Conversion of standardized ReadMe file for
file /./ftp/cats/J/ApJS/262/36 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-Aug-14
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/ApJS/262/36 SDSS-IV MaNGA: pyPipe3D data for 10000 galaxies (Sanchez+, 2022)
*================================================================================
*SDSS-IV MaNGA: pyPipe3D analysis release for 10000 galaxies.
* Sanchez S.F., Barrera-Ballesteros J.K., Lacerda E., Mejia-Narvaez A.,
* Camps-farina A., Bruzual G., Espinosa-Ponce C., Rodriguez-Puebla A.,
* Calette A.R., Ibarra-Medel H., Avila-Reese V., Hernandez-Toledo H.,
* Bershady M.A., Cano-Diaz M., Munguia-Cordova A.M.
* <Astrophys. J. Suppl. Ser., 262, 36 (2022)>
* =2022ApJS..262...36S (SIMBAD/NED BibCode)
C=============================================================================
C Internal variables
integer*4 i__
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'catalog.dat' ! Integrated and characteristic parameters delivered
for each analyzed data cube
integer*4 nr__
parameter (nr__=10220) ! Number of records
character*4325 ar__ ! Full-size record
C J2000 position composed of: RAdeg DEdeg
character*17 Name ! Manga-plate-ifudsgn unique name
integer*4 Plate ! [7443/12772]? Plate ID of the
* MaNGA cube
character*5 IFUdsgn ! IFU bundle ID of the MaNGA cube
character*11 PlateIFU ! Code formed by the plate and
* ifu names
character*9 MaNGAId ! MaNGA ID
real*8 RAdeg ! (deg) Right ascension of the object
* (J2000) (objra)
real*8 DEdeg ! (deg) [-9.4/65.3] Declination of
* the object (J2000) (objdec)
real*8 logSFRHa ! ([Msun/yr]) [-5.4/3.9]? Integrated SFR
* derived from the integrated
* H{alpha} luminosity
* (log_SFR_Ha)
real*8 FoV ! [-0.003/32] Ratio between the
* diagonal radius of the cube
* and effective radius
real*8 Reff ! (kpc) [-25635/137] Effective radius
* in kiloparsecs (Re_kpc)
real*4 e_logMass ! ([Msun]) [0.05/0.15] logMass
* uncertainty (e_log_Mass)
real*4 e_logSFRHa ! ([Msun/yr]) [0.05/4.5] logSFRHa
* uncertainty (e_log_SFR_Ha)
real*8 logMass ! ([Msun]) [5.9/17.8] Integrated stellar
* mass in units of the solar
* mass in log (log_Mass)
real*8 logSFRs ! ([Msun/yr]) [-3.9/2.4]? Integrated SFR
* derived from the SSP analysis
* t<32Myr (log_SFR_ssp)
real*8 logNII_Hac ! [-1.4/5]? Log of the
* [NII]6583/H{alpha} line ratio
* in the central aperture
* (log_NII_Ha_cen)
real*4 e_logNII_Hac ! [3.5e-5/1.3]? logNII/Hac
* uncertainty (e_log_NII_Ha_cen)
real*8 logOIII_Hbc ! [-1.3/4.6]? Log of the
* [OIII]5007/H{beta} line ratio
* in the central aperture
* (log_OIII_Hb_cen)
real*8 e_logOIII_Hbc ! [0.0015/5]? logOIII/Hbc
* uncertainty
* (e_log_OIII_Hb_cen)
real*8 logSII_Hac ! [-1/6.3]? Log of the
* [SII]6717+6731/H{alpha} line
* ratio in the central aperture
* (log_SII_Ha_cen)
real*8 e_logSII_Hac ! [0.0013/3.5]? logSII/Hac
* uncertainty (e_log_SII_Ha_cen)
real*8 logOII_Hbc ! [-0.94/4]? Log of the
* [OII]3727/H{beta} line ratio
* in the central aperture
* (log_OII_Hb_cen)
real*8 e_logOII_Hbc ! [0.0027/5.3]? logOII/Hbc
* uncertainty (e_log_OII_Hb_cen)
real*8 EWHac ! (0.1nm) [-465.1/-0.001]? Equivalent
* width of H{alpha} in the
* central aperture in {AA}
* (EW_Ha_cen)
real*8 e_EWHac ! (0.1nm) [0.006/158]? EWHac
* uncertainty (e_EW_Ha_cen)
real*8 logZReLW ! ([Sun]) [-1.6/0.2] Log of
* luminosity-weighted (LW)
* metallicity of the stellar
* population at the effective
* radius (ZH_LW_Re_fit)
real*4 e_logZReLW ! ([Sun]) [0/0.3]? logZReLW uncertainty
* (e_ZH_LW_Re_fit)
real*8 alphaZReLW ! [-0.9/0.6]? Slope of the
* gradient of the LW
* metallicity of the stellar
* population in dex/Re
* (alpha_ZH_LW_Re_fit)
real*4 e_alphaZReLW ! [0/0.3]? alphaZReLW
* uncertainty
* (e_alpha_ZH_LW_Re_fit)
real*8 logZReMW ! ([Sun]) [-1.7/0.4]? Log of
* mass-weighted (MW)
* metallicity of the stellar
* population at the effective
* radius (ZH_MW_Re_fit)
real*4 e_logZReMW ! ([-]) [0.0029/0.7]? logZReMW
* uncertainty (e_ZH_MW_Re_fit)
real*8 alphaZReMW ! [-1.8/1.6]? Slope of the
* gradient of the MW
* log-metallicity of the
* stellar population in dex/Re
* (alpha_ZH_MW_Re_fit)
real*4 e_alphaZReMW ! [0.003/0.7]? alphaZReMW
* uncertainty
* (e_alpha_ZH_MW_Re_fit)
real*8 logAgeReLW ! ([yr]) [7.4/10]? Log of LW age of
* the stellar population
* (Age_LW_Re_fit)
real*8 e_logAgeReLW ! ([yr]) [0.004/0.8]? logAgeReLW
* uncertainty (e_Age_LW_Re_fit)
real*8 alphaAgeReLW ! [-1.9/1.6]? Slope of the
* gradient of the LW log-age of
* the stellar population in
* log(yr)/Re
* (alpha_Age_LW_Re_fit)
real*8 e_alphaAgeReLW ! [0.004/1.3]? alphaAgeReLW
* uncertainty
* (e_alpha_Age_LW_Re_fit)
real*8 logAgeReMW ! ([yr]) [8.9/10.1]? Log of MW age of
* the stellar population
* (Age_MW_Re_fit)
real*8 e_logAgeReMW ! ([yr]) [0.002/0.5]? logAgeReMW
* uncertainty (e_Age_MW_Re_fit)
real*8 alphaAgeReMW ! [-1/0.8]? Slope of the
* gradient of the MW log-age of
* the stellar population in
* log(yr)/Re
* (alpha_Age_MW_Re_fit)
real*8 e_alphaAgeReMW ! [0.0039/0.8]? alphaAgeReMW
* uncertainty
* (e_alpha_Age_MW_Re_fit)
real*8 ReffA ! (arcsec) [0.46/162]? Adopted effective
* radius in arcseconds (Re_arc)
real*4 DL ! (Mpc) [3e+24/2.2e+27] Adopted
* luminosity distance
real*8 DA ! (Mpc) [0.0047/2.6] Adopted angular
* diameter distance
real*4 PA ! (deg) [90/270] Adopted position angle
real*8 ell ! [0/0.95] Adopted ellipticity
* (ellip)
real*8 logMassgas ! ([Msun]) [5/195]? Log of integrated
* gas mass (log_Mass_gas)
real*4 vel_sig ! [0.017/1.1]?
* Velocity/dispersion ratio for
* the stellar populations
* within 1.5Re (vel_sigma_Re)
real*4 e_vel_sig ! [0/0.2]? vel/sig uncertainty
* (e_vel_sigma_Re)
real*8 logSFRsf ! ([Msun/yr]) [-5.5/4]? Integrated SFR
* using only the spaxels
* compatible with SF
* (log_SFR_SF)
real*8 logSFRdc ! ([Msun/yr]) [-7.1/4]? Integrated SFR
* diffuse corrected
* (log_SFR_D_C)
real*8 OH_O3N2c ! [8/9.5]? Oxygen abundance
* using the calibrator O3N2 at
* the central aperture
* (OH_O3N2_cen) (1)
real*4 e_OH_O3N2c ! [1.7e-6/0.3]? OH-O3N2c
* uncertainty (e_OH_O3N2_cen)
real*8 OH_N2c ! [7.9/10.2]? Oxygen abundance
* using the calibrator N2 at
* the central aperture
* (OH_N2_cen) (1)
real*8 e_OH_N2c ! [0.0002/0.4]? OH-N2c
* uncertainty (e_OH_N2_cen)
real*8 OH_ONSc ! [6.4/9.1]? Oxygen abundance
* using the calibrator ONS at
* the central aperture
* (OH_ONS_cen) (1)
real*4 e_OH_ONSc ! [1.8e-5/1.4]? OH-ONSc
* uncertainty (e_OH_ONS_cen)
real*8 OH_R23c ! [-26.4/13.1]? Oxygen
* abundance using the
* calibrator R23 at the central
* aperture (OH_R23_cen) (1)
real*8 e_OH_R23c ! [0.00017/57]? OH-R23c
* uncertainty (e_OH_R23_cen)
real*8 OH_pyqzc ! [7.7/9.3]? Oxygen abundance
* using the calibrator pyqz at
* the central aperture
* (OH_pyqz_cen) (1)
real*8 e_OH_pyqzc ! [0.0015/0.8]? OH-pyqzc
* uncertainty (e_OH_pyqz_cen)
real*8 OH_t2c ! [8.2/10]? Oxygen abundance
* using the calibrator t2 at
* the central aperture
* (OH_t2_cen) (1)
real*8 e_OH_t2c ! [0.00047/0.8]? OH-t2c
* uncertainty (e_OH_t2_cen)
real*8 OH_M08c ! [8/74]? Oxygen abundance
* using the calibrator M08 at
* the central aperture
* (OH_M08_cen) (1)
real*8 e_OH_M08c ! [0/100]? OH-M08c uncertainty
* (e_OH_M08_cen)
real*8 OH_T04c ! [-44/9.8]? Oxygen abundance
* using the calibrator T04 at
* the central aperture
* (OH_T04_cen) (1)
real*8 e_OH_T04c ! [0/83]? OH-T04c uncertainty
* (e_OH_T04_cen)
real*8 OH_dopc ! [-870/18795]? Oxygen
* abundance using the
* calibrator dop at the central
* aperture (OH_dop_cen) (1)
real*8 e_OH_dopc ! [0.00037/33338]? OH-dopc
* uncertainty (e_OH_dop_cen)
real*8 OH_O3N2_EPc ! [7/11]? Oxygen abundance
* using the calibrator
* O3N2_EPM09 at the central
* aperture
* (OH_O3N2_EPM09_cen) (1)
real*8 e_OH_O3N2_EPc ! [0.0003/2.4]? OH-O3N2-EPc
* uncertainty
* (e_OH_O3N2_EPM09_cen)
real*8 logOI_Hac ! [-2.8/4.8]? Log of the
* [OI]6301/H{alpha} within a
* central aperture
* (log_OI_Ha_cen)
real*8 e_logOI_Hac ! [0.00049/3.4]? logOI/Hac
* uncertainty (e_log_OI_Ha_cen)
real*8 Ha_Hbc ! [-29421/334448]? Ratio
* between the flux of H{alpha}
* and H{beta} within a central
* aperture (Ha_Hb_cen)
real*8 e_Ha_Hbc ! [-4531/9527]? Ha/Hbc
* uncertainty (e_Ha_Hb_cen)
real*8 logNII_HaRe ! [-1.4/4.3]? Log of the
* [NII]6583/H{alpha} line ratio
* at 1Re (log_NII_Ha_Re)
real*8 e_logNII_HaRe ! [0.002/2]? logNII/HaRe
* uncertainty (e_log_NII_Ha_Re)
real*8 logOIII_HbRe ! [-1.3/6.6]? Log of the
* [OIII]5007/H{beta} line ratio
* at 1Re (log_OIII_Hb_Re)
real*8 e_logOIII_HbRe ! [0.00013/3.5]? logOIII/HbRe
* uncertainty (e_log_OIII_Hb_Re)
real*8 logSII_HaRe ! [-0.99/4.8]? Log of the
* [SII]6717+6731/H{alpha} ratio
* at 1Re (log_SII_Ha_Re)
real*8 e_logSII_HaRe ! [0.0002/3.9]? logSII/HaRe
* uncertainty (e_log_SII_Ha_Re)
real*8 logOII_HbRe ! [-0.94/4.5]? Log of the
* [OII]3727/H{beta} ratio at
* 1Re (log_OII_Hb_Re)
real*8 e_logOII_HbRe ! [0.0004/3.8]? logOII/HbRe
* uncertainty (e_log_OII_Hb_Re)
real*8 logOI_HaRe ! [-2.6/6]? Log of the
* [OI]6301/H{alpha} ratio at
* 1Re (log_OI_Ha_Re)
real*8 e_logOI_HaRe ! [0.00013/5]? logOI/HaRe
* uncertainty (e_log_OI_Ha_Re)
real*8 EWHaRe ! (0.1nm) [-488/-0]? EW of H{alpha} at
* 1Re in {AA} (EW_Ha_Re)
real*8 e_EWHaRe ! (0.1nm) [0.012/122]? EWHaRe
* uncertainty (e_EW_Ha_Re)
real*8 Ha_HbRe ! [2.8/123]? Ratio between the
* flux of H{alpha} and H{beta}
* within at 1Re (Ha_Hb_Re)
real*8 e_Ha_HbRe ! [0/309]? Ha/HbRe uncertainty
* (e_Ha_Hb_Re)
real*8 logNII_Ha ! [-1.3/7.3]? Log of the
* [NII]6583/H{alpha} line ratio
* within the entire FOV
* (log_NII_Ha_ALL)
real*8 e_logNII_Ha ! [0.00037/2.8]? logNII/Ha
* uncertainty (e_log_NII_Ha_ALL)
real*8 logOIII_Hb ! [-1.2/6.4]? Log of the
* [OIII]5007/H{beta} line ratio
* within the FOV
* (log_OIII_Hb_ALL)
real*8 e_logOIII_Hb ! [0.00047/6]? logOIII/Hb
* uncertainty
* (e_log_OIII_Hb_ALL)
real*8 logSII_Ha ! [-0.99/7.8]? Log of the
* [SII]6717+6731/H{alpha} ratio
* within the entire FOV
* (log_SII_Ha_ALL)
real*8 e_logSII_Ha ! [0.0008/3.5]? logSII/Ha
* uncertainty (e_log_SII_Ha_ALL)
real*8 logOII_Hb ! [-0.99/5.2]? Log of the
* [OII]3727/H{beta} ratio
* within the entire FOV
* (log_OII_Hb_ALL)
real*8 e_logOII_Hb ! [0.0004/4.4]? logOII/Hb
* uncertainty (e_log_OII_Hb_ALL)
real*8 logOI_Ha ! [-2.6/5]? Log of the
* [OI]6301/H{alpha} ratio
* within the entire FOV
* (log_OI_Ha_ALL)
real*8 e_logOI_Ha ! [0.0018/5]? logOI/Ha
* uncertainty (e_log_OI_Ha_ALL)
real*8 EWHa ! (0.1nm) [-285/0]? EW of H{alpha}
* within the entire FOV in {AA}
* (EW_Ha_ALL)
real*8 e_EWHa ! (0.1nm) [0/159]? EWHa uncertainty
* (e_EW_Ha_ALL)
real*4 Ha_Hb ! [2.8/58]? Ratio between the
* flux of H{alpha} and H{beta}
* within the entire FOV
* (Ha_Hb_ALL)
real*8 logsigMc ! ([Msun/pc2]) [0.6/4.5]? Stellar-mass
* surface density in the
* central aperture
* (Sigma_Mass_cen)
real*8 e_logsigMc ! ([Msun/pc2]) [0/0.9]? logsigMc uncertainty
* (e_Sigma_Mass_cen)
real*8 logsigMRe ! ([Msun/pc2]) [0.37/4.1]? Stellar-mass
* surface density at 1Re
* (Sigma_Mass_Re)
real*8 e_logsigMRe ! ([Msun/pc2]) [0.0009/0.9]? logsigMRe
* uncertainty (e_Sigma_Mass_Re)
real*8 logsigM ! ([Msun/pc2]) [0.5/3.8]? Average
* stellar-mass surface density
* within the entire FOV
* (Sigma_Mass_ALL)
real*8 e_logsigM ! ([Msun/pc2]) [0.07/1.3]? logsigM
* uncertainty (e_Sigma_Mass_ALL)
real*8 T30 ! (Gyr) [2.3/13] Lookback time at
* which the galaxy has formed
* 30% of its stellar mass
real*8 Z_T30 ! ([Sun]) [-2.31/0.3] Stellar
* metallicity at T30 time
* (ZH_T30)
real*8 Z_T30Re ! ([Sun]) [-9.4/1.1]? Stellar
* metallicity at Re at T30 time
* (ZH_Re_T30)
real*8 aZ_T30 ! [-1.94/2.1]? Slope of the ZH
* gradient at T30 time in
* dex/Re (a_ZH_T30)
real*8 T40 ! (Gyr) [1.9/12.8] Lookback time at
* which the galaxy has formed
* 40% of its stellar mass
real*8 Z_T40 ! ([Sun]) [-2.31/0.3] Stellar
* metallicity at T40 time
* (ZH_T40)
real*8 Z_T40Re ! ([Sun]) [-9/2.3]? Stellar metallicity
* at Re at T40 time (ZH_Re_T40)
real*8 aZ_T40 ! [-2.5/2.1]? Slope of the ZH
* gradient at T40 time in
* dex/Re (a_ZH_T40)
real*8 T50 ! (Gyr) [1.49/12.7] Lookback time at
* which the galaxy has formed
* 50% of its stellar mass
real*8 Z_T50 ! ([Sun]) [-2.31/0.3] Stellar
* metallicity at T50 time
* (ZH_T50)
real*8 Z_T50Re ! ([Sun]) [-5.8/0.8]? Stellar
* metallicity at Re at T50 time
* (ZH_Re_T50)
real*8 aZ_T50 ! [-2.5/2.1]? Slope of the ZH
* gradient at T50 time in
* dex/Re (a_ZH_T50)
real*8 T60 ! (Gyr) [1.26/12.5] Lookback time at
* which the galaxy has formed
* 60% of its stellar mass
real*8 Z_T60 ! ([Sun]) [-2.31/0.3] Stellar
* metallicity at T60 time
* (ZH_T60)
real*8 Z_T60Re ! ([Sun]) [-4.3/2]? Stellar metallicity
* at Re at T60 time (ZH_Re_T60)
real*8 aZ_T60 ! [-2.4/2.1]? Slope of the ZH
* gradient at T60 time in
* dex/Re (a_ZH_T60)
real*8 T70 ! (Gyr) [1/12.3] Lookback time at
* which the galaxy has formed
* 70% of its stellar mass
real*8 Z_T70 ! ([Sun]) [-2.31/0.3] Stellar
* metallicity at T70 time
* (ZH_T70)
real*8 Z_T70Re ! ([Sun]) [-3.4/0.7]? Stellar
* metallicity at Re at T70 time
* (ZH_Re_T70)
real*8 aZH_T70 ! [-2.2/2.1]? Slope of the ZH
* gradient at T70 time in
* dex/Re (a_ZH_T70)
real*8 T80 ! (Gyr) [0.88/12.1] Lookback time at
* which the galaxy has formed
* 80% of its stellar mass
real*8 Z_T80 ! ([Sun]) [-2.31/0.3] Stellar
* metallicity at T80 time
* (ZH_T80)
real*8 Z_T80Re ! ([Sun]) [-3.4/0.5]? Stellar
* metallicity at Re at T80 time
* (ZH_Re_T80)
real*8 aZ_T80 ! [-1.95/1.5]? Slope of the ZH
* gradient at T80 time in
* dex/Re (a_ZH_T80)
real*8 T90 ! (Gyr) [0.66/10.6] Lookback time at
* which the galaxy has formed
* 90% of its stellar mass
real*8 Z_T90 ! ([Sun]) [-2.1/0.3] Stellar
* metallicity at T90 time
* (ZH_T90)
real*8 Z_T90Re ! ([Sun]) [-2.7/1.71]? Stellar
* metallicity at Re at T90 time
* (ZH_Re_T90)
real*8 aZ_T90 ! [-1.5/1.2]? Slope of the ZH
* gradient at T90 time in
* dex/Re (a_ZH_T90)
real*8 T95 ! (Gyr) [0.25/7.7] Lookback time at
* which the galaxy has formed
* 95% of its stellar mass
real*8 Z_T95 ! ([Sun]) [-2.2/0.3] Stellar
* metallicity at T95 time
* (ZH_T95)
real*8 Z_T95Re ! ([Sun]) [-1.81/2.8]? Stellar
* metallicity at Re at T95 time
* (ZH_Re_T95)
real*8 aZ_T95 ! [-1.5/1.3]? Slope of the ZH
* gradient at T95 time in
* dex/Re (a_ZH_T95)
real*4 T99 ! (Gyr) [0.0074/4.2] Lookback time at
* which the galaxy has formed
* 99% of its stellar mass
real*8 Z_T99 ! ([Sun]) [-1.8/0.3] Stellar
* metallicity at T99 time
* (ZH_T99)
real*8 Z_T99Re ! ([Sun]) [-2.2/0.4]? Stellar
* metallicity at Re at T99 time
* (ZH_Re_T99)
real*8 aZ_T99 ! [-1.4/1.3]? Slope of the ZH
* gradient at T99 time in
* dex/Re (a_ZH_T99)
real*4 logMgasAvg ! ([Msun]) [5.7/10.7]? Log of integrated
* gas mass using the calibrator
* log_Mass_gas_Av_gas_OH
* (log_Mass_gas_Av_gas_OH)
real*4 logMgasAvs ! ([Msun]) [6.4/10.8]? Log of integrated
* gas mass using the calibrator
* log_Mass_gas_Av_ssp_OH
* (log_Mass_gas_Av_ssp_OH)
real*8 Vels2Re ! (km/s) [0.09/1042]? Stellar velocity
* at 2Re (vel_ssp_2)
real*8 e_Vels2Re ! (km/s) [0.029/696]? Vels2Re
* uncertainty (e_vel_ssp_2)
real*8 VelHa2Re ! (km/s) [0/1542]? H{alpha} velocity
* at 2Re (vel_Ha_2)
real*8 e_VelHa2Re ! (km/s) [0/919]? VelHa2Re uncertainty
* (e_vel_Ha_2)
real*8 Vels1Re ! (km/s) [0.028/1580]? Stellar
* velocity at 1Re (vel_ssp_1)
real*8 e_Vels1Re ! (km/s) [0/875]? Vels1Re uncertainty
* (e_vel_ssp_1)
real*8 VelHa1Re ! (km/s) [0.01/2244]? H{alpha}
* velocity at 1Re (vel_Ha_1)
real*8 e_VelHa1Re ! (km/s) [0/865]? VelHa1Re uncertainty
* (e_vel_Ha_1)
real*8 logSFRs100 ! ([Msun/yr]) [-4/1.9]? Integrated SFR
* derived from the SSP analysis
* for t<100Myr
* (log_SFR_ssp_100Myr)
real*8 logSFRs10 ! ([Msun/yr]) [-3.5/2.7]? Integrated SFR
* derived from the SSP analysis
* for t<10Myr
* (log_SFR_ssp_10Myr)
real*8 VdispHac ! (km/s) [12/823]? H{alpha} velocity
* dispersion at the central
* aperture (vel_disp_Ha_cen)
real*8 Vdispsc ! (km/s) [0.28/466]? Stellar velocity
* dispersion at the central
* aperture (vel_disp_ssp_cen)
real*8 VdispHa1re ! (km/s) [0.09/703]? H{alpha} velocity
* dispersion at 1Re
* (vel_disp_Ha_1Re)
real*8 Vdisps1Re ! (km/s) [6/490]? Stellar velocity
* dispersion at 1Re
* (vel_disp_ssp_1Re)
real*4 logM1Re ! ([Msun]) [5.9/16]? Integrated stellar
* mass within 1 optical Re
* (log_Mass_in_Re)
real*4 MLint ! (Msun/Lsun) [0.2/4.4e+7] V-band
* mass-to-light ratio from
* integrated quantities (ML_int)
real*8 MLavg ! (Msun/Lsun) [0.00029/547] V-band
* mass-to-light ratio averaged
* across the FOV (ML_avg)
real*8 FHac ! (10-19W/m2) [0/4454] Flux intensity of
* H{alpha} in the central
* aperture in
* 10^-16^erg/s/cm^2^ (F_Ha_cen)
real*8 e_FHac ! (10-19W/m2) [0/7021] FHac uncertainty
* (e_F_Ha_cen)
real*8 R50V ! (kpc) [0.1/45]? Radius at which
* half of the light in the
* V-band within the FOV is
* integrated (R50_kpc_V)
real*8 e_R50V ! (kpc) [0.02/14]? R50V uncertainty
* (e_R50_kpc_V)
real*8 R50M ! (kpc) [0.1/44.1]? Radius at which
* half of the stellar mass
* within the FOV is integrated
* (R50_kpc_Mass)
real*8 e_R50M ! (kpc) [0.02/14]? R50M uncertainty
* (e_R50_kpc_Mass)
real*8 logMR50V ! ([Msun]) [5.8/15.8]? Integrated
* stellar mass within R50V
* (log_Mass_corr_in_R50_V)
real*4 e_logMR50V ! ([Msun]) [0/1] logMR50V uncertainty
* (e_log_Mass_corr_in_R50_V)
real*8 logMgasAvgl ! ([Msun]) [2.59/11.7]? Molecular gas
* mass derived from the dust
* extinction using the log-log
* calibration
* (log_Mass_gas_Av_gas_log_log)
real*4 Avgas1Re ! (mag) [4.4e-5/3.4]? Dust extinction
* in the V band derived from
* the H{alpha}/H{beta} line
* ratio at 1Re (Av_gas_Re)
real*8 e_Avgas1Re ! (mag) [0/1.3]? Avgas1Re uncertainty
* (e_Av_gas_Re)
real*4 Avs ! (mag) [5.9e-5/1.8]? Dust extinction
* in the V band derived from
* the analysis of the stellar
* population (Av_ssp_Re)
real*8 e_Avs ! (mag) [0/0.6]? Avs uncertainty
* (e_Av_ssp_Re)
real*8 Lambda1Re ! [0.014/1]? Specific angular
* momentum ({lambda}-parameter)
* for the stellar populations
* within 1Re (Lambda_Re)
real*4 e_Lambda1Re ! [7e-6/0.5]? Lambda1Re
* uncertainty (e_Lambda_Re)
real*8 zNSA ! [0.0002/0.15]? NSA redshift
* (nsa_redshift)
real*8 MNSA ! ([Msun]) [6.2/13.2]? Stellar mass
* derived by the NSA
* collaboration (nsa_mstar)
real*8 IncNSA ! (deg) [4/86]? Inclination derived
* by the NSA collaboration
* (nsa_inclination)
real*8 F_OII_26Re ! (10-19W/m2) [-2.4/16]? Flux intensity of
* [OII]3726.03 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OII3726_Re_fit)
real*8 e_F_OII_26Re ! (10-19W/m2) [0.00037/4]? F[OII]26Re
* uncertainty
* (e_flux_OII3726_Re_fit)
real*8 F_OII_26a ! (10-19W/m2) [-11/1.3]? Flux intensity of
* [OII]3726.03 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OII3726_alpha_fit)
real*8 e_F_OII_26a ! (10-19W/m2) [0.0003/3.2]? F[OII]26a
* uncertainty
* (e_flux[OII]3726.03_alpha_fit)
real*8 F_OII_28Re ! (10-19W/m2) [-1.3/16]? Flux intensity of
* [OII]3728.82 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OII3728_Re_fit)
real*8 e_F_OII_28Re ! (10-19W/m2) [0.0005/3]? F[OII]28Re
* uncertainty
* (e_flux_OII3728_Re_fit)
real*8 F_OII_28a ! (10-19W/m2) [-11/2.3]? Flux intensity of
* [OII]3728.82 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OII3728_alpha_fit)
real*8 e_F_OII_28a ! (10-19W/m2) [0.0004/3]? F[OII]28a
* uncertainty
* (e_flux[OII]3728.82_alpha_fit)
real*8 FHI34Re ! (10-19W/m2) [-2.5/16]? Flux intensity of
* HI3734.37 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI3734_Re_fit)
real*8 e_FHI34Re ! (10-19W/m2) [0.0003/2.3]? FHI34Re
* uncertainty
* (e_flux_HI3734_Re_fit)
real*8 FHI34a ! (10-19W/m2) [-11/1.4]? Flux intensity of
* HI3734.37 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI3734_alpha_fit)
real*8 e_FHI34a ! (10-19W/m2) [0.00027/2]? FHI34a
* uncertainty
* (e_flux_HI3734_alpha_fit)
real*8 FHI97Re ! (10-19W/m2) [-2.1/4.8]? Flux intensity of
* HI3797.9 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI3797.9_Re_fit)
real*8 e_FHI97Re ! (10-19W/m2) [0.00024/5]? FHI97Re
* uncertainty
* (e_flux_HI3797_Re_fit)
real*8 FHI97a ! (10-19W/m2) [-5.82/1.1]? Flux intensity
* of HI3797.9 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI3797_alpha_fit)
real*8 e_FHI97a ! (10-19W/m2) [0.0002/4.5]? FHI97a
* uncertainty
* (e_flux_HI3797_alpha_fit)
real*8 FHeI38Re ! (10-19W/m2) [-0.3/8]? Flux intensity of
* HeI3888.65 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI3888_Re_fit)
real*8 e_FHeI38Re ! (10-19W/m2) [0.00035/2.2]? FHeI38Re
* uncertainty
* (e_flux_HeI3888_Re_fit)
real*8 FHeI38a ! (10-19W/m2) [-4.8/0.7]? Flux intensity of
* HeI3888.65 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI3888_alpha_fit)
real*8 e_FHeI38a ! (10-19W/m2) [0.0003/1.7]? FHeI38a
* uncertainty
* (e_flux_HeI3888_alpha_fit)
real*8 FHI89Re ! (10-19W/m2) [-0.31/8]? Flux intensity of
* HI3889.05 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI3889_Re_fit)
real*8 e_FHI89Re ! (10-19W/m2) [0.00027/5]? FHI89Re
* uncertainty
* (e_flux_HI3889_Re_fit)
real*8 FHI89a ! (10-19W/m2) [-4.8/2]? Flux intensity of
* HI3889.05 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI3889_alpha_fit)
real*8 e_FHI89a ! (10-19W/m2) [0.0002/4]? FHI89a
* uncertainty
* (e_flux_HI3889_alpha_fit)
real*8 FHeI39Re ! (10-19W/m2) [-0.83/11]? Flux intensity of
* HeI3964.73 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI3964_Re_fit)
real*8 e_FHeI39Re ! (10-19W/m2) [0.00028/1.2]? FHeI39Re
* uncertainty
* (e_flux_HeI3964_Re_fit)
real*8 FHeI39a ! (10-19W/m2) [-7/1.4]? Flux intensity of
* HeI3964.73 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI3964_alpha_fit)
real*8 e_FHeI39a ! (10-19W/m2) [0.00029/1.1]? FHeI39a
* uncertainty
* (e_flux_HeI3964_alpha_fit)
real*8 F_NeIII_Re ! (10-19W/m2) [-0.75/10.3]? Flux intensity
* of [NeIII]3967.46 1Re in
* 10^-16^erg/s/cm^2^
* (flux_[NeIII]3967_Re_fit)
real*8 e_F_NeIII_Re ! (10-19W/m2) [0.00028/2.8]? F[NeIII]Re
* uncertainty
* (e_flux_[NeIII]3967_Re_fit)
real*8 F_NeIII_a ! (10-19W/m2) [-7.3/1.2]? Flux intensity of
* [NeIII]3967.46 1Re in
* 10^-16^erg/s/cm^2^
* (flux[NeIII]3967.46_alpha_fit)
real*8 e_F_NeIII_a ! (10-19W/m2) [0.00024/2.4]? F[NeIII]a
* uncertainty
* (e_fluxNeIII3967_alpha_fit)
real*8 FCaIIRe ! (10-19W/m2) [-0.72/10.4]? Flux intensity
* of CaII3968.47 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_CaII3968_Re_fit)
real*8 e_FCaIIRe ! (10-19W/m2) [0.00026/2.6]? FCaIIRe
* uncertainty
* (e_flux_CaII3968_Re_fit)
real*8 FCaIIa ! (10-19W/m2) [-7.4/1.2]? Flux intensity of
* CaII3968.47 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_CaII3968_alpha_fit)
real*8 e_FCaIIa ! (10-19W/m2) [0.0002/2.2]? FCaIIa
* uncertainty
* (e_flux_CaII3968_alpha_fit)
real*8 FHepsRe ! (10-19W/m2) [-0.7/10.4]? Flux intensity
* of H{epsilon}3970.07 at 1Re
* in 10^-16^erg/s/cm^2^
* (flux_Hepsilon3970_Re_fit)
real*8 e_FHepsRe ! (10-19W/m2) [0.00025/2.4]? FHepsRe
* uncertainty
* (e_fluxHepsilon3970_Re_fit)
real*8 FHepsa ! (10-19W/m2) [-8.81/1.6]? Flux intensity
* of H{epsilon}3970.07 at 1Re
* in 10^-16^erg/s/cm^2^
* (flux_Heps3970_alpha_fit)
real*8 e_FHepsa ! (10-19W/m2) [0.0002/2.1]? FHepsa
* uncertainty
* (e_flux_Heps3970.07_alpha_fit)
real*8 FHdRe ! (10-19W/m2) [-0.099/9.7]? Flux intensity
* of H{delta}4101.77 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Hdelta4101_Re_fit)
real*8 e_FHdRe ! (10-19W/m2) [0.0003/4.3]? FHdRe
* uncertainty
* (e_flux_Hdelta4101_Re_fit)
real*8 FHda ! (10-19W/m2) [-5.4/2]? Flux intensity of
* H{delta}4101.77 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Hdelta4101_alpha_fit)
real*8 e_FHda ! (10-19W/m2) [0.00028/3.6]? FHda
* uncertainty
* (e_flux_Hdel4101_alpha_fit)
real*8 FHgRe ! (10-19W/m2) [-1.25/11.9]? Flux intensity
* of H{gamma}4340.49 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Hgamma4340_Re_fit)
real*8 e_FHgRe ! (10-19W/m2) [0.0002/5.3]? FHgRe
* uncertainty
* (e_flux_Hgamma4340_Re_fit)
real*8 FHga ! (10-19W/m2) [-7/6.6]? Flux intensity of
* H{gamma}4340.49 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Hgamma4340_alpha_fit)
real*8 e_FHga ! (10-19W/m2) [0.00018/4]? FHga uncertainty
* (e_flux_Hgam4340_alpha_fit)
real*8 FHbRe ! (10-19W/m2) [-0.24/14.7]? Flux intensity
* of H{beta}4861.36 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Hbeta4861_Re_fit)
real*8 e_FHbRe ! (10-19W/m2) [0.00024/8.1]? FHbRe
* uncertainty
* (e_flux_Hbeta4861_Re_fit)
real*8 FHba ! (10-19W/m2) [-8.1/0.7]? Flux intensity of
* H{beta}4861.36 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Hbeta4861_alpha_fit)
real*8 e_FHba ! (10-19W/m2) [0.0002/5.6]? FHba
* uncertainty
* (e_flux_Hb4861_alpha_fit)
real*8 F_OIII_49Re ! (10-19W/m2) [-0.9/16]? Flux intensity of
* [OIII]4958.91 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_[OIII]4958_Re_fit)
real*8 e_F_OIII_49Re ! (10-19W/m2) [0.0002/17]? F[OIII]49Re
* uncertainty
* (e_flux_OIII4958_Re_fit)
real*8 F_OIII_49a ! (10-19W/m2) [-9.3/1.3]? Flux intensity of
* [OIII]4958.91 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OIII4958_alpha_fit)
real*8 e_F_OIII_49a ! (10-19W/m2) [0.00017/11]? F[OIII]49a
* uncertainty
* (e_fluxOIII4958_alpha_fit)
real*8 F_OIII_50Re ! (10-19W/m2) [-1.8/12]? Flux intensity of
* [OIII]5006.84 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OIII5006_Re_fit)
real*8 e_F_OIII_50Re ! (10-19W/m2) [0.0002/3.5]? F[OIII]50Re
* uncertainty
* (e_flux_OIII5006_Re_fit)
real*8 F_OIII_50a ! (10-19W/m2) [-12.6/1.1]? Flux intensity
* of [OIII]5006.84 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OIII5006_alpha_fit)
real*8 e_F_OIII_50a ! (10-19W/m2) [0.00018/3]? F[OIII]50a
* uncertainty
* (e_fluxOIII5006_alpha_fit)
real*8 FHeI50Re ! (10-19W/m2) [-2.2/8]? Flux intensity of
* HeI5015.68 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI5015_Re_fit)
real*8 e_FHeI50Re ! (10-19W/m2) [0.0002/3.5]? FHeI50Re
* uncertainty
* (e_flux_HeI5015_Re_fit)
real*8 FHeI50a ! (10-19W/m2) [-11/2]? Flux intensity of
* HeI5015.68 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI5015_alpha_fit)
real*8 e_FHeI50a ! (10-19W/m2) [0.00018/2.5]? FHeI50a
* uncertainty
* (e_flux_HeI5015_alpha_fit)
real*8 F_NI_51Re ! (10-19W/m2) [-0.22/4]? Flux intensity of
* [NI]5197.9 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NI5197_Re_fit)
real*8 e_F_NI_51Re ! (10-19W/m2) [0.00016/4.2]? F[NI]51Re
* uncertainty
* (e_flux_NI5197_Re_fit)
real*8 F_NI_51a ! (10-19W/m2) [-4.1/0.7]? Flux intensity of
* [NI]5197.9 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NI5197_alpha_fit)
real*8 e_F_NI_51a ! (10-19W/m2) [0.00014/3.4]? F[NI]51a
* uncertainty
* (e_flux_NI5197_alpha_fit)
real*8 F_NI_52Re ! (10-19W/m2) [-0.34/1.7]? Flux intensity
* of [NI]5200.26 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NI5200_Re_fit)
real*8 e_F_NI_52Re ! (10-19W/m2) [0.00018/3.1]? F[NI]52Re
* uncertainty
* (e_flux_NI5200_Re_fit)
real*8 F_NI_52a ! (10-19W/m2) [-2.6/1.1]? Flux intensity of
* [NI]5200.26 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NI5200_alpha_fit)
real*8 e_F_NI_52a ! (10-19W/m2) [0.00015/3]? F[NI]52a
* uncertainty
* (e_flux_NI5200_alpha_fit)
real*8 FHeI58Re ! (10-19W/m2) [-0.6/2.2]? Flux intensity of
* HeI5876.0 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI5876_Re_fit)
real*8 e_FHeI58Re ! (10-19W/m2) [0.00017/1.7]? FHeI58Re
* uncertainty
* (e_flux_HeI5876_Re_fit)
real*8 FHeI58a ! (10-19W/m2) [-2.8/0.95]? Flux intensity
* of HeI5876.0 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HeI5876_alpha_fit)
real*8 e_FHeI58a ! (10-19W/m2) [0.00014/1.5]? FHeI58a
* uncertainty
* (e_flux_HeI5876_alpha_fit)
real*8 FNaI89Re ! (10-19W/m2) [-1/4.6]? Flux intensity of
* NaI5889.95 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NaI5889_Re_fit)
real*8 e_FNaI89Re ! (10-19W/m2) [0.0002/4.6]? FNaI89Re
* uncertainty
* (e_flux_NaI5889_Re_fit)
real*8 FNaI89a ! (10-19W/m2) [-5.81/1.4]? Flux intensity
* of NaI5889.95 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NaI5889_alpha_fit)
real*8 e_FNaI89a ! (10-19W/m2) [0.0002/3.4]? FNaI89a
* uncertainty
* (e_flux_NaI5889_alpha_fit)
real*8 FNaI95Re ! (10-19W/m2) [-1.01/4.4]? Flux intensity
* of NaI5895.92 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NaI5895_Re_fit)
real*8 e_FNaI95Re ! (10-19W/m2) [0.00019/4]? FNaI95Re
* uncertainty
* (e_flux_NaI5895_Re_fit)
real*8 FNaI95a ! (10-19W/m2) [-6.22/2.7]? Flux intensity
* of NaI5895.92 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NaI5895_alpha_fit)
real*8 e_FNaI95a ! (10-19W/m2) [0.00016/3.2]? FNaI95a
* uncertainty
* (e_flux_NaI5895_alpha_fit)
real*8 F_OI_Re ! (10-19W/m2) [-1.13/2.6]? Flux intensity
* of [OI]6300.3 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OI6300_Re_fit)
real*8 e_F_OI_Re ! (10-19W/m2) [0.00014/3.3]? F[OI]Re
* uncertainty
* (e_flux_OI6300_Re_fit)
real*8 F_OI_a ! (10-19W/m2) [-5.4/0.7]? Flux intensity of
* [OI]6300.3 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_OI6300_alpha_fit)
real*8 e_F_OI_a ! (10-19W/m2) [0.00012/2.7]? F[OI]a
* uncertainty
* (e_flux_OI6300_alpha_fit)
real*8 F_NII_48Re ! (10-19W/m2) [-0.3/12.4]? Flux intensity
* of [NII]6548.05 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NII6548_Re_fit)
real*8 e_F_NII_48Re ! (10-19W/m2) [0.00016/3.4]? F[NII]48Re
* uncertainty
* (e_flux_NII6548_Re_fit)
real*8 F_NII_48a ! (10-19W/m2) [-10.1/0.6]? Flux intensity
* of [NII]6548.05 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NII6548_alpha_fit)
real*8 e_F_NII_48a ! (10-19W/m2) [0.00014/2.5]? F[NII]48a
* uncertainty
* (e_flux_NII6548_alpha_fit)
real*8 FHaRe ! (10-19W/m2) [-0.22/20.2]? Flux intensity
* of H{alpha}6562.85 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Halpha6562_Re_fit)
real*8 e_FHaRe ! (10-19W/m2) [0.00017/17.6]? FHaRe
* uncertainty
* (e_flux_Halpha6562_Re_fit)
real*8 FHaa ! (10-19W/m2) [-13/5.1]? Flux intensity of
* H{alpha}6562.85 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_Halpha6562_alpha_fit)
real*8 e_FHaa ! (10-19W/m2) [0.00015/10.6]? FHaa
* uncertainty
* (e_flux_Ha6562_alpha_fit)
real*8 F_NII_83Re ! (10-19W/m2) [-0.3/16]? Flux intensity of
* [NII]6583.45 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NII6583_Re_fit)
real*8 e_F_NII_83Re ! (10-19W/m2) [0.0002/4.5]? F[NII]83Re
* uncertainty
* (e_flux_NII6583_Re_fit)
real*8 F_NII_83a ! (10-19W/m2) [-13/1]? Flux intensity of
* [NII]6583.45 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_NII6583_alpha_fit)
real*8 e_F_NII_83a ! (10-19W/m2) [0.00017/3.2]? F[NII]83a
* uncertainty
* (e_flux_NII6583_alpha_fit)
real*8 F_SII_16Re ! (10-19W/m2) [-0.6/5.5]? Flux intensity of
* [SII]6716.44 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_SII6716_Re_fit)
real*8 e_F_SII_16Re ! (10-19W/m2) [0.00014/2]? F[SII]16Re
* uncertainty
* (e_flux_SII6716_Re_fit)
real*8 F_SII_16a ! (10-19W/m2) [-4.6/1]? Flux intensity of
* [SII]6716.44 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_SII6716_alpha_fit)
real*8 e_F_SII_16a ! (10-19W/m2) [0.00012/1.5]? F[SII]16a
* uncertainty
* (e_flux_SII6716_alpha_fit)
real*8 F_SII_30Re ! (10-19W/m2) [-0.6/5.3]? Flux intensity of
* [SII]6730.82 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_[SII]6730.82_Re_fit)
real*8 e_F_SII_30Re ! (10-19W/m2) [0.00017/2.1]? F[SII]30Re
* uncertainty
* (e_flux_SII6730_Re_fit)
real*8 F_SII_30a ! (10-19W/m2) [-5/1]? Flux intensity of
* [SII]6730.82 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_SII6730_alpha_fit)
real*8 e_F_SII_30a ! (10-19W/m2) [0.00014/1.8]? F[SII]30a
* uncertainty
* (e_flux_SII6730_alpha_fit)
real*8 F_ArIII_Re ! (10-19W/m2) [-0.95/1.7]? Flux intensity
* of [ArIII]7135.8 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_ArIII7135_Re_fit)
real*8 e_F_ArIII_Re ! (10-19W/m2) [0.00016/2.5]? F[ArIII]Re
* uncertainty
* (e_flux_ArIII7135_Re_fit)
real*8 F_ArIII_a ! (10-19W/m2) [-3/0.7]? Flux intensity of
* [ArIII]7135.8 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_ArIII7135_alpha_fit)
real*8 e_F_ArIII_a ! (10-19W/m2) [0.00015/2]? F[ArIII]a
* uncertainty
* (e_flux_ArIII7135_alpha_fit)
real*8 FHI14Re ! (10-19W/m2) [-1.6/2.2]? Flux intensity of
* HI9014.91 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI9014_Re_fit)
real*8 e_FHI14Re ! (10-19W/m2) [0.00012/3]? FHI14Re
* uncertainty
* (e_flux_HI9014_Re_fit)
real*8 FHI14a ! (10-19W/m2) [-3.1/1.3]? Flux intensity of
* HI9014.91 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_HI9014_alpha_fit)
real*8 e_FHI14a ! (10-19W/m2) [0.0001/2.5]? FHI14a
* uncertainty
* (e_flux_HI9014_alpha_fit)
real*8 F_SIII_90Re ! (10-19W/m2) [-0.5/3.4]? Flux intensity of
* [SIII]9069.0 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_SIII9069_Re_fit)
real*8 e_F_SIII_90Re ! (10-19W/m2) [0.0001/3]? F[SIII]90Re
* uncertainty
* (e_flux_SIII9069_Re_fit)
real*8 F_SIII_90a ! (10-19W/m2) [-2.8/3]? Flux intensity of
* [SIII]9069.0 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_SIII9069_alpha_fit)
real*4 e_F_SIII_90a ! (10-19W/m2) [9.6e-5/2.6]? F[SIII]90a
* uncertainty
* (e_flux_SIII9069_alpha_fit)
real*8 F_FeII_Re ! (10-19W/m2) [-0.91/0.71]? Flux intensity
* of [FeII]9470.93 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_FeII9470_Re_fit)
real*8 e_F_FeII_Re ! (10-19W/m2) [0.00018/1.4]? F[FeII]Re
* uncertainty
* (e_flux_FeII9470_Re_fit)
real*8 F_FeII_a ! (10-19W/m2) [-1.2/0.5]? Flux intensity of
* [FeII]9470.93 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_FeII9470_alpha_fit)
real*8 e_F_FeII_a ! (10-19W/m2) [0.00016/1.1]? F[FeII]a
* uncertainty
* (e_flux_FeII9470_alpha_fit)
real*8 F_SIII_95Re ! (10-19W/m2) [-0.92/8]? Flux intensity of
* [SIII]9531.1 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_SIII9531_Re_fit)
real*8 e_F_SIII_95Re ! (10-19W/m2) [0.0003/1.6]? F[SIII]95Re
* uncertainty
* (e_flux_SIII9531_Re_fit)
real*8 F_SIII_95a ! (10-19W/m2) [-5.3/2]? Flux intensity of
* [SIII]9531.1 at 1Re in
* 10^-16^erg/s/cm^2^
* (flux_SIII9531_alpha_fit)
real*8 e_F_SIII_95a ! (10-19W/m2) [0.00027/1.4]? F[SIII]95a
* uncertainty
* (e_flux_SIII9531_alpha_fit)
real*4 OH_Mar13_N2Re ! [8/8.8]? Oxygen abundance
* using the calibrator Mar13_N2
* at 1Re (OH_Mar13_N2_Re_fit) (1)
real*4 e_OH_Mar13_N2Re ! [0.001/0.4]? OH-Mar13-N2Re
* uncertainty
* (e_OH_Mar13_N2_Re_fit)
real*8 OH_Mar13_N2a ! [-0.5/0.5]? Slope of the O/H
* gradient using the calibrator
* Mar13_N2 in dex/Re
* (OH_Mar13_N2_alpha_fit)
real*8 e_OH_Mar13_N2a ! [0.0008/0.21]? OH-Mar13-N2a
* uncertainty
* (e_OH_Mar13_N2_alpha_fit)
real*8 OH_Mar13_O3N2Re ! [8.14/8.7]? Oxygen abundance
* using the calibrator
* Mar13_O3N2 at 1Re
* (OH_Mar13_O3N2_Re_fit) (1)
real*8 e_OH_Mar13_O3N2Re ! [0.00068/0.4]?
* OH-Mar13-O3N2Re uncertainty
* (e_OH_Mar13_O3N2_Re_fit)
real*8 OH_Mar13_O3N2a ! [-0.42/0.3]? Slope of the O/H
* gradient using the calibrator
* Mar13_O3N2 in dex/Re
* (OH_Mar13_O3N2_alpha_fit)
real*8 e_OH_Mar13_O3N2a ! [0.00058/0.22]?
* OH-Mar13-O3N2a uncertainty
* (e_OH_Mar13_O3N2_alpha_fit)
real*8 OH_T04Re ! [7/11]? Oxygen abundance
* using the calibrator T04 at
* 1Re (OH_T04_Re_fit) (1)
real*4 e_OH_T04Re ! [0.003/5.1]? OH-T04Re
* uncertainty (e_OH_T04_Re_fit)
real*8 OH_T04a ! [-3.9/2.8]? Slope of the O/H
* gradient using the calibrator
* T04 in dex/Re
* (OH_T04_alpha_fit)
real*4 e_OH_T04a ! [0.0029/3.1]? OH-T04a
* uncertainty
* (e_OH_T04_alpha_fit)
real*4 OH_Pet04_N2linRe ! [7.9/9]? Oxygen abundance
* using the calibrator
* Pet04_N2_lin at 1Re
* (OH_Pet04_N2_lin_Re_fit) (1)
real*4 e_OH_Pet04_N2linRe ! [0.001/0.5]? OH-Pet04-N2linRe
* uncertainty
* (e_OH_Pet04_N2_lin_Re_fit)
real*8 OH_Pet04_N2lina ! [-0.9/0.6]? Slope of the O/H
* gradient using the calibrator
* Pet04_N2_lin in dex/Re
* (OH_Pet04_N2_lin_alpha_fit)
real*8 e_OH_Pet04_N2lina ! [0.0008/0.3]? OH-Pet04-N2lina
* uncertainty
* (e_OH_Pet04_N2_lin_alpha_fit)
real*4 OH_Pet04_N2polRe ! [7.9/9.1]? Oxygen abundance
* using the calibrator
* Pet04_N2_poly at 1Re
* (OH_Pet04_N2_poly_Re_fit) (1)
real*4 e_OH_Pet04_N2polRe ! [0.002/0.6]? OH-Pet04-N2polRe
* uncertainty
* (e_OH_Pet04_N2_poly_Re_fit)
real*8 OH_Pet04_N2pola ! [-0.9/0.6]? Slope of the O/H
* gradient using the calibrator
* Pet04_N2_poly in dex/Re
* (OH_Pet04_N2_poly_alpha_fit)
real*4 e_OH_Pet04_N2pola ! [0.0017/0.4]? OH-Pet04-N2pola
* uncertainty
* (e_OH_Pet04_N2_poly_alpha_fit)
real*4 OH_Pet04_O3N2Re ! [8/9]? Oxygen abundance using
* the calibrator Pet04_O3N2 at
* 1Re (OH_Pet04_O3N2_Re_fit) (1)
real*4 e_OH_Pet04_O3N2Re ! [0.001/0.6]? OH-Pet04-O3N2Re
* uncertainty
* (e_OH_Pet04_O3N2_Re_fit)
real*8 OH_Pet04_O3N2a ! [-0.7/0.5]? Slope of the O/H
* gradient using the calibrator
* Pet04_O3N2 in dex/Re
* (OH_Pet04_O3N2_alpha_fit)
real*8 e_OH_Pet04_O3N2a ! [0.0008/0.4]? OH-Pet04-O3N2a
* uncertainty
* (e_OH_Pet04_O3N2_alpha_fit)
real*4 OH_Kew02_N2O2Re ! [8/9.5]? Oxygen abundance
* using the calibrator
* Kew02_N2O2 at 1Re
* (OH_Kew02_N2O2_Re_fit) (1)
real*4 e_OH_Kew02_N2O2Re ! [0.0018/1.3]? OH-Kew02-N2O2Re
* uncertainty
* (e_OH_Kew02_N2O2_Re_fit)
real*8 OH_Kew02_N2O2a ! [-1.1/1.1]? Slope of the O/H
* gradient using the calibrator
* Kew02_N2O2 in dex/Re
* (OH_Kew02_N2O2_alpha_fit)
real*4 e_OH_Kew02_N2O2a ! [0.0015/1]? OH-Kew02-N2O2a
* uncertainty
* (e_OH_Kew02_N2O2_alpha_fit)
real*8 OH_Pil10_ONSRe ! [7.5/9]? Oxygen abundance
* using the calibrator
* Pil10_ONS at 1Re
* (OH_Pil10_ONS_Re_fit) (1)
real*8 e_OH_Pil10_ONSRe ! [0.0009/2]? OH-Pil10-ONSRe
* uncertainty
* (e_OH_Pil10_ONS_Re_fit)
real*8 OH_Pil10_ONSa ! [-1.6/1.3]? Slope of the O/H
* gradient using the calibrator
* Pil10_ONS
* (OH_Pil10_ONS_alpha_fit)
real*8 e_OH_Pil10_ONSa ! [0.0008/2.3]? OH-Pil10-ONSa
* uncertainty
* (e_OH_Pil10_ONS_alpha_fit)
real*4 OH_Pil10_ONRe ! [7.5/9]? Oxygen abundance
* using the calibrator Pil10_ON
* at 1Re (OH_Pil10_ON_Re_fit) (1)
real*4 e_OH_Pil10_ONRe ! [0.0014/2]? OH-Pil10-ONRe
* uncertainty
* (e_OH_Pil10_ON_Re_fit)
real*8 OH_Pil10_ONa ! [-1.7/1.3]? Slope of the O/H
* gradient using the calibrator
* Pil10_ON in dex/Re
* (OH_Pil10_ON_alpha_fit)
real*4 e_OH_Pil10_ONa ! [0.0012/2.2]? OH-Pil10-ONa
* uncertainty
* (e_OH_Pil10_ON_alpha_fit)
real*4 OH_Pil11_NSRe ! [7/9.3]? Oxygen abundance
* using the calibrator Pil11_NS
* at 1Re (OH_Pil11_NS_Re_fit) (1)
real*4 e_OH_Pil11_NSRe ! [0.001/2.6]? OH-Pil11-NSRe
* uncertainty
* (e_OH_Pil11_NS_Re_fit)
real*8 OH_Pil11_NSa ! [-1.7/3.4]? Slope of the O/H
* gradient using the calibrator
* Pil11_NS in dex/Re
* (OH_Pil11_NS_alpha_fit)
real*8 e_OH_Pil11_NSa ! [0.0009/2.2]? OH-Pil11-NSa
* uncertainty
* (e_OH_Pil11_NS_alpha_fit)
real*4 OH_Cur20_RS32Re ! [7.9/9]? Oxygen abundance
* using the calibrator
* Cur20_RS32 at 1Re
* (OH_Cur20_RS32_Re_fit) (1)
real*4 e_OH_Cur20_RS32Re ! [0.001/0.6]? OH-Cur20-RS32Re
* uncertainty
* (e_OH_Cur20_RS32_Re_fit)
real*8 OH_Cur20_RS32a ! [-0.6/0.8]? Slope of the O/H
* gradient using the calibrator
* Cur20_RS32 in dex/Re
* (OH_Cur20_RS32_alpha_fit)
real*8 e_OH_Cur20_RS32a ! [0.0008/0.5]? OH-Cur20-RS32a
* uncertainty
* (e_OH_Cur20_RS32_alpha_fit)
real*4 OH_Cur20_R3Re ! [7.9/9]? Oxygen abundance
* using the calibrator Cur20_R3
* at 1Re (OH_Cur20_R3_Re_fit) (1)
real*4 e_OH_Cur20_R3Re ! [0.001/0.6]? OH-Cur20-R3Re
* uncertainty
* (e_OH_Cur20_R3_Re_fit)
real*8 OH_Cur20_R3a ! [-0.6/0.8]? Slope of the O/H
* gradient using the calibrator
* Cur20_R3 in dex/Re
* (OH_Cur20_R3_alpha_fit)
real*8 e_OH_Cur20_R3a ! [0.0009/0.4]? OH-Cur20-R3a
* uncertainty
* (e_OH_Cur20_R3_alpha_fit)
real*4 OH_Cur20_O3O2Re ! [7.9/9]? Oxygen abundance
* using the calibrator
* Cur20_O3O2 at 1Re
* (OH_Cur20_O3O2_Re_fit) (1)
real*4 e_OH_Cur20_O3O2Re ! [0.0013/0.7]? OH-Cur20-O3O2Re
* uncertainty
* (e_OH_Cur20_O3O2_Re_fit)
real*8 OH_Cur20_O3O2a ! [-0.6/0.5]? Slope of the O/H
* gradient using the calibrator
* Cur20_O3O2 in dex/Re
* (OH_Cur20_O3O2_alpha_fit)
real*4 e_OH_Cur20_O3O2a ! [0.001/0.6]? OH-Cur20-O3O2a
* uncertainty
* (e_OH_Cur20_O3O2_alpha_fit)
real*4 OH_Cur20_S2Re ! [7.8/9]? Oxygen abundance
* using the calibrator Cur20_S2
* at 1Re (OH_Cur20_S2_Re_fit) (1)
real*4 e_OH_Cur20_S2Re ! [0.0017/1.2]? OH-Cur20-S2Re
* uncertainty
* (e_OH_Cur20_S2_Re_fit)
real*8 OH_Cur20_S2a ! [-0.8/0.9]? Slope of the O/H
* gradient using the calibrator
* Cur20_S2 in dex/Re
* (OH_Cur20_S2_alpha_fit)
real*4 e_OH_Cur20_S2a ! [0.0016/0.8]? OH-Cur20-S2a
* uncertainty
* (e_OH_Cur20_S2_alpha_fit)
real*4 OH_Cur20_R2Re ! [7.9/9]? Oxygen abundance
* using the calibrator Cur20_R2
* at 1Re (OH_Cur20_R2_Re_fit) (1)
real*4 e_OH_Cur20_R2Re ! [0.0019/0.5]? OH-Cur20-R2Re
* uncertainty
* (e_OH_Cur20_R2_Re_fit)
real*8 OH_Cur20_R2a ! [-0.5/1.1]? Slope of the O/H
* gradient using the calibrator
* Cur20_R2 in dex/Re
* (OH_Cur20_R2_alpha_fit)
real*4 e_OH_Cur20_R2a ! [0.0018/0.4]? OH-Cur20-R2a
* uncertainty
* (e_OH_Cur20_R2_alpha_fit)
real*4 OH_Cur20_N2Re ! [7.9/9]? Oxygen abundance
* using the calibrator Cur20_N2
* at 1Re (OH_Cur20_N2_Re_fit) (1)
real*4 e_OH_Cur20_N2Re ! [0.0014/0.6]? OH-Cur20-N2Re
* uncertainty
* (e_OH_Cur20_N2_Re_fit)
real*8 OH_Cur20_N2a ! [-0.8/0.6]? Slope of the O/H
* gradient using the calibrator
* Cur20_N2 in dex/Re
* (OH_Cur20_N2_alpha_fit)
real*4 e_OH_Cur20_N2a ! [0.0012/0.4]? OH-Cur20-N2a
* uncertainty
* (e_OH_Cur20_N2_alpha_fit)
real*4 OH_Cur20_R23Re ! [7.8/9]? Oxygen abundance
* using the calibrator
* Cur20_R23 at 1Re
* (OH_Cur20_R23_Re_fit) (1)
real*4 e_OH_Cur20_R23Re ! [0.0025/0.8]? OH-Cur20-R23Re
* uncertainty
* (e_OH_Cur20_R23_Re_fit)
real*8 OH_Cur20_R23a ! [-1.2/0.7]? Slope of the O/H
* gradient using the calibrator
* Cur20_R23 in dex/Re
* (OH_Cur20_R23_alpha_fit)
real*4 e_OH_Cur20_R23a ! [0.002/0.7]? OH-Cur20-R23a
* uncertainty
* (e_OH_Cur20_R23_alpha_fit)
real*8 OH_Cur20_O3N2Re ! [8/9]? Oxygen abundance using
* the calibrator Cur20_O3N2 at
* 1Re (OH_Cur20_O3N2_Re_fit) (1)
real*8 e_OH_Cur20_O3N2Re ! [0.0007/0.5]? OH-Cur20-O3N2Re
* uncertainty
* (e_OH_Cur20_O3N2_Re_fit)
real*8 OH_Cur20_O3N2a ! [-0.6/0.4]? Slope of the O/H
* gradient using the calibrator
* Cur20_O3N2 in dex/Re
* (OH_Cur20_O3N2_alpha_fit)
real*8 e_OH_Cur20_O3N2a ! [0.0006/0.3]? OH-Cur20-O3N2a
* uncertainty
* (e_OH_Cur20_O3N2_alpha_fit)
real*4 OH_Cur20_O3S2Re ! [8/9]? Oxygen abundance using
* the calibrator Cur20_O3S2 at
* 1Re (OH_Cur20_O3S2_Re_fit) (1)
real*4 e_OH_Cur20_O3S2Re ! [0.002/0.9]? OH-Cur20-O3S2Re
* uncertainty
* (e_OH_Cur20_O3S2_Re_fit)
real*8 OH_Cur20_O3S2a ! [-0.8/0.6]? Slope of the O/H
* gradient using the calibrator
* Cur20_O3S2 in dex/Re
* (OH_Cur20_O3S2_alpha_fit)
real*4 e_OH_Cur20_O3S2a ! [0.0019/0.7]? OH-Cur20-O3S2a
* uncertainty
* (e_OH_Cur20_O3S2_alpha_fit)
real*8 OH_KK04Re ! [7.8/9.8]? Oxygen abundance
* using the calibrator KK04 at
* 1Re (OH_KK04_Re_fit) (1)
real*8 e_OH_KK04Re ! [0.0008/2.1]? OH-KK04Re
* uncertainty (e_OH_KK04_Re_fit)
real*8 OH_KK04a ! [-1.8/3.4]? Slope of the O/H
* gradient using the calibrator
* KK04 in dex/Re
* (OH_KK04_alpha_fit)
real*8 e_OH_KK04a ! [0.0007/2.1]? OH-KK04a
* uncertainty
* (e_OH_KK04_alpha_fit)
real*4 OH_Pil16_RRe ! [7/9.1]? Oxygen abundance
* using the calibrator Pil16_R
* at 1Re (OH_Pil16_R_Re_fit) (1)
real*4 e_OH_Pil16_RRe ! [0.0019/2.4]? OH-Pil16-RRe
* uncertainty
* (e_OH_Pil16_R_Re_fit)
real*8 OH_Pil16_Ra ! [-1.6/1.5]? Slope of the O/H
* gradient using the calibrator
* Pil16_R in dex/Re
* (OH_Pil16_R_alpha_fit)
real*4 e_OH_Pil16_Ra ! [0.0016/1.7]? OH-Pil16-Ra
* uncertainty
* (e_OH_Pil16_R_alpha_fit)
real*4 OH_Pil16_SRe ! [7.2/9]? Oxygen abundance
* using the calibrator Pil16_S
* at 1Re (OH_Pil16_S_Re_fit) (1)
real*4 e_OH_Pil16_SRe ! [0.0014/1.4]? OH-Pil16-SRe
* uncertainty
* (e_OH_Pil16_S_Re_fit)
real*8 OH_Pil16_Sa ! [-1.8/1.5]? Slope of the O/H
* gradient using the calibrator
* Pil16_S in dex/Re
* (OH_Pil16_S_alpha_fit)
real*4 e_OH_Pil16_Sa ! [0.0012/1.4]? OH-Pil16-Sa
* uncertainty
* (e_OH_Pil16_S_alpha_fit)
real*4 OH_HoRe ! [7.7/9.6]? Oxygen abundance
* using the calibrator Ho at
* 1Re (OH_Ho_Re_fit) (1)
real*4 e_OH_HoRe ! [0.0015/1.1]? OH-HoRe
* uncertainty (e_OH_Ho_Re_fit)
real*8 OH_Hoa ! [-0.9/1.2]? Slope of the O/H
* gradient using the calibrator
* Ho in dex/Re (OH_Ho_alpha_fit)
real*4 e_OH_Hoa ! [0.0013/1.2]? OH-Hoa
* uncertainty
* (e_OH_Ho_alpha_fit)
real*8 U_Dors_O32Re ! [-4.5/-1]? Log(U) ionization
* parameter using the
* calibrator Dors_O32 at 1Re
* (U_Dors_O32_Re_fit) (1)
real*4 e_U_Dors_O32Re ! [0.0048/3]? U-Dors-O32Re
* uncertainty
* (e_U_Dors_O32_Re_fit)
real*8 U_Dors_O32a ! [-1.93/2.4]? Slope of the
* log(U) gradient using the
* calibrator Dors_O32 in dex/Re
* (U_Dors_O32_alpha_fit)
real*4 e_U_Dors_O32a ! [0.004/2]? U-Dors-O32a
* uncertainty
* (e_U_Dors_O32_alpha_fit)
real*8 U_Dors_SRe ! [-5.21/1.8]? Log(U)
* ionization parameter using
* the calibrator Dors_S at 1Re
* (U_Dors_S_Re_fit) (1)
real*4 e_U_Dors_SRe ! [0.004/4]? U-Dors-SRe
* uncertainty
* (e_U_Dors_S_Re_fit)
real*8 U_Dors_Sa ! [-3.1/2.4]? Slope of the
* log(U) gradient using the
* calibrator Dors_S in dex/Re
* (U_Dors_S_alpha_fit)
real*4 e_U_Dors_Sa ! [0.003/2.5]? U-Dors-Sa
* uncertainty
* (e_U_Dors_S_alpha_fit)
real*8 U_Mor16_O23fsRe ! [-7/-0.3]? Log(U) ionization
* parameter using the
* calibrator Mor16_O23_fs at
* 1Re (U_Mor16_O23_fs_Re_fit) (1)
real*4 e_U_Mor16_O23fsRe ! [0.009/6]? U-Mor16-O23fsRe
* uncertainty
* (e_U_Mor16_O23_fs_Re_fit)
real*8 U_Mor16_O23fsa ! [-3.8/4.5]? Slope of the
* log(U) gradient using the
* calibrator Mor16_O23_fs in
* dex/Re
* (U_Mor16_O23_fs_alpha_fit)
real*4 e_U_Mor16_O23fsa ! [0.007/4]? U-Mor16-O23fsa
* uncertainty
* (e_U_Mor16_O23_fs_alpha_fit)
real*8 U_Mor16_O23tsRe ! [-4.7/-1.8]? Log(U)
* ionization parameter using
* the calibrator Mor16_O23_ts
* at 1Re
* (U_Mor16_O23_ts_Re_fit) (1)
real*4 e_U_Mor16_O23tsRe ! [0.0039/2.4]? U-Mor16-O23tsRe
* uncertainty
* (e_U_Mor16_O23_ts_Re_fit)
real*8 U_Mor16_O23tsa ! [-1.6/2]? Slope of the log(U)
* gradient using the calibrator
* Mor16_O23_ts in dex/Re
* (U_Mor16_O23_ts_alpha_fit)
real*4 e_U_Mor16_O23tsa ! [0.003/1.6]? U-Mor16-O23tsa
* uncertainty
* (e_U_Mor16_O23_ts_alpha_fit)
real*4 NH_Pil16RRe ! [5.3/9.1]? Nitrogen abundance
* using the calibrator Pil16_R
* at 1Re (NH_Pil16_R_Re_fit) (1)
real*4 e_NH_Pil16RRe ! [0.003/2]? NH-Pil16RRe
* uncertainty
* (e_NH_Pil16_R_Re_fit)
real*8 NH_Pil16Ra ! [-2.7/2.6]? Slope of the N/H
* gradient using the calibrator
* Pil16_R in dex/Re
* (NH_Pil16_R_alpha_fit)
real*4 e_NH_Pil16Ra ! [0.003/2]? NH-Pil16Ra
* uncertainty
* (e_NH_Pil16_R_alpha_fit)
real*8 NO_Pil16RRe ! [-2.7/0.5]? N/O abundance
* using the calibrator Pil16_R
* at 1Re (NO_Pil16_R_Re_fit) (1)
real*4 e_NO_Pil16RRe ! [0.003/3.1]? NO-Pil16RRe
* uncertainty
* (e_NO_Pil16_R_Re_fit)
real*8 NO_Pil16Ra ! [-2.4/1.9]? Slope of the N/O
* gradient using the calibrator
* Pil16_R in dex/Re
* (NO_Pil16_R_alpha_fit)
real*4 e_NO_Pil16Ra ! [0.0029/2]? NO-Pil16Ra
* uncertainty
* (e_NO_Pil16_R_alpha_fit)
real*8 NO_Pil16_HoRRe ! [-3.5/0.5]? N/O abundance
* using the calibrator
* Pil16_Ho_R at 1Re
* (NO_Pil16_Ho_R_Re_fit) (1)
real*4 e_NO_Pil16_HoRRe ! [0.0028/2.3]? NO-Pil16-HoRRe
* uncertainty
* (e_NO_Pil16_Ho_R_Re_fit)
real*8 NO_Pil16_HoRa ! [-2.9/2.7]? Slope of the N/O
* gradient using the calibrator
* Pil16_Ho_R in dex/Re
* (NO_Pil16_Ho_R_alpha_fit)
real*4 e_NO_Pil16_HoRa ! [0.002/2.2]? NO-Pil16-HoRa
* uncertainty
* (e_NO_Pil16_Ho_R_alpha_fit)
real*8 NO_Pil16_N2R2Re ! [-1.61/-0.27]? N/O abundance
* using the calibrator
* Pil16_N2_R2 at 1Re
* (NO_Pil16_N2_R2_Re_fit) (1)
real*4 e_NO_Pil16_N2R2Re ! [0.0029/1.2]? NO-Pil16-N2R2Re
* uncertainty
* (e_NO_Pil16_N2_R2_Re_fit)
real*8 NO_Pil16_N2R2a ! [-1.2/1.1]? Slope of the N/O
* gradient using the calibrator
* Pil16_N2_R2 in dex/Re
* (NO_Pil16_N2_R2_alpha_fit) (1)
real*4 e_NO_Pil16_N2R2a ! [0.002/0.8]? NO-Pil16-N2R2a
* uncertainty
* (e_NO_Pil16_N2_R2_alpha_fit)
real*4 Ne_Oster_SRe ! [1.39/3.6]? Electron density
* using the Oster_S estimator
* at 1Re (Ne_Oster_S_Re_fit)
real*4 e_Ne_Oster_SRe ! [0.015/1]? Ne-Oster-SRe
* uncertainty
* (e_Ne_Oster_S_Re_fit)
real*4 Ne_Oster_Sa ! [-0.98/1.6]? Slope of the n_e
* gradient using the Oster_S
* estimator in dex/Re
* (Ne_Oster_S_alpha_fit)
real*4 e_Ne_Oster_Sa ! [0.013/0.7]? Ne-Oster-Sa
* uncertainty
* (e_Ne_Oster_S_alpha_fit)
real*4 HdRe ! (0.1nm) [-3.61/11]? Value of the Hd
* stellar index at 1Re in {AA}
* (Hd_Re_fit)
real*4 e_HdRe ! (0.1nm) [0.02/4.4]? HdRe uncertainty
* (e_Hd_Re_fit)
real*8 Hda ! [-32.3/17]? Slope of the
* gradient of the Hd index in
* {AA}/Re (Hd_alpha_fit)
real*4 e_Hda ! [0.03/6]? Hda uncertainty
* (e_Hd_alpha_fit)
real*4 HbRe ! (0.1nm) [-2.02/16.2]? Value of the
* H{beta} stellar index at 1Re
* in {AA} (Hb_Re_fit)
real*4 e_HbRe ! (0.1nm) [0.018/6]? HbRe uncertainty
* (e_Hb_Re_fit)
real*8 Hba ! [-7.3/14]? Slope of the
* gradient of the H{beta} index
* in {AA}/Re (Hb_alpha_fit)
real*4 e_Hba ! [0.015/7.5]? Hba uncertainty
* (e_Hb_alpha_fit)
real*4 MgbRe ! (0.1nm) [-2.8/16.2]? Value of the Mgb
* stellar index at 1Re in {AA}
* (Mgb_Re_fit)
real*4 e_MgbRe ! (0.1nm) [0.019/6]? MgbRe uncertainty
* (e_Mgb_Re_fit)
real*4 Mgba ! [-8.8/17]? Slope of the
* gradient of the Mgb index in
* {AA}/Re (Mgb_alpha_fit)
real*4 e_Mgba ! [0.016/10]? Mgba uncertainty
* (e_Mgb_alpha_fit)
real*4 Fe5270Re ! (0.1nm) [-3.7/22.2]? Value of the
* Fe5270 stellar index at 1Re
* in {AA} (Fe5270_Re_fit)
real*4 e_Fe5270Re ! (0.1nm) [0.017/5]? Fe5270Re
* uncertainty (e_Fe5270_Re_fit)
real*4 Fe5270a ! [-9.3/32]? Slope of the
* gradient of the Fe5270 index
* in {AA}/Re (Fe5270_alpha_fit)
real*4 e_Fe5270a ! [0.015/9]? Fe5270a
* uncertainty
* (e_Fe5270_alpha_fit)
real*4 Fe5335Re ! (0.1nm) [-3.8/21]? Value of the
* Fe5335 stellar index at 1Re
* in {AA} (Fe5335_Re_fit)
real*4 e_Fe5335Re ! (0.1nm) [0.016/18]? Fe5335Re
* uncertainty (e_Fe5335_Re_fit)
real*8 Fe5335a ! [-12/24]? Slope of the
* gradient of the Fe5335 index
* in {AA}/Re (Fe5335_alpha_fit)
real*4 e_Fe5335a ! [0.013/12]? Fe5335a
* uncertainty
* (e_Fe5335_alpha_fit)
real*4 D4000Re ! [0.57/4.6]? Value of the
* D4000 stellar index at 1Re
* (D4000_Re_fit1)
real*4 e_D4000Re ! [0.002/1.3]? D4000Re
* uncertainty (e_D4000_Re_fit)
real*8 D4000a ! [-0.8/6]? Slope of the
* gradient of the D4000 index
* (D4000_alpha_fit)
real*4 e_D4000a ! [0.002/1.5]? D4000a
* uncertainty
* (e_D4000_alpha_fit)
real*4 HdmodRe ! (0.1nm) [-3.2/14]? Value of the Hdmod
* stellar index at 1Re in {AA}
* (Hdmod_Re_fit)
real*4 e_HdmodRe ! (0.1nm) [0.05/6]? HdmodRe uncertainty
* (e_Hdmod_Re_fit)
real*8 Hdmoda ! [-27/24]? Slope of the
* gradient of the Hdmod index
* in {AA}/Re (Hdmod_alpha_fit)
real*4 e_Hdmoda ! [0.04/10]? Hdmoda uncertainty
* (e_Hdmod_alpha_fit)
real*4 HgRe ! (0.1nm) [-5/11]? Value of the Hg
* stellar index at 1Re in {AA}
* (Hg_Re_fit)
real*4 e_HgRe ! (0.1nm) [0.03/6]? HgRe uncertainty
* (e_Hg_Re_fit)
real*4 Hga ! [-5.4/10]? Slope of the
* gradient of the Hg index in
* {AA}/Re (Hg_alpha_fit)
real*4 e_Hga ! [0.027/6]? Hga uncertainty
* (e_Hg_alpha_fit)
real*4 umag ! (mag) [14.48/23.15] u-band
* magnitude derived from the
* original cube (u_band_mag)
real*4 e_umag ! (mag) [0.05/6] Uncertainty on the
* umag (u_band_mag_error)
real*8 uMag_1 ! (mag) [-24.64/-7.9] u-band absolute
* magnitude derived from the
* original cube (u_band_abs_mag)
real*4 e_uMag_1 ! (mag) [0.05/6] uMag uncertainty
* (u_band_abs_mag_error)
real*4 gmag ! (mag) [13.41/20.83] g-band
* magnitude derived from the
* original cube (g_band_mag)
real*4 e_gmag ! (mag) [0.05/1.1] Uncertainty on the
* gmag (g_band_mag_error)
real*8 gMag_1 ! (mag) [-25.15/-8.61] g-band absolute
* magnitude derived from the
* original cube (g_band_abs_mag)
real*4 e_gMag_1 ! (mag) [0.05/1.1] gMag uncertainty
* (g_band_abs_mag_error)
real*4 rmag ! (mag) [12.75/20.4] r-band magnitude
* derived from the original
* cube (r_band_mag)
real*4 e_rmag ! (mag) [0.05/1.2] Uncertainty on the
* rmag (r_band_mag_error)
real*8 rMag_1 ! (mag) [-25.3/-8.7] r-band absolute
* magnitude derived from the
* original cube (r_band_abs_mag)
real*4 e_rMag_1 ! (mag) [0.05/1.2] rMag uncertainty
* (r_band_abs_mag_error)
real*4 imag ! (mag) [12.32/21.76] i-band
* magnitude derived from the
* original cube (i_band_mag)
real*4 e_imag ! (mag) [0.05/17.1] Uncertainty on
* the imag (i_band_mag_error)
real*8 iMag_1 ! (mag) [-25.4/-8.7] i-band absolute
* magnitude derived from the
* original cube (iMag)
real*4 e_iMag_1 ! (mag) [0.05/17.1] iMag uncertainty
* (iMag_error)
real*4 Bmag ! (mag) [13.6/20.6] B-band magnitude
* derived from the original
* cube (B_band_mag)
real*4 e_Bmag ! (mag) [0.05/0.8] Uncertainty on the
* Bmag (B_band_mag_error)
real*8 BMag_1 ! (mag) [-25.04/-8.5] B-band absolute
* magnitude derived from the
* original cube (B_band_abs_mag)
real*4 e_BMag_1 ! (mag) [0.05/0.8] BMag uncertainty
* (B_band_abs_mag_error)
real*4 Vmag ! (mag) [13.12/21.3] V-band magnitude
* derived from the original
* cube (V_band_mag)
real*4 e_Vmag ! (mag) [0.05/2] Uncertainty on the
* Vmag (V_band_mag_error)
real*8 VMag_1 ! (mag) [-25.25/-8.6] V-band absolute
* magnitude derived from the
* original cube (V_band_abs_mag)
real*4 e_VMag_1 ! (mag) [0.05/2] VMag uncertainty
* (V_band_abs_mag_error)
real*4 RJmag ! (mag) [12.66/20.35] R-band
* magnitude derived from the
* original cube (RJ_band_mag)
real*4 e_RJmag ! (mag) [0.05/1.3] Uncertainty on the
* RJmag (RJ_band_mag_error)
real*8 RJMag_1 ! (mag) [-25.3/-8.7] R-band absolute
* magnitude derived from the
* original cube
* (RJ_band_abs_mag)
real*4 e_RJMag_1 ! (mag) [0.05/1.3] RJMag uncertainty
* (RJ_band_abs_mag_error)
real*8 R50 ! (arcsec) [1.9/23] Radius at which half
* of the light within the FOV
* in the g-band is integrated
real*4 e_R50 ! (arcsec) [2.7e-5/9.6] R50 uncertainty
* (error_R50)
real*8 R90 ! (arcsec) [3.8/30.2] Radius at which
* 90% of the light within the
* FOV in the g-band is
* integrated
real*4 e_R90 ! (arcsec) [6e-7/2] R90 uncertainty
* (error_R90)
real*8 C ! [1/6] R90/R50 concentration
* index
real*4 e_C ! [5.9e-5/3.2] C uncertainty
real*4 B_V ! (mag) [-1/1.5] B-V color index
real*4 e_B_V ! (mag) [0.07/2.1] B-V uncertainty
* (error_B-V)
real*4 B_R ! (mag) [-0.28/2.2] B-R color index
real*4 e_B_R ! (mag) [0.07/1.6] B-R uncertainty
* (error_B-R)
real*4 logMph ! ([Msun]) [4.7/12] Stellar masses
* derived from the photometric
* data within the FOV
* (log_Mass_phot)
real*4 e_logMph ! ([Msun]) [0.13/4] logMph uncertainty
* (e_log_Mass_phot)
real*4 SBV1Re ! (mag/arcsec2) [17.8/38.9] V-band surface
* brightness at 1Re
* (V-band_SB_at_Re)
real*4 e_SBV1Re ! (mag/arcsec2) [0/9] SBV1Re uncertainty
* (error_V-band_SB_at_Re)
real*4 SBVR50 ! (mag/arcsec2) [18/39] V-band surface
* brightness at R50
* (V-band_SB_at_R_50)
real*4 e_SBVR50 ! (mag/arcsec2) [0/10] SBVR50 uncertainty
* (error_V-band_SB_at_R_50)
real*8 nNSA ! [0.5/6] NSA Sersic index
* (nsa_sersic_n_morph)
real*8 u_g ! (mag) [-3.2/9.2] u-g NSA color index
real*8 g_r ! (mag) [-0.94/2.5] g-r NSA color index
real*8 r_i ! (mag) [-2.2/2] r-i NSA color index
real*8 i_z ! (mag) [-7/2.8] i-z NSA color index
real*8 P_CD ! [0/1] Probability of being a
* cD galaxy
real*8 P_E ! [0/0.97] Probability of being
* an E galaxy
real*8 P_S0 ! [0.0001/0.94] Probability of
* being an S0 galaxy
real*8 P_Sa ! [0.0002/0.92] Probability of
* being an Sa galaxy
real*8 P_Sab ! [0.0001/0.8] Probability of
* being an Sab galaxy
real*8 P_Sb ! [0.0005/0.9] Probability of
* being an Sb galaxy
real*8 P_Sbc ! [0.0003/0.85] Probability of
* being an Sbc galaxy
real*8 P_Sc ! [0.0004/0.92] Probability of
* being an Sc galaxy
real*8 P_Scd ! [0/0.93] Probability of being
* an Scd galaxy
real*8 P_Sd ! [0/0.94] Probability of being
* an Sd galaxy
real*8 P_Sdm ! [0/0.99] Probability of being
* an Sdm galaxy
real*8 P_Sm ! [0/0.94] Probability of being
* an Sm galaxy
real*8 P_Irr ! [0/0.96] Probability of being
* an Irr galaxy
integer*4 Type ! [-2/10]? Best morphological
* type index based on the NN
* analysis (best_type_n)
character*3 Morph ! [nan] Morphological type
* derived by the NN analysis;
* always "nan" (best_type)
integer*4 NSAid ! [58/698275]? NSA identifier
* (nsa_nsaid)
real*8 w_Vmax ! [0/0.0012]? Weight for the
* volume correction in volume
* in Mpc^-3^/dex (Vmax_w)
real*8 w_Num ! [0/13314]? Weight for the
* volume correction in number
* (Num_w)
integer*4 Q ! [0/7]? QC flag: 0=good,
* 2=bad, >2 warning (QCFLAG)
*Note (1): List of oxygen, nitrogen, and ionization parameter calibrators
* adopted to estimate the values at the effective radius (see Table 15):
* ------------------------------------------------------------------------------
* ID at Re Emission lines Reference
* (central aperture) and ratios
* ------------------------------------------------------------------------------
* OH_Mar13_N2 (OH_N2) [NII]6548/H{alpha} Marino+ (2013,
* J/A+A/559/A114)
* OH_Mar13_O3N2 (OH_O3N2) O3N2 Marino+ (2013,
* J/A+A/559/A114)
* OH_T04 [NII]6548/H{alpha}, R_23_ Tremonti+
* 2004ApJ...613..898T
* OH_Pet04_N2_lin [NII]6548/H{alpha} Pettini & Pagel
* 2004MNRAS.348L..59P
* OH_Pet04_N2_poly [NII]6548/H{alpha} Pettini & Pagel
* 2004MNRAS.348L..59P
* OH_Pet04_O3N2 O3N2 Pettini & Pagel
* 2004MNRAS.348L..59P
* OH_Kew02_N2O2 [NII]6583/[OII]3727 Kewley & Dopita
* 2002ApJS..142...35K
* OH_Pil10_ONS (OH_ONS) [NII]6583/H{beta}, R_2_, R_3_, Pilyugin et al.
* P, [SII]/H{alpha} 2010ApJ...720.1738P
* OH_Pil10_ON [NII]6583/H{beta}, R_2_, R_3_, Pilyugin et al.
* [SII]/H{alpha} 2010ApJ...720.1738P
* OH_Pil11_NS [NII]6583/H{beta}, R_3_, Pilyugin & Mattsson
* [SII]/H{alpha} 2011MNRAS.412.1145P
* OH_Cur20_RS32 R_3_+[SII]/H{alpha}/H{alpha} Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_R3 R_3_ Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_O3O2 [OIII]5007, [OII]3727 + 29 Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_S2 [SII]/H{alpha} Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_R2 R_2_ Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_N2 [NII]6583/H{alpha} Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_R23 R_23_ Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_O3N2 R_3_, [NII]6583/H{alpha} Curti et al.
* 2020MNRAS.491..944C
* OH_Cur20_O3S2 R_3_/[SII]/H{alpha}/H{alpha} Curti et al.
* 2020MNRAS.491..944C
* OH_KK04 (OH_R23) R_23_, [OIII]/[OII] Kobulnicky & Kewley
* (2004, J/ApJ/617/240)
* OH_Pil16_R [NII]6583/H{beta}, R_2_, R_3_ Pilyugin & Grebel
* 2016MNRAS.457.3678P
* OH_Pil16_S [NII]6583/H{beta}, R_3_, Pilyugin & Grebel
* [SII]/H{alpha} 2016MNRAS.457.3678P
* OH_Ho R_2_, R_3_, [NII]6583/H{beta}, Ho I.-T.
* [SII]/H{alpha}/H{alpha} 2019MNRAS.485.3569H
*
* U_Dors_O32 [OIII]5007, [OII]3727 + 29 Dors et al.
* 2011MNRAS.415.3616D
* U_Dors_S2 [NII]6583/H{alpha}, Dors et al.
* [SII]/H{alpha} 2011MNRAS.415.3616D
* U_Mor16_O32_fs [OIII]5007, [OII]3727 + 29 Morisset et al.
* 2016A&A...594A..37M
* U_Mor16_O32_ts [OIII]5007, [OII]3727 + 29 Morisset et al.
* 2016A&A...594A..37M
*
* NH_Pil16_R [NII]6583/H{beta}, R_2_, R_3_ Pilyugin & Grebel
* 2016MNRAS.457.3678P
* NO_Pil16_R [NII]6583/H{beta}, R_2_, R_3_ Pilyugin & Grebel
* 2016MNRAS.457.3678P
* NO_Pil16_Ho_R [NII]6583/H{beta}, R_2_, R_3_, Pilyugin & Grebel
* [SII]/H{alpha}/H{alpha} 2016MNRAS.457.3678P and
* Ho (2019MNRAS.485.3569H)
* NO_Pil16_N2_R2 [NII]6583/H{beta}, R_2_, R_3_ Pilyugin & Grebel
* 2016MNRAS.457.3678P
* ------------------------------------------------------------------------------
C=============================================================================
C Loading file 'catalog.dat' ! Integrated and characteristic parameters delivered
* for each analyzed data cube
C Format for file interpretation
1 format(
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+ 1X,F7.5,1X,F8.5,1X,F7.5,1X,F9.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,
+ F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,
+ 1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,
+ F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,
+ 1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,
+ F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,
+ 1X,F8.5,1X,F8.5,1X,F8.5,1X,F8.5,1X,F8.5,1X,F7.5,1X,F9.5,1X,
+ F7.5,1X,F8.5,1X,F7.5,1X,F9.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,
+ 1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,
+ F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,
+ 1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,
+ F7.5,1X,F9.5,1X,F7.5,1X,F8.5,1X,F8.5,1X,F9.5,1X,F8.5,1X,F8.5,
+ 1X,F7.5,1X,F9.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,
+ F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,
+ 1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,
+ E10.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F8.5,
+ 1X,F7.5,1X,F6.4,1X,F6.4,1X,F8.5,1X,F7.5,1X,F7.5,1X,F7.5,1X,
+ F8.5,1X,F7.5,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F6.4,1X,F6.4,
+ 1X,F8.5,1X,F7.5,1X,F6.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F6.4,1X,
+ F6.4,1X,F8.5,1X,F7.5,1X,F6.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.5,
+ 1X,F7.5,1X,F8.5,1X,F7.5,1X,F6.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,
+ F6.4,1X,F6.4,1X,F8.5,1X,F7.5,1X,F6.4,1X,F6.4,1X,F8.5,1X,F7.5,
+ 1X,F6.4,1X,F6.4,1X,F8.5,1X,F7.5,1X,F6.4,1X,F6.4,1X,F7.4,1X,
+ F6.4,1X,F6.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F6.4,1X,F6.4,1X,F7.4,
+ 1X,F6.4,1X,F6.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F6.4,1X,F6.4,1X,
+ F7.4,1X,F6.4,1X,F7.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F6.4,1X,F6.4,
+ 1X,F7.4,1X,F6.4,1X,F7.5,1X,F7.5,1X,F8.5,1X,F7.5,1X,F6.4,1X,
+ F6.4,1X,F7.4,1X,F6.4,1X,F6.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F6.4,
+ 1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,
+ F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,
+ 1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F6.4,1X,F6.4,1X,F7.4,1X,
+ F6.4,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.4,
+ 1X,F6.4,1X,F7.4,1X,F6.4,1X,F7.4,1X,F6.4,1X,F5.3,1X,F5.3,1X,
+ F6.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,F7.3,1X,F5.3,1X,F6.3,1X,F5.3,
+ 1X,F7.3,1X,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,F6.3,1X,F6.3,1X,F7.3,1X,F6.3,1X,F6.4,
+ 1X,F6.4,1X,F7.4,1X,F6.4,1X,F6.3,1X,F5.3,1X,F7.3,1X,F5.3,1X,
+ F6.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,F7.3,1X,F5.3,
+ 1X,F6.3,1X,F5.3,1X,F7.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,F7.3,1X,
+ F5.3,1X,F6.3,1X,F6.3,1X,F7.3,1X,F6.3,1X,F6.3,1X,F5.3,1X,F7.3,
+ 1X,F5.3,1X,F6.3,1X,F5.3,1X,F7.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,
+ F7.3,1X,F5.3,1X,F8.5,1X,E10.5,1X,F8.5,1X,E10.5,1X,F7.5,1X,
+ E10.5,1X,F6.3,1X,F5.3,1X,F6.3,1X,F5.3,1X,F5.2,1X,F4.2,1X,F6.3,
+ 1X,F5.3,1X,F6.3,1X,F5.3,1X,F8.6,1X,F9.6,1X,F9.6,1X,F9.6,1X,
+ F9.6,1X,F8.6,1X,F8.6,1X,F8.6,1X,F8.6,1X,F8.6,1X,F8.6,1X,F8.6,
+ 1X,F8.6,1X,F8.6,1X,F8.6,1X,F8.6,1X,F8.6,1X,F8.6,1X,I2,1X,A3,
+ 1X,I6,1X,F8.6,1X,F8.2,1X,I1)
C Effective file loading
open(unit=1,status='old',file=
+'catalog.dat')
write(6,*) '....Loading file: catalog.dat'
do i__=1,10220
read(1,'(A4325)')ar__
read(ar__,1)
+ Name,Plate,IFUdsgn,PlateIFU,MaNGAId,RAdeg,DEdeg,logSFRHa,FoV,
+ Reff,e_logMass,e_logSFRHa,logMass,logSFRs,logNII_Hac,
+ e_logNII_Hac,logOIII_Hbc,e_logOIII_Hbc,logSII_Hac,
+ e_logSII_Hac,logOII_Hbc,e_logOII_Hbc,EWHac,e_EWHac,logZReLW,
+ e_logZReLW,alphaZReLW,e_alphaZReLW,logZReMW,e_logZReMW,
+ alphaZReMW,e_alphaZReMW,logAgeReLW,e_logAgeReLW,alphaAgeReLW,
+ e_alphaAgeReLW,logAgeReMW,e_logAgeReMW,alphaAgeReMW,
+ e_alphaAgeReMW,ReffA,DL,DA,PA,ell,logMassgas,vel_sig,
+ e_vel_sig,logSFRsf,logSFRdc,OH_O3N2c,e_OH_O3N2c,OH_N2c,
+ e_OH_N2c,OH_ONSc,e_OH_ONSc,OH_R23c,e_OH_R23c,OH_pyqzc,
+ e_OH_pyqzc,OH_t2c,e_OH_t2c,OH_M08c,e_OH_M08c,OH_T04c,
+ e_OH_T04c,OH_dopc,e_OH_dopc,OH_O3N2_EPc,e_OH_O3N2_EPc,
+ logOI_Hac,e_logOI_Hac,Ha_Hbc,e_Ha_Hbc,logNII_HaRe,
+ e_logNII_HaRe,logOIII_HbRe,e_logOIII_HbRe,logSII_HaRe,
+ e_logSII_HaRe,logOII_HbRe,e_logOII_HbRe,logOI_HaRe,
+ e_logOI_HaRe,EWHaRe,e_EWHaRe,Ha_HbRe,e_Ha_HbRe,logNII_Ha,
+ e_logNII_Ha,logOIII_Hb,e_logOIII_Hb,logSII_Ha,e_logSII_Ha,
+ logOII_Hb,e_logOII_Hb,logOI_Ha,e_logOI_Ha,EWHa,e_EWHa,Ha_Hb,
+ logsigMc,e_logsigMc,logsigMRe,e_logsigMRe,logsigM,e_logsigM,
+ T30,Z_T30,Z_T30Re,aZ_T30,T40,Z_T40,Z_T40Re,aZ_T40,T50,Z_T50,
+ Z_T50Re,aZ_T50,T60,Z_T60,Z_T60Re,aZ_T60,T70,Z_T70,Z_T70Re,
+ aZH_T70,T80,Z_T80,Z_T80Re,aZ_T80,T90,Z_T90,Z_T90Re,aZ_T90,T95,
+ Z_T95,Z_T95Re,aZ_T95,T99,Z_T99,Z_T99Re,aZ_T99,logMgasAvg,
+ logMgasAvs,Vels2Re,e_Vels2Re,VelHa2Re,e_VelHa2Re,Vels1Re,
+ e_Vels1Re,VelHa1Re,e_VelHa1Re,logSFRs100,logSFRs10,VdispHac,
+ Vdispsc,VdispHa1re,Vdisps1Re,logM1Re,MLint,MLavg,FHac,e_FHac,
+ R50V,e_R50V,R50M,e_R50M,logMR50V,e_logMR50V,logMgasAvgl,
+ Avgas1Re,e_Avgas1Re,Avs,e_Avs,Lambda1Re,e_Lambda1Re,zNSA,MNSA,
+ IncNSA,F_OII_26Re,e_F_OII_26Re,F_OII_26a,e_F_OII_26a,
+ F_OII_28Re,e_F_OII_28Re,F_OII_28a,e_F_OII_28a,FHI34Re,
+ e_FHI34Re,FHI34a,e_FHI34a,FHI97Re,e_FHI97Re,FHI97a,e_FHI97a,
+ FHeI38Re,e_FHeI38Re,FHeI38a,e_FHeI38a,FHI89Re,e_FHI89Re,
+ FHI89a,e_FHI89a,FHeI39Re,e_FHeI39Re,FHeI39a,e_FHeI39a,
+ F_NeIII_Re,e_F_NeIII_Re,F_NeIII_a,e_F_NeIII_a,FCaIIRe,
+ e_FCaIIRe,FCaIIa,e_FCaIIa,FHepsRe,e_FHepsRe,FHepsa,e_FHepsa,
+ FHdRe,e_FHdRe,FHda,e_FHda,FHgRe,e_FHgRe,FHga,e_FHga,FHbRe,
+ e_FHbRe,FHba,e_FHba,F_OIII_49Re,e_F_OIII_49Re,F_OIII_49a,
+ e_F_OIII_49a,F_OIII_50Re,e_F_OIII_50Re,F_OIII_50a,
+ e_F_OIII_50a,FHeI50Re,e_FHeI50Re,FHeI50a,e_FHeI50a,F_NI_51Re,
+ e_F_NI_51Re,F_NI_51a,e_F_NI_51a,F_NI_52Re,e_F_NI_52Re,
+ F_NI_52a,e_F_NI_52a,FHeI58Re,e_FHeI58Re,FHeI58a,e_FHeI58a,
+ FNaI89Re,e_FNaI89Re,FNaI89a,e_FNaI89a,FNaI95Re,e_FNaI95Re,
+ FNaI95a,e_FNaI95a,F_OI_Re,e_F_OI_Re,F_OI_a,e_F_OI_a,
+ F_NII_48Re,e_F_NII_48Re,F_NII_48a,e_F_NII_48a,FHaRe,e_FHaRe,
+ FHaa,e_FHaa,F_NII_83Re,e_F_NII_83Re,F_NII_83a,e_F_NII_83a,
+ F_SII_16Re,e_F_SII_16Re,F_SII_16a,e_F_SII_16a,F_SII_30Re,
+ e_F_SII_30Re,F_SII_30a,e_F_SII_30a,F_ArIII_Re,e_F_ArIII_Re,
+ F_ArIII_a,e_F_ArIII_a,FHI14Re,e_FHI14Re,FHI14a,e_FHI14a,
+ F_SIII_90Re,e_F_SIII_90Re,F_SIII_90a,e_F_SIII_90a,F_FeII_Re,
+ e_F_FeII_Re,F_FeII_a,e_F_FeII_a,F_SIII_95Re,e_F_SIII_95Re,
+ F_SIII_95a,e_F_SIII_95a,OH_Mar13_N2Re,e_OH_Mar13_N2Re,
+ OH_Mar13_N2a,e_OH_Mar13_N2a,OH_Mar13_O3N2Re,e_OH_Mar13_O3N2Re,
+ OH_Mar13_O3N2a,e_OH_Mar13_O3N2a,OH_T04Re,e_OH_T04Re,OH_T04a,
+ e_OH_T04a,OH_Pet04_N2linRe,e_OH_Pet04_N2linRe,OH_Pet04_N2lina,
+ e_OH_Pet04_N2lina,OH_Pet04_N2polRe,e_OH_Pet04_N2polRe,
+ OH_Pet04_N2pola,e_OH_Pet04_N2pola,OH_Pet04_O3N2Re,
+ e_OH_Pet04_O3N2Re,OH_Pet04_O3N2a,e_OH_Pet04_O3N2a,
+ OH_Kew02_N2O2Re,e_OH_Kew02_N2O2Re,OH_Kew02_N2O2a,
+ e_OH_Kew02_N2O2a,OH_Pil10_ONSRe,e_OH_Pil10_ONSRe,
+ OH_Pil10_ONSa,e_OH_Pil10_ONSa,OH_Pil10_ONRe,e_OH_Pil10_ONRe,
+ OH_Pil10_ONa,e_OH_Pil10_ONa,OH_Pil11_NSRe,e_OH_Pil11_NSRe,
+ OH_Pil11_NSa,e_OH_Pil11_NSa,OH_Cur20_RS32Re,e_OH_Cur20_RS32Re,
+ OH_Cur20_RS32a,e_OH_Cur20_RS32a,OH_Cur20_R3Re,e_OH_Cur20_R3Re,
+ OH_Cur20_R3a,e_OH_Cur20_R3a,OH_Cur20_O3O2Re,e_OH_Cur20_O3O2Re,
+ OH_Cur20_O3O2a,e_OH_Cur20_O3O2a,OH_Cur20_S2Re,e_OH_Cur20_S2Re,
+ OH_Cur20_S2a,e_OH_Cur20_S2a,OH_Cur20_R2Re,e_OH_Cur20_R2Re,
+ OH_Cur20_R2a,e_OH_Cur20_R2a,OH_Cur20_N2Re,e_OH_Cur20_N2Re,
+ OH_Cur20_N2a,e_OH_Cur20_N2a,OH_Cur20_R23Re,e_OH_Cur20_R23Re,
+ OH_Cur20_R23a,e_OH_Cur20_R23a,OH_Cur20_O3N2Re,
+ e_OH_Cur20_O3N2Re,OH_Cur20_O3N2a,e_OH_Cur20_O3N2a,
+ OH_Cur20_O3S2Re,e_OH_Cur20_O3S2Re,OH_Cur20_O3S2a,
+ e_OH_Cur20_O3S2a,OH_KK04Re,e_OH_KK04Re,OH_KK04a,e_OH_KK04a,
+ OH_Pil16_RRe,e_OH_Pil16_RRe,OH_Pil16_Ra,e_OH_Pil16_Ra,
+ OH_Pil16_SRe,e_OH_Pil16_SRe,OH_Pil16_Sa,e_OH_Pil16_Sa,OH_HoRe,
+ e_OH_HoRe,OH_Hoa,e_OH_Hoa,U_Dors_O32Re,e_U_Dors_O32Re,
+ U_Dors_O32a,e_U_Dors_O32a,U_Dors_SRe,e_U_Dors_SRe,U_Dors_Sa,
+ e_U_Dors_Sa,U_Mor16_O23fsRe,e_U_Mor16_O23fsRe,U_Mor16_O23fsa,
+ e_U_Mor16_O23fsa,U_Mor16_O23tsRe,e_U_Mor16_O23tsRe,
+ U_Mor16_O23tsa,e_U_Mor16_O23tsa,NH_Pil16RRe,e_NH_Pil16RRe,
+ NH_Pil16Ra,e_NH_Pil16Ra,NO_Pil16RRe,e_NO_Pil16RRe,NO_Pil16Ra,
+ e_NO_Pil16Ra,NO_Pil16_HoRRe,e_NO_Pil16_HoRRe,NO_Pil16_HoRa,
+ e_NO_Pil16_HoRa,NO_Pil16_N2R2Re,e_NO_Pil16_N2R2Re,
+ NO_Pil16_N2R2a,e_NO_Pil16_N2R2a,Ne_Oster_SRe,e_Ne_Oster_SRe,
+ Ne_Oster_Sa,e_Ne_Oster_Sa,HdRe,e_HdRe,Hda,e_Hda,HbRe,e_HbRe,
+ Hba,e_Hba,MgbRe,e_MgbRe,Mgba,e_Mgba,Fe5270Re,e_Fe5270Re,
+ Fe5270a,e_Fe5270a,Fe5335Re,e_Fe5335Re,Fe5335a,e_Fe5335a,
+ D4000Re,e_D4000Re,D4000a,e_D4000a,HdmodRe,e_HdmodRe,Hdmoda,
+ e_Hdmoda,HgRe,e_HgRe,Hga,e_Hga,umag,e_umag,uMag_1,e_uMag_1,
+ gmag,e_gmag,gMag_1,e_gMag_1,rmag,e_rmag,rMag_1,e_rMag_1,imag,
+ e_imag,iMag_1,e_iMag_1,Bmag,e_Bmag,BMag_1,e_BMag_1,Vmag,
+ e_Vmag,VMag_1,e_VMag_1,RJmag,e_RJmag,RJMag_1,e_RJMag_1,R50,
+ e_R50,R90,e_R90,C,e_C,B_V,e_B_V,B_R,e_B_R,logMph,e_logMph,
+ SBV1Re,e_SBV1Re,SBVR50,e_SBVR50,nNSA,u_g,g_r,r_i,i_z,P_CD,P_E,
+ P_S0,P_Sa,P_Sab,P_Sb,P_Sbc,P_Sc,P_Scd,P_Sd,P_Sdm,P_Sm,P_Irr,
+ Type,Morph,NSAid,w_Vmax,w_Num,Q
if(ar__(19:23) .EQ. '') Plate = iNULL__
if(ar__(76:82) .EQ. '') logSFRHa = rNULL__
if(ar__(126:132) .EQ. '') logSFRs = rNULL__
if(ar__(134:142) .EQ. '') logNII_Hac = rNULL__
if(ar__(144:153) .EQ. '') e_logNII_Hac = rNULL__
if(ar__(155:162) .EQ. '') logOIII_Hbc = rNULL__
if(ar__(164:170) .EQ. '') e_logOIII_Hbc = rNULL__
if(ar__(172:179) .EQ. '') logSII_Hac = rNULL__
if(ar__(181:187) .EQ. '') e_logSII_Hac = rNULL__
if(ar__(189:196) .EQ. '') logOII_Hbc = rNULL__
if(ar__(198:204) .EQ. '') e_logOII_Hbc = rNULL__
if(ar__(206:213) .EQ. '') EWHac = rNULL__
if(ar__(215:221) .EQ. '') e_EWHac = rNULL__
if(ar__(231:236) .EQ. '') e_logZReLW = rNULL__
if(ar__(238:244) .EQ. '') alphaZReLW = rNULL__
if(ar__(246:251) .EQ. '') e_alphaZReLW = rNULL__
if(ar__(253:259) .EQ. '') logZReMW = rNULL__
if(ar__(261:266) .EQ. '') e_logZReMW = rNULL__
if(ar__(268:274) .EQ. '') alphaZReMW = rNULL__
if(ar__(276:281) .EQ. '') e_alphaZReMW = rNULL__
if(ar__(283:289) .EQ. '') logAgeReLW = rNULL__
if(ar__(291:297) .EQ. '') e_logAgeReLW = rNULL__
if(ar__(299:306) .EQ. '') alphaAgeReLW = rNULL__
if(ar__(308:314) .EQ. '') e_alphaAgeReLW = rNULL__
if(ar__(316:323) .EQ. '') logAgeReMW = rNULL__
if(ar__(325:331) .EQ. '') e_logAgeReMW = rNULL__
if(ar__(333:340) .EQ. '') alphaAgeReMW = rNULL__
if(ar__(342:348) .EQ. '') e_alphaAgeReMW = rNULL__
if(ar__(350:358) .EQ. '') ReffA = rNULL__
if(ar__(393:400) .EQ. '') logMassgas = rNULL__
if(ar__(402:407) .EQ. '') vel_sig = rNULL__
if(ar__(409:414) .EQ. '') e_vel_sig = rNULL__
if(ar__(416:422) .EQ. '') logSFRsf = rNULL__
if(ar__(424:430) .EQ. '') logSFRdc = rNULL__
if(ar__(432:439) .EQ. '') OH_O3N2c = rNULL__
if(ar__(441:451) .EQ. '') e_OH_O3N2c = rNULL__
if(ar__(453:460) .EQ. '') OH_N2c = rNULL__
if(ar__(462:468) .EQ. '') e_OH_N2c = rNULL__
if(ar__(470:476) .EQ. '') OH_ONSc = rNULL__
if(ar__(478:487) .EQ. '') e_OH_ONSc = rNULL__
if(ar__(489:497) .EQ. '') OH_R23c = rNULL__
if(ar__(499:506) .EQ. '') e_OH_R23c = rNULL__
if(ar__(508:514) .EQ. '') OH_pyqzc = rNULL__
if(ar__(516:522) .EQ. '') e_OH_pyqzc = rNULL__
if(ar__(524:530) .EQ. '') OH_t2c = rNULL__
if(ar__(532:538) .EQ. '') e_OH_t2c = rNULL__
if(ar__(540:547) .EQ. '') OH_M08c = rNULL__
if(ar__(549:556) .EQ. '') e_OH_M08c = rNULL__
if(ar__(558:566) .EQ. '') OH_T04c = rNULL__
if(ar__(568:575) .EQ. '') e_OH_T04c = rNULL__
if(ar__(577:587) .EQ. '') OH_dopc = rNULL__
if(ar__(589:599) .EQ. '') e_OH_dopc = rNULL__
if(ar__(601:608) .EQ. '') OH_O3N2_EPc = rNULL__
if(ar__(610:616) .EQ. '') e_OH_O3N2_EPc = rNULL__
if(ar__(618:625) .EQ. '') logOI_Hac = rNULL__
if(ar__(627:633) .EQ. '') e_logOI_Hac = rNULL__
if(ar__(635:644) .EQ. '') Ha_Hbc = rNULL__
if(ar__(646:654) .EQ. '') e_Ha_Hbc = rNULL__
if(ar__(656:663) .EQ. '') logNII_HaRe = rNULL__
if(ar__(665:671) .EQ. '') e_logNII_HaRe = rNULL__
if(ar__(673:680) .EQ. '') logOIII_HbRe = rNULL__
if(ar__(682:688) .EQ. '') e_logOIII_HbRe = rNULL__
if(ar__(690:697) .EQ. '') logSII_HaRe = rNULL__
if(ar__(699:705) .EQ. '') e_logSII_HaRe = rNULL__
if(ar__(707:714) .EQ. '') logOII_HbRe = rNULL__
if(ar__(716:722) .EQ. '') e_logOII_HbRe = rNULL__
if(ar__(724:731) .EQ. '') logOI_HaRe = rNULL__
if(ar__(733:739) .EQ. '') e_logOI_HaRe = rNULL__
if(ar__(741:748) .EQ. '') EWHaRe = rNULL__
if(ar__(750:756) .EQ. '') e_EWHaRe = rNULL__
if(ar__(758:764) .EQ. '') Ha_HbRe = rNULL__
if(ar__(766:772) .EQ. '') e_Ha_HbRe = rNULL__
if(ar__(774:781) .EQ. '') logNII_Ha = rNULL__
if(ar__(783:789) .EQ. '') e_logNII_Ha = rNULL__
if(ar__(791:798) .EQ. '') logOIII_Hb = rNULL__
if(ar__(800:806) .EQ. '') e_logOIII_Hb = rNULL__
if(ar__(808:815) .EQ. '') logSII_Ha = rNULL__
if(ar__(817:823) .EQ. '') e_logSII_Ha = rNULL__
if(ar__(825:832) .EQ. '') logOII_Hb = rNULL__
if(ar__(834:840) .EQ. '') e_logOII_Hb = rNULL__
if(ar__(842:849) .EQ. '') logOI_Ha = rNULL__
if(ar__(851:857) .EQ. '') e_logOI_Ha = rNULL__
if(ar__(859:866) .EQ. '') EWHa = rNULL__
if(ar__(868:874) .EQ. '') e_EWHa = rNULL__
if(ar__(876:881) .EQ. '') Ha_Hb = rNULL__
if(ar__(883:889) .EQ. '') logsigMc = rNULL__
if(ar__(891:897) .EQ. '') e_logsigMc = rNULL__
if(ar__(899:905) .EQ. '') logsigMRe = rNULL__
if(ar__(907:913) .EQ. '') e_logsigMRe = rNULL__
if(ar__(915:921) .EQ. '') logsigM = rNULL__
if(ar__(923:929) .EQ. '') e_logsigM = rNULL__
if(ar__(947:953) .EQ. '') Z_T30Re = rNULL__
if(ar__(955:961) .EQ. '') aZ_T30 = rNULL__
if(ar__(979:985) .EQ. '') Z_T40Re = rNULL__
if(ar__(987:993) .EQ. '') aZ_T40 = rNULL__
if(ar__(1011:1017) .EQ. '') Z_T50Re = rNULL__
if(ar__(1019:1025) .EQ. '') aZ_T50 = rNULL__
if(ar__(1043:1049) .EQ. '') Z_T60Re = rNULL__
if(ar__(1051:1057) .EQ. '') aZ_T60 = rNULL__
if(ar__(1075:1081) .EQ. '') Z_T70Re = rNULL__
if(ar__(1083:1089) .EQ. '') aZH_T70 = rNULL__
if(ar__(1107:1113) .EQ. '') Z_T80Re = rNULL__
if(ar__(1115:1121) .EQ. '') aZ_T80 = rNULL__
if(ar__(1139:1145) .EQ. '') Z_T90Re = rNULL__
if(ar__(1147:1153) .EQ. '') aZ_T90 = rNULL__
if(ar__(1171:1177) .EQ. '') Z_T95Re = rNULL__
if(ar__(1179:1185) .EQ. '') aZ_T95 = rNULL__
if(ar__(1202:1208) .EQ. '') Z_T99Re = rNULL__
if(ar__(1210:1216) .EQ. '') aZ_T99 = rNULL__
if(ar__(1218:1223) .EQ. '') logMgasAvg = rNULL__
if(ar__(1225:1230) .EQ. '') logMgasAvs = rNULL__
if(ar__(1232:1239) .EQ. '') Vels2Re = rNULL__
if(ar__(1241:1247) .EQ. '') e_Vels2Re = rNULL__
if(ar__(1249:1256) .EQ. '') VelHa2Re = rNULL__
if(ar__(1258:1264) .EQ. '') e_VelHa2Re = rNULL__
if(ar__(1266:1273) .EQ. '') Vels1Re = rNULL__
if(ar__(1275:1281) .EQ. '') e_Vels1Re = rNULL__
if(ar__(1283:1290) .EQ. '') VelHa1Re = rNULL__
if(ar__(1292:1298) .EQ. '') e_VelHa1Re = rNULL__
if(ar__(1300:1306) .EQ. '') logSFRs100 = rNULL__
if(ar__(1308:1314) .EQ. '') logSFRs10 = rNULL__
if(ar__(1316:1322) .EQ. '') VdispHac = rNULL__
if(ar__(1324:1330) .EQ. '') Vdispsc = rNULL__
if(ar__(1332:1338) .EQ. '') VdispHa1re = rNULL__
if(ar__(1340:1346) .EQ. '') Vdisps1Re = rNULL__
if(ar__(1348:1353) .EQ. '') logM1Re = rNULL__
if(ar__(1397:1403) .EQ. '') R50V = rNULL__
if(ar__(1405:1411) .EQ. '') e_R50V = rNULL__
if(ar__(1413:1419) .EQ. '') R50M = rNULL__
if(ar__(1421:1427) .EQ. '') e_R50M = rNULL__
if(ar__(1429:1435) .EQ. '') logMR50V = rNULL__
if(ar__(1444:1450) .EQ. '') logMgasAvgl = rNULL__
if(ar__(1452:1461) .EQ. '') Avgas1Re = rNULL__
if(ar__(1463:1469) .EQ. '') e_Avgas1Re = rNULL__
if(ar__(1471:1480) .EQ. '') Avs = rNULL__
if(ar__(1482:1488) .EQ. '') e_Avs = rNULL__
if(ar__(1490:1496) .EQ. '') Lambda1Re = rNULL__
if(ar__(1498:1507) .EQ. '') e_Lambda1Re = rNULL__
if(ar__(1509:1516) .EQ. '') zNSA = rNULL__
if(ar__(1518:1524) .EQ. '') MNSA = rNULL__
if(ar__(1526:1532) .EQ. '') IncNSA = rNULL__
if(ar__(1534:1541) .EQ. '') F_OII_26Re = rNULL__
if(ar__(1543:1549) .EQ. '') e_F_OII_26Re = rNULL__
if(ar__(1551:1559) .EQ. '') F_OII_26a = rNULL__
if(ar__(1561:1567) .EQ. '') e_F_OII_26a = rNULL__
if(ar__(1569:1576) .EQ. '') F_OII_28Re = rNULL__
if(ar__(1578:1584) .EQ. '') e_F_OII_28Re = rNULL__
if(ar__(1586:1594) .EQ. '') F_OII_28a = rNULL__
if(ar__(1596:1602) .EQ. '') e_F_OII_28a = rNULL__
if(ar__(1604:1611) .EQ. '') FHI34Re = rNULL__
if(ar__(1613:1619) .EQ. '') e_FHI34Re = rNULL__
if(ar__(1621:1629) .EQ. '') FHI34a = rNULL__
if(ar__(1631:1637) .EQ. '') e_FHI34a = rNULL__
if(ar__(1639:1646) .EQ. '') FHI97Re = rNULL__
if(ar__(1648:1654) .EQ. '') e_FHI97Re = rNULL__
if(ar__(1656:1663) .EQ. '') FHI97a = rNULL__
if(ar__(1665:1671) .EQ. '') e_FHI97a = rNULL__
if(ar__(1673:1680) .EQ. '') FHeI38Re = rNULL__
if(ar__(1682:1688) .EQ. '') e_FHeI38Re = rNULL__
if(ar__(1690:1697) .EQ. '') FHeI38a = rNULL__
if(ar__(1699:1705) .EQ. '') e_FHeI38a = rNULL__
if(ar__(1707:1714) .EQ. '') FHI89Re = rNULL__
if(ar__(1716:1722) .EQ. '') e_FHI89Re = rNULL__
if(ar__(1724:1731) .EQ. '') FHI89a = rNULL__
if(ar__(1733:1739) .EQ. '') e_FHI89a = rNULL__
if(ar__(1741:1748) .EQ. '') FHeI39Re = rNULL__
if(ar__(1750:1756) .EQ. '') e_FHeI39Re = rNULL__
if(ar__(1758:1765) .EQ. '') FHeI39a = rNULL__
if(ar__(1767:1773) .EQ. '') e_FHeI39a = rNULL__
if(ar__(1775:1782) .EQ. '') F_NeIII_Re = rNULL__
if(ar__(1784:1790) .EQ. '') e_F_NeIII_Re = rNULL__
if(ar__(1792:1799) .EQ. '') F_NeIII_a = rNULL__
if(ar__(1801:1807) .EQ. '') e_F_NeIII_a = rNULL__
if(ar__(1809:1816) .EQ. '') FCaIIRe = rNULL__
if(ar__(1818:1824) .EQ. '') e_FCaIIRe = rNULL__
if(ar__(1826:1833) .EQ. '') FCaIIa = rNULL__
if(ar__(1835:1841) .EQ. '') e_FCaIIa = rNULL__
if(ar__(1843:1850) .EQ. '') FHepsRe = rNULL__
if(ar__(1852:1858) .EQ. '') e_FHepsRe = rNULL__
if(ar__(1860:1867) .EQ. '') FHepsa = rNULL__
if(ar__(1869:1875) .EQ. '') e_FHepsa = rNULL__
if(ar__(1877:1884) .EQ. '') FHdRe = rNULL__
if(ar__(1886:1892) .EQ. '') e_FHdRe = rNULL__
if(ar__(1894:1901) .EQ. '') FHda = rNULL__
if(ar__(1903:1909) .EQ. '') e_FHda = rNULL__
if(ar__(1911:1918) .EQ. '') FHgRe = rNULL__
if(ar__(1920:1926) .EQ. '') e_FHgRe = rNULL__
if(ar__(1928:1935) .EQ. '') FHga = rNULL__
if(ar__(1937:1943) .EQ. '') e_FHga = rNULL__
if(ar__(1945:1952) .EQ. '') FHbRe = rNULL__
if(ar__(1954:1960) .EQ. '') e_FHbRe = rNULL__
if(ar__(1962:1969) .EQ. '') FHba = rNULL__
if(ar__(1971:1977) .EQ. '') e_FHba = rNULL__
if(ar__(1979:1986) .EQ. '') F_OIII_49Re = rNULL__
if(ar__(1988:1995) .EQ. '') e_F_OIII_49Re = rNULL__
if(ar__(1997:2004) .EQ. '') F_OIII_49a = rNULL__
if(ar__(2006:2013) .EQ. '') e_F_OIII_49a = rNULL__
if(ar__(2015:2022) .EQ. '') F_OIII_50Re = rNULL__
if(ar__(2024:2030) .EQ. '') e_F_OIII_50Re = rNULL__
if(ar__(2032:2040) .EQ. '') F_OIII_50a = rNULL__
if(ar__(2042:2048) .EQ. '') e_F_OIII_50a = rNULL__
if(ar__(2050:2057) .EQ. '') FHeI50Re = rNULL__
if(ar__(2059:2065) .EQ. '') e_FHeI50Re = rNULL__
if(ar__(2067:2075) .EQ. '') FHeI50a = rNULL__
if(ar__(2077:2083) .EQ. '') e_FHeI50a = rNULL__
if(ar__(2085:2092) .EQ. '') F_NI_51Re = rNULL__
if(ar__(2094:2100) .EQ. '') e_F_NI_51Re = rNULL__
if(ar__(2102:2109) .EQ. '') F_NI_51a = rNULL__
if(ar__(2111:2117) .EQ. '') e_F_NI_51a = rNULL__
if(ar__(2119:2126) .EQ. '') F_NI_52Re = rNULL__
if(ar__(2128:2134) .EQ. '') e_F_NI_52Re = rNULL__
if(ar__(2136:2143) .EQ. '') F_NI_52a = rNULL__
if(ar__(2145:2151) .EQ. '') e_F_NI_52a = rNULL__
if(ar__(2153:2160) .EQ. '') FHeI58Re = rNULL__
if(ar__(2162:2168) .EQ. '') e_FHeI58Re = rNULL__
if(ar__(2170:2177) .EQ. '') FHeI58a = rNULL__
if(ar__(2179:2185) .EQ. '') e_FHeI58a = rNULL__
if(ar__(2187:2194) .EQ. '') FNaI89Re = rNULL__
if(ar__(2196:2202) .EQ. '') e_FNaI89Re = rNULL__
if(ar__(2204:2211) .EQ. '') FNaI89a = rNULL__
if(ar__(2213:2219) .EQ. '') e_FNaI89a = rNULL__
if(ar__(2221:2228) .EQ. '') FNaI95Re = rNULL__
if(ar__(2230:2236) .EQ. '') e_FNaI95Re = rNULL__
if(ar__(2238:2245) .EQ. '') FNaI95a = rNULL__
if(ar__(2247:2253) .EQ. '') e_FNaI95a = rNULL__
if(ar__(2255:2262) .EQ. '') F_OI_Re = rNULL__
if(ar__(2264:2270) .EQ. '') e_F_OI_Re = rNULL__
if(ar__(2272:2279) .EQ. '') F_OI_a = rNULL__
if(ar__(2281:2287) .EQ. '') e_F_OI_a = rNULL__
if(ar__(2289:2296) .EQ. '') F_NII_48Re = rNULL__
if(ar__(2298:2304) .EQ. '') e_F_NII_48Re = rNULL__
if(ar__(2306:2314) .EQ. '') F_NII_48a = rNULL__
if(ar__(2316:2322) .EQ. '') e_F_NII_48a = rNULL__
if(ar__(2324:2331) .EQ. '') FHaRe = rNULL__
if(ar__(2333:2340) .EQ. '') e_FHaRe = rNULL__
if(ar__(2342:2350) .EQ. '') FHaa = rNULL__
if(ar__(2352:2359) .EQ. '') e_FHaa = rNULL__
if(ar__(2361:2368) .EQ. '') F_NII_83Re = rNULL__
if(ar__(2370:2376) .EQ. '') e_F_NII_83Re = rNULL__
if(ar__(2378:2386) .EQ. '') F_NII_83a = rNULL__
if(ar__(2388:2394) .EQ. '') e_F_NII_83a = rNULL__
if(ar__(2396:2403) .EQ. '') F_SII_16Re = rNULL__
if(ar__(2405:2411) .EQ. '') e_F_SII_16Re = rNULL__
if(ar__(2413:2420) .EQ. '') F_SII_16a = rNULL__
if(ar__(2422:2428) .EQ. '') e_F_SII_16a = rNULL__
if(ar__(2430:2437) .EQ. '') F_SII_30Re = rNULL__
if(ar__(2439:2445) .EQ. '') e_F_SII_30Re = rNULL__
if(ar__(2447:2454) .EQ. '') F_SII_30a = rNULL__
if(ar__(2456:2462) .EQ. '') e_F_SII_30a = rNULL__
if(ar__(2464:2471) .EQ. '') F_ArIII_Re = rNULL__
if(ar__(2473:2479) .EQ. '') e_F_ArIII_Re = rNULL__
if(ar__(2481:2488) .EQ. '') F_ArIII_a = rNULL__
if(ar__(2490:2496) .EQ. '') e_F_ArIII_a = rNULL__
if(ar__(2498:2505) .EQ. '') FHI14Re = rNULL__
if(ar__(2507:2513) .EQ. '') e_FHI14Re = rNULL__
if(ar__(2515:2522) .EQ. '') FHI14a = rNULL__
if(ar__(2524:2530) .EQ. '') e_FHI14a = rNULL__
if(ar__(2532:2539) .EQ. '') F_SIII_90Re = rNULL__
if(ar__(2541:2547) .EQ. '') e_F_SIII_90Re = rNULL__
if(ar__(2549:2556) .EQ. '') F_SIII_90a = rNULL__
if(ar__(2558:2567) .EQ. '') e_F_SIII_90a = rNULL__
if(ar__(2569:2576) .EQ. '') F_FeII_Re = rNULL__
if(ar__(2578:2584) .EQ. '') e_F_FeII_Re = rNULL__
if(ar__(2586:2593) .EQ. '') F_FeII_a = rNULL__
if(ar__(2595:2601) .EQ. '') e_F_FeII_a = rNULL__
if(ar__(2603:2610) .EQ. '') F_SIII_95Re = rNULL__
if(ar__(2612:2618) .EQ. '') e_F_SIII_95Re = rNULL__
if(ar__(2620:2627) .EQ. '') F_SIII_95a = rNULL__
if(ar__(2629:2635) .EQ. '') e_F_SIII_95a = rNULL__
if(ar__(2637:2642) .EQ. '') OH_Mar13_N2Re = rNULL__
if(ar__(2644:2649) .EQ. '') e_OH_Mar13_N2Re = rNULL__
if(ar__(2651:2658) .EQ. '') OH_Mar13_N2a = rNULL__
if(ar__(2660:2666) .EQ. '') e_OH_Mar13_N2a = rNULL__
if(ar__(2668:2674) .EQ. '') OH_Mar13_O3N2Re = rNULL__
if(ar__(2676:2682) .EQ. '') e_OH_Mar13_O3N2Re = rNULL__
if(ar__(2684:2691) .EQ. '') OH_Mar13_O3N2a = rNULL__
if(ar__(2693:2699) .EQ. '') e_OH_Mar13_O3N2a = rNULL__
if(ar__(2701:2707) .EQ. '') OH_T04Re = rNULL__
if(ar__(2709:2714) .EQ. '') e_OH_T04Re = rNULL__
if(ar__(2716:2722) .EQ. '') OH_T04a = rNULL__
if(ar__(2724:2729) .EQ. '') e_OH_T04a = rNULL__
if(ar__(2731:2736) .EQ. '') OH_Pet04_N2linRe = rNULL__
if(ar__(2738:2743) .EQ. '') e_OH_Pet04_N2linRe = rNULL__
if(ar__(2745:2752) .EQ. '') OH_Pet04_N2lina = rNULL__
if(ar__(2754:2760) .EQ. '') e_OH_Pet04_N2lina = rNULL__
if(ar__(2762:2767) .EQ. '') OH_Pet04_N2polRe = rNULL__
if(ar__(2769:2774) .EQ. '') e_OH_Pet04_N2polRe = rNULL__
if(ar__(2776:2782) .EQ. '') OH_Pet04_N2pola = rNULL__
if(ar__(2784:2789) .EQ. '') e_OH_Pet04_N2pola = rNULL__
if(ar__(2791:2796) .EQ. '') OH_Pet04_O3N2Re = rNULL__
if(ar__(2798:2803) .EQ. '') e_OH_Pet04_O3N2Re = rNULL__
if(ar__(2805:2812) .EQ. '') OH_Pet04_O3N2a = rNULL__
if(ar__(2814:2820) .EQ. '') e_OH_Pet04_O3N2a = rNULL__
if(ar__(2822:2827) .EQ. '') OH_Kew02_N2O2Re = rNULL__
if(ar__(2829:2834) .EQ. '') e_OH_Kew02_N2O2Re = rNULL__
if(ar__(2836:2842) .EQ. '') OH_Kew02_N2O2a = rNULL__
if(ar__(2844:2849) .EQ. '') e_OH_Kew02_N2O2a = rNULL__
if(ar__(2851:2857) .EQ. '') OH_Pil10_ONSRe = rNULL__
if(ar__(2859:2865) .EQ. '') e_OH_Pil10_ONSRe = rNULL__
if(ar__(2867:2874) .EQ. '') OH_Pil10_ONSa = rNULL__
if(ar__(2876:2882) .EQ. '') e_OH_Pil10_ONSa = rNULL__
if(ar__(2884:2889) .EQ. '') OH_Pil10_ONRe = rNULL__
if(ar__(2891:2896) .EQ. '') e_OH_Pil10_ONRe = rNULL__
if(ar__(2898:2904) .EQ. '') OH_Pil10_ONa = rNULL__
if(ar__(2906:2911) .EQ. '') e_OH_Pil10_ONa = rNULL__
if(ar__(2913:2918) .EQ. '') OH_Pil11_NSRe = rNULL__
if(ar__(2920:2925) .EQ. '') e_OH_Pil11_NSRe = rNULL__
if(ar__(2927:2934) .EQ. '') OH_Pil11_NSa = rNULL__
if(ar__(2936:2942) .EQ. '') e_OH_Pil11_NSa = rNULL__
if(ar__(2944:2949) .EQ. '') OH_Cur20_RS32Re = rNULL__
if(ar__(2951:2956) .EQ. '') e_OH_Cur20_RS32Re = rNULL__
if(ar__(2958:2965) .EQ. '') OH_Cur20_RS32a = rNULL__
if(ar__(2967:2973) .EQ. '') e_OH_Cur20_RS32a = rNULL__
if(ar__(2975:2980) .EQ. '') OH_Cur20_R3Re = rNULL__
if(ar__(2982:2987) .EQ. '') e_OH_Cur20_R3Re = rNULL__
if(ar__(2989:2996) .EQ. '') OH_Cur20_R3a = rNULL__
if(ar__(2998:3004) .EQ. '') e_OH_Cur20_R3a = rNULL__
if(ar__(3006:3011) .EQ. '') OH_Cur20_O3O2Re = rNULL__
if(ar__(3013:3018) .EQ. '') e_OH_Cur20_O3O2Re = rNULL__
if(ar__(3020:3026) .EQ. '') OH_Cur20_O3O2a = rNULL__
if(ar__(3028:3033) .EQ. '') e_OH_Cur20_O3O2a = rNULL__
if(ar__(3035:3040) .EQ. '') OH_Cur20_S2Re = rNULL__
if(ar__(3042:3047) .EQ. '') e_OH_Cur20_S2Re = rNULL__
if(ar__(3049:3055) .EQ. '') OH_Cur20_S2a = rNULL__
if(ar__(3057:3062) .EQ. '') e_OH_Cur20_S2a = rNULL__
if(ar__(3064:3069) .EQ. '') OH_Cur20_R2Re = rNULL__
if(ar__(3071:3076) .EQ. '') e_OH_Cur20_R2Re = rNULL__
if(ar__(3078:3084) .EQ. '') OH_Cur20_R2a = rNULL__
if(ar__(3086:3091) .EQ. '') e_OH_Cur20_R2a = rNULL__
if(ar__(3093:3098) .EQ. '') OH_Cur20_N2Re = rNULL__
if(ar__(3100:3105) .EQ. '') e_OH_Cur20_N2Re = rNULL__
if(ar__(3107:3113) .EQ. '') OH_Cur20_N2a = rNULL__
if(ar__(3115:3120) .EQ. '') e_OH_Cur20_N2a = rNULL__
if(ar__(3122:3127) .EQ. '') OH_Cur20_R23Re = rNULL__
if(ar__(3129:3134) .EQ. '') e_OH_Cur20_R23Re = rNULL__
if(ar__(3136:3142) .EQ. '') OH_Cur20_R23a = rNULL__
if(ar__(3144:3149) .EQ. '') e_OH_Cur20_R23a = rNULL__
if(ar__(3151:3157) .EQ. '') OH_Cur20_O3N2Re = rNULL__
if(ar__(3159:3165) .EQ. '') e_OH_Cur20_O3N2Re = rNULL__
if(ar__(3167:3174) .EQ. '') OH_Cur20_O3N2a = rNULL__
if(ar__(3176:3182) .EQ. '') e_OH_Cur20_O3N2a = rNULL__
if(ar__(3184:3189) .EQ. '') OH_Cur20_O3S2Re = rNULL__
if(ar__(3191:3196) .EQ. '') e_OH_Cur20_O3S2Re = rNULL__
if(ar__(3198:3204) .EQ. '') OH_Cur20_O3S2a = rNULL__
if(ar__(3206:3211) .EQ. '') e_OH_Cur20_O3S2a = rNULL__
if(ar__(3213:3219) .EQ. '') OH_KK04Re = rNULL__
if(ar__(3221:3227) .EQ. '') e_OH_KK04Re = rNULL__
if(ar__(3229:3236) .EQ. '') OH_KK04a = rNULL__
if(ar__(3238:3244) .EQ. '') e_OH_KK04a = rNULL__
if(ar__(3246:3251) .EQ. '') OH_Pil16_RRe = rNULL__
if(ar__(3253:3258) .EQ. '') e_OH_Pil16_RRe = rNULL__
if(ar__(3260:3266) .EQ. '') OH_Pil16_Ra = rNULL__
if(ar__(3268:3273) .EQ. '') e_OH_Pil16_Ra = rNULL__
if(ar__(3275:3280) .EQ. '') OH_Pil16_SRe = rNULL__
if(ar__(3282:3287) .EQ. '') e_OH_Pil16_SRe = rNULL__
if(ar__(3289:3295) .EQ. '') OH_Pil16_Sa = rNULL__
if(ar__(3297:3302) .EQ. '') e_OH_Pil16_Sa = rNULL__
if(ar__(3304:3309) .EQ. '') OH_HoRe = rNULL__
if(ar__(3311:3316) .EQ. '') e_OH_HoRe = rNULL__
if(ar__(3318:3324) .EQ. '') OH_Hoa = rNULL__
if(ar__(3326:3331) .EQ. '') e_OH_Hoa = rNULL__
if(ar__(3333:3339) .EQ. '') U_Dors_O32Re = rNULL__
if(ar__(3341:3346) .EQ. '') e_U_Dors_O32Re = rNULL__
if(ar__(3348:3354) .EQ. '') U_Dors_O32a = rNULL__
if(ar__(3356:3361) .EQ. '') e_U_Dors_O32a = rNULL__
if(ar__(3363:3369) .EQ. '') U_Dors_SRe = rNULL__
if(ar__(3371:3376) .EQ. '') e_U_Dors_SRe = rNULL__
if(ar__(3378:3384) .EQ. '') U_Dors_Sa = rNULL__
if(ar__(3386:3391) .EQ. '') e_U_Dors_Sa = rNULL__
if(ar__(3393:3399) .EQ. '') U_Mor16_O23fsRe = rNULL__
if(ar__(3401:3406) .EQ. '') e_U_Mor16_O23fsRe = rNULL__
if(ar__(3408:3414) .EQ. '') U_Mor16_O23fsa = rNULL__
if(ar__(3416:3421) .EQ. '') e_U_Mor16_O23fsa = rNULL__
if(ar__(3423:3429) .EQ. '') U_Mor16_O23tsRe = rNULL__
if(ar__(3431:3436) .EQ. '') e_U_Mor16_O23tsRe = rNULL__
if(ar__(3438:3444) .EQ. '') U_Mor16_O23tsa = rNULL__
if(ar__(3446:3451) .EQ. '') e_U_Mor16_O23tsa = rNULL__
if(ar__(3453:3458) .EQ. '') NH_Pil16RRe = rNULL__
if(ar__(3460:3465) .EQ. '') e_NH_Pil16RRe = rNULL__
if(ar__(3467:3473) .EQ. '') NH_Pil16Ra = rNULL__
if(ar__(3475:3480) .EQ. '') e_NH_Pil16Ra = rNULL__
if(ar__(3482:3488) .EQ. '') NO_Pil16RRe = rNULL__
if(ar__(3490:3495) .EQ. '') e_NO_Pil16RRe = rNULL__
if(ar__(3497:3503) .EQ. '') NO_Pil16Ra = rNULL__
if(ar__(3505:3510) .EQ. '') e_NO_Pil16Ra = rNULL__
if(ar__(3512:3518) .EQ. '') NO_Pil16_HoRRe = rNULL__
if(ar__(3520:3525) .EQ. '') e_NO_Pil16_HoRRe = rNULL__
if(ar__(3527:3533) .EQ. '') NO_Pil16_HoRa = rNULL__
if(ar__(3535:3540) .EQ. '') e_NO_Pil16_HoRa = rNULL__
if(ar__(3542:3548) .EQ. '') NO_Pil16_N2R2Re = rNULL__
if(ar__(3550:3555) .EQ. '') e_NO_Pil16_N2R2Re = rNULL__
if(ar__(3557:3563) .EQ. '') NO_Pil16_N2R2a = rNULL__
if(ar__(3565:3570) .EQ. '') e_NO_Pil16_N2R2a = rNULL__
if(ar__(3572:3576) .EQ. '') Ne_Oster_SRe = rNULL__
if(ar__(3578:3582) .EQ. '') e_Ne_Oster_SRe = rNULL__
if(ar__(3584:3589) .EQ. '') Ne_Oster_Sa = rNULL__
if(ar__(3591:3595) .EQ. '') e_Ne_Oster_Sa = rNULL__
if(ar__(3597:3602) .EQ. '') HdRe = rNULL__
if(ar__(3604:3608) .EQ. '') e_HdRe = rNULL__
if(ar__(3610:3616) .EQ. '') Hda = rNULL__
if(ar__(3618:3622) .EQ. '') e_Hda = rNULL__
if(ar__(3624:3629) .EQ. '') HbRe = rNULL__
if(ar__(3631:3635) .EQ. '') e_HbRe = rNULL__
if(ar__(3637:3643) .EQ. '') Hba = rNULL__
if(ar__(3645:3649) .EQ. '') e_Hba = rNULL__
if(ar__(3651:3656) .EQ. '') MgbRe = rNULL__
if(ar__(3658:3662) .EQ. '') e_MgbRe = rNULL__
if(ar__(3664:3669) .EQ. '') Mgba = rNULL__
if(ar__(3671:3675) .EQ. '') e_Mgba = rNULL__
if(ar__(3677:3682) .EQ. '') Fe5270Re = rNULL__
if(ar__(3684:3688) .EQ. '') e_Fe5270Re = rNULL__
if(ar__(3690:3695) .EQ. '') Fe5270a = rNULL__
if(ar__(3697:3701) .EQ. '') e_Fe5270a = rNULL__
if(ar__(3703:3708) .EQ. '') Fe5335Re = rNULL__
if(ar__(3710:3715) .EQ. '') e_Fe5335Re = rNULL__
if(ar__(3717:3723) .EQ. '') Fe5335a = rNULL__
if(ar__(3725:3730) .EQ. '') e_Fe5335a = rNULL__
if(ar__(3732:3737) .EQ. '') D4000Re = rNULL__
if(ar__(3739:3744) .EQ. '') e_D4000Re = rNULL__
if(ar__(3746:3752) .EQ. '') D4000a = rNULL__
if(ar__(3754:3759) .EQ. '') e_D4000a = rNULL__
if(ar__(3761:3766) .EQ. '') HdmodRe = rNULL__
if(ar__(3768:3772) .EQ. '') e_HdmodRe = rNULL__
if(ar__(3774:3780) .EQ. '') Hdmoda = rNULL__
if(ar__(3782:3786) .EQ. '') e_Hdmoda = rNULL__
if(ar__(3788:3793) .EQ. '') HgRe = rNULL__
if(ar__(3795:3799) .EQ. '') e_HgRe = rNULL__
if(ar__(3801:3806) .EQ. '') Hga = rNULL__
if(ar__(3808:3812) .EQ. '') e_Hga = rNULL__
if(ar__(4293:4294) .EQ. '') Type = iNULL__
if(ar__(4300:4305) .EQ. '') NSAid = iNULL__
if(ar__(4307:4314) .EQ. '') w_Vmax = rNULL__
if(ar__(4316:4323) .EQ. '') w_Num = rNULL__
if(ar__(4325:4325) .EQ. '') Q = iNULL__
c ..............Just test output...........
write(6,1)
+ Name,Plate,IFUdsgn,PlateIFU,MaNGAId,RAdeg,DEdeg,logSFRHa,FoV,
+ Reff,e_logMass,e_logSFRHa,logMass,logSFRs,logNII_Hac,
+ e_logNII_Hac,logOIII_Hbc,e_logOIII_Hbc,logSII_Hac,
+ e_logSII_Hac,logOII_Hbc,e_logOII_Hbc,EWHac,e_EWHac,logZReLW,
+ e_logZReLW,alphaZReLW,e_alphaZReLW,logZReMW,e_logZReMW,
+ alphaZReMW,e_alphaZReMW,logAgeReLW,e_logAgeReLW,alphaAgeReLW,
+ e_alphaAgeReLW,logAgeReMW,e_logAgeReMW,alphaAgeReMW,
+ e_alphaAgeReMW,ReffA,DL,DA,PA,ell,logMassgas,vel_sig,
+ e_vel_sig,logSFRsf,logSFRdc,OH_O3N2c,e_OH_O3N2c,OH_N2c,
+ e_OH_N2c,OH_ONSc,e_OH_ONSc,OH_R23c,e_OH_R23c,OH_pyqzc,
+ e_OH_pyqzc,OH_t2c,e_OH_t2c,OH_M08c,e_OH_M08c,OH_T04c,
+ e_OH_T04c,OH_dopc,e_OH_dopc,OH_O3N2_EPc,e_OH_O3N2_EPc,
+ logOI_Hac,e_logOI_Hac,Ha_Hbc,e_Ha_Hbc,logNII_HaRe,
+ e_logNII_HaRe,logOIII_HbRe,e_logOIII_HbRe,logSII_HaRe,
+ e_logSII_HaRe,logOII_HbRe,e_logOII_HbRe,logOI_HaRe,
+ e_logOI_HaRe,EWHaRe,e_EWHaRe,Ha_HbRe,e_Ha_HbRe,logNII_Ha,
+ e_logNII_Ha,logOIII_Hb,e_logOIII_Hb,logSII_Ha,e_logSII_Ha,
+ logOII_Hb,e_logOII_Hb,logOI_Ha,e_logOI_Ha,EWHa,e_EWHa,Ha_Hb,
+ logsigMc,e_logsigMc,logsigMRe,e_logsigMRe,logsigM,e_logsigM,
+ T30,Z_T30,Z_T30Re,aZ_T30,T40,Z_T40,Z_T40Re,aZ_T40,T50,Z_T50,
+ Z_T50Re,aZ_T50,T60,Z_T60,Z_T60Re,aZ_T60,T70,Z_T70,Z_T70Re,
+ aZH_T70,T80,Z_T80,Z_T80Re,aZ_T80,T90,Z_T90,Z_T90Re,aZ_T90,T95,
+ Z_T95,Z_T95Re,aZ_T95,T99,Z_T99,Z_T99Re,aZ_T99,logMgasAvg,
+ logMgasAvs,Vels2Re,e_Vels2Re,VelHa2Re,e_VelHa2Re,Vels1Re,
+ e_Vels1Re,VelHa1Re,e_VelHa1Re,logSFRs100,logSFRs10,VdispHac,
+ Vdispsc,VdispHa1re,Vdisps1Re,logM1Re,MLint,MLavg,FHac,e_FHac,
+ R50V,e_R50V,R50M,e_R50M,logMR50V,e_logMR50V,logMgasAvgl,
+ Avgas1Re,e_Avgas1Re,Avs,e_Avs,Lambda1Re,e_Lambda1Re,zNSA,MNSA,
+ IncNSA,F_OII_26Re,e_F_OII_26Re,F_OII_26a,e_F_OII_26a,
+ F_OII_28Re,e_F_OII_28Re,F_OII_28a,e_F_OII_28a,FHI34Re,
+ e_FHI34Re,FHI34a,e_FHI34a,FHI97Re,e_FHI97Re,FHI97a,e_FHI97a,
+ FHeI38Re,e_FHeI38Re,FHeI38a,e_FHeI38a,FHI89Re,e_FHI89Re,
+ FHI89a,e_FHI89a,FHeI39Re,e_FHeI39Re,FHeI39a,e_FHeI39a,
+ F_NeIII_Re,e_F_NeIII_Re,F_NeIII_a,e_F_NeIII_a,FCaIIRe,
+ e_FCaIIRe,FCaIIa,e_FCaIIa,FHepsRe,e_FHepsRe,FHepsa,e_FHepsa,
+ FHdRe,e_FHdRe,FHda,e_FHda,FHgRe,e_FHgRe,FHga,e_FHga,FHbRe,
+ e_FHbRe,FHba,e_FHba,F_OIII_49Re,e_F_OIII_49Re,F_OIII_49a,
+ e_F_OIII_49a,F_OIII_50Re,e_F_OIII_50Re,F_OIII_50a,
+ e_F_OIII_50a,FHeI50Re,e_FHeI50Re,FHeI50a,e_FHeI50a,F_NI_51Re,
+ e_F_NI_51Re,F_NI_51a,e_F_NI_51a,F_NI_52Re,e_F_NI_52Re,
+ F_NI_52a,e_F_NI_52a,FHeI58Re,e_FHeI58Re,FHeI58a,e_FHeI58a,
+ FNaI89Re,e_FNaI89Re,FNaI89a,e_FNaI89a,FNaI95Re,e_FNaI95Re,
+ FNaI95a,e_FNaI95a,F_OI_Re,e_F_OI_Re,F_OI_a,e_F_OI_a,
+ F_NII_48Re,e_F_NII_48Re,F_NII_48a,e_F_NII_48a,FHaRe,e_FHaRe,
+ FHaa,e_FHaa,F_NII_83Re,e_F_NII_83Re,F_NII_83a,e_F_NII_83a,
+ F_SII_16Re,e_F_SII_16Re,F_SII_16a,e_F_SII_16a,F_SII_30Re,
+ e_F_SII_30Re,F_SII_30a,e_F_SII_30a,F_ArIII_Re,e_F_ArIII_Re,
+ F_ArIII_a,e_F_ArIII_a,FHI14Re,e_FHI14Re,FHI14a,e_FHI14a,
+ F_SIII_90Re,e_F_SIII_90Re,F_SIII_90a,e_F_SIII_90a,F_FeII_Re,
+ e_F_FeII_Re,F_FeII_a,e_F_FeII_a,F_SIII_95Re,e_F_SIII_95Re,
+ F_SIII_95a,e_F_SIII_95a,OH_Mar13_N2Re,e_OH_Mar13_N2Re,
+ OH_Mar13_N2a,e_OH_Mar13_N2a,OH_Mar13_O3N2Re,e_OH_Mar13_O3N2Re,
+ OH_Mar13_O3N2a,e_OH_Mar13_O3N2a,OH_T04Re,e_OH_T04Re,OH_T04a,
+ e_OH_T04a,OH_Pet04_N2linRe,e_OH_Pet04_N2linRe,OH_Pet04_N2lina,
+ e_OH_Pet04_N2lina,OH_Pet04_N2polRe,e_OH_Pet04_N2polRe,
+ OH_Pet04_N2pola,e_OH_Pet04_N2pola,OH_Pet04_O3N2Re,
+ e_OH_Pet04_O3N2Re,OH_Pet04_O3N2a,e_OH_Pet04_O3N2a,
+ OH_Kew02_N2O2Re,e_OH_Kew02_N2O2Re,OH_Kew02_N2O2a,
+ e_OH_Kew02_N2O2a,OH_Pil10_ONSRe,e_OH_Pil10_ONSRe,
+ OH_Pil10_ONSa,e_OH_Pil10_ONSa,OH_Pil10_ONRe,e_OH_Pil10_ONRe,
+ OH_Pil10_ONa,e_OH_Pil10_ONa,OH_Pil11_NSRe,e_OH_Pil11_NSRe,
+ OH_Pil11_NSa,e_OH_Pil11_NSa,OH_Cur20_RS32Re,e_OH_Cur20_RS32Re,
+ OH_Cur20_RS32a,e_OH_Cur20_RS32a,OH_Cur20_R3Re,e_OH_Cur20_R3Re,
+ OH_Cur20_R3a,e_OH_Cur20_R3a,OH_Cur20_O3O2Re,e_OH_Cur20_O3O2Re,
+ OH_Cur20_O3O2a,e_OH_Cur20_O3O2a,OH_Cur20_S2Re,e_OH_Cur20_S2Re,
+ OH_Cur20_S2a,e_OH_Cur20_S2a,OH_Cur20_R2Re,e_OH_Cur20_R2Re,
+ OH_Cur20_R2a,e_OH_Cur20_R2a,OH_Cur20_N2Re,e_OH_Cur20_N2Re,
+ OH_Cur20_N2a,e_OH_Cur20_N2a,OH_Cur20_R23Re,e_OH_Cur20_R23Re,
+ OH_Cur20_R23a,e_OH_Cur20_R23a,OH_Cur20_O3N2Re,
+ e_OH_Cur20_O3N2Re,OH_Cur20_O3N2a,e_OH_Cur20_O3N2a,
+ OH_Cur20_O3S2Re,e_OH_Cur20_O3S2Re,OH_Cur20_O3S2a,
+ e_OH_Cur20_O3S2a,OH_KK04Re,e_OH_KK04Re,OH_KK04a,e_OH_KK04a,
+ OH_Pil16_RRe,e_OH_Pil16_RRe,OH_Pil16_Ra,e_OH_Pil16_Ra,
+ OH_Pil16_SRe,e_OH_Pil16_SRe,OH_Pil16_Sa,e_OH_Pil16_Sa,OH_HoRe,
+ e_OH_HoRe,OH_Hoa,e_OH_Hoa,U_Dors_O32Re,e_U_Dors_O32Re,
+ U_Dors_O32a,e_U_Dors_O32a,U_Dors_SRe,e_U_Dors_SRe,U_Dors_Sa,
+ e_U_Dors_Sa,U_Mor16_O23fsRe,e_U_Mor16_O23fsRe,U_Mor16_O23fsa,
+ e_U_Mor16_O23fsa,U_Mor16_O23tsRe,e_U_Mor16_O23tsRe,
+ U_Mor16_O23tsa,e_U_Mor16_O23tsa,NH_Pil16RRe,e_NH_Pil16RRe,
+ NH_Pil16Ra,e_NH_Pil16Ra,NO_Pil16RRe,e_NO_Pil16RRe,NO_Pil16Ra,
+ e_NO_Pil16Ra,NO_Pil16_HoRRe,e_NO_Pil16_HoRRe,NO_Pil16_HoRa,
+ e_NO_Pil16_HoRa,NO_Pil16_N2R2Re,e_NO_Pil16_N2R2Re,
+ NO_Pil16_N2R2a,e_NO_Pil16_N2R2a,Ne_Oster_SRe,e_Ne_Oster_SRe,
+ Ne_Oster_Sa,e_Ne_Oster_Sa,HdRe,e_HdRe,Hda,e_Hda,HbRe,e_HbRe,
+ Hba,e_Hba,MgbRe,e_MgbRe,Mgba,e_Mgba,Fe5270Re,e_Fe5270Re,
+ Fe5270a,e_Fe5270a,Fe5335Re,e_Fe5335Re,Fe5335a,e_Fe5335a,
+ D4000Re,e_D4000Re,D4000a,e_D4000a,HdmodRe,e_HdmodRe,Hdmoda,
+ e_Hdmoda,HgRe,e_HgRe,Hga,e_Hga,umag,e_umag,uMag_1,e_uMag_1,
+ gmag,e_gmag,gMag_1,e_gMag_1,rmag,e_rmag,rMag_1,e_rMag_1,imag,
+ e_imag,iMag_1,e_iMag_1,Bmag,e_Bmag,BMag_1,e_BMag_1,Vmag,
+ e_Vmag,VMag_1,e_VMag_1,RJmag,e_RJmag,RJMag_1,e_RJMag_1,R50,
+ e_R50,R90,e_R90,C,e_C,B_V,e_B_V,B_R,e_B_R,logMph,e_logMph,
+ SBV1Re,e_SBV1Re,SBVR50,e_SBVR50,nNSA,u_g,g_r,r_i,i_z,P_CD,P_E,
+ P_S0,P_Sa,P_Sab,P_Sb,P_Sbc,P_Sc,P_Scd,P_Sd,P_Sdm,P_Sm,P_Irr,
+ Type,Morph,NSAid,w_Vmax,w_Num,Q
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
stop
end