTYPE110= 'offsetRa' / Filter position ra minus final ra (* cos(dec)) TUNIT110= 'arcsec ' TFORM111= '5E ' TTYPE111= 'offsetDec' / Filter position dec minus final dec TUNIT111= 'arcsec ' TFORM112= '1J ' TTYPE112= 'primTarget' / Target selection flags TUNIT112= 'unitless' TFORM113= '1J ' TTYPE113= 'secTarget' / Additional Target selection flags TUNIT113= 'unitless' TFORM114= '5E ' TTYPE114= 'reddening' / Reddening in each filter TUNIT114= 'mag ' TFORM115= '1J ' TTYPE115= 'propermotionmatch' / 1= match to USNO catatalog TUNIT115= 'unitless' TFORM116= '1E ' TTYPE116= 'propermotiondelta' / Difference in positions between USNO and COMMENT / photo object (r' band) TUNIT116= 'arcsec' TFORM117= '1E ' TTYPE117= 'propermotion' / Proper motion of object TUNIT117= 'arcsec/century' TFORM118= '1E ' TTYPE118= 'propermotionangle' / Direction of proper motion TUNIT118= 'degrees (+N thru E)' TFORM119= '1E ' TTYPE119= 'usnoBlue' / Blue magntiude of matching USNO object TUNIT119= 'mag ' TFORM120= '1E ' TTYPE120= 'usnoRed ' / Red magntiude of matching USNO object TUNIT120= 'mag ' TFORM121= '1J ' TTYPE121= 'firstMatch' / Number of FIRST sources matched (0=no match) TUNIT121= 'unitless' TFORM122= '1J ' TTYPE122= 'firstId ' / FIRST catalog id of one matching source TUNIT122= 'unitless' TFORM123= '1D ' TTYPE123= 'firstLambda' / Composite radio source survey longitude TUNIT123= 'degrees ' TFORM124= '1D ' TTYPE124= 'firstEta' / Composite radio source survey latitude TUNIT124= 'degrees ' TFORM125= '1E ' TTYPE125= 'firstDelta' / Position difference between first and photo object (r' band) TUNIT125= 'arcsec' TFORM126= '1E ' TTYPE126= 'firstPeak' / Peak first radio flux TUNIT126= 'mJy' TFORM127= '1E ' TTYPE127= 'firstInt' / Integrated first radio flux TUNIT127= 'mJy' TFORM128= '1E ' TTYPE128= 'firstRms' / Rms error in flux TUNIT128= 'mJy' TFORM129= '1E ' TTYPE129= 'firstMajor' / Major axis (deconvolved) TUNIT129= 'arcsec' TFORM130= '1E ' TTYPE130= 'firstMinor' / Minor axis (deconvolved) TUNIT130= 'arcsec' TFORM131= '1E ' TTYPE131= 'firstPa' / Position angle (east of north) TUNIT131= 'degrees' TFORM132= '1J ' TTYPE132= 'rosatMatch' / ID of matching ROSAT source (0 = no match) TUNIT132= 'unitless' TFORM133= '1E ' TTYPE133= 'rosatDelta' / Position difference between ROSAT and photo object (r' band) TUNIT133= 'arcsec' TFORM134= '1E ' TTYPE134= 'rosatPosErr' / Error in ROSAT position TUNIT134= 'arcsec ' TFORM135= '1E ' TTYPE135= 'rosatCps' / Integrated ROSAT counts TUNIT135= 'counts/sec' TFORM136= '1E ' TTYPE136= 'rosatCpsErr' / Error in integrated ROSAT counts TUNIT136= 'counts/sec' TFORM137= '1E ' TTYPE137= 'rosatHr1' / ROSAT hardness ratio 1 TUNIT137= 'unitless' TFORM138= '1E ' TTYPE138= 'rosatHr1Err' / Error in ROSAT hardness ratio 1 TUNIT138= 'unitless' TFORM139= '1E ' TTYPE139= 'rosatHr2' / ROSAT hardness ratio 2 TUNIT139= 'unitless' TFORM140= '1E ' TTYPE140= 'rosatHr2Err' / Error in ROSAT hardness ratio 2 TUNIT140= 'unitless' TFORM141= '1E ' TTYPE141= 'rosatExt' / ROSAT extent parameter TUNIT141= 'arcsec' TFORM142= '1E ' TTYPE142= 'rosatExtLike' / ROSAT extent parameter likelihood TUNIT142= 'unitless' TFORM143= '1E ' TTYPE143= 'rosatDetectLike' / ROSAT detection likelihood TUNIT143= 'unitless' TFORM144= '1E ' TTYPE144= 'rosatExposure' / ROSAT exposure time TUNIT144= 'seconds ' TFORM145= '1J ' TTYPE145= 'priority' / Priority bits TSCAL145= 1.00000000000000E+00 TZERO145= 2.14748364800000E+09 TUNIT145= 'unitless' TFORM146= '50J ' TTYPE146= 'matchid ' / Link ids (run,camCol,rerun,field,id) TUNIT146= 'unitless' TDIM146 = '(5,10) '