get_rate_matrix Subroutine

public subroutine get_rate_matrix(plasma, i_type, eb, rmat)

Gets rate matrix for use in colrad

Arguments

Type IntentOptional AttributesName
type(LocalProfiles), intent(in) :: plasma

Plasma parameters

integer, intent(in) :: i_type

Ion type

real(kind=Float64), intent(in) :: eb

Ion energy [keV]

real(kind=Float64), intent(out), dimension(nlevs,nlevs):: rmat

Rate matrix


Calls

proc~~get_rate_matrix~~CallsGraph proc~get_rate_matrix get_rate_matrix interface~interpol_coeff interpol_coeff proc~get_rate_matrix->interface~interpol_coeff proc~cyl_interpol3d_coeff cyl_interpol3D_coeff interface~interpol_coeff->proc~cyl_interpol3d_coeff proc~interpol1d_coeff interpol1D_coeff interface~interpol_coeff->proc~interpol1d_coeff proc~interpol2d_coeff_arr interpol2D_coeff_arr interface~interpol_coeff->proc~interpol2d_coeff_arr proc~interpol2d_coeff interpol2D_coeff interface~interpol_coeff->proc~interpol2d_coeff proc~cyl_interpol3d_coeff_arr cyl_interpol3D_coeff_arr interface~interpol_coeff->proc~cyl_interpol3d_coeff_arr proc~interpol1d_coeff_arr interpol1D_coeff_arr interface~interpol_coeff->proc~interpol1d_coeff_arr proc~cyl_interpol3d_coeff->proc~interpol2d_coeff proc~interpol2d_coeff_arr->proc~interpol2d_coeff proc~cyl_interpol3d_coeff_arr->proc~cyl_interpol3d_coeff proc~cyl_interpol3d_coeff_arr->proc~interpol2d_coeff proc~interpol1d_coeff_arr->proc~interpol1d_coeff

Called by

proc~~get_rate_matrix~~CalledByGraph proc~get_rate_matrix get_rate_matrix proc~colrad colrad proc~colrad->proc~get_rate_matrix proc~fida_weights_los fida_weights_los proc~fida_weights_los->proc~colrad proc~read_equilibrium read_equilibrium proc~read_equilibrium->proc~colrad proc~attenuate attenuate proc~attenuate->proc~colrad proc~pnpa_f pnpa_f proc~pnpa_f->proc~attenuate proc~pnpa_mc pnpa_mc proc~pnpa_mc->proc~attenuate proc~npa_f npa_f proc~npa_f->proc~attenuate program~fidasim fidasim program~fidasim->proc~fida_weights_los program~fidasim->proc~read_equilibrium program~fidasim->proc~pnpa_f program~fidasim->proc~pnpa_mc program~fidasim->proc~npa_f proc~npa_mc npa_mc program~fidasim->proc~npa_mc proc~npa_weights npa_weights program~fidasim->proc~npa_weights proc~npa_mc->proc~attenuate proc~npa_weights->proc~attenuate

Contents

Source Code


Source Code

subroutine get_rate_matrix(plasma, i_type, eb, rmat)
    !+ Gets rate matrix for use in [[libfida:colrad]]
    type(LocalProfiles), intent(in)                    :: plasma
        !+ Plasma parameters
    integer, intent(in)                                :: i_type
        !+ Ion type
    real(Float64), intent(in)                          :: eb
        !+ Ion energy [keV]
    real(Float64), dimension(nlevs,nlevs), intent(out) :: rmat
        !+ Rate matrix

    real(Float64) :: logEmin, dlogE, logeb
    real(Float64) :: logTmin, dlogT, logti, logte
    integer :: neb, nt
    type(InterpolCoeffs2D) :: c
    real(Float64) :: b11, b12, b21, b22, dene, denp, denimp
    real(Float64), dimension(nlevs,nlevs) :: H_H_pop, H_e_pop, H_Aq_pop
    real(Float64), dimension(nlevs) :: H_H_depop, H_e_depop, H_Aq_depop
    integer :: ebi, tii, tei, n, err_status

    H_H_pop = 0.d0
    H_e_pop = 0.d0
    H_Aq_pop = 0.d0
    H_H_depop = 0.d0
    H_e_depop = 0.d0
    H_Aq_depop = 0.d0
    denp = plasma%denp
    dene = plasma%dene
    denimp = plasma%denimp
    logeb = log10(eb)
    logti = log10(plasma%ti)
    logte = log10(plasma%te)
    !!H_H
    err_status = 1
    logEmin = tables%H_H%logemin
    logTmin = tables%H_H%logtmin
    dlogE = tables%H_H%dlogE
    dlogT = tables%H_H%dlogT
    neb = tables%H_H%nenergy
    nt = tables%H_H%ntemp
    call interpol_coeff(logEmin, dlogE, neb, logTmin, dlogT, nt, &
                        logeb, logti, c, err_status)
    ebi = c%i
    tii = c%j
    b11 = c%b11
    b12 = c%b12
    b21 = c%b21
    b22 = c%b22
    if(err_status.eq.1) then
        if(inputs%verbose.ge.0) then
            write(*,'(a)') "GET_RATE_MATRIX: Eb or Ti out of range of H_H table. Setting H_H rates to zero"
            write(*,'("eb = ",ES10.3," [keV]")') eb
            write(*,'("ti = ",ES10.3," [keV]")') plasma%ti
        endif
    else
        H_H_pop = (b11*tables%H_H%log_pop(:,:,ebi,tii,i_type)   + &
                   b12*tables%H_H%log_pop(:,:,ebi,tii+1,i_type) + &
                   b21*tables%H_H%log_pop(:,:,ebi+1,tii,i_type) + &
                   b22*tables%H_H%log_pop(:,:,ebi+1,tii+1,i_type))
        where (H_H_pop.lt.tables%H_H%minlog_pop)
            H_H_pop = 0.d0
        elsewhere
            H_H_pop = denp * exp(H_H_pop*log_10)
        end where

        H_H_depop = (b11*tables%H_H%log_depop(:,ebi,tii,i_type)   + &
                     b12*tables%H_H%log_depop(:,ebi,tii+1,i_type) + &
                     b21*tables%H_H%log_depop(:,ebi+1,tii,i_type) + &
                     b22*tables%H_H%log_depop(:,ebi+1,tii+1,i_type))
        where (H_H_depop.lt.tables%H_H%minlog_depop)
            H_H_depop = 0.d0
        elsewhere
            H_H_depop = denp * exp(H_H_depop*log_10)
        end where
    endif

    !!H_e
    err_status = 1
    logEmin = tables%H_e%logemin
    logTmin = tables%H_e%logtmin
    dlogE = tables%H_e%dlogE
    dlogT = tables%H_e%dlogT
    neb = tables%H_e%nenergy
    nt = tables%H_e%ntemp
    call interpol_coeff(logEmin, dlogE, neb, logTmin, dlogT, nt, &
                        logeb, logte, c, err_status)
    ebi = c%i
    tei = c%j
    b11 = c%b11
    b12 = c%b12
    b21 = c%b21
    b22 = c%b22
    if(err_status.eq.1) then
        if(inputs%verbose.ge.0) then
            write(*,'(a)') "GET_RATE_MATRIX: Eb or Te out of range of H_e table. Setting H_e rates to zero"
            write(*,'("eb = ",ES10.3," [keV]")') eb
            write(*,'("te = ",ES10.3," [keV]")') plasma%te
        endif
    else
        H_e_pop = (b11*tables%H_e%log_pop(:,:,ebi,tei,i_type)   + &
                   b12*tables%H_e%log_pop(:,:,ebi,tei+1,i_type) + &
                   b21*tables%H_e%log_pop(:,:,ebi+1,tei,i_type) + &
                   b22*tables%H_e%log_pop(:,:,ebi+1,tei+1,i_type))
        where (H_e_pop.lt.tables%H_e%minlog_pop)
            H_e_pop = 0.d0
        elsewhere
            H_e_pop = dene * exp(H_e_pop*log_10)
        end where

        H_e_depop = (b11*tables%H_e%log_depop(:,ebi,tei,i_type)   + &
                     b12*tables%H_e%log_depop(:,ebi,tei+1,i_type) + &
                     b21*tables%H_e%log_depop(:,ebi+1,tei,i_type) + &
                     b22*tables%H_e%log_depop(:,ebi+1,tei+1,i_type))

        where (H_e_depop.lt.tables%H_e%minlog_depop)
            H_e_depop = 0.d0
        elsewhere
            H_e_depop = dene * exp(H_e_depop*log_10)
        end where
    endif

    !!H_Aq
    err_status = 1
    logEmin = tables%H_Aq%logemin
    logTmin = tables%H_Aq%logtmin
    dlogE = tables%H_Aq%dlogE
    dlogT = tables%H_Aq%dlogT
    neb = tables%H_Aq%nenergy
    nt = tables%H_Aq%ntemp
    call interpol_coeff(logEmin, dlogE, neb, logTmin, dlogT, nt, &
                        logeb, logti, c, err_status)
    ebi = c%i
    tii = c%j
    b11 = c%b11
    b12 = c%b12
    b21 = c%b21
    b22 = c%b22
    if(err_status.eq.1) then
        if(inputs%verbose.ge.0) then
            write(*,'(a)') "GET_RATE_MATRIX: Eb or Ti out of range of H_Aq table. Setting H_Aq rates to zero"
            write(*,'("eb = ",ES10.3," [keV]")') eb
            write(*,'("ti = ",ES10.3," [keV]")') plasma%ti
        endif
    else
        H_Aq_pop = (b11*tables%H_Aq%log_pop(:,:,ebi,tii,i_type)   + &
                    b12*tables%H_Aq%log_pop(:,:,ebi,tii+1,i_type) + &
                    b21*tables%H_Aq%log_pop(:,:,ebi+1,tii,i_type) + &
                    b22*tables%H_Aq%log_pop(:,:,ebi+1,tii+1,i_type))
        where (H_Aq_pop.lt.tables%H_Aq%minlog_pop)
            H_Aq_pop = 0.d0
        elsewhere
            H_Aq_pop = denimp * exp(H_Aq_pop*log_10)
        end where
        H_Aq_depop = (b11*tables%H_Aq%log_depop(:,ebi,tii,i_type)   + &
                      b12*tables%H_Aq%log_depop(:,ebi,tii+1,i_type) + &
                      b21*tables%H_Aq%log_depop(:,ebi+1,tii,i_type) + &
                      b22*tables%H_Aq%log_depop(:,ebi+1,tii+1,i_type))

        where (H_Aq_depop.lt.tables%H_Aq%minlog_depop)
            H_Aq_depop = 0.d0
        elsewhere
            H_Aq_depop = denimp * exp(H_Aq_depop*log_10)
        end where
    endif

    rmat = tables%einstein + H_H_pop + H_e_pop + H_Aq_pop
    do n=1,nlevs
        rmat(n,n) = -sum(tables%einstein(:,n)) - H_H_depop(n) - H_e_depop(n) - H_Aq_depop(n)
    enddo

end subroutine get_rate_matrix