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calc_profile.f90
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calc_profile.f90
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module calc_profile
use input_data
use potentials
use coupling_matrix
use relative_potential
type, public :: profiler
type(inp), private, pointer :: ip
type(coup_mat), private, pointer :: cm
type(rel_pot), private, pointer :: pot
contains
procedure :: profiler_
procedure :: pot_prof
procedure :: Reaction_prof
end type
contains
!----------------------------------------------------------------------!
subroutine profiler_(this, ip, pot, cm)
implicit none
class(profiler), intent(out) :: this
type(inp), intent(in), target :: ip
type(coup_mat), intent(in), target :: cm
type(rel_pot), intent(in), target :: pot
this%ip => ip
this%cm => cm
this%pot => pot
end subroutine
!-----------------------------------------------------------------------
subroutine pot_prof(this)
implicit none
class(profiler), intent(in) :: this
integer :: i
real(8) :: r
open(8,file='potential.dat');
open(9,file='pot_nucl.dat');
do i=1, this%ip%rgrid_cut
r = this%ip%rmin + dble(i-1) * this%ip%dr
write(8,'(1x,3f8.2)') r, dble(this%pot%get_Vrel(0,i)),aimag(this%pot%get_Vrel(0,i))
write(9,'(1x,2f8.2)') r, this%pot%Vn(r)
end do
close(8)
close(9)
end subroutine
!-----------------------------------------------------------------------
subroutine check_directory(dir)
use, intrinsic :: iso_fortran_env
implicit none
integer :: ios, chdir, getcwd
character(len=*), intent(in) :: dir
character(len=300) :: cwd, command
character(len=1) :: q = 'y'
ios = getcwd(cwd)
ios = chdir(dir)
if (ios /= 0) then
write(output_unit,*) '*************************************************'
write(output_unit,*) 'Directory '
write(output_unit,*)
! write(output_unit,*) trim(dir(len(trim(cwd))+2:))
write(output_unit,*) dir
write(output_unit,*)
write(output_unit,*) 'does not exist.'
write(output_unit,*)
write(output_unit,'(a,$)')' Do you make the directory ? (y/n) : '
do
read(5,*) q
if (trim(q) == 'y' .or. trim(q) == 'Y') then
command = 'mkdir '//trim(dir)
call system(command)
write(output_unit,*)
write(output_unit,*) 'Directory ',trim(dir(len(trim(cwd))+2:)), &
' is created.'
exit
else if (trim(q) == 'n' .or. trim(q) == 'N') then
write(output_unit,*)
write(output_unit,*) 'Make the directory ', &
trim(dir(len(trim(cwd))+2:))
write(output_unit,*)
write(output_unit,*) '*********************************************'
exit
else
write(output_unit,'(a,$)') " Answer 'y' or 'n' : "
end if
end do
end if
ios = chdir(cwd)
if (trim(q) == 'n' .or. trim(q) == 'N') stop
return
end subroutine
!----------------------------------------------------------------------!
subroutine Reaction_prof(this, Fname)
use, intrinsic :: iso_fortran_env
implicit none
class(profiler), intent(in) :: this
integer, parameter :: N = 7
integer :: m, k, l
real(8) :: rp, rb
character(len=*), intent(in) :: Fname
character(len=20), parameter :: FM='(1x,a,i3," ",a)'
character(len=20), parameter :: FM2='(1x,a,f7.4,a)'
character(len=20), parameter :: FM3='(1x,a,i2)'
character(len=20), parameter :: FM4='(1x,a,f7.4)'
character(len=20), parameter :: FM5='(1x,a,f9.4,a)'
character(len=50), parameter :: FM6='(1x,i3,a,i3,a,f7.3," MeV")'
character(len=20), parameter :: FM8='(1x,a,f11.4,a)'
character(len=40),parameter::FM7='(1x,i3,a,i3,a,i3,a,f7.3," MeV")'
character(len=2), save :: X(111)
data X /'H ','He','Li','Be','B ','C ','N ','O ','F ','Ne','Na', &
'Mg','Al','Si','P ','S ','Cl','Ar','K ','Ca','Sc','Ti', &
'V ','Cr','Mn','Fe','Co','Ni','Cu','Zn','Ga','Ge','As', &
'Se','Br','Kr','Rb','Sr','Y ','Zr','Nb','Mo','Tc','Ru', &
'Rh','Pd','Ag','Cd','In','Sn','Sb','Te','I ','Xe','Cs', &
'Ba','La','Ce','Pr','Nd','Pm','Sm','Eu','Gd','Tb','Dy', &
'Ho','Er','Tm','Yb','Lu','Hf','Ta','W ','Re','Os','Ir', &
'Pt','Au','Hg','Tl','Pb','Bi','Po','At','Rn','Fr','Ra', &
'Ac','Th','Pa','U ','Np','Pu','Am','Cm','Bk','Cf','Es', &
'Fm','Md','No','Lr','Rf','Db','Sg','Bh','Hs','Mt','Ds', &
'Rg'/
rb = this%cm%rb
rp = this%cm%rp
open(N, file=Fname)
write(output_unit,*) '------------------------------------------------'
write(output_unit,FM) 'Target nucleus : ',nint(this%ip%At), X(nint(this%ip%Zt))
write(output_unit,FM) 'Projectile nucleus : ',nint(this%ip%Ap), X(nint(this%ip%Zp))
write(output_unit,*)
write(N,*) '------------------------------------------------'
write(N,FM) ' Target nucleus : ',nint(this%ip%At), X(nint(this%ip%Zt))
write(N,FM) ' Projectile nucleus : ',nint(this%ip%Ap), X(nint(this%ip%Zp))
write(N,*)
select case(this%ip%coup_t)
case(-1)
write(output_unit,*) 'No excitation in the target'
write(N,*) ' No excitation in the target'
case(0)
write(output_unit,*) 'Phonon excitation in the target.'
write(N,*) ' Phonon excitation in the target :'
write(N,FM2) ' r0 =', this%ip%r0t ,' fm'
write(N,FM2) ' Rt =', this%ip%Rt ,' fm'
write(N,FM4) ' betaN =', this%ip%betaL_t
write(N,FM4) ' betaC =', this%ip%betaL_tC
write(N,FM2) ' omega =', this%ip%omega_t , ' MeV'
write(N,FM3) ' Lambda =', this%ip%Lambda_t
write(N,FM3) ' Nphonon =', this%ip%Nphonon_t
case(1)
write(output_unit,*) 'Rotational excitation in the target.'
write(N,*) ' Rotational excitation in the target :'
write(N,FM2) ' r0 =', this%ip%r0t ,' fm'
write(N,FM2) ' Rt =', this%ip%Rt ,' fm'
write(N,FM4) ' beta2 =', this%ip%beta2t
write(N,FM4) ' beta4 =', this%ip%beta4t
write(N,FM2) ' E2 =', this%ip%E2t ,' MeV'
write(N,FM3) ' Nrot =', this%ip%Nrot_t
end select
write(N,*)
if (this%ip%coup_t /= -1 .and. this%ip%Nphonon_t2 > 0) then
write(output_unit,*) 'Phonon excitation in the target.'
write(N,*) ' Phonon excitation in the target :'
write(N,FM4) ' betaN =', this%ip%betaL_t2
write(N,FM4) ' betaC =', this%ip%betaL_t2C
write(N,FM2) ' omega =', this%ip%omega_t2 , ' MeV'
write(N,FM3) ' Lambda =', this%ip%Lambda_t2
write(N,FM3) ' Nphonon =', this%ip%Nphonon_t2
end if
write(N,*)
select case(this%ip%coup_p)
case(-1)
write(output_unit,*) 'No excitation in the projectile'
write(N,*) ' No excitation in the projectile'
case(0)
write(output_unit,*) 'Phonon excitation in the projectile.'
write(N,*) ' Phonon excitation in the projectile :'
write(N,FM2) ' r0 =', this%ip%r0p ,' fm'
write(N,FM2) ' Rp =', this%ip%Rp ,' fm'
write(N,FM4) ' betaL =', this%ip%betaL_p
write(N,FM4) ' betaC =', this%ip%betaL_pC
write(N,FM2) ' omega =', this%ip%omega_p , ' MeV'
write(N,FM3) ' Lambda =', this%ip%Lambda_p
write(N,FM3) ' Nphonon =', this%ip%Nphonon_p
case(1)
write(output_unit,*) 'Rotational excitation in the projectile :'
write(N,*) ' Rotational excitation in the projectile :'
write(N,FM2) ' r0 =', this%ip%r0p ,' fm'
write(N,FM2) ' Rp =', this%ip%Rp ,' fm'
write(N,FM4) ' beta2 =', this%ip%beta2p
write(N,FM4) ' beta4 =', this%ip%beta4p
write(N,FM2) ' E2 =', this%ip%E2p ,' MeV'
write(N,FM3) ' Nrot =', this%ip%Nrot_p
end select
write(N,*)
if (this%ip%coup_p /= -1 .and. this%ip%Nphonon_p2 > 0) then
write(output_unit,*) 'Phonon excitation in the projectile.'
write(N,*) ' Phonon excitation in the projectile :'
write(N,FM4) ' betaL =', this%ip%betaL_p2
write(N,FM4) ' betaC =', this%ip%betaL_p2C
write(N,FM2) ' omega =', this%ip%omega_p2 , ' MeV'
write(N,FM3) ' Lambda =', this%ip%Lambda_p2
write(N,FM3) ' Nphonon =', this%ip%Nphonon_p2
end if
write(N,*)
write(output_unit,*)
write(output_unit,'(1x,a,i5)') 'The number of channels = ', this%ip%Nch
write(output_unit,*) '----------------------------------------------'
write(N,*)
write(N,'(1x,a,i5)') ' The number of channels = ', this%ip%Nch
write(N,*) '----------------------------------------------'
write(N,*) ' ** Potential Profile (Woods-Saxon) **'
write(N,FM5) ' V0 =', this%ip%V0, ' MeV'
write(N,FM5) ' r0 =', this%ip%r0, ' fm'
write(N,FM5) ' Rn =', this%ip%Rn, ' fm'
write(N,FM5) ' a =', this%ip%a, ' fm'
write(N,*) ' ** Coulomb radius **'
write(N,FM5) ' r0c=', this%ip%r0c, ' fm'
write(N,FM5) ' Rc =', this%ip%Rc, ' fm'
write(N,*)
write(N,FM5) ' W0 =', this%ip%W0, ' MeV'
write(N,FM5) ' r0w=', this%ip%r0w, ' fm'
write(N,FM5) ' Rw =', this%ip%Rw, ' fm'
write(N,FM5) ' aw =', this%ip%aw, ' fm'
write(N,*)
write(N,*) ' Minimum of the Coulomb pocket'
write(N,FM5) ' r =', rp, ' fm'
write(N,FM5) ' V(r) =', this%pot%Vn(rp) + this%pot%Vc(rp), ' MeV'
write(N,*)
write(N,*) ' Maximum of the Coulomb barrier'
write(N,FM5) ' r =', rb, ' fm'
write(N,FM5) ' V(r) =', this%pot%Vn(rb) + this%pot%Vc(rb), ' MeV'
write(N,*) '------------------------------------------------'
write(N,*)
write(N,*) ' ** The numer of stabilization points **'
write(N,'(2x,i4,a)') this%ip%num_stab_pt, ' points'
write(N,*)
write(N,*) '------------------------------------------------'
write(N,*) ' ** other information ** '
write(N,FM5) ' rmin =', this%ip%rmin, ' fm'
write(N,FM5) ' rmax =', this%ip%rmax, ' fm'
write(N,FM5) ' dr =', this%ip%dr, ' fm'
write(N,FM5) ' rcut =', this%ip%rcut, ' fm'
write(N,FM5)
write(N,FM5) ' Emin =', this%ip%Emin, ' MeV'
write(N,FM5) ' Emax =', this%ip%Emax, ' MeV'
write(N,FM5) ' dE =', this%ip%dE, ' MeV'
write(N,FM5)
write(N,*)
write(N,'(1x,a,i5)') ' Jmax =', this%ip%Jmax
write(N,*) '----------------------------------------------'
write(N,*) ' Channels :'
if (this%ip%coup_p == - 1 .and. this%ip%coup_t == - 1) then
write(output_unit,*) '1 ch.: n_t = 0, n_p = 0, E* = 0.000 MeV'
write(N,*) '1 ch.: n_t = 0, n_p = 0, E* = 0.000 MeV'
else if (this%ip%coup_p == - 1 .and. this%ip%coup_t /= - 1) then
do m=1, this%ip%Nch
write(output_unit,FM6) m,'ch.: n_t =',m-1,' n_p = 0, E* =',this%cm%e_n(m)
write(N,FM6) m,'ch.: n_t =',m-1,' n_p = 0, E* =',this%cm%e_n(m)
end do
else if (this%ip%coup_p /= - 1 .and. this%ip%coup_t == - 1) then
do m=1, this%ip%Nch
write(output_unit,FM6) m,'ch.: n_t = 0, n_p = ',m-1, ' E* =',this%cm%e_n(m)
write(N,FM6) m,'ch.: n_t = 0, n_p = ',m-1, ' E* =',this%cm%e_n(m)
end do
else
write(output_unit,*) 'Nch_p =', this%ip%Nch_p, 'Nch_t =', this%ip%Nch_t
do k=1, this%ip%Nch_p
L = (k - 1) * this%ip%Nch_t
do m=L+1, L+this%ip%Nch_t
write(output_unit,FM7)m,' ch: nt =',m-L-1,', np =',k-1,', E* =',this%cm%e_n(m)
write(N,FM7)m,' ch: nt =',m-L-1,', np =',k-1,', E* =',this%cm%e_n(m)
end do
end do
end if
close(N)
return
end subroutine
end module