Conversion of standardized ReadMe file for
file /./ftp/cats/J/ApJ/459/686 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 2024-Apr-18
C=============================================================================
* This code was generated from the ReadMe file documenting a catalogue
* according to the "Standard for Documentation of Astronomical Catalogues"
* currently in use by the Astronomical Data Centers (CDS, ADC, A&A)
* (see full documentation at URL http://vizier.u-strasbg.fr/doc/catstd.htx)
* Please report problems or questions to
C=============================================================================
implicit none
* Unspecified or NULL values, generally corresponding to blank columns,
* are assigned one of the following special values:
* rNULL__ for unknown or NULL floating-point values
* iNULL__ for unknown or NULL integer values
real*4 rNULL__
integer*4 iNULL__
parameter (rNULL__=--2147483648.) ! NULL real number
parameter (iNULL__=(-2147483647-1)) ! NULL int number
integer idig ! testing NULL number
C=============================================================================
Cat. J/ApJ/459/686 Energy Deposition in Interstellar Dust Grains (Dwek+ 1996)
*================================================================================
*Energy Deposition and Photoelectric Emission from the Interaction of 10 eV
*to 1 MeV Photons with Interstellar Dust Particles
* Dwek E., Smith R.K.
* <Astrophys. J. 459, 686 (1996)>
* =1996ApJ...459..686D
C=============================================================================
C Internal variables
integer*4 i__
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'silicate.dat' ! Deposition in silicate
integer*4 nr__
parameter (nr__=60) ! Number of records
character*191 ar__ ! Full-size record
real*8 Ephot ! (eV) Energy of incoming photon
real*4 E5nm ! (eV) *Energy deposition*Q_abs for grain size=5nm
real*4 E7nm ! (eV) *Energy deposition*Q_abs for grain size=7nm
real*4 E10nm ! (eV) *Energy deposition*Q_abs for grain size=10nm
real*4 E15nm ! (eV) *Energy deposition*Q_abs for grain size=15nm
real*4 E20nm ! (eV) *Energy deposition*Q_abs for grain size=20nm
real*4 E30nm ! (eV) *Energy deposition*Q_abs for grain size=30nm
real*4 E50nm ! (eV) *Energy deposition*Q_abs for grain size=50nm
real*4 E70nm ! (eV) *Energy deposition*Q_abs for grain size=70nm
real*4 E100nm ! (eV) *Energy deposition*Q_abs for grain size=100nm
real*4 E150nm ! (eV) *Energy deposition*Q_abs for grain size=150nm
real*4 E200nm ! (eV) *Energy deposition*Q_abs for grain size
real*4 E300nm ! (eV) *Energy deposition*Q_abs for grain size=300nm
real*4 E500nm ! (eV) *Energy deposition*Q_abs for grain size=500nm
real*4 E700nm ! (eV) *Energy deposition*Q_abs for grain size=700nm
real*4 E1um ! (eV) *Energy deposition*Q_abs for grain size=1micron
*Note on E5nm, E7nm, E10nm, E15nm, E20nm, E30nm, E50nm, E70nm, E100nm, E150nm:
*Note on E200nm, E300nm, E500nm, E700nm, E1um:
* These fields contain the energy deposition multiplied by Q_abs. Where
* Q_abs is the dust absorption efficiency calculated from Mie theory.
* The grain size indicated is the dust particle radius.
* The total energy deposited in a dust particle of radius a is therefore
* flux * pi a^2 * dt * table_value; the flux has units of photons per
* cm^2 per second, pi a^2 is the geometric area of the dust, dt is the
* length of time considered, and the table value contains both Q_abs
* (which when multiplied by the geometric cross section gives the cross
* section for absorption) and the energy deposited when that photon is
* absorbed, which may be the entire photon's energy or some lesser
* value.
c - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
C Declarations for 'graphite.dat' ! Deposition in graphite
integer*4 nr__1
parameter (nr__1=60) ! Number of records
character*193 ar__1 ! Full-size record
real*8 Ephot_1 ! (eV) Energy of incoming photon
real*4 E5nm_1 ! (eV) *Energy deposition*Q_abs for grain size=5nm
real*4 E7nm_1 ! (eV) *Energy deposition*Q_abs for grain size=7nm
real*4 E10nm_1 ! (eV) *Energy deposition*Q_abs for grain size=10nm
real*4 E15nm_1 ! (eV) *Energy deposition*Q_abs for grain size=15nm
real*4 E20nm_1 ! (eV) *Energy deposition*Q_abs for grain size=20nm
real*4 E30nm_1 ! (eV) *Energy deposition*Q_abs for grain size=30nm
real*4 E50nm_1 ! (eV) *Energy deposition*Q_abs for grain size=50nm
real*4 E70nm_1 ! (eV) *Energy deposition*Q_abs for grain size=70nm
real*4 E100nm_1 ! (eV) *Energy deposition*Q_abs for grain size=100nm
real*4 E150nm_1 ! (eV) *Energy deposition*Q_abs for grain size=150nm
real*4 E200nm_1 ! (eV) *Energy deposition*Q_abs for grain size
real*4 E300nm_1 ! (eV) *Energy deposition*Q_abs for grain size=300nm
real*4 E500nm_1 ! (eV) *Energy deposition*Q_abs for grain size=500nm
real*4 E700nm_1 ! (eV) *Energy deposition*Q_abs for grain size=700nm
real*4 E1um_1 ! (eV) *Energy deposition*Q_abs for grain size=1micron
*Note on E5nm, E7nm, E10nm, E15nm, E20nm, E30nm, E50nm, E70nm, E100nm, E150nm:
*Note on E200nm, E300nm, E500nm, E700nm, E1um:
* These fields contain the energy deposition multiplied by Q_abs. Where
* Q_abs is the dust absorption efficiency calculated from Mie theory.
* The grain size indicated is the dust particle radius.
* The total energy deposited in a dust particle of radius a is therefore
* flux * pi a^2 * dt * table_value; the flux has units of photons per
* cm^2 per second, pi a^2 is the geometric area of the dust, dt is the
* length of time considered, and the table value contains both Q_abs
* (which when multiplied by the geometric cross section gives the cross
* section for absorption) and the energy deposited when that photon is
* absorbed, which may be the entire photon's energy or some lesser
* value.
C=============================================================================
C Loading file 'silicate.dat' ! Deposition in silicate
C Format for file interpretation
1 format(
+ F10.2,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,
+ 2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,
+ E10.4,2X,E10.4,2X,E10.4)
C Effective file loading
open(unit=1,status='old',file=
+'silicate.dat')
write(6,*) '....Loading file: silicate.dat'
do i__=1,60
read(1,'(A191)')ar__
read(ar__,1)
+ Ephot,E5nm,E7nm,E10nm,E15nm,E20nm,E30nm,E50nm,E70nm,E100nm,
+ E150nm,E200nm,E300nm,E500nm,E700nm,E1um
c ..............Just test output...........
write(6,1)
+ Ephot,E5nm,E7nm,E10nm,E15nm,E20nm,E30nm,E50nm,E70nm,E100nm,
+ E150nm,E200nm,E300nm,E500nm,E700nm,E1um
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
C Loading file 'graphite.dat' ! Deposition in graphite
C Format for file interpretation
2 format(
+ F10.2,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,
+ 2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,E10.4,2X,
+ E10.4,2X,E10.4,2X,E10.4)
C Effective file loading
open(unit=1,status='old',file=
+'graphite.dat')
write(6,*) '....Loading file: graphite.dat'
do i__=1,60
read(1,'(A193)')ar__1
read(ar__1,2)
+ Ephot_1,E5nm_1,E7nm_1,E10nm_1,E15nm_1,E20nm_1,E30nm_1,E50nm_1,
+ E70nm_1,E100nm_1,E150nm_1,E200nm_1,E300nm_1,E500nm_1,E700nm_1,
+ E1um_1
c ..............Just test output...........
write(6,2)
+ Ephot_1,E5nm_1,E7nm_1,E10nm_1,E15nm_1,E20nm_1,E30nm_1,E50nm_1,
+ E70nm_1,E100nm_1,E150nm_1,E200nm_1,E300nm_1,E500nm_1,E700nm_1,
+ E1um_1
c .......End.of.Just test output...........
end do
close(1)
C=============================================================================
stop
end