gwfcsubmodule Module Reference

This module contains the CSUB package methods. More...

Data Types
type	gwfcsubtype

Functions/Subroutines
subroutine, public	csub_cr (csubobj, name_model, istounit, stoPckName, inunit, iout)
	@ brief Create a new package object More...
subroutine	csub_ar (this, dis, ibound)
	@ brief Allocate and read method for package More...
subroutine	read_options (this)
	@ brief Read options for package More...
subroutine	csub_read_dimensions (this)
	@ brief Read dimensions for package More...
subroutine	csub_allocate_scalars (this)
	@ brief Allocate scalars More...
subroutine	csub_allocate_arrays (this)
	@ brief Allocate package arrays More...
subroutine	csub_read_packagedata (this)
	@ brief Read packagedata for package More...
subroutine	csub_fp (this)
	@ brief Final processing for package More...
subroutine	csub_da (this)
	@ brief Deallocate package memory More...
subroutine	csub_rp (this)
	@ brief Read and prepare stress period data for package More...
subroutine	csub_ad (this, nodes, hnew)
	@ brief Advance the package More...
subroutine	csub_fc (this, kiter, hold, hnew, matrix_sln, idxglo, rhs)
	@ brief Fill A and r for the package More...
subroutine	csub_fn (this, kiter, hold, hnew, matrix_sln, idxglo, rhs)
	@ brief Fill Newton-Raphson terms in A and r for the package More...
subroutine	csub_initialize_tables (this)
	@ brief Initialize optional tables More...
subroutine	csub_cc (this, innertot, kiter, iend, icnvgmod, nodes, hnew, hold, cpak, ipak, dpak)
	@ brief Final convergence check More...
subroutine	csub_cq (this, nodes, hnew, hold, isuppress_output, flowja)
	@ brief Calculate flows for package More...
subroutine	csub_bd (this, isuppress_output, model_budget)
	@ brief Model budget calculation for package More...
subroutine	csub_save_model_flows (this, icbcfl, icbcun)
	@ brief Save model flows for package More...
subroutine	csub_ot_dv (this, idvfl, idvprint)
	@ brief Save and print dependent values for package More...
subroutine	csub_cg_calc_stress (this, nodes, hnew)
	@ brief Calculate the stress for model cells More...
subroutine	csub_cg_chk_stress (this)
	@ brief Check effective stress values More...
subroutine	csub_nodelay_update (this, i)
	@ brief Update no-delay material properties More...
subroutine	csub_nodelay_fc (this, ib, hcell, hcellold, rho1, rho2, rhs, argtled)
	@ brief Calculate no-delay interbed storage coefficients More...
subroutine	csub_nodelay_calc_comp (this, ib, hcell, hcellold, comp, rho1, rho2)
	@ brief Calculate no-delay interbed compaction More...
subroutine	csub_set_initial_state (this, nodes, hnew)
	@ brief Set initial states for the package More...
subroutine	csub_cg_fc (this, node, tled, area, hcell, hcellold, hcof, rhs)
	@ brief Formulate the coefficients for coarse-grained materials More...
subroutine	csub_cg_fn (this, node, tled, area, hcell, hcof, rhs)
	@ brief Formulate coarse-grained Newton-Raphson terms More...
subroutine	csub_interbed_fc (this, ib, node, area, hcell, hcellold, hcof, rhs)
	@ brief Formulate the coefficients for a interbed More...
subroutine	csub_interbed_fn (this, ib, node, hcell, hcellold, hcof, rhs)
	@ brief Formulate the coefficients for a interbed More...
subroutine	csub_cg_calc_sske (this, n, sske, hcell)
	@ brief Calculate Sske for a cell More...
subroutine	csub_cg_calc_comp (this, node, hcell, hcellold, comp)
	@ brief Calculate coarse-grained compaction in a cell More...
subroutine	csub_cg_update (this, node)
	@ brief Update coarse-grained material properties More...
subroutine	csub_cg_wcomp_fc (this, node, tled, area, hcell, hcellold, hcof, rhs)
	@ brief Formulate coarse-grained water compressibility coefficients More...
subroutine	csub_cg_wcomp_fn (this, node, tled, area, hcell, hcellold, hcof, rhs)
	@ brief Formulate coarse-grained water compressibility coefficients More...
subroutine	csub_nodelay_wcomp_fc (this, ib, node, tled, area, hcell, hcellold, hcof, rhs)
	@ brief Formulate no-delay interbed water compressibility coefficients More...
subroutine	csub_nodelay_wcomp_fn (this, ib, node, tled, area, hcell, hcellold, hcof, rhs)
	@ brief Formulate no-delay interbed water compressibility coefficients More...
real(dp) function	csub_calc_void_ratio (this, theta)
	Calculate the void ratio. More...
real(dp) function	csub_calc_theta (this, void_ratio)
	Calculate the porosity. More...
real(dp) function	csub_calc_interbed_thickness (this, ib)
	Calculate the interbed thickness. More...
real(dp) function	csub_calc_znode (this, top, bottom, zbar)
	Calculate the cell node. More...
real(dp) function	csub_calc_adjes (this, node, es0, z0, z)
	Calculate the effective stress at elevation z. More...
subroutine	csub_delay_head_check (this, ib)
	Check delay interbed head. More...
subroutine	csub_calc_sat (this, node, hcell, hcellold, snnew, snold)
	Calculate cell saturation. More...
real(dp) function	csub_calc_sat_derivative (this, node, hcell)
	Calculate the saturation derivative. More...
subroutine	csub_calc_sfacts (this, node, bot, znode, theta, es, es0, fact)
	Calculate specific storage coefficient factor. More...
subroutine	csub_adj_matprop (this, comp, thick, theta)
	Calculate new material properties. More...
subroutine	csub_delay_sln (this, ib, hcell, update)
	Solve delay interbed continuity equation. More...
subroutine	csub_delay_init_zcell (this, ib)
	Calculate delay interbed znode and z relative to interbed center. More...
subroutine	csub_delay_calc_stress (this, ib, hcell)
	Calculate delay interbed stress values. More...
subroutine	csub_delay_calc_ssksske (this, ib, n, hcell, ssk, sske)
	Calculate delay interbed cell storage coefficients. More...
subroutine	csub_delay_assemble (this, ib, hcell)
	Assemble delay interbed coefficients. More...
subroutine	csub_delay_assemble_fc (this, ib, n, hcell, aii, au, al, r)
	Assemble delay interbed standard formulation coefficients. More...
subroutine	csub_delay_assemble_fn (this, ib, n, hcell, aii, au, al, r)
	Assemble delay interbed Newton-Raphson formulation coefficients. More...
subroutine	csub_delay_calc_sat (this, node, idelay, n, hcell, hcellold, snnew, snold)
	Calculate delay interbed saturation. More...
real(dp) function	csub_delay_calc_sat_derivative (this, node, idelay, n, hcell)
	Calculate the delay interbed cell saturation derivative. More...
subroutine	csub_delay_calc_dstor (this, ib, hcell, stoe, stoi)
	Calculate delay interbed storage change. More...
subroutine	csub_delay_calc_wcomp (this, ib, dwc)
	Calculate delay interbed water compressibility. More...
subroutine	csub_delay_calc_comp (this, ib, hcell, hcellold, comp, compi, compe)
	Calculate delay interbed compaction. More...
subroutine	csub_delay_update (this, ib)
	Update delay interbed material properties. More...
subroutine	csub_delay_fc (this, ib, hcof, rhs)
	Calculate delay interbed contribution to the cell. More...
real(dp) function	csub_calc_delay_flow (this, ib, n, hcell)
	Calculate the flow from delay interbed top or bottom. More...
logical function	csub_obs_supported (this)
	Determine if observations are supported. More...
subroutine	csub_df_obs (this)
	Define the observation types available in the package. More...
subroutine	csub_bd_obs (this)
	Set the observations for this time step. More...
subroutine	csub_rp_obs (this)
	Read and prepare the observations. More...
subroutine	csub_process_obsid (obsrv, dis, inunitobs, iout)
	Process the observation IDs for the package. More...
subroutine	define_listlabel (this)
	@ brief Define the list label for the package More...

Variables
character(len=lenbudtxt), dimension(4)	budtxt = [' CSUB-CGELASTIC', ' CSUB-ELASTIC', ' CSUB-INELASTIC', ' CSUB-WATERCOMP']
character(len=lenbudtxt), dimension(6)	comptxt = ['CSUB-COMPACTION', ' CSUB-INELASTIC', ' CSUB-ELASTIC', ' CSUB-INTERBED', ' CSUB-COARSE', ' CSUB-ZDISPLACE']
real(dp), parameter	dlog10es = 0.4342942_DP
	derivative of the log of effective stress More...

Detailed Description

This module contains the methods used to add the effects of elastic skeletal storage, compaction, and subsidence on the groundwater flow equation. The contribution of elastic skelatal, inelastic and elastic interbed storage and water compressibility can be represented.

Function/Subroutine Documentation

csub_ad()

subroutine gwfcsubmodule::csub_ad	(	class(gwfcsubtype)	this,
		integer(i4b), intent(in)	nodes,
		real(dp), dimension(nodes), intent(in)	hnew
	)

Advance data in the CSUB package. The method sets data for the previous time step to the current value for the data (e.g., HOLD = HNEW). The method also calls the method to initialize the initial stress conditions if this is the first transient stress period.

Parameters

[in]	nodes	number of active model nodes
[in]	hnew	current head

Definition at line 2644 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: nper, kper
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: nodes !< number of active model nodes
    real(DP), dimension(nodes), intent(in) :: hnew !< current head
    ! -- local variables
    integer(I4B) :: ib
    integer(I4B) :: n
    integer(I4B) :: idelay
    integer(I4B) :: node
    real(DP) :: h
    real(DP) :: es
    real(DP) :: pcs
    !
    ! -- evaluate if steady-state stress periods are specified for more
    !    than the first and last stress period if interbeds are simulated
    if (this%ninterbeds > 0) then
      if (kper > 1 .and. kper < nper) then
        if (this%gwfiss /= 0) then
          write (errmsg, '(a,i0,a,1x,a,1x,a,1x,i0,1x,a)') &
            'Only the first and last (', nper, ')', &
            'stress period can be steady if interbeds are simulated.', &
            'Stress period', kper, 'has been defined to be steady state.'
          call store_error(errmsg, terminate=.true.)
        end if
      end if
    end if
    !
    ! -- set initial states
    if (this%initialized == 0) then
      if (this%gwfiss == 0) then
        call this%csub_set_initial_state(nodes, hnew)
      end if
    end if
    !
    ! -- update state variables
    !
    ! -- coarse-grained materials
    do node = 1, nodes
      this%cg_comp(node) = dzero
      this%cg_es0(node) = this%cg_es(node)
      if (this%iupdatematprop /= 0) then
        this%cg_thick0(node) = this%cg_thick(node)
        this%cg_theta0(node) = this%cg_theta(node)
      end if
    end do
    !
    ! -- interbeds
    do ib = 1, this%ninterbeds
      idelay = this%idelay(ib)
      !
      ! -- update common terms for no-delay and delay interbeds
      this%comp(ib) = dzero
      node = this%nodelist(ib)
      if (this%initialized /= 0) then
        es = this%cg_es(node)
        pcs = this%pcs(ib)
        if (es > pcs) then
          this%pcs(ib) = es
        end if
      end if
      if (this%iupdatematprop /= 0) then
        this%thick0(ib) = this%thick(ib)
        this%theta0(ib) = this%theta(ib)
      end if
      !
      ! -- update delay interbed terms
      if (idelay /= 0) then
        !
        ! -- update state if previous period was steady state
        if (kper > 1) then
          if (this%gwfiss0 /= 0) then
            node = this%nodelist(ib)
            h = hnew(node)
            do n = 1, this%ndelaycells
              this%dbh(n, idelay) = h
            end do
          end if
        end if
        !
        ! -- update preconsolidation stress, stresses, head, dbdz0, and theta0
        do n = 1, this%ndelaycells
          ! update preconsolidation stress
          if (this%initialized /= 0) then
            if (this%dbes(n, idelay) > this%dbpcs(n, idelay)) then
              this%dbpcs(n, idelay) = this%dbes(n, idelay)
            end if
          end if
          this%dbh0(n, idelay) = this%dbh(n, idelay)
          this%dbes0(n, idelay) = this%dbes(n, idelay)
          if (this%iupdatematprop /= 0) then
            this%dbdz0(n, idelay) = this%dbdz(n, idelay)
            this%dbtheta0(n, idelay) = this%dbtheta(n, idelay)
          end if
        end do
      end if
    end do
    !
    ! -- set gwfiss0
    this%gwfiss0 = this%gwfiss
    !
    ! -- Advance the time series managers
    call this%TsManager%ad()
    !
    ! -- For each observation, push simulated value and corresponding
    !    simulation time from "current" to "preceding" and reset
    !    "current" value.
    call this%obs%obs_ad()

Here is the call graph for this function:

csub_adj_matprop()

subroutine gwfcsubmodule::csub_adj_matprop ( class(gwfcsubtype), intent(inout)  this, real(dp), intent(in)  comp, real(dp), intent(inout)  thick, real(dp), intent(inout)  theta  )

private

Method to calculate the current thickness and porosity.

Parameters

[in,out]	thick	initial and current thickness
[in,out]	theta	initial and current porosity
[in]	comp	compaction
[in,out]	thick	thickness
[in,out]	theta	porosity

Definition at line 5619 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    real(DP), intent(in) :: comp !< compaction
    real(DP), intent(inout) :: thick !< thickness
    real(DP), intent(inout) :: theta !< porosity
    ! -- local variables
    real(DP) :: strain
    real(DP) :: void_ratio
    !
    ! -- initialize variables
    strain = dzero
    void_ratio = this%csub_calc_void_ratio(theta)
    !
    ! -- calculate strain
    if (thick > dzero) strain = -comp / thick
    !
    ! -- update void ratio, theta, and thickness
    void_ratio = void_ratio + strain * (done + void_ratio)
    theta = this%csub_calc_theta(void_ratio)
    thick = thick - comp

csub_allocate_arrays()

subroutine gwfcsubmodule::csub_allocate_arrays

(

class(gwfcsubtype), intent(inout)

this

)

Allocate and initialize CSUB package arrays.

Definition at line 1221 of file gwf-csub.f90.

    ! -- modules
    use memorymanagermodule, only: mem_allocate, mem_setptr
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    ! -- local variables
    integer(I4B) :: j
    integer(I4B) :: n
    integer(I4B) :: iblen
    integer(I4B) :: ilen
    integer(I4B) :: naux
    !
    ! -- grid based data
    if (this%ioutcomp == 0 .and. this%ioutcompi == 0 .and. &
        this%ioutcompe == 0 .and. this%ioutcompib == 0 .and. &
        this%ioutcomps == 0 .and. this%ioutzdisp == 0) then
      call mem_allocate(this%buff, 1, 'BUFF', trim(this%memoryPath))
    else
      call mem_allocate(this%buff, this%dis%nodes, 'BUFF', trim(this%memoryPath))
    end if
    if (this%ioutcomp == 0 .and. this%ioutzdisp == 0) then
      call mem_allocate(this%buffusr, 1, 'BUFFUSR', trim(this%memoryPath))
    else
      call mem_allocate(this%buffusr, this%dis%nodesuser, 'BUFFUSR', &
                        trim(this%memoryPath))
    end if
    call mem_allocate(this%sgm, this%dis%nodes, 'SGM', trim(this%memoryPath))
    call mem_allocate(this%sgs, this%dis%nodes, 'SGS', trim(this%memoryPath))
    call mem_allocate(this%cg_ske_cr, this%dis%nodes, 'CG_SKE_CR', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_es, this%dis%nodes, 'CG_ES', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_es0, this%dis%nodes, 'CG_ES0', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_pcs, this%dis%nodes, 'CG_PCS', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_comp, this%dis%nodes, 'CG_COMP', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_tcomp, this%dis%nodes, 'CG_TCOMP', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_stor, this%dis%nodes, 'CG_STOR', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_ske, this%dis%nodes, 'CG_SKE', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_sk, this%dis%nodes, 'CG_SK', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_thickini, this%dis%nodes, 'CG_THICKINI', &
                      trim(this%memoryPath))
    call mem_allocate(this%cg_thetaini, this%dis%nodes, 'CG_THETAINI', &
                      trim(this%memoryPath))
    if (this%iupdatematprop == 0) then
      call mem_setptr(this%cg_thick, 'CG_THICKINI', trim(this%memoryPath))
      call mem_setptr(this%cg_thick0, 'CG_THICKINI', trim(this%memoryPath))
      call mem_setptr(this%cg_theta, 'CG_THETAINI', trim(this%memoryPath))
      call mem_setptr(this%cg_theta0, 'CG_THETAINI', trim(this%memoryPath))
    else
      call mem_allocate(this%cg_thick, this%dis%nodes, 'CG_THICK', &
                        trim(this%memoryPath))
      call mem_allocate(this%cg_thick0, this%dis%nodes, 'CG_THICK0', &
                        trim(this%memoryPath))
      call mem_allocate(this%cg_theta, this%dis%nodes, 'CG_THETA', &
                        trim(this%memoryPath))
      call mem_allocate(this%cg_theta0, this%dis%nodes, 'CG_THETA0', &
                        trim(this%memoryPath))
    end if
    !
    ! -- cell storage data
    call mem_allocate(this%cell_wcstor, this%dis%nodes, 'CELL_WCSTOR', &
                      trim(this%memoryPath))
    call mem_allocate(this%cell_thick, this%dis%nodes, 'CELL_THICK', &
                      trim(this%memoryPath))
    !
    ! -- interbed data
    iblen = 1
    if (this%ninterbeds > 0) then
      iblen = this%ninterbeds
    end if
    naux = 1
    if (this%naux > 0) then
      naux = this%naux
    end if
    call mem_allocate(this%auxvar, naux, iblen, 'AUXVAR', this%memoryPath)
    do n = 1, iblen
      do j = 1, naux
        this%auxvar(j, n) = dzero
      end do
    end do
    call mem_allocate(this%unodelist, iblen, 'UNODELIST', trim(this%memoryPath))
    call mem_allocate(this%nodelist, iblen, 'NODELIST', trim(this%memoryPath))
    call mem_allocate(this%cg_gs, this%dis%nodes, 'CG_GS', trim(this%memoryPath))
    call mem_allocate(this%pcs, iblen, 'PCS', trim(this%memoryPath))
    call mem_allocate(this%rnb, iblen, 'RNB', trim(this%memoryPath))
    call mem_allocate(this%kv, iblen, 'KV', trim(this%memoryPath))
    call mem_allocate(this%h0, iblen, 'H0', trim(this%memoryPath))
    call mem_allocate(this%ci, iblen, 'CI', trim(this%memoryPath))
    call mem_allocate(this%rci, iblen, 'RCI', trim(this%memoryPath))
    call mem_allocate(this%idelay, iblen, 'IDELAY', trim(this%memoryPath))
    call mem_allocate(this%ielastic, iblen, 'IELASTIC', trim(this%memoryPath))
    call mem_allocate(this%iconvert, iblen, 'ICONVERT', trim(this%memoryPath))
    call mem_allocate(this%comp, iblen, 'COMP', trim(this%memoryPath))
    call mem_allocate(this%tcomp, iblen, 'TCOMP', trim(this%memoryPath))
    call mem_allocate(this%tcompi, iblen, 'TCOMPI', trim(this%memoryPath))
    call mem_allocate(this%tcompe, iblen, 'TCOMPE', trim(this%memoryPath))
    call mem_allocate(this%storagee, iblen, 'STORAGEE', trim(this%memoryPath))
    call mem_allocate(this%storagei, iblen, 'STORAGEI', trim(this%memoryPath))
    call mem_allocate(this%ske, iblen, 'SKE', trim(this%memoryPath))
    call mem_allocate(this%sk, iblen, 'SK', trim(this%memoryPath))
    call mem_allocate(this%thickini, iblen, 'THICKINI', trim(this%memoryPath))
    call mem_allocate(this%thetaini, iblen, 'THETAINI', trim(this%memoryPath))
    if (this%iupdatematprop == 0) then
      call mem_setptr(this%thick, 'THICKINI', trim(this%memoryPath))
      call mem_setptr(this%thick0, 'THICKINI', trim(this%memoryPath))
      call mem_setptr(this%theta, 'THETAINI', trim(this%memoryPath))
      call mem_setptr(this%theta0, 'THETAINI', trim(this%memoryPath))
    else
      call mem_allocate(this%thick, iblen, 'THICK', trim(this%memoryPath))
      call mem_allocate(this%thick0, iblen, 'THICK0', trim(this%memoryPath))
      call mem_allocate(this%theta, iblen, 'THETA', trim(this%memoryPath))
      call mem_allocate(this%theta0, iblen, 'THETA0', trim(this%memoryPath))
    end if
    !
    ! -- delay bed storage - allocated in csub_read_packagedata
    !    after number of delay beds is defined
    !
    ! -- allocate boundname
    if (this%inamedbound /= 0) then
      call mem_allocate(this%boundname, lenboundname, this%ninterbeds, &
                        'BOUNDNAME', trim(this%memoryPath))
    else
      call mem_allocate(this%boundname, lenboundname, 1, &
                        'BOUNDNAME', trim(this%memoryPath))
 
    end if
    !
    ! -- allocate the nodelist and bound arrays
    if (this%maxsig0 > 0) then
      ilen = this%maxsig0
    else
      ilen = 1
    end if
    call mem_allocate(this%nodelistsig0, ilen, 'NODELISTSIG0', this%memoryPath)
    call mem_allocate(this%sig0, ilen, 'SIG0', this%memoryPath)
    !
    ! -- set pointers to gwf variables
    call mem_setptr(this%gwfiss, 'ISS', trim(this%name_model))
    !
    ! -- set pointers to variables in the storage package
    call mem_setptr(this%stoiconv, 'ICONVERT', this%stoMemPath)
    call mem_setptr(this%stoss, 'SS', this%stoMemPath)
    !
    ! -- initialize variables that are not specified by user
    do n = 1, this%dis%nodes
      this%cg_gs(n) = dzero
      this%cg_es(n) = dzero
      this%cg_comp(n) = dzero
      this%cg_tcomp(n) = dzero
      this%cell_wcstor(n) = dzero
    end do
    do n = 1, this%ninterbeds
      this%theta(n) = dzero
      this%tcomp(n) = dzero
      this%tcompi(n) = dzero
      this%tcompe(n) = dzero
    end do
    do n = 1, max(1, this%maxsig0)
      this%nodelistsig0(n) = 0
      this%sig0(n) = dzero
    end do

csub_allocate_scalars()

subroutine gwfcsubmodule::csub_allocate_scalars

(

class(gwfcsubtype), intent(inout)

this

)

Allocate and initialize scalars for the CSUB package. The base model allocate scalars method is also called.

Definition at line 1108 of file gwf-csub.f90.

    ! -- modules
    use memorymanagermodule, only: mem_allocate
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    !
    ! -- call standard NumericalPackageType allocate scalars
    call this%NumericalPackageType%allocate_scalars()
    !
    ! -- allocate character variables
    call mem_allocate(this%listlabel, lenlistlabel, 'LISTLABEL', this%memoryPath)
    call mem_allocate(this%stoMemPath, lenmempath, 'STONAME', this%memoryPath)
    !
    ! -- allocate the object and assign values to object variables
    call mem_allocate(this%istounit, 'ISTOUNIT', this%memoryPath)
    call mem_allocate(this%inobspkg, 'INOBSPKG', this%memoryPath)
    call mem_allocate(this%ninterbeds, 'NINTERBEDS', this%memoryPath)
    call mem_allocate(this%maxsig0, 'MAXSIG0', this%memoryPath)
    call mem_allocate(this%nbound, 'NBOUND', this%memoryPath)
    call mem_allocate(this%iscloc, 'ISCLOC', this%memoryPath)
    call mem_allocate(this%iauxmultcol, 'IAUXMULTCOL', this%memoryPath)
    call mem_allocate(this%ndelaycells, 'NDELAYCELLS', this%memoryPath)
    call mem_allocate(this%ndelaybeds, 'NDELAYBEDS', this%memoryPath)
    call mem_allocate(this%initialized, 'INITIALIZED', this%memoryPath)
    call mem_allocate(this%ieslag, 'IESLAG', this%memoryPath)
    call mem_allocate(this%ipch, 'IPCH', this%memoryPath)
    call mem_allocate(this%lhead_based, 'LHEAD_BASED', this%memoryPath)
    call mem_allocate(this%iupdatestress, 'IUPDATESTRESS', this%memoryPath)
    call mem_allocate(this%ispecified_pcs, 'ISPECIFIED_PCS', this%memoryPath)
    call mem_allocate(this%ispecified_dbh, 'ISPECIFIED_DBH', this%memoryPath)
    call mem_allocate(this%inamedbound, 'INAMEDBOUND', this%memoryPath)
    call mem_allocate(this%iconvchk, 'ICONVCHK', this%memoryPath)
    call mem_allocate(this%naux, 'NAUX', this%memoryPath)
    call mem_allocate(this%istoragec, 'ISTORAGEC', this%memoryPath)
    call mem_allocate(this%istrainib, 'ISTRAINIB', this%memoryPath)
    call mem_allocate(this%istrainsk, 'ISTRAINSK', this%memoryPath)
    call mem_allocate(this%ioutcomp, 'IOUTCOMP', this%memoryPath)
    call mem_allocate(this%ioutcompi, 'IOUTCOMPI', this%memoryPath)
    call mem_allocate(this%ioutcompe, 'IOUTCOMPE', this%memoryPath)
    call mem_allocate(this%ioutcompib, 'IOUTCOMPIB', this%memoryPath)
    call mem_allocate(this%ioutcomps, 'IOUTCOMPS', this%memoryPath)
    call mem_allocate(this%ioutzdisp, 'IOUTZDISP', this%memoryPath)
    call mem_allocate(this%ipakcsv, 'IPAKCSV', this%memoryPath)
    call mem_allocate(this%iupdatematprop, 'IUPDATEMATPROP', this%memoryPath)
    call mem_allocate(this%epsilon, 'EPSILON', this%memoryPath)
    call mem_allocate(this%cc_crit, 'CC_CRIT', this%memoryPath)
    call mem_allocate(this%gammaw, 'GAMMAW', this%memoryPath)
    call mem_allocate(this%beta, 'BETA', this%memoryPath)
    call mem_allocate(this%brg, 'BRG', this%memoryPath)
    call mem_allocate(this%satomega, 'SATOMEGA', this%memoryPath)
    call mem_allocate(this%icellf, 'ICELLF', this%memoryPath)
    call mem_allocate(this%gwfiss0, 'GWFISS0', this%memoryPath)
    !
    ! -- allocate TS object
    allocate (this%TsManager)
    !
    ! -- allocate text strings
    call mem_allocate(this%auxname, lenauxname, 0, 'AUXNAME', this%memoryPath)
    !
    ! -- initialize values
    this%istounit = 0
    this%inobspkg = 0
    this%ninterbeds = 0
    this%maxsig0 = 0
    this%nbound = 0
    this%iscloc = 0
    this%iauxmultcol = 0
    this%ndelaycells = 19
    this%ndelaybeds = 0
    this%initialized = 0
    this%ieslag = 0
    this%ipch = 0
    this%lhead_based = .false.
    this%iupdatestress = 1
    this%ispecified_pcs = 0
    this%ispecified_dbh = 0
    this%inamedbound = 0
    this%iconvchk = 1
    this%naux = 0
    this%istoragec = 1
    this%istrainib = 0
    this%istrainsk = 0
    this%ioutcomp = 0
    this%ioutcompi = 0
    this%ioutcompe = 0
    this%ioutcompib = 0
    this%ioutcomps = 0
    this%ioutzdisp = 0
    this%ipakcsv = 0
    this%iupdatematprop = 0
    this%epsilon = dzero
    this%cc_crit = dem7
    this%gammaw = dgravity * 1000._dp
    this%beta = 4.6512e-10_dp
    this%brg = this%gammaw * this%beta
    !
    ! -- set omega value used for saturation calculations
    if (this%inewton /= 0) then
      this%satomega = dem6
      this%epsilon = dhalf * dem6
    else
      this%satomega = dzero
    end if
    this%icellf = 0
    this%ninterbeds = 0
    this%gwfiss0 = 0

csub_ar()

subroutine gwfcsubmodule::csub_ar ( class(gwfcsubtype), intent(inout)  this, class(disbasetype), intent(in), pointer  dis, integer(i4b), dimension(:), pointer, contiguous  ibound  )

private

Method to allocate and read static data for the CSUB package.

Parameters

[in]	dis	model discretization
	ibound	model ibound array

Definition at line 360 of file gwf-csub.f90.

    ! -- modules
    use memorymanagermodule, only: mem_setptr
    use constantsmodule, only: linelength
    use kindmodule, only: i4b
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    class(DisBaseType), pointer, intent(in) :: dis !< model discretization
    integer(I4B), dimension(:), pointer, contiguous :: ibound !< model ibound array
    ! -- local variables
    logical(LGP) :: isfound, endOfBlock
    character(len=:), allocatable :: line
    character(len=LINELENGTH) :: keyword
    character(len=20) :: cellid
    integer(I4B) :: iske
    integer(I4B) :: istheta
    integer(I4B) :: isgm
    integer(I4B) :: isgs
    integer(I4B) :: idelay
    integer(I4B) :: ierr
    integer(I4B) :: lloc
    integer(I4B) :: istart
    integer(I4B) :: istop
    integer(I4B) :: ib
    integer(I4B) :: node
    integer(I4B) :: istoerr
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: thick
    real(DP) :: cg_ske_cr
    real(DP) :: theta
    real(DP) :: v
    ! -- format
    character(len=*), parameter :: fmtcsub = &
      "(1x,/1x,'CSUB -- COMPACTION PACKAGE, VERSION 1, 12/15/2019', &
     &' INPUT READ FROM UNIT ', i0, //)"
    !
    ! --print a message identifying the csub package.
    write (this%iout, fmtcsub) this%inunit
    !
    ! -- store pointers to arguments that were passed in
    this%dis => dis
    this%ibound => ibound
    !
    ! -- Create time series managers
    call tsmanager_cr(this%TsManager, this%iout)
    !
    ! -- create obs package
    call obs_cr(this%obs, this%inobspkg)
    !
    ! -- Read csub options
    call this%read_options()
    !
    ! -- Now that time series will have been read, need to call the df
    !    routine to define the manager
    call this%tsmanager%tsmanager_df()
    !
    ! -- Read the csub dimensions
    call this%read_dimensions()
    !
    ! - observation data
    call this%obs%obs_ar()
 
    ! setup tables
    call this%csub_initialize_tables()
    !
    ! -- terminate if errors dimensions block data
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if
 
    ! -- Allocate arrays in
    call this%csub_allocate_arrays()
    !
    ! -- initialize local variables
    iske = 0
    istheta = 0
    isgm = 0
    isgs = 0
    !
    ! -- read griddata block
    call this%parser%GetBlock('GRIDDATA', isfound, ierr)
    if (isfound) then
      do
        call this%parser%GetNextLine(endofblock)
        if (endofblock) exit
        call this%parser%GetStringCaps(keyword)
        call this%parser%GetRemainingLine(line)
        lloc = 1
        select case (keyword)
        case ('CG_SKE_CR')
          call this%dis%read_grid_array(line, lloc, istart, istop, &
                                        this%iout, this%parser%iuactive, &
                                        this%cg_ske_cr, 'CG_SKE_CR')
          iske = 1
        case ('CG_THETA')
          call this%dis%read_grid_array(line, lloc, istart, istop, &
                                        this%iout, this%parser%iuactive, &
                                        this%cg_thetaini, 'CG_THETA')
          istheta = 1
        case ('SGM')
          call this%dis%read_grid_array(line, lloc, istart, istop, &
                                        this%iout, this%parser%iuactive, &
                                        this%sgm, 'SGM')
          isgm = 1
        case ('SGS')
          call this%dis%read_grid_array(line, lloc, istart, istop, &
                                        this%iout, this%parser%iuactive, &
                                        this%sgs, 'SGS')
          isgs = 1
        case default
          write (errmsg, '(a,1x,a,a)') &
            "Unknown GRIDDATA tag '", trim(keyword), "'."
          call store_error(errmsg)
        end select
      end do
    else
      call store_error('Required GRIDDATA block not found.')
    end if
    !
    ! -- determine if cg_ske and cg_theta have been specified
    if (iske == 0) then
      write (errmsg, '(a)') 'CG_SKE GRIDDATA must be specified.'
      call store_error(errmsg)
    end if
    if (istheta == 0) then
      write (errmsg, '(a)') 'CG_THETA GRIDDATA must be specified.'
      call store_error(errmsg)
    end if
    !
    ! -- determine if sgm and sgs have been specified, if not assign default values
    if (isgm == 0) then
      do node = 1, this%dis%nodes
        this%sgm(node) = 1.7d0
      end do
    end if
    if (isgs == 0) then
      do node = 1, this%dis%nodes
        this%sgs(node) = 2.0d0
      end do
    end if
    !
    ! -- evaluate the coarse-grained material properties and if
    !    non-zero specific storage values are specified in the
    !    STO package
    istoerr = 0
    do node = 1, this%dis%nodes
      call this%dis%noder_to_string(node, cellid)
      cg_ske_cr = this%cg_ske_cr(node)
      theta = this%cg_thetaini(node)
      !
      ! -- coarse-grained storage error condition
      if (cg_ske_cr < dzero) then
        write (errmsg, '(a,g0,a,1x,a,1x,a,a)') &
          'Coarse-grained material CG_SKE_CR (', cg_ske_cr, ') is less', &
          'than zero in cell', trim(adjustl(cellid)), '.'
      end if
      !
      ! -- storage (STO) package error condition
      if (this%stoss(node) /= dzero) then
        istoerr = 1
      end if
      !
      ! -- porosity error condition
      if (theta > done .or. theta < dzero) then
        write (errmsg, '(a,g0,a,1x,a,1x,a,a)') &
          'Coarse-grained material THETA (', theta, ') is less', &
          'than zero or greater than 1 in cell', trim(adjustl(cellid)), '.'
      end if
    end do
    !
    ! -- write single message if storage (STO) package has non-zero specific
    !    storage values
    if (istoerr /= 0) then
      write (errmsg, '(a,3(1x,a))') &
        'Specific storage values in the storage (STO) package must', &
        'be zero in all active cells when using the', &
        trim(adjustl(this%packName)), &
        'package.'
      call store_error(errmsg)
    end if
    !
    ! -- read interbed data
    if (this%ninterbeds > 0) then
      call this%csub_read_packagedata()
    end if
    !
    ! -- calculate the coarse-grained material thickness without the interbeds
    do node = 1, this%dis%nodes
      top = this%dis%top(node)
      bot = this%dis%bot(node)
      this%cg_thickini(node) = top - bot
      this%cell_thick(node) = top - bot
    end do
    !
    ! -- subtract the interbed thickness from aquifer thickness
    do ib = 1, this%ninterbeds
      node = this%nodelist(ib)
      idelay = this%idelay(ib)
      if (idelay == 0) then
        v = this%thickini(ib)
      else
        v = this%rnb(ib) * this%thickini(ib)
      end if
      this%cg_thickini(node) = this%cg_thickini(node) - v
    end do
    !
    ! -- evaluate if any cg_thick values are less than 0
    do node = 1, this%dis%nodes
      thick = this%cg_thickini(node)
      if (thick < dzero) then
        call this%dis%noder_to_string(node, cellid)
        write (errmsg, '(a,g0,a,1x,a,a)') &
          'Aquifer thickness is less than zero (', &
          thick, ') in cell', trim(adjustl(cellid)), '.'
        call store_error(errmsg)
      end if
    end do
    !
    ! -- terminate if errors griddata, packagedata blocks, TDIS, or STO data
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if
    !
    ! -- set current coarse-grained thickness (cg_thick) and
    !    current coarse-grained porosity (cg_theta). Only needed
    !    if updating material properties
    if (this%iupdatematprop /= 0) then
      do node = 1, this%dis%nodes
        this%cg_thick(node) = this%cg_thickini(node)
        this%cg_theta(node) = this%cg_thetaini(node)
      end do
    end if

Here is the call graph for this function:

csub_bd()

subroutine gwfcsubmodule::csub_bd	(	class(gwfcsubtype)	this,
		integer(i4b), intent(in)	isuppress_output,
		type(budgettype), intent(inout)	model_budget
	)

Budget calculation for the CSUB package components. Components include coarse-grained storage, delay and no-delay interbeds, and water compressibility.

Parameters

[in,out]	model_budget	model budget object
[in,out]	model_budget	model budget object

Definition at line 3522 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    use constantsmodule, only: lenboundname, dzero, done
    use budgetmodule, only: budgettype, rate_accumulator
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: isuppress_output
    type(BudgetType), intent(inout) :: model_budget !< model budget object
    ! -- local
    real(DP) :: rin
    real(DP) :: rout
    !
    ! -- interbed elastic storage  (this%cg_stor)
    call rate_accumulator(this%cg_stor, rin, rout)
    call model_budget%addentry(rin, rout, delt, budtxt(1), &
                               isuppress_output, '            CSUB')
    if (this%ninterbeds > 0) then
      !
      ! -- interbed elastic storage (this%storagee)
      call rate_accumulator(this%storagee, rin, rout)
      call model_budget%addentry(rin, rout, delt, budtxt(2), &
                                 isuppress_output, '            CSUB')
      !
      ! -- interbed elastic storage (this%storagei)
      call rate_accumulator(this%storagei, rin, rout)
      call model_budget%addentry(rin, rout, delt, budtxt(3), &
                                 isuppress_output, '            CSUB')
    end if
    call rate_accumulator(this%cell_wcstor, rin, rout)
    call model_budget%addentry(rin, rout, delt, budtxt(4), &
                               isuppress_output, '            CSUB')
    return

Here is the call graph for this function:

csub_bd_obs()

subroutine gwfcsubmodule::csub_bd_obs ( class(gwfcsubtype), intent(inout)  this )

private

Method to set the CSUB package observations for this time step.

Definition at line 6942 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    ! -- local variables
    type(ObserveType), pointer :: obsrv => null()
    integer(I4B) :: i
    integer(I4B) :: j
    integer(I4B) :: n
    integer(I4B) :: idelay
    integer(I4B) :: ncol
    integer(I4B) :: node
    real(DP) :: v
    real(DP) :: r
    real(DP) :: f
    !
    ! -- Fill simulated values for all csub observations
    if (this%obs%npakobs > 0) then
      call this%obs%obs_bd_clear()
      do i = 1, this%obs%npakobs
        obsrv => this%obs%pakobs(i)%obsrv
        if (obsrv%BndFound) then
          if (obsrv%ObsTypeId == 'SKE' .or. &
              obsrv%ObsTypeId == 'SK' .or. &
              obsrv%ObsTypeId == 'SKE-CELL' .or. &
              obsrv%ObsTypeId == 'SK-CELL' .or. &
              obsrv%ObsTypeId == 'DELAY-HEAD' .or. &
              obsrv%ObsTypeId == 'DELAY-PRECONSTRESS' .or. &
              obsrv%ObsTypeId == 'DELAY-GSTRESS' .or. &
              obsrv%ObsTypeId == 'DELAY-ESTRESS' .or. &
              obsrv%ObsTypeId == 'PRECONSTRESS-CELL') then
            if (this%gwfiss /= 0) then
              call this%obs%SaveOneSimval(obsrv, dnodata)
            else
              v = dzero
              do j = 1, obsrv%indxbnds_count
                n = obsrv%indxbnds(j)
                select case (obsrv%ObsTypeId)
                case ('SKE')
                  v = this%ske(n)
                case ('SK')
                  v = this%sk(n)
                case ('SKE-CELL')
                  !
                  ! -- add the coarse component
                  if (j == 1) then
                    v = this%cg_ske(n)
                  else
                    v = this%ske(n)
                  end if
                case ('SK-CELL')
                  !
                  ! -- add the coarse component
                  if (j == 1) then
                    v = this%cg_sk(n)
                  else
                    v = this%sk(n)
                  end if
                case ('DELAY-HEAD', 'DELAY-PRECONSTRESS', &
                      'DELAY-GSTRESS', 'DELAY-ESTRESS')
                  if (n > this%ndelaycells) then
                    r = real(n - 1, dp) / real(this%ndelaycells, dp)
                    idelay = int(floor(r)) + 1
                    ncol = n - int(floor(r)) * this%ndelaycells
                  else
                    idelay = 1
                    ncol = n
                  end if
                  select case (obsrv%ObsTypeId)
                  case ('DELAY-HEAD')
                    v = this%dbh(ncol, idelay)
                  case ('DELAY-PRECONSTRESS')
                    v = this%dbpcs(ncol, idelay)
                  case ('DELAY-GSTRESS')
                    v = this%dbgeo(ncol, idelay)
                  case ('DELAY-ESTRESS')
                    v = this%dbes(ncol, idelay)
                  end select
                case ('PRECONSTRESS-CELL')
                  v = this%pcs(n)
                case default
                  errmsg = "Unrecognized observation type '"// &
                           trim(obsrv%ObsTypeId)//"'."
                  call store_error(errmsg)
                end select
                call this%obs%SaveOneSimval(obsrv, v)
              end do
            end if
          else
            v = dzero
            do j = 1, obsrv%indxbnds_count
              n = obsrv%indxbnds(j)
              select case (obsrv%ObsTypeId)
              case ('CSUB')
                v = this%storagee(n) + this%storagei(n)
              case ('INELASTIC-CSUB')
                v = this%storagei(n)
              case ('ELASTIC-CSUB')
                v = this%storagee(n)
              case ('COARSE-CSUB')
                v = this%cg_stor(n)
              case ('WCOMP-CSUB-CELL')
                v = this%cell_wcstor(n)
              case ('CSUB-CELL')
                !
                ! -- add the coarse component
                if (j == 1) then
                  v = this%cg_stor(n)
                else
                  v = this%storagee(n) + this%storagei(n)
                end if
              case ('THETA')
                v = this%theta(n)
              case ('COARSE-THETA')
                v = this%cg_theta(n)
              case ('THETA-CELL')
                !
                ! -- add the coarse component
                if (j == 1) then
                  f = this%cg_thick(n) / this%cell_thick(n)
                  v = f * this%cg_theta(n)
                else
                  node = this%nodelist(n)
                  f = this%csub_calc_interbed_thickness(n) / this%cell_thick(node)
                  v = f * this%theta(n)
                end if
              case ('GSTRESS-CELL')
                v = this%cg_gs(n)
              case ('ESTRESS-CELL')
                v = this%cg_es(n)
              case ('INTERBED-COMPACTION')
                v = this%tcomp(n)
              case ('INELASTIC-COMPACTION')
                v = this%tcompi(n)
              case ('ELASTIC-COMPACTION')
                v = this%tcompe(n)
              case ('COARSE-COMPACTION')
                v = this%cg_tcomp(n)
              case ('INELASTIC-COMPACTION-CELL')
                !
                ! -- no coarse inelastic component
                if (j > 1) then
                  v = this%tcompi(n)
                end if
              case ('ELASTIC-COMPACTION-CELL')
                !
                ! -- add the coarse component
                if (j == 1) then
                  v = this%cg_tcomp(n)
                else
                  v = this%tcompe(n)
                end if
              case ('COMPACTION-CELL')
                !
                ! -- add the coarse component
                if (j == 1) then
                  v = this%cg_tcomp(n)
                else
                  v = this%tcomp(n)
                end if
              case ('THICKNESS')
                idelay = this%idelay(n)
                v = this%thick(n)
                if (idelay /= 0) then
                  v = v * this%rnb(n)
                end if
              case ('COARSE-THICKNESS')
                v = this%cg_thick(n)
              case ('THICKNESS-CELL')
                v = this%cell_thick(n)
              case ('DELAY-COMPACTION', 'DELAY-THICKNESS', &
                    'DELAY-THETA')
                if (n > this%ndelaycells) then
                  r = real(n, dp) / real(this%ndelaycells, dp)
                  idelay = int(floor(r)) + 1
                  ncol = mod(n, this%ndelaycells)
                else
                  idelay = 1
                  ncol = n
                end if
                select case (obsrv%ObsTypeId)
                case ('DELAY-COMPACTION')
                  v = this%dbtcomp(ncol, idelay)
                case ('DELAY-THICKNESS')
                  v = this%dbdz(ncol, idelay)
                case ('DELAY-THETA')
                  v = this%dbtheta(ncol, idelay)
                end select
              case ('DELAY-FLOWTOP')
                idelay = this%idelay(n)
                v = this%dbflowtop(idelay)
              case ('DELAY-FLOWBOT')
                idelay = this%idelay(n)
                v = this%dbflowbot(idelay)
              case default
                errmsg = "Unrecognized observation type: '"// &
                         trim(obsrv%ObsTypeId)//"'."
                call store_error(errmsg)
              end select
              call this%obs%SaveOneSimval(obsrv, v)
            end do
          end if
        else
          call this%obs%SaveOneSimval(obsrv, dnodata)
        end if
      end do
      !
      ! -- write summary of package error messages
      if (count_errors() > 0) then
        call this%parser%StoreErrorUnit()
      end if
    end if

Here is the call graph for this function:

csub_calc_adjes()

real(dp) function gwfcsubmodule::csub_calc_adjes ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  es0, real(dp), intent(in)  z0, real(dp), intent(in)  z  )

private

Function to calculate the effective stress at specified elevation z using the provided effective stress (es0) calculated at elevation z0 (which is <= z)

Returns

es node elevation

Parameters

[in]	node	cell node number
[in]	es0	effective stress at elevation z0
[in]	z0	elevation effective stress is calculate at
[in]	z	elevation to calculate effective stress at

Definition at line 5446 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: es0 !< effective stress at elevation z0
    real(DP), intent(in) :: z0 !< elevation effective stress is calculate at
    real(DP), intent(in) :: z !< elevation to calculate effective stress at
    ! -- local variables
    real(DP) :: es
    !
    ! -- adjust effective stress to vertical node position
    es = es0 - (z - z0) * (this%sgs(node) - done)

csub_calc_delay_flow()

real(dp) function gwfcsubmodule::csub_calc_delay_flow ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, integer(i4b), intent(in)  n, real(dp), intent(in)  hcell  )

private

Function to calculate the flow from across the top or bottom of a delay interbed.

Returns

q flow across the top or bottom of a delay interbed

Parameters

[in]	ib	interbed number
[in]	n	delay interbed cell
[in]	hcell	current head in cell

Definition at line 6716 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: n !< delay interbed cell
    real(DP), intent(in) :: hcell !< current head in cell
    ! -- local variables
    integer(I4B) :: idelay
    real(DP) :: q
    real(DP) :: c
    !
    ! -- calculate flow between delay interbed and GWF
    idelay = this%idelay(ib)
    c = dtwo * this%kv(ib) / this%dbdzini(n, idelay)
    q = c * (hcell - this%dbh(n, idelay))

csub_calc_interbed_thickness()

real(dp) function gwfcsubmodule::csub_calc_interbed_thickness ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib  )

private

Function to calculate the interbed thickness.

Returns

thick interbed thickness

Parameters

[in]

ib

interbed number

Definition at line 5393 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    ! -- local variables
    integer(I4B) :: idelay
    real(DP) :: thick
    !
    ! -- calculate interbed thickness
    idelay = this%idelay(ib)
    thick = this%thick(ib)
    if (idelay /= 0) then
      thick = thick * this%rnb(ib)
    end if

csub_calc_sat()

subroutine gwfcsubmodule::csub_calc_sat ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  snnew, real(dp), intent(inout)  snold  )

private

Method to calculate the cell saturation for the current and previous time step.

Parameters

[in,out]	snnew	current saturation
[in,out]	snold	previous saturation
[in]	node	cell node number
[in]	hcell	current head
[in]	hcellold	previous head
[in,out]	snnew	current saturation
[in,out]	snold	previous saturation

Definition at line 5517 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: hcell !< current head
    real(DP), intent(in) :: hcellold !< previous head
    real(DP), intent(inout) :: snnew !< current saturation
    real(DP), intent(inout) :: snold !< previous saturation
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    !
    ! -- calculate cell saturation
    if (this%stoiconv(node) /= 0) then
      top = this%dis%top(node)
      bot = this%dis%bot(node)
      snnew = squadraticsaturation(top, bot, hcell, this%satomega)
      snold = squadraticsaturation(top, bot, hcellold, this%satomega)
    else
      snnew = done
      snold = done
    end if
    if (this%ieslag /= 0) then
      snold = snnew
    end if

Here is the call graph for this function:

csub_calc_sat_derivative()

real(dp) function gwfcsubmodule::csub_calc_sat_derivative ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  hcell  )

private

Function to calculate the derivative of the saturation with respect to the current head.

Returns

satderv derivative of saturation

Parameters

[in]	node	cell node number
[in]	hcell	current head

Definition at line 5551 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: hcell !< current head
    ! -- local variables
    real(DP) :: satderv
    real(DP) :: top
    real(DP) :: bot
 
    if (this%stoiconv(node) /= 0) then
      top = this%dis%top(node)
      bot = this%dis%bot(node)
      satderv = squadraticsaturationderivative(top, bot, hcell, this%satomega)
    else
      satderv = dzero
    end if

Here is the call graph for this function:

csub_calc_sfacts()

subroutine gwfcsubmodule::csub_calc_sfacts ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  bot, real(dp), intent(in)  znode, real(dp), intent(in)  theta, real(dp), intent(in)  es, real(dp), intent(in)  es0, real(dp), intent(inout)  fact  )

private

Method to calculate the factor that is used to calculate skeletal specific storage coefficients. Can be used for coarse-grained materials and interbeds.

Parameters

[in,out]	fact	skeletal storage coefficient factor
[in]	node	cell node number
[in]	theta	porosity
[in]	es	current effective stress
[in]	es0	previous effective stress
[in,out]	fact	skeletal storage coefficient factor (1/((1+void_ratio)*bar(es)))

Definition at line 5579 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: bot !
    real(DP), intent(in) :: znode
    real(DP), intent(in) :: theta !< porosity
    real(DP), intent(in) :: es !< current effective stress
    real(DP), intent(in) :: es0 !< previous effective stress
    real(DP), intent(inout) :: fact !< skeletal storage coefficient factor (1/((1+void_ratio)*bar(es)))
    ! -- local variables
    real(DP) :: esv
    real(DP) :: void_ratio
    real(DP) :: denom
    !
    ! -- initialize variables
    fact = dzero
    if (this%ieslag /= 0) then
      esv = es0
    else
      esv = es
    end if
    !
    ! -- calculate storage factors for the effective stress case
    void_ratio = this%csub_calc_void_ratio(theta)
    denom = this%csub_calc_adjes(node, esv, bot, znode)
    denom = denom * (done + void_ratio)
    if (denom /= dzero) then
      fact = done / denom
    end if

csub_calc_theta()

real(dp) function gwfcsubmodule::csub_calc_theta ( class(gwfcsubtype), intent(inout)  this, real(dp), intent(in)  void_ratio  )

private

Function to calculate the porosity from the void ratio.

Returns

theta porosity

Definition at line 5376 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    real(DP), intent(in) :: void_ratio
    ! -- local variables
    real(DP) :: theta
    !
    ! -- calculate theta
    theta = void_ratio / (done + void_ratio)

csub_calc_void_ratio()

real(dp) function gwfcsubmodule::csub_calc_void_ratio ( class(gwfcsubtype), intent(inout)  this, real(dp), intent(in)  theta  )

private

Function to calculate the void ratio from the porosity.

Returns

void void ratio

Parameters

[in]

theta

porosity

Definition at line 5360 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    real(DP), intent(in) :: theta !< porosity
    ! -- local variables
    real(DP) :: void_ratio
    ! -- calculate void ratio
    void_ratio = theta / (done - theta)

csub_calc_znode()

real(dp) function gwfcsubmodule::csub_calc_znode ( class(gwfcsubtype), intent(inout)  this, real(dp), intent(in)  top, real(dp), intent(in)  bottom, real(dp), intent(in)  zbar  )

private

Function to calculate elevation of the node between the specified corrected elevation zbar and the bottom elevation. If zbar is greater than the top elevation, the node elevation is halfway between the top and bottom elevations. The corrected elevation (zbar) is always greater than or equal to bottom.

Returns

znode node elevation

Parameters

[in]	top	top of cell
[in]	bottom	bottom of cell
[in]	zbar	corrected elevation

Definition at line 5419 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    real(DP), intent(in) :: top !< top of cell
    real(DP), intent(in) :: bottom !< bottom of cell
    real(DP), intent(in) :: zbar !< corrected elevation
    ! -- local variables
    real(DP) :: znode
    real(DP) :: v
    !
    ! -- calculate the node elevation
    if (zbar > top) then
      v = top
    else
      v = zbar
    end if
    znode = dhalf * (v + bottom)

csub_cc()

subroutine gwfcsubmodule::csub_cc ( class(gwfcsubtype)  this, integer(i4b), intent(in)  innertot, integer(i4b), intent(in)  kiter, integer(i4b), intent(in)  iend, integer(i4b), intent(in)  icnvgmod, integer(i4b), intent(in)  nodes, real(dp), dimension(nodes), intent(in)  hnew, real(dp), dimension(nodes), intent(in)  hold, character(len=lenpakloc), intent(inout)  cpak, integer(i4b), intent(inout)  ipak, real(dp), intent(inout)  dpak  )

private

Final convergence check for the CSUB package. The final convergence check is only required when the simulation includes delay interbeds. The final convergence check compares the sum of water contributed by storage and water compressibility in the delay bed to the fluid exchange between the delay interbed and the gwf cell.

Parameters

[in,out]	cpak	string location of the maximum change in csub package
[in,out]	ipak	node with the maximum change in csub package
[in,out]	dpak	maximum change in csub package
[in]	innertot	total number of inner iterations
[in]	kiter	outer iteration number
[in]	iend	flag indicating if it is the last iteration
[in]	icnvgmod	flag indicating if the solution is considered converged
[in]	nodes	number of active nodes
[in]	hnew	current gwf head
[in]	hold	gwf for previous time step
[in,out]	cpak	string location of the maximum change in csub package
[in,out]	ipak	node with the maximum change in csub package
[in,out]	dpak	maximum change in csub package

Definition at line 3037 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: totim, kstp, kper, delt
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: innertot !< total number of inner iterations
    integer(I4B), intent(in) :: kiter !< outer iteration number
    integer(I4B), intent(in) :: iend !< flag indicating if it is the last iteration
    integer(I4B), intent(in) :: icnvgmod !< flag indicating if the solution is considered converged
    integer(I4B), intent(in) :: nodes !< number of active nodes
    real(DP), dimension(nodes), intent(in) :: hnew !< current gwf head
    real(DP), dimension(nodes), intent(in) :: hold !< gwf for previous time step
    character(len=LENPAKLOC), intent(inout) :: cpak !< string location of the maximum change in csub package
    integer(I4B), intent(inout) :: ipak !< node with the maximum change in csub package
    real(DP), intent(inout) :: dpak !< maximum change in csub package
    ! local variables
    character(len=LENPAKLOC) :: cloc
    integer(I4B) :: icheck
    integer(I4B) :: ipakfail
    integer(I4B) :: ib
    integer(I4B) :: node
    integer(I4B) :: idelay
    integer(I4B) :: locdhmax
    integer(I4B) :: locrmax
    integer(I4B) :: ifirst
    real(DP) :: dhmax
    real(DP) :: rmax
    real(DP) :: dh
    real(DP) :: area
    real(DP) :: hcell
    real(DP) :: hcellold
    real(DP) :: snnew
    real(DP) :: snold
    real(DP) :: stoe
    real(DP) :: stoi
    real(DP) :: dwc
    real(DP) :: tled
    real(DP) :: hcof
    real(DP) :: rhs
    real(DP) :: v1
    real(DP) :: v2
    real(DP) :: df
    !
    ! -- initialize local variables
    icheck = this%iconvchk
    ipakfail = 0
    locdhmax = 0
    locrmax = 0
    ifirst = 1
    dhmax = dzero
    rmax = dzero
    !
    ! -- additional checks to see if convergence needs to be checked
    ! -- no convergence check for steady-state stress periods
    if (this%gwfiss /= 0) then
      icheck = 0
    else
      if (icnvgmod == 0) then
        icheck = 0
      end if
    end if
    !
    ! -- perform package convergence check
    if (icheck /= 0) then
      if (delt > dzero) then
        tled = done / delt
      else
        tled = dzero
      end if
      final_check: do ib = 1, this%ninterbeds
        idelay = this%idelay(ib)
        node = this%nodelist(ib)
        !
        ! -- skip nodelay interbeds
        if (idelay == 0) cycle
        !
        ! -- skip inactive cells
        if (this%ibound(node) < 1) cycle
        !
        ! -- evaluate the maximum head change in the interbed
        dh = this%dbdhmax(idelay)
        !
        ! -- evaluate difference between storage changes
        !    in the interbed and exchange between the interbed
        !    and the gwf cell
        area = this%dis%get_area(node)
        hcell = hnew(node)
        hcellold = hold(node)
        !
        ! -- calculate cell saturation
        call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
        !
        ! -- calculate the change in storage
        call this%csub_delay_calc_dstor(ib, hcell, stoe, stoi)
        v1 = (stoe + stoi) * area * this%rnb(ib) * tled
        !
        ! -- add water compressibility to storage term
        call this%csub_delay_calc_wcomp(ib, dwc)
        v1 = v1 + dwc * area * this%rnb(ib)
        !
        ! -- calculate the flow between the interbed and the cell
        call this%csub_delay_fc(ib, hcof, rhs)
        v2 = (-hcof * hcell - rhs) * area * this%rnb(ib)
        !
        ! -- calculate the difference between the interbed change in
        !    storage and the flow between the interbed and the cell
        df = v2 - v1
        !
        ! -- normalize by cell area and convert to a depth
        df = df * delt / area
        !
        ! -- evaluate magnitude of differences
        if (ifirst == 1) then
          ifirst = 0
          locdhmax = ib
          dhmax = dh
          locrmax = ib
          rmax = df
        else
          if (abs(dh) > abs(dhmax)) then
            locdhmax = ib
            dhmax = dh
          end if
          if (abs(df) > abs(rmax)) then
            locrmax = ib
            rmax = df
          end if
        end if
      end do final_check
      !
      ! -- set dpak and cpak
      ! -- update head error
      if (abs(dhmax) > abs(dpak)) then
        ipak = locdhmax
        dpak = dhmax
        write (cloc, "(a,'-',a)") trim(this%packName), 'head'
        cpak = cloc
      end if
      !
      ! -- update storage error
      if (abs(rmax) > abs(dpak)) then
        ipak = locrmax
        dpak = rmax
        write (cloc, "(a,'-',a)") trim(this%packName), 'storage'
        cpak = cloc
      end if
      !
      ! -- write convergence data to package csv
      if (this%ipakcsv /= 0) then
        !
        ! -- write the data
        call this%pakcsvtab%add_term(innertot)
        call this%pakcsvtab%add_term(totim)
        call this%pakcsvtab%add_term(kper)
        call this%pakcsvtab%add_term(kstp)
        call this%pakcsvtab%add_term(kiter)
        if (this%ndelaybeds > 0) then
          call this%pakcsvtab%add_term(dhmax)
          call this%pakcsvtab%add_term(locdhmax)
          call this%pakcsvtab%add_term(rmax)
          call this%pakcsvtab%add_term(locrmax)
        else
          call this%pakcsvtab%add_term('--')
          call this%pakcsvtab%add_term('--')
          call this%pakcsvtab%add_term('--')
          call this%pakcsvtab%add_term('--')
        end if
        !
        ! -- finalize the package csv
        if (iend == 1) then
          call this%pakcsvtab%finalize_table()
        end if
      end if
    end if

csub_cg_calc_comp()

subroutine gwfcsubmodule::csub_cg_calc_comp ( class(gwfcsubtype)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  comp  )

private

Method calculates coarse-grained compaction in a cell.

Parameters

[in,out]	comp	coarse-grained compaction
[in]	node	cell node number
[in]	hcell	current head in cell
[in]	hcellold	previous head in cell
[in,out]	comp	coarse-grained compaction

Definition at line 5064 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(in) :: hcellold !< previous head in cell
    real(DP), intent(inout) :: comp !< coarse-grained compaction
    ! -- local variables
    real(DP) :: area
    real(DP) :: tled
    real(DP) :: hcof
    real(DP) :: rhs
    !
    ! -- initialize variables
    area = done
    tled = done
    !
    ! -- calculate terms
    call this%csub_cg_fc(node, tled, area, hcell, hcellold, hcof, rhs)
    !
    ! - calculate compaction
    comp = hcof * hcell - rhs

csub_cg_calc_sske()

subroutine gwfcsubmodule::csub_cg_calc_sske	(	class(gwfcsubtype), intent(inout)	this,
		integer(i4b), intent(in)	n,
		real(dp), intent(inout)	sske,
		real(dp), intent(in)	hcell
	)

Method calculates Sske for coarse-grained materials in a cell.

Parameters

[in,out]	sske	coarse-grained Sske
[in]	n	cell node number
[in,out]	sske	coarse grained Sske
[in]	hcell	current head in cell

Definition at line 5008 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: n !< cell node number
    real(DP), intent(inout) :: sske !< coarse grained Sske
    real(DP), intent(in) :: hcell !< current head in cell
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: hbar
    real(DP) :: znode
    real(DP) :: es
    real(DP) :: es0
    real(DP) :: theta
    real(DP) :: f
    real(DP) :: f0
    !
    ! -- initialize variables
    sske = dzero
    !
    ! -- calculate factor for the head-based case
    if (this%lhead_based .EQV. .true.) then
      f = done
      f0 = done
      !
      ! -- calculate factor for the effective stress case
    else
      top = this%dis%top(n)
      bot = this%dis%bot(n)
      !
      ! -- calculate corrected head (hbar)
      hbar = squadratic0sp(hcell, bot, this%satomega)
      !
      ! -- calculate znode
      znode = this%csub_calc_znode(top, bot, hbar)
      !
      ! -- calculate effective stress and theta
      es = this%cg_es(n)
      es0 = this%cg_es0(n)
      theta = this%cg_thetaini(n)
      !
      ! -- calculate the compression index factors for the delay
      !    node relative to the center of the cell based on the
      !    current and previous head
      call this%csub_calc_sfacts(n, bot, znode, theta, es, es0, f)
    end if
    sske = f * this%cg_ske_cr(n)

Here is the call graph for this function:

csub_cg_calc_stress()

subroutine gwfcsubmodule::csub_cg_calc_stress ( class(gwfcsubtype)  this, integer(i4b), intent(in)  nodes, real(dp), dimension(nodes), intent(in)  hnew  )

private

Method calculates the geostatic stress, pressure head, and effective stress at the bottom of each cell. The method also applies the overlying geostatic stress (sig0) not represented in the model.

Parameters

[in]	nodes	number of active model nodes
[in]	hnew	current head

Definition at line 3918 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: nodes !< number of active model nodes
    real(DP), dimension(nodes), intent(in) :: hnew !< current head
    ! -- local variables
    integer(I4B) :: node
    integer(I4B) :: ii
    integer(I4B) :: nn
    integer(I4B) :: m
    integer(I4B) :: idx_conn
    real(DP) :: gs
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: thick
    real(DP) :: va_scale
    real(DP) :: hcell
    real(DP) :: hbar
    real(DP) :: gs_conn
    real(DP) :: es
    real(DP) :: phead
    real(DP) :: sadd
    !
    ! -- calculate geostatic stress if necessary
    if (this%iupdatestress /= 0) then
      do node = 1, this%dis%nodes
        !
        ! -- calculate geostatic stress for this node
        !    this represents the geostatic stress component
        !    for the cell
        top = this%dis%top(node)
        bot = this%dis%bot(node)
        thick = top - bot
        !
        ! -- calculate cell contribution to geostatic stress
        if (this%ibound(node) /= 0) then
          hcell = hnew(node)
        else
          hcell = bot
        end if
        !
        ! -- calculate corrected head (hbar)
        hbar = squadratic0sp(hcell, bot, this%satomega)
        !
        ! -- geostatic stress calculation
        if (hcell < top) then
          gs = (top - hbar) * this%sgm(node) + (hbar - bot) * this%sgs(node)
        else
          gs = thick * this%sgs(node)
        end if
        !
        ! -- cell contribution to geostatic stress
        this%cg_gs(node) = gs
      end do
      !
      ! -- add user specified overlying geostatic stress
      do nn = 1, this%nbound
        node = this%nodelistsig0(nn)
        sadd = this%sig0(nn)
        this%cg_gs(node) = this%cg_gs(node) + sadd
      end do
      !
      ! -- calculate geostatic stress above cell
      do node = 1, this%dis%nodes
        !
        ! -- geostatic stress of cell
        gs = this%cg_gs(node)
        !
        ! -- Add geostatic stress of overlying cells (ihc=0)
        !    m < node = m is vertically above node
        do ii = this%dis%con%ia(node) + 1, this%dis%con%ia(node + 1) - 1
          !
          ! -- Set the m cell number
          m = this%dis%con%ja(ii)
          idx_conn = this%dis%con%jas(ii)
          !
          ! -- vertical connection
          if (this%dis%con%ihc(idx_conn) == 0) then
            !
            ! -- node has an overlying cell
            if (m < node) then
              !
              ! -- dis and disv discretization
              if (this%dis%ndim /= 1) then
                gs = gs + this%cg_gs(m)
                !
                ! -- disu discretization
              else
                va_scale = this%dis%get_area_factor(node, idx_conn)
                gs_conn = this%cg_gs(m)
                gs = gs + (gs_conn * va_scale)
              end if
            end if
          end if
        end do
        !
        ! -- geostatic stress for cell with geostatic stress
        !    of overlying cells
        this%cg_gs(node) = gs
      end do
    end if
    !
    ! -- save effective stress from the last iteration and
    !    calculate the new effective stress for a cell
    do node = 1, this%dis%nodes
      top = this%dis%top(node)
      bot = this%dis%bot(node)
      if (this%ibound(node) /= 0) then
        hcell = hnew(node)
      else
        hcell = bot
      end if
      !
      ! -- calculate corrected head (hbar)
      hbar = squadratic0sp(hcell, bot, this%satomega)
      !
      ! -- calculate pressure head
      phead = hbar - bot
      !
      ! -- calculate effective stress
      es = this%cg_gs(node) - phead
      this%cg_es(node) = es
    end do

Here is the call graph for this function:

csub_cg_chk_stress()

subroutine gwfcsubmodule::csub_cg_chk_stress ( class(gwfcsubtype)  this )

private

Method checks calculated effective stress values to ensure that effective stress values are positive. An error condition and message are issued if calculated effective stress values are less than a small positive value (DEM6).

Definition at line 4051 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    ! -- local variables
    character(len=20) :: cellid
    integer(I4B) :: ierr
    integer(I4B) :: node
    real(DP) :: gs
    real(DP) :: bot
    real(DP) :: hcell
    real(DP) :: es
    real(DP) :: phead
    !
    ! -- initialize variables
    ierr = 0
    !
    ! -- check geostatic stress if necessary
    !
    ! -- save effective stress from the last iteration and
    !    calculate the new effective stress for a cell
    do node = 1, this%dis%nodes
      if (this%ibound(node) < 1) cycle
      bot = this%dis%bot(node)
      gs = this%cg_gs(node)
      es = this%cg_es(node)
      phead = dzero
      if (this%ibound(node) /= 0) then
        phead = gs - es
      end if
      hcell = phead + bot
      if (this%lhead_based .EQV. .false.) then
        if (es < dem6) then
          ierr = ierr + 1
          call this%dis%noder_to_string(node, cellid)
          write (errmsg, '(a,g0,a,1x,a,1x,a,4(g0,a))') &
            'Small to negative effective stress (', es, ') in cell', &
            trim(adjustl(cellid)), '. (', es, ' = ', this%cg_gs(node), &
            ' - (', hcell, ' - ', bot, ').'
          call store_error(errmsg)
        end if
      end if
    end do
    !
    ! -- write a summary error message
    if (ierr > 0) then
      write (errmsg, '(a,1x,i0,3(1x,a))') &
        'Solution: small to negative effective stress values in', ierr, &
        'cells can be eliminated by increasing storage values and/or ', &
        'adding/modifying stress boundaries to prevent water-levels from', &
        'exceeding the top of the model.'
      call store_error(errmsg)
      call this%parser%StoreErrorUnit()
    end if

Here is the call graph for this function:

csub_cg_fc()

subroutine gwfcsubmodule::csub_cg_fc ( class(gwfcsubtype)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  tled, real(dp), intent(in)  area, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the coefficient matrix and right-hand side terms for coarse grained materials in a cell.

Parameters

[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry
[in]	node	cell node number
[in]	tled	recripicol of the time step length
[in]	area	horizontal cell area
[in]	hcell	current head
[in]	hcellold	previous head
[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry

Definition at line 4694 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: tled !< recripicol of the time step length
    real(DP), intent(in) :: area !< horizontal cell area
    real(DP), intent(in) :: hcell !< current head
    real(DP), intent(in) :: hcellold !< previous head
    real(DP), intent(inout) :: hcof !< coarse-grained A matrix entry
    real(DP), intent(inout) :: rhs !< coarse-grained right-hand side entry
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: tthk
    real(DP) :: snold
    real(DP) :: snnew
    real(DP) :: hbar
    real(DP) :: sske
    real(DP) :: rho1
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    !
    ! -- aquifer elevations and thickness
    top = this%dis%top(node)
    bot = this%dis%bot(node)
    tthk = this%cg_thickini(node)
    !
    ! -- calculate hcof and rhs terms if coarse-grained materials present
    if (tthk > dzero) then
      !
      ! -- calculate aquifer saturation
      call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
      !
      ! -- calculate corrected head (hbar)
      hbar = squadratic0sp(hcell, bot, this%satomega)
      !
      ! -- storage coefficients
      call this%csub_cg_calc_sske(node, sske, hcell)
      rho1 = sske * area * tthk * tled
      !
      ! -- update sk and ske
      this%cg_ske(node) = sske * tthk * snold
      this%cg_sk(node) = sske * tthk * snnew
      !
      ! -- calculate hcof and rhs term
      hcof = -rho1 * snnew
      rhs = rho1 * snold * this%cg_es0(node) - &
            rho1 * snnew * (this%cg_gs(node) + bot)
      !
      ! -- calculate and apply the flow correction term
      rhs = rhs - rho1 * snnew * (hcell - hbar)
    end if

Here is the call graph for this function:

csub_cg_fn()

subroutine gwfcsubmodule::csub_cg_fn ( class(gwfcsubtype)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  tled, real(dp), intent(in)  area, real(dp), intent(in)  hcell, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the coefficient matrix and right-hand side terms for coarse grained materials in a cell when using the Newton-Raphson formulation.

Parameters

[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry
[in]	node	node number
[in]	tled	reciprocal of the time step length
[in]	area	horizontal cell area
[in]	hcell	current head in cell
[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry

Definition at line 4760 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: node !< node number
    real(DP), intent(in) :: tled !< reciprocal of the time step length
    real(DP), intent(in) :: area !< horizontal cell area
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(inout) :: hcof !< coarse-grained A matrix entry
    real(DP), intent(inout) :: rhs !< coarse-grained right-hand side entry
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: tthk
    real(DP) :: snnew
    real(DP) :: snold
    real(DP) :: satderv
    real(DP) :: hbar
    real(DP) :: hbarderv
    real(DP) :: sske
    real(DP) :: rho1
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    !
    ! -- aquifer elevations and thickness
    top = this%dis%top(node)
    bot = this%dis%bot(node)
    tthk = this%cg_thickini(node)
    !
    ! -- calculate newton terms if coarse-grained materials present
    if (tthk > dzero) then
      !
      ! -- calculate aquifer saturation - only need snnew
      call this%csub_calc_sat(node, hcell, top, snnew, snold)
      !
      ! -- calculate saturation derivative
      satderv = this%csub_calc_sat_derivative(node, hcell)
      !
      ! -- calculate corrected head (hbar)
      hbar = squadratic0sp(hcell, bot, this%satomega)
      !
      ! -- calculate the derivative of the hbar functions
      hbarderv = squadratic0spderivative(hcell, bot, this%satomega)
      !
      ! -- storage coefficients
      call this%csub_cg_calc_sske(node, sske, hcell)
      rho1 = sske * area * tthk * tled
      !
      ! -- calculate hcof term
      hcof = rho1 * snnew * (done - hbarderv) + &
             rho1 * (this%cg_gs(node) - hbar + bot) * satderv
      !
      ! -- Add additional term if using lagged effective stress
      if (this%ieslag /= 0) then
        hcof = hcof - rho1 * this%cg_es0(node) * satderv
      end if
      !
      ! -- calculate rhs term
      rhs = hcof * hcell
    end if

Here is the call graph for this function:

csub_cg_update()

subroutine gwfcsubmodule::csub_cg_update ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node  )

private

Method updates coarse-grained material properties in a cell.

Parameters

[in]

node

cell node number

Definition at line 5093 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    ! -- local variables
    character(len=20) :: cellid
    real(DP) :: comp
    real(DP) :: thick
    real(DP) :: theta
    !
    ! -- update thickness and theta
    comp = this%cg_tcomp(node) + this%cg_comp(node)
    call this%dis%noder_to_string(node, cellid)
    if (abs(comp) > dzero) then
      thick = this%cg_thickini(node)
      theta = this%cg_thetaini(node)
      call this%csub_adj_matprop(comp, thick, theta)
      if (thick <= dzero) then
        write (errmsg, '(a,1x,a,1x,a,g0,a)') &
          'Adjusted thickness for cell', trim(adjustl(cellid)), &
          'is less than or equal to 0 (', thick, ').'
        call store_error(errmsg)
      end if
      if (theta <= dzero) then
        write (errmsg, '(a,1x,a,1x,a,g0,a)') &
          'Adjusted theta for cell', trim(adjustl(cellid)), &
          'is less than or equal to 0 (', theta, ').'
        call store_error(errmsg)
      end if
      this%cg_thick(node) = thick
      this%cg_theta(node) = theta
    end if

Here is the call graph for this function:

csub_cg_wcomp_fc()

subroutine gwfcsubmodule::csub_cg_wcomp_fc ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  tled, real(dp), intent(in)  area, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the standard formulation coefficient matrix and right-hand side terms for water compressibility in coarse-grained sediments.

Parameters

[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry
[in]	node	cell node number
[in]	tled	reciprocal of the time step length
[in]	area	horizontal cell area
[in]	hcell	current head in cell
[in]	hcellold	previous head in cell
[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry

Definition at line 5137 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: tled !< reciprocal of the time step length
    real(DP), intent(in) :: area !< horizontal cell area
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(in) :: hcellold !< previous head in cell
    real(DP), intent(inout) :: hcof !< coarse-grained A matrix entry
    real(DP), intent(inout) :: rhs !< coarse-grained right-hand side entry
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: tthk
    real(DP) :: tthk0
    real(DP) :: snold
    real(DP) :: snnew
    real(DP) :: wc
    real(DP) :: wc0
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    !
    ! -- aquifer elevations and thickness
    top = this%dis%top(node)
    bot = this%dis%bot(node)
    tthk = this%cg_thick(node)
    tthk0 = this%cg_thick0(node)
    !
    ! -- aquifer saturation
    call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
    !
    ! -- storage coefficients
    wc0 = this%brg * area * tthk0 * this%cg_theta0(node) * tled
    wc = this%brg * area * tthk * this%cg_theta(node) * tled
    !
    ! -- calculate hcof term
    hcof = -wc * snnew
    !
    ! -- calculate rhs term
    rhs = -wc0 * snold * hcellold

csub_cg_wcomp_fn()

subroutine gwfcsubmodule::csub_cg_wcomp_fn ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node, real(dp), intent(in)  tled, real(dp), intent(in)  area, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the Newton-Raphson formulation coefficient matrix and right-hand side terms for water compressibility in coarse-grained sediments.

Parameters

[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry
[in]	node	cell node number
[in]	tled	reciprocal of the time step length
[in]	area	horizontal cell area
[in]	hcell	current head in cell
[in]	hcellold	previous head in cell
[in,out]	hcof	coarse-grained A matrix entry
[in,out]	rhs	coarse-grained right-hand side entry

Definition at line 5192 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: tled !< reciprocal of the time step length
    real(DP), intent(in) :: area !< horizontal cell area
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(in) :: hcellold !< previous head in cell
    real(DP), intent(inout) :: hcof !< coarse-grained A matrix entry
    real(DP), intent(inout) :: rhs !< coarse-grained right-hand side entry
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: tthk
    real(DP) :: tthk0
    real(DP) :: satderv
    real(DP) :: f
    real(DP) :: wc
    real(DP) :: wc0
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    !
    ! -- aquifer elevations and thickness
    top = this%dis%top(node)
    bot = this%dis%bot(node)
    tthk = this%cg_thick(node)
    !
    ! -- calculate saturation derivative
    satderv = this%csub_calc_sat_derivative(node, hcell)
    !
    ! -- calculate water compressibility factor
    f = this%brg * area * tled
    !
    ! -- water compressibility coefficient
    wc = f * tthk * this%cg_theta(node)
    !
    ! -- calculate hcof term
    hcof = -wc * hcell * satderv
    !
    ! -- Add additional term if using lagged effective stress
    if (this%ieslag /= 0) then
      tthk0 = this%cg_thick0(node)
      wc0 = f * tthk0 * this%cg_theta0(node)
      hcof = hcof + wc * hcellold * satderv
    end if
    !
    ! -- calculate rhs term
    rhs = hcof * hcell

csub_cq()

subroutine gwfcsubmodule::csub_cq	(	class(gwfcsubtype)	this,
		integer(i4b), intent(in)	nodes,
		real(dp), dimension(nodes), intent(in)	hnew,
		real(dp), dimension(nodes), intent(in)	hold,
		integer(i4b), intent(in)	isuppress_output,
		real(dp), dimension(:), intent(inout), contiguous	flowja
	)

Flow calculation for the CSUB package components. Components include coarse-grained storage, delay and no-delay interbeds, and water compressibility.

Parameters

[in,out]	model_budget	model budget object
[in]	nodes	number of active model nodes
[in]	hnew	current head
[in]	hold	head for the previous time step
[in]	isuppress_output	flag indicating if budget output should be suppressed

Definition at line 3223 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    use constantsmodule, only: lenboundname, dzero, done
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: nodes !< number of active model nodes
    real(DP), intent(in), dimension(nodes) :: hnew !< current head
    real(DP), intent(in), dimension(nodes) :: hold !< head for the previous time step
    integer(I4B), intent(in) :: isuppress_output !< flag indicating if budget output should be suppressed
    real(DP), dimension(:), contiguous, intent(inout) :: flowja
    ! -- local variables
    integer(I4B) :: ib
    integer(I4B) :: idelay
    integer(I4B) :: ielastic
    integer(I4B) :: iconvert
    integer(I4B) :: node
    integer(I4B) :: nn
    integer(I4B) :: n
    integer(I4B) :: idiag
    real(DP) :: es
    real(DP) :: pcs
    real(DP) :: rho1
    real(DP) :: rho2
    real(DP) :: tled
    real(DP) :: tledm
    real(DP) :: es0
    real(DP) :: rrate
    real(DP) :: ratein
    real(DP) :: rateout
    real(DP) :: comp
    real(DP) :: compi
    real(DP) :: compe
    real(DP) :: area
    real(DP) :: h
    real(DP) :: h0
    real(DP) :: snnew
    real(DP) :: snold
    real(DP) :: hcof
    real(DP) :: rhs
    real(DP) :: stoe
    real(DP) :: stoi
    real(DP) :: b
    real(DP) :: q
    real(DP) :: rratewc
    ! -- for observations
    integer(I4B) :: iprobslocal
    ! -- formats
    !
    ! -- Suppress saving of simulated values; they
    !    will be saved at end of this procedure.
    iprobslocal = 0
    ratein = dzero
    rateout = dzero
    !
    ! -- coarse-grained coarse-grained storage
    do node = 1, this%dis%nodes
      idiag = this%dis%con%ia(node)
      area = this%dis%get_area(node)
      comp = dzero
      rrate = dzero
      rratewc = dzero
      if (this%gwfiss == 0) then
        if (delt > dzero) then
          tled = done / delt
        else
          tled = dzero
        end if
        if (this%ibound(node) > 0 .and. this%cg_thickini(node) > dzero) then
          !
          ! -- calculate coarse-grained storage terms
          call this%csub_cg_fc(node, tled, area, hnew(node), hold(node), &
                               hcof, rhs)
          rrate = hcof * hnew(node) - rhs
          !
          ! -- calculate compaction
          call this%csub_cg_calc_comp(node, hnew(node), hold(node), comp)
          !
          ! -- calculate coarse-grained water compressibility storage terms
          call this%csub_cg_wcomp_fc(node, tled, area, hnew(node), hold(node), &
                                     hcof, rhs)
          rratewc = hcof * hnew(node) - rhs
        end if
      end if
      !
      ! -- update coarse-grained storage and water
      !    compression variables
      this%cg_stor(node) = rrate
      this%cell_wcstor(node) = rratewc
      this%cell_thick(node) = this%cg_thick(node)
      !
      ! -- update incremental coarse-grained compaction
      this%cg_comp(node) = comp
      !
      !
      ! -- update states if required
      if (isuppress_output == 0) then
        !
        ! -- calculate strain and change in coarse-grained void ratio and thickness
        ! todo: consider moving error check in csub_cg_update to ot()
        if (this%iupdatematprop /= 0) then
          call this%csub_cg_update(node)
        end if
        !
        ! -- update total compaction
        this%cg_tcomp(node) = this%cg_tcomp(node) + comp
      end if
      !
      ! -- update flowja
      flowja(idiag) = flowja(idiag) + rrate
      flowja(idiag) = flowja(idiag) + rratewc
    end do
    !
    ! -- interbed storage
    !
    ! -- reset delay bed counters for the current time step
    if (this%ndelaybeds > 0) then
      this%idb_nconv_count(1) = 0
    end if
    !
    ! -- initialize tled
    tled = done
    !
    ! -- calculate budget terms for each interbed
    do ib = 1, this%ninterbeds
      rratewc = dzero
      idelay = this%idelay(ib)
      ielastic = this%ielastic(ib)
      !
      ! -- calculate interbed thickness
      ! -- no delay interbeds
      if (idelay == 0) then
        b = this%thick(ib)
        ! -- delay interbeds
      else
        b = this%thick(ib) * this%rnb(ib)
      end if
      !
      ! -- set variables required for no-delay and delay interbeds
      node = this%nodelist(ib)
      idiag = this%dis%con%ia(node)
      area = this%dis%get_area(node)
      !
      ! -- add interbed thickness to cell thickness
      this%cell_thick(node) = this%cell_thick(node) + b
      !
      ! -- update budget terms if transient stress period
      if (this%gwfiss == 0) then
        if (delt > dzero) then
          tledm = done / delt
        else
          tledm = dzero
        end if
        !
        ! -- skip inactive and constant head cells
        if (this%ibound(node) < 1) cycle
        !
        ! -- no delay interbeds
        if (idelay == 0) then
          iconvert = this%iconvert(ib)
          stoi = dzero
          !
          ! -- calculate compaction
          call this%csub_nodelay_calc_comp(ib, hnew(node), hold(node), comp, &
                                           rho1, rho2)
          !
          ! -- interbed stresses
          es = this%cg_es(node)
          pcs = this%pcs(ib)
          es0 = this%cg_es0(node)
          !
          ! -- calculate inelastic and elastic compaction
          if (ielastic > 0 .or. iconvert == 0) then
            stoe = comp
          else
            stoi = -pcs * rho2 + (rho2 * es)
            stoe = pcs * rho1 - (rho1 * es0)
          end if
          compe = stoe
          compi = stoi
          stoe = stoe * area
          stoi = stoi * area
          this%storagee(ib) = stoe * tledm
          this%storagei(ib) = stoi * tledm
          !
          ! -- update compaction
          this%comp(ib) = comp
          !
          ! -- update states if required
          if (isuppress_output == 0) then
            !
            ! -- calculate strain and change in interbed void ratio and thickness
            if (this%iupdatematprop /= 0) then
              call this%csub_nodelay_update(ib)
            end if
            !
            ! -- update total compaction
            this%tcomp(ib) = this%tcomp(ib) + comp
            this%tcompe(ib) = this%tcompe(ib) + compe
            this%tcompi(ib) = this%tcompi(ib) + compi
          end if
          !
          ! -- delay interbeds
        else
          h = hnew(node)
          h0 = hold(node)
          !
          ! -- calculate cell saturation
          call this%csub_calc_sat(node, h, h0, snnew, snold)
          !
          ! -- calculate inelastic and elastic storage contributions
          call this%csub_delay_calc_dstor(ib, h, stoe, stoi)
          this%storagee(ib) = stoe * area * this%rnb(ib) * tledm
          this%storagei(ib) = stoi * area * this%rnb(ib) * tledm
          !
          ! -- calculate flow across the top and bottom of the delay interbed
          q = this%csub_calc_delay_flow(ib, 1, h) * area * this%rnb(ib)
          this%dbflowtop(idelay) = q
          nn = this%ndelaycells
          q = this%csub_calc_delay_flow(ib, nn, h) * area * this%rnb(ib)
          this%dbflowbot(idelay) = q
          !
          ! -- update states if required
          if (isuppress_output == 0) then
            !
            ! -- calculate sum of compaction in delay interbed
            call this%csub_delay_calc_comp(ib, h, h0, comp, compi, compe)
            !
            ! - calculate strain and change in interbed void ratio and thickness
            ! todo: consider moving error check in csub_delay_update to ot()
            if (this%iupdatematprop /= 0) then
              call this%csub_delay_update(ib)
            end if
            !
            ! -- update total compaction for interbed
            this%tcomp(ib) = this%tcomp(ib) + comp
            this%tcompi(ib) = this%tcompi(ib) + compi
            this%tcompe(ib) = this%tcompe(ib) + compe
            !
            ! -- update total compaction for each delay bed cell
            do n = 1, this%ndelaycells
              this%dbtcomp(n, idelay) = this%dbtcomp(n, idelay) + &
                                        this%dbcomp(n, idelay)
            end do
            !
            ! -- check delay bed heads relative to the top and bottom of each
            !    delay bed cell for convertible and non-convertible gwf cells
            call this%csub_delay_head_check(ib)
          end if
        end if
        !
        ! -- interbed water compressibility
        !
        ! -- no-delay interbed
        if (idelay == 0) then
          call this%csub_nodelay_wcomp_fc(ib, node, tledm, area, &
                                          hnew(node), hold(node), hcof, rhs)
          rratewc = hcof * hnew(node) - rhs
          !
          ! -- delay interbed
        else
          call this%csub_delay_calc_wcomp(ib, q)
          rratewc = q * area * this%rnb(ib)
        end if
        this%cell_wcstor(node) = this%cell_wcstor(node) + rratewc
        !
        ! -- flowja
        flowja(idiag) = flowja(idiag) + rratewc
      else
        this%storagee(ib) = dzero
        this%storagei(ib) = dzero
        if (idelay /= 0) then
          this%dbflowtop(idelay) = dzero
          this%dbflowbot(idelay) = dzero
        end if
      end if
      !
      ! -- flowja
      flowja(idiag) = flowja(idiag) + this%storagee(ib)
      flowja(idiag) = flowja(idiag) + this%storagei(ib)
    end do
    !
    ! -- terminate if errors encountered when updating material properties
    if (this%iupdatematprop /= 0) then
      if (count_errors() > 0) then
        call this%parser%StoreErrorUnit()
      end if
    end if

Here is the call graph for this function:

csub_cr()

subroutine, public gwfcsubmodule::csub_cr	(	type(gwfcsubtype), pointer	csubobj,
		character(len=*), intent(in)	name_model,
		integer(i4b), intent(in)	istounit,
		character(len=*), intent(in)	stoPckName,
		integer(i4b), intent(in)	inunit,
		integer(i4b), intent(in)	iout
	)

Create a new CSUB object

Parameters

	csubobj	pointer to default package type
[in]	name_model	model name
[in]	inunit	unit number of csub input file
[in]	istounit	unit number of storage package
[in]	stopckname	name of the storage package
[in]	iout	unit number of lst output file

Definition at line 324 of file gwf-csub.f90.

    ! -- dummy variables
    type(GwfCsubType), pointer :: csubobj !< pointer to default package type
    character(len=*), intent(in) :: name_model !< model name
    integer(I4B), intent(in) :: inunit !< unit number of csub input file
    integer(I4B), intent(in) :: istounit !< unit number of storage package
    character(len=*), intent(in) :: stoPckName !< name of the storage package
    integer(I4B), intent(in) :: iout !< unit number of lst output file
    ! -- local variables
    !
    ! -- allocate the object and assign values to object variables
    allocate (csubobj)
 
    ! -- create name and memory path
    call csubobj%set_names(1, name_model, 'CSUB', 'CSUB')
    !
    ! -- Allocate scalars
    call csubobj%csub_allocate_scalars()
    !
    ! -- Create memory path to variables from STO package
    csubobj%stoMemPath = create_mem_path(name_model, stopckname)
    !
    ! -- Set variables
    csubobj%istounit = istounit
    csubobj%inunit = inunit
    csubobj%iout = iout
    !
    ! -- Initialize block parser
    call csubobj%parser%Initialize(csubobj%inunit, csubobj%iout)

Here is the call graph for this function:

Here is the caller graph for this function:

csub_da()

subroutine gwfcsubmodule::csub_da ( class(gwfcsubtype)  this )

private

Deallocate CSUB package scalars and arrays.

Definition at line 2261 of file gwf-csub.f90.

    ! -- modules
    use memorymanagermodule, only: mem_deallocate
    ! -- dummy variables
    class(GwfCsubType) :: this
    !
    ! -- Deallocate arrays if package is active
    if (this%inunit > 0) then
      call mem_deallocate(this%unodelist)
      call mem_deallocate(this%nodelist)
      call mem_deallocate(this%idelay)
      call mem_deallocate(this%ielastic)
      call mem_deallocate(this%iconvert)
      !
      ! -- grid-based storage data
      call mem_deallocate(this%buff)
      call mem_deallocate(this%buffusr)
      call mem_deallocate(this%sgm)
      call mem_deallocate(this%sgs)
      call mem_deallocate(this%cg_ske_cr)
      call mem_deallocate(this%cg_gs)
      call mem_deallocate(this%cg_es)
      call mem_deallocate(this%cg_es0)
      call mem_deallocate(this%cg_pcs)
      call mem_deallocate(this%cg_comp)
      call mem_deallocate(this%cg_tcomp)
      call mem_deallocate(this%cg_stor)
      call mem_deallocate(this%cg_ske)
      call mem_deallocate(this%cg_sk)
      if (this%iupdatematprop == 0) then
        nullify (this%cg_thick)
        nullify (this%cg_thick0)
        nullify (this%cg_theta)
        nullify (this%cg_theta0)
      else
        call mem_deallocate(this%cg_thick)
        call mem_deallocate(this%cg_thick0)
        call mem_deallocate(this%cg_theta)
        call mem_deallocate(this%cg_theta0)
      end if
      call mem_deallocate(this%cg_thickini)
      call mem_deallocate(this%cg_thetaini)
      !
      ! -- cell storage
      call mem_deallocate(this%cell_wcstor)
      call mem_deallocate(this%cell_thick)
      !
      ! -- interbed storage
      call mem_deallocate(this%boundname, 'BOUNDNAME', this%memoryPath)
      call mem_deallocate(this%auxname, 'AUXNAME', this%memoryPath)
      call mem_deallocate(this%auxvar)
      call mem_deallocate(this%ci)
      call mem_deallocate(this%rci)
      call mem_deallocate(this%pcs)
      call mem_deallocate(this%rnb)
      call mem_deallocate(this%kv)
      call mem_deallocate(this%h0)
      call mem_deallocate(this%comp)
      call mem_deallocate(this%tcomp)
      call mem_deallocate(this%tcompi)
      call mem_deallocate(this%tcompe)
      call mem_deallocate(this%storagee)
      call mem_deallocate(this%storagei)
      call mem_deallocate(this%ske)
      call mem_deallocate(this%sk)
      if (this%iupdatematprop == 0) then
        nullify (this%thick)
        nullify (this%thick0)
        nullify (this%theta)
        nullify (this%theta0)
      else
        call mem_deallocate(this%thick)
        call mem_deallocate(this%thick0)
        call mem_deallocate(this%theta)
        call mem_deallocate(this%theta0)
      end if
      call mem_deallocate(this%thickini)
      call mem_deallocate(this%thetaini)
      !
      ! -- delay bed storage
      if (this%ndelaybeds > 0) then
        if (this%iupdatematprop == 0) then
          nullify (this%dbdz)
          nullify (this%dbdz0)
          nullify (this%dbtheta)
          nullify (this%dbtheta0)
        else
          call mem_deallocate(this%dbdz)
          call mem_deallocate(this%dbdz0)
          call mem_deallocate(this%dbtheta)
          call mem_deallocate(this%dbtheta0)
        end if
        call mem_deallocate(this%idb_nconv_count)
        call mem_deallocate(this%idbconvert)
        call mem_deallocate(this%dbdhmax)
        call mem_deallocate(this%dbz)
        call mem_deallocate(this%dbrelz)
        call mem_deallocate(this%dbh)
        call mem_deallocate(this%dbh0)
        call mem_deallocate(this%dbgeo)
        call mem_deallocate(this%dbes)
        call mem_deallocate(this%dbes0)
        call mem_deallocate(this%dbpcs)
        call mem_deallocate(this%dbflowtop)
        call mem_deallocate(this%dbflowbot)
        call mem_deallocate(this%dbdzini)
        call mem_deallocate(this%dbthetaini)
        call mem_deallocate(this%dbcomp)
        call mem_deallocate(this%dbtcomp)
        !
        ! -- delay interbed solution arrays
        call mem_deallocate(this%dbal)
        call mem_deallocate(this%dbad)
        call mem_deallocate(this%dbau)
        call mem_deallocate(this%dbrhs)
        call mem_deallocate(this%dbdh)
        call mem_deallocate(this%dbaw)
      end if
      !
      ! -- period data
      call mem_deallocate(this%nodelistsig0)
      call mem_deallocate(this%sig0)
      !
      ! -- pointers to gwf variables
      nullify (this%gwfiss)
      !
      ! -- pointers to storage variables
      nullify (this%stoiconv)
      nullify (this%stoss)
      !
      ! -- input table
      if (this%iprpak > 0) then
        call this%inputtab%table_da()
        deallocate (this%inputtab)
        nullify (this%inputtab)
      end if
      !
      ! -- output table
      if (associated(this%outputtab)) then
        call this%outputtab%table_da()
        deallocate (this%outputtab)
        nullify (this%outputtab)
      end if
    end if
    !
    ! -- package csv table
    if (this%ipakcsv > 0) then
      call this%pakcsvtab%table_da()
      deallocate (this%pakcsvtab)
      nullify (this%pakcsvtab)
    end if
    !
    ! -- deallocate character variables
    call mem_deallocate(this%listlabel, 'LISTLABEL', this%memoryPath)
    call mem_deallocate(this%stoMemPath, 'STONAME', this%memoryPath)
    !
    ! -- deallocate scalars
    call mem_deallocate(this%istounit)
    call mem_deallocate(this%inobspkg)
    call mem_deallocate(this%ninterbeds)
    call mem_deallocate(this%maxsig0)
    call mem_deallocate(this%nbound)
    call mem_deallocate(this%iscloc)
    call mem_deallocate(this%iauxmultcol)
    call mem_deallocate(this%ndelaycells)
    call mem_deallocate(this%ndelaybeds)
    call mem_deallocate(this%initialized)
    call mem_deallocate(this%ieslag)
    call mem_deallocate(this%ipch)
    call mem_deallocate(this%lhead_based)
    call mem_deallocate(this%iupdatestress)
    call mem_deallocate(this%ispecified_pcs)
    call mem_deallocate(this%ispecified_dbh)
    call mem_deallocate(this%inamedbound)
    call mem_deallocate(this%iconvchk)
    call mem_deallocate(this%naux)
    call mem_deallocate(this%istoragec)
    call mem_deallocate(this%istrainib)
    call mem_deallocate(this%istrainsk)
    call mem_deallocate(this%ioutcomp)
    call mem_deallocate(this%ioutcompi)
    call mem_deallocate(this%ioutcompe)
    call mem_deallocate(this%ioutcompib)
    call mem_deallocate(this%ioutcomps)
    call mem_deallocate(this%ioutzdisp)
    call mem_deallocate(this%ipakcsv)
    call mem_deallocate(this%iupdatematprop)
    call mem_deallocate(this%epsilon)
    call mem_deallocate(this%cc_crit)
    call mem_deallocate(this%gammaw)
    call mem_deallocate(this%beta)
    call mem_deallocate(this%brg)
    call mem_deallocate(this%satomega)
    call mem_deallocate(this%icellf)
    call mem_deallocate(this%gwfiss0)
    !
    ! -- deallocate methods on objects
    if (this%inunit > 0) then
      call this%obs%obs_da()
      call this%TsManager%da()
      !
      ! -- deallocate and nullify observations
      deallocate (this%obs)
      nullify (this%obs)
    end if
    !
    ! -- deallocate TsManager
    deallocate (this%TsManager)
    nullify (this%TsManager)
 
    !
    ! -- deallocate parent
    call this%NumericalPackageType%da()

csub_delay_assemble()

subroutine gwfcsubmodule::csub_delay_assemble ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, real(dp), intent(in)  hcell  )

private

Method to assemble matrix and right-hand side coefficients for a delay interbed. The method calls the appropriate standard or Newton-Raphson assembly routines and fills all of the entries for a delay interbed.

Parameters

[in]	ib	interbed number
[in]	hcell	current head in a cell

Definition at line 5981 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(in) :: hcell !< current head in a cell
    ! -- local variables
    integer(I4B) :: n
    real(DP) :: aii
    real(DP) :: au
    real(DP) :: al
    real(DP) :: r
    !
    ! -- calculate matrix terms for each delay bed cell
    do n = 1, this%ndelaycells
      !
      ! -- assemble terms
      if (this%inewton == 0) then
        call this%csub_delay_assemble_fc(ib, n, hcell, aii, au, al, r)
      else
        call this%csub_delay_assemble_fn(ib, n, hcell, aii, au, al, r)
      end if
      !
      ! -- add terms
      this%dbal(n) = al
      this%dbau(n) = au
      this%dbad(n) = aii
      this%dbrhs(n) = r
    end do

csub_delay_assemble_fc()

subroutine gwfcsubmodule::csub_delay_assemble_fc ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, integer(i4b), intent(in)  n, real(dp), intent(in)  hcell, real(dp), intent(inout)  aii, real(dp), intent(inout)  au, real(dp), intent(inout)  al, real(dp), intent(inout)  r  )

private

Method to assemble standard formulation matrix and right-hand side coefficients for a delay interbed.

Parameters

[in]	ib	interbed number
[in]	n	delay interbed cell number
[in]	hcell	current head in a cell
[in,out]	aii	diagonal in the A matrix
[in,out]	au	upper term in the A matrix
[in,out]	al	lower term in the A matrix
[in,out]	r	right-hand side term

Definition at line 6017 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: n !< delay interbed cell number
    real(DP), intent(in) :: hcell !< current head in a cell
    real(DP), intent(inout) :: aii !< diagonal in the A matrix
    real(DP), intent(inout) :: au !< upper term in the A matrix
    real(DP), intent(inout) :: al !< lower term in the A matrix
    real(DP), intent(inout) :: r !< right-hand side term
    ! -- local variables
    integer(I4B) :: node
    integer(I4B) :: idelay
    integer(I4B) :: ielastic
    real(DP) :: dzini
    real(DP) :: dzhalf
    real(DP) :: c
    real(DP) :: c2
    real(DP) :: c3
    real(DP) :: tled
    real(DP) :: wcf
    real(DP) :: smult
    real(DP) :: sske
    real(DP) :: ssk
    real(DP) :: z
    real(DP) :: ztop
    real(DP) :: zbot
    real(DP) :: dz
    real(DP) :: dz0
    real(DP) :: theta
    real(DP) :: theta0
    real(DP) :: dsn
    real(DP) :: dsn0
    real(DP) :: gs
    real(DP) :: es0
    real(DP) :: pcs
    real(DP) :: wc
    real(DP) :: wc0
    real(DP) :: h
    real(DP) :: h0
    real(DP) :: hbar
    !
    ! -- initialize accumulators
    aii = dzero
    au = dzero
    al = dzero
    r = dzero
    !
    ! -- initialize local variables
    idelay = this%idelay(ib)
    ielastic = this%ielastic(ib)
    node = this%nodelist(ib)
    dzini = this%dbdzini(1, idelay)
    dzhalf = dhalf * dzini
    tled = done / delt
    c = this%kv(ib) / dzini
    c2 = dtwo * c
    c3 = dthree * c
    !
    ! -- add qdb terms
    aii = aii - c2
    !
    ! -- top or bottom cell
    if (n == 1 .or. n == this%ndelaycells) then
      aii = aii - c
      r = r - c2 * hcell
    end if
    !
    ! -- lower qdb term
    if (n > 1) then
      al = c
    end if
    !
    ! -- upper qdb term
    if (n < this%ndelaycells) then
      au = c
    end if
    !
    ! -- current and previous delay cell states
    z = this%dbz(n, idelay)
    ztop = z + dzhalf
    zbot = z - dzhalf
    h = this%dbh(n, idelay)
    h0 = this%dbh0(n, idelay)
    dz = this%dbdz(n, idelay)
    dz0 = this%dbdz0(n, idelay)
    theta = this%dbtheta(n, idelay)
    theta0 = this%dbtheta0(n, idelay)
    !
    ! -- calculate corrected head (hbar)
    hbar = squadratic0sp(h, zbot, this%satomega)
    !
    ! -- calculate saturation
    call this%csub_delay_calc_sat(node, idelay, n, h, h0, dsn, dsn0)
    !
    ! -- calculate ssk and sske
    call this%csub_delay_calc_ssksske(ib, n, hcell, ssk, sske)
    !
    ! -- calculate and add storage terms
    smult = dzini * tled
    gs = this%dbgeo(n, idelay)
    es0 = this%dbes0(n, idelay)
    pcs = this%dbpcs(n, idelay)
    aii = aii - smult * dsn * ssk
    if (ielastic /= 0) then
      r = r - smult * &
          (dsn * ssk * (gs + zbot) - dsn0 * sske * es0)
    else
      r = r - smult * &
          (dsn * ssk * (gs + zbot - pcs) + dsn0 * sske * (pcs - es0))
    end if
    !
    ! -- add storage correction term
    r = r + smult * dsn * ssk * (h - hbar)
    !
    ! -- add water compressibility terms
    wcf = this%brg * tled
    wc = dz * wcf * theta
    wc0 = dz0 * wcf * theta0
    aii = aii - dsn * wc
    r = r - dsn0 * wc0 * h0

Here is the call graph for this function:

csub_delay_assemble_fn()

subroutine gwfcsubmodule::csub_delay_assemble_fn	(	class(gwfcsubtype), intent(inout)	this,
		integer(i4b), intent(in)	ib,
		integer(i4b), intent(in)	n,
		real(dp), intent(in)	hcell,
		real(dp), intent(inout)	aii,
		real(dp), intent(inout)	au,
		real(dp), intent(inout)	al,
		real(dp), intent(inout)	r
	)

Method to assemble Newton-Raphson formulation matrix and right-hand side coefficients for a delay interbed.

Parameters

[in]	ib	interbed number
[in]	n	delay interbed cell number
[in]	hcell	current head in a cell
[in,out]	aii	diagonal in the A matrix
[in,out]	au	upper term in the A matrix
[in,out]	al	lower term in the A matrix
[in,out]	r	right-hand side term

Definition at line 6148 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: n !< delay interbed cell number
    real(DP), intent(in) :: hcell !< current head in a cell
    real(DP), intent(inout) :: aii !< diagonal in the A matrix
    real(DP), intent(inout) :: au !< upper term in the A matrix
    real(DP), intent(inout) :: al !< lower term in the A matrix
    real(DP), intent(inout) :: r !< right-hand side term
    ! -- local variables
    integer(I4B) :: node
    integer(I4B) :: idelay
    integer(I4B) :: ielastic
    real(DP) :: dzini
    real(DP) :: dzhalf
    real(DP) :: c
    real(DP) :: c2
    real(DP) :: c3
    real(DP) :: tled
    real(DP) :: wcf
    real(DP) :: smult
    real(DP) :: sske
    real(DP) :: ssk
    real(DP) :: z
    real(DP) :: ztop
    real(DP) :: zbot
    real(DP) :: dz
    real(DP) :: dz0
    real(DP) :: theta
    real(DP) :: theta0
    real(DP) :: dsn
    real(DP) :: dsn0
    real(DP) :: dsnderv
    real(DP) :: wc
    real(DP) :: wc0
    real(DP) :: h
    real(DP) :: h0
    real(DP) :: hbar
    real(DP) :: hbarderv
    real(DP) :: gs
    real(DP) :: es0
    real(DP) :: pcs
    real(DP) :: qsto
    real(DP) :: stoderv
    real(DP) :: qwc
    real(DP) :: wcderv
    !
    ! -- initialize accumulators
    aii = dzero
    au = dzero
    al = dzero
    r = dzero
    !
    ! -- initialize local variables
    idelay = this%idelay(ib)
    ielastic = this%ielastic(ib)
    node = this%nodelist(ib)
    dzini = this%dbdzini(1, idelay)
    dzhalf = dhalf * dzini
    tled = done / delt
    c = this%kv(ib) / dzini
    c2 = dtwo * c
    c3 = dthree * c
    !
    ! -- add qdb terms
    aii = aii - c2
    !
    ! -- top or bottom cell
    if (n == 1 .or. n == this%ndelaycells) then
      aii = aii - c
      r = r - c2 * hcell
    end if
    !
    ! -- lower qdb term
    if (n > 1) then
      al = c
    end if
    !
    ! -- upper qdb term
    if (n < this%ndelaycells) then
      au = c
    end if
    !
    ! -- current and previous delay cell states
    z = this%dbz(n, idelay)
    ztop = z + dzhalf
    zbot = z - dzhalf
    h = this%dbh(n, idelay)
    h0 = this%dbh0(n, idelay)
    dz = this%dbdz(n, idelay)
    dz0 = this%dbdz0(n, idelay)
    theta = this%dbtheta(n, idelay)
    theta0 = this%dbtheta0(n, idelay)
    !
    ! -- calculate corrected head (hbar)
    hbar = squadratic0sp(h, zbot, this%satomega)
    !
    ! -- calculate the derivative of the hbar functions
    hbarderv = squadratic0spderivative(h, zbot, this%satomega)
    !
    ! -- calculate saturation
    call this%csub_delay_calc_sat(node, idelay, n, h, h0, dsn, dsn0)
    !
    ! -- calculate the derivative of the saturation
    dsnderv = this%csub_delay_calc_sat_derivative(node, idelay, n, hcell)
    !
    ! -- calculate ssk and sske
    call this%csub_delay_calc_ssksske(ib, n, hcell, ssk, sske)
    !
    ! -- calculate storage terms
    smult = dzini * tled
    gs = this%dbgeo(n, idelay)
    es0 = this%dbes0(n, idelay)
    pcs = this%dbpcs(n, idelay)
    if (ielastic /= 0) then
      qsto = smult * (dsn * ssk * (gs - hbar + zbot) - dsn0 * sske * es0)
      stoderv = -smult * dsn * ssk * hbarderv + &
                smult * ssk * (gs - hbar + zbot) * dsnderv
    else
      qsto = smult * (dsn * ssk * (gs - hbar + zbot - pcs) + &
                      dsn0 * sske * (pcs - es0))
      stoderv = -smult * dsn * ssk * hbarderv + &
                smult * ssk * (gs - hbar + zbot - pcs) * dsnderv
    end if
    !
    ! -- Add additional term if using lagged effective stress
    if (this%ieslag /= 0) then
      if (ielastic /= 0) then
        stoderv = stoderv - smult * sske * es0 * dsnderv
      else
        stoderv = stoderv + smult * sske * (pcs - es0) * dsnderv
      end if
    end if
    !
    ! -- add newton-raphson storage terms
    aii = aii + stoderv
    r = r - qsto + stoderv * h
    !
    ! -- add water compressibility terms
    wcf = this%brg * tled
    wc = dz * wcf * theta
    wc0 = dz0 * wcf * theta0
    qwc = dsn0 * wc0 * h0 - dsn * wc * h
    wcderv = -dsn * wc - wc * h * dsnderv
    !
    ! -- Add additional term if using lagged effective stress
    if (this%ieslag /= 0) then
      wcderv = wcderv + wc0 * h0 * dsnderv
    end if
    !
    ! -- add newton-raphson water compressibility terms
    aii = aii + wcderv
    r = r - qwc + wcderv * h

Here is the call graph for this function:

csub_delay_calc_comp()

subroutine gwfcsubmodule::csub_delay_calc_comp	(	class(gwfcsubtype), intent(inout)	this,
		integer(i4b), intent(in)	ib,
		real(dp), intent(in)	hcell,
		real(dp), intent(in)	hcellold,
		real(dp), intent(inout)	comp,
		real(dp), intent(inout)	compi,
		real(dp), intent(inout)	compe
	)

Method to calculate the compaction in a delay interbed.

Parameters

[in,out]	comp	compaction in delay interbed
[in,out]	compi	inelastic compaction in delay interbed
[in,out]	compe	elastic compaction in delay interbed
[in]	ib	interbed number
[in]	hcell	current head in cell
[in]	hcellold	previous head in cell
[in,out]	comp	compaction in delay interbed
[in,out]	compi	inelastic compaction in delay interbed
[in,out]	compe	elastic compaction in delay interbed

Definition at line 6523 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(in) :: hcellold !< previous head in cell
    real(DP), intent(inout) :: comp !< compaction in delay interbed
    real(DP), intent(inout) :: compi !< inelastic compaction in delay interbed
    real(DP), intent(inout) :: compe !< elastic compaction in delay interbed
    ! -- local variables
    integer(I4B) :: idelay
    integer(I4B) :: ielastic
    integer(I4B) :: node
    integer(I4B) :: n
    real(DP) :: snnew
    real(DP) :: snold
    real(DP) :: sske
    real(DP) :: ssk
    real(DP) :: fmult
    real(DP) :: h
    real(DP) :: h0
    real(DP) :: dsn
    real(DP) :: dsn0
    real(DP) :: v
    real(DP) :: v1
    real(DP) :: v2
    !
    ! -- initialize variables
    idelay = this%idelay(ib)
    ielastic = this%ielastic(ib)
    node = this%nodelist(ib)
    comp = dzero
    compi = dzero
    compe = dzero
    !
    ! -- calculate cell saturation
    call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
    !
    ! -- calculate compaction
    if (this%thickini(ib) > dzero) then
      fmult = this%dbdzini(1, idelay)
      do n = 1, this%ndelaycells
        h = this%dbh(n, idelay)
        h0 = this%dbh0(n, idelay)
        call this%csub_delay_calc_sat(node, idelay, n, h, h0, dsn, dsn0)
        call this%csub_delay_calc_ssksske(ib, n, hcell, ssk, sske)
        if (ielastic /= 0) then
          v1 = dsn * ssk * this%dbes(n, idelay) - sske * this%dbes0(n, idelay)
          v2 = dzero
        else
          v1 = dsn * ssk * (this%dbes(n, idelay) - this%dbpcs(n, idelay))
          v2 = dsn0 * sske * (this%dbpcs(n, idelay) - this%dbes0(n, idelay))
        end if
        v = (v1 + v2) * fmult
        comp = comp + v
        !
        ! -- save compaction data
        this%dbcomp(n, idelay) = v * snnew
        !
        ! -- calculate inelastic and elastic storage components
        if (this%idbconvert(n, idelay) /= 0) then
          compi = compi + v1 * fmult
          compe = compe + v2 * fmult
        else
          compe = compe + (v1 + v2) * fmult
        end if
      end do
    end if
    !
    ! -- fill compaction
    comp = comp * this%rnb(ib)
    compi = compi * this%rnb(ib)
    compe = compe * this%rnb(ib)

csub_delay_calc_dstor()

subroutine gwfcsubmodule::csub_delay_calc_dstor ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, real(dp), intent(in)  hcell, real(dp), intent(inout)  stoe, real(dp), intent(inout)  stoi  )

private

Method to calculate the storage change in a delay interbed.

Parameters

[in,out]	stoe	current elastic storage change in delay interbed
[in,out]	stoi	current inelastic storage changes in delay interbed
[in]	ib	interbed number
[in]	hcell	current head in cell
[in,out]	stoe	elastic storage change
[in,out]	stoi	inelastic storage change

Definition at line 6385 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(inout) :: stoe !< elastic storage change
    real(DP), intent(inout) :: stoi !< inelastic storage change
    ! -- local variables
    integer(I4B) :: idelay
    integer(I4B) :: ielastic
    integer(I4B) :: node
    integer(I4B) :: n
    real(DP) :: sske
    real(DP) :: ssk
    real(DP) :: fmult
    real(DP) :: v1
    real(DP) :: v2
    real(DP) :: ske
    real(DP) :: sk
    real(DP) :: z
    real(DP) :: zbot
    real(DP) :: h
    real(DP) :: h0
    real(DP) :: dsn
    real(DP) :: dsn0
    real(DP) :: hbar
    real(DP) :: dzhalf
    !
    ! -- initialize variables
    idelay = this%idelay(ib)
    ielastic = this%ielastic(ib)
    node = this%nodelist(ib)
    stoe = dzero
    stoi = dzero
    ske = dzero
    sk = dzero
    !
    !
    if (this%thickini(ib) > dzero) then
      fmult = this%dbdzini(1, idelay)
      dzhalf = dhalf * this%dbdzini(1, idelay)
      do n = 1, this%ndelaycells
        call this%csub_delay_calc_ssksske(ib, n, hcell, ssk, sske)
        z = this%dbz(n, idelay)
        zbot = z - dzhalf
        h = this%dbh(n, idelay)
        h0 = this%dbh0(n, idelay)
        call this%csub_delay_calc_sat(node, idelay, n, h, h0, dsn, dsn0)
        hbar = squadratic0sp(h, zbot, this%satomega)
        if (ielastic /= 0) then
          v1 = dsn * ssk * (this%dbgeo(n, idelay) - hbar + zbot) - &
               dsn0 * sske * this%dbes0(n, idelay)
          v2 = dzero
        else
          v1 = dsn * ssk * (this%dbgeo(n, idelay) - hbar + zbot - &
                            this%dbpcs(n, idelay))
          v2 = dsn0 * sske * (this%dbpcs(n, idelay) - this%dbes0(n, idelay))
        end if
        !
        ! -- calculate inelastic and elastic storage components
        if (this%idbconvert(n, idelay) /= 0) then
          stoi = stoi + v1 * fmult
          stoe = stoe + v2 * fmult
        else
          stoe = stoe + (v1 + v2) * fmult
        end if
        !
        ! calculate inelastic and elastic storativity
        ske = ske + sske * fmult
        sk = sk + ssk * fmult
      end do
    end if
    !
    ! -- save ske and sk
    this%ske(ib) = ske
    this%sk(ib) = sk

Here is the call graph for this function:

csub_delay_calc_sat()

subroutine gwfcsubmodule::csub_delay_calc_sat	(	class(gwfcsubtype), intent(inout)	this,
		integer(i4b), intent(in)	node,
		integer(i4b), intent(in)	idelay,
		integer(i4b), intent(in)	n,
		real(dp), intent(in)	hcell,
		real(dp), intent(in)	hcellold,
		real(dp), intent(inout)	snnew,
		real(dp), intent(inout)	snold
	)

Method to calculate the saturation in a delay interbed cell.

Parameters

[in,out]	snnew	current saturation in delay interbed cell n
[in,out]	snold	previous saturation in delay interbed cell n
[in]	node	cell node number
[in]	idelay	delay interbed number
[in]	n	delay interbed cell number
[in]	hcell	current head in delay interbed cell n
[in]	hcellold	previous head in delay interbed cell n
[in,out]	snnew	current saturation in delay interbed cell n
[in,out]	snold	previous saturation in delay interbed cell n

Definition at line 6314 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    integer(I4B), intent(in) :: idelay !< delay interbed number
    integer(I4B), intent(in) :: n !< delay interbed cell number
    real(DP), intent(in) :: hcell !< current head in delay interbed cell n
    real(DP), intent(in) :: hcellold !< previous head in delay interbed cell n
    real(DP), intent(inout) :: snnew !< current saturation in delay interbed cell n
    real(DP), intent(inout) :: snold !< previous saturation in delay interbed cell n
    ! -- local variables
    real(DP) :: dzhalf
    real(DP) :: top
    real(DP) :: bot
    !
    ! -- calculate delay interbed cell saturation
    if (this%stoiconv(node) /= 0) then
      dzhalf = dhalf * this%dbdzini(n, idelay)
      top = this%dbz(n, idelay) + dzhalf
      bot = this%dbz(n, idelay) - dzhalf
      snnew = squadraticsaturation(top, bot, hcell, this%satomega)
      snold = squadraticsaturation(top, bot, hcellold, this%satomega)
    else
      snnew = done
      snold = done
    end if
    if (this%ieslag /= 0) then
      snold = snnew
    end if

Here is the call graph for this function:

csub_delay_calc_sat_derivative()

real(dp) function gwfcsubmodule::csub_delay_calc_sat_derivative ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  node, integer(i4b), intent(in)  idelay, integer(i4b), intent(in)  n, real(dp), intent(in)  hcell  )

private

Function to calculate the derivative of the saturation with respect to the current head in delay interbed cell n.

Returns

satderv derivative of saturation

Parameters

[in]	node	cell node number
[in]	idelay	delay interbed number
[in]	n	delay interbed cell number
[in]	hcell	current head in delay interbed cell n

Definition at line 6353 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: node !< cell node number
    integer(I4B), intent(in) :: idelay !< delay interbed number
    integer(I4B), intent(in) :: n !< delay interbed cell number
    real(DP), intent(in) :: hcell !< current head in delay interbed cell n
    ! -- local variables
    real(DP) :: satderv
    real(DP) :: dzhalf
    real(DP) :: top
    real(DP) :: bot
 
    if (this%stoiconv(node) /= 0) then
      dzhalf = dhalf * this%dbdzini(n, idelay)
      top = this%dbz(n, idelay) + dzhalf
      bot = this%dbz(n, idelay) - dzhalf
      satderv = squadraticsaturationderivative(top, bot, hcell, this%satomega)
    else
      satderv = dzero
    end if

Here is the call graph for this function:

csub_delay_calc_ssksske()

subroutine gwfcsubmodule::csub_delay_calc_ssksske ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, integer(i4b), intent(in)  n, real(dp), intent(in)  hcell, real(dp), intent(inout)  ssk, real(dp), intent(inout)  sske  )

private

Method to calculate the ssk and sske value for a node in a delay interbed cell.

Parameters

[in,out]	ssk	skeletal specific storage value dependent on the preconsolidation stress
[in,out]	sske	elastic skeletal specific storage value
[in]	ib	interbed number
[in]	n	delay interbed cell number
[in]	hcell	current head in a cell
[in,out]	ssk	delay interbed skeletal specific storage
[in,out]	sske	delay interbed elastic skeletal specific storage

Definition at line 5879 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: n !< delay interbed cell number
    real(DP), intent(in) :: hcell !< current head in a cell
    real(DP), intent(inout) :: ssk !< delay interbed skeletal specific storage
    real(DP), intent(inout) :: sske !< delay interbed elastic skeletal specific storage
    ! -- local variables
    integer(I4B) :: idelay
    integer(I4B) :: ielastic
    integer(I4B) :: node
    real(DP) :: topcell
    real(DP) :: botcell
    real(DP) :: hbarcell
    real(DP) :: zcell
    real(DP) :: zcenter
    real(DP) :: dzhalf
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: h
    real(DP) :: hbar
    real(DP) :: znode
    real(DP) :: zbot
    real(DP) :: es
    real(DP) :: es0
    real(DP) :: theta
    real(DP) :: f
    real(DP) :: f0
    !
    ! -- initialize variables
    sske = dzero
    ssk = dzero
    idelay = this%idelay(ib)
    ielastic = this%ielastic(ib)
    !
    ! -- calculate factor for the head-based case
    if (this%lhead_based .EQV. .true.) then
      f = done
      f0 = f
      !
      ! -- calculate factor for the effective stress case
    else
      node = this%nodelist(ib)
      theta = this%dbthetaini(n, idelay)
      !
      ! -- set top and bottom of layer
      topcell = this%dis%top(node)
      botcell = this%dis%bot(node)
      !
      ! -- calculate corrected head for the cell (hbarcell)
      hbarcell = squadratic0sp(hcell, botcell, this%satomega)
      !
      ! -- set location of delay node relative to the center
      !    of the cell based on current head
      zcell = this%csub_calc_znode(topcell, botcell, hbarcell)
      !
      ! -- set variables for delay interbed zcell calculations
      zcenter = zcell + this%dbrelz(n, idelay)
      dzhalf = dhalf * this%dbdzini(1, idelay)
      top = zcenter + dzhalf
      bot = zcenter - dzhalf
      h = this%dbh(n, idelay)
      !
      ! -- calculate corrected head for the delay interbed cell (hbar)
      hbar = squadratic0sp(h, bot, this%satomega)
      !
      ! -- calculate the center of the saturated portion of the
      !    delay interbed cell
      znode = this%csub_calc_znode(top, bot, hbar)
      !
      ! -- set reference point for bottom of delay interbed cell that is used to
      !    scale the effective stress at the bottom of the delay interbed cell
      zbot = this%dbz(n, idelay) - dzhalf
      !
      ! -- set the effective stress
      es = this%dbes(n, idelay)
      es0 = this%dbes0(n, idelay)
      !
      ! -- calculate the compression index factors for the delay
      !    node relative to the center of the cell based on the
      !    current and previous head
      call this%csub_calc_sfacts(node, zbot, znode, theta, es, es0, f)
    end if
    this%idbconvert(n, idelay) = 0
    sske = f * this%rci(ib)
    ssk = f * this%rci(ib)
    if (ielastic == 0) then
      if (this%dbes(n, idelay) > this%dbpcs(n, idelay)) then
        this%idbconvert(n, idelay) = 1
        ssk = f * this%ci(ib)
      end if
    end if

Here is the call graph for this function:

csub_delay_calc_stress()

subroutine gwfcsubmodule::csub_delay_calc_stress ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, real(dp), intent(in)  hcell  )

private

Method to calculate the geostatic and effective stress in delay interbed cells using the passed the current head value in a cell.

Parameters

[in]	ib	interbed number
[in]	hcell	current head in a cell

Definition at line 5799 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(in) :: hcell !< current head in a cell
    ! -- local variables
    integer(I4B) :: n
    integer(I4B) :: idelay
    integer(I4B) :: node
    real(DP) :: sigma
    real(DP) :: topaq
    real(DP) :: botaq
    real(DP) :: dzhalf
    real(DP) :: sadd
    real(DP) :: sgm
    real(DP) :: sgs
    real(DP) :: h
    real(DP) :: hbar
    real(DP) :: z
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: phead
    !
    ! -- initialize variables
    idelay = this%idelay(ib)
    node = this%nodelist(ib)
    sigma = this%cg_gs(node)
    topaq = this%dis%top(node)
    botaq = this%dis%bot(node)
    dzhalf = dhalf * this%dbdzini(1, idelay)
    top = this%dbz(1, idelay) + dzhalf
    !
    ! -- calculate corrected head (hbar)
    hbar = squadratic0sp(hcell, botaq, this%satomega)
    !
    ! -- calculate the geostatic load in the cell at the top of the interbed.
    sgm = this%sgm(node)
    sgs = this%sgs(node)
    if (hcell < top) then
      sadd = ((top - hbar) * sgm) + ((hbar - botaq) * sgs)
    else
      sadd = (top - botaq) * sgs
    end if
    sigma = sigma - sadd
    !
    ! -- calculate geostatic and effective stress for each interbed node.
    do n = 1, this%ndelaycells
      h = this%dbh(n, idelay)
      !
      ! -- geostatic calculated at the bottom of the delay cell
      z = this%dbz(n, idelay)
      top = z + dzhalf
      bot = z - dzhalf
      !
      ! -- calculate corrected head (hbar)
      hbar = squadratic0sp(h, bot, this%satomega)
      !
      ! -- geostatic stress calculation
      if (h < top) then
        sadd = ((top - hbar) * sgm) + ((hbar - bot) * sgs)
      else
        sadd = (top - bot) * sgs
      end if
      sigma = sigma + sadd
      phead = hbar - bot
      this%dbgeo(n, idelay) = sigma
      this%dbes(n, idelay) = sigma - phead
    end do

Here is the call graph for this function:

csub_delay_calc_wcomp()

subroutine gwfcsubmodule::csub_delay_calc_wcomp ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, real(dp), intent(inout)  dwc  )

private

Method to calculate the change in water compressibility in a delay interbed.

Parameters

[in,out]	dwc	current water compressibility change in delay interbed
[in]	ib	interbed number
[in,out]	dwc	water compressibility change

Definition at line 6470 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(inout) :: dwc !< water compressibility change
    ! -- local variables
    integer(I4B) :: idelay
    integer(I4B) :: node
    integer(I4B) :: n
    real(DP) :: tled
    real(DP) :: h
    real(DP) :: h0
    real(DP) :: dz
    real(DP) :: dz0
    real(DP) :: dsn
    real(DP) :: dsn0
    real(DP) :: wc
    real(DP) :: wc0
    real(DP) :: v
    !
    ! -- initialize variables
    dwc = dzero
    !
    !
    if (this%thickini(ib) > dzero) then
      idelay = this%idelay(ib)
      node = this%nodelist(ib)
      tled = done / delt
      do n = 1, this%ndelaycells
        h = this%dbh(n, idelay)
        h0 = this%dbh0(n, idelay)
        dz = this%dbdz(n, idelay)
        dz0 = this%dbdz0(n, idelay)
        call this%csub_delay_calc_sat(node, idelay, n, h, h0, dsn, dsn0)
        wc = dz * this%brg * this%dbtheta(n, idelay)
        wc0 = dz0 * this%brg * this%dbtheta0(n, idelay)
        v = dsn0 * wc0 * h0 - dsn * wc * h
        dwc = dwc + v * tled
      end do
    end if

csub_delay_fc()

subroutine gwfcsubmodule::csub_delay_fc ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method to calculate the coefficients to calculate the delay interbed contribution to a cell. The product of hcof* h - rhs equals the delay contribution to the cell

Parameters

[in,out]	hcof	coefficient dependent on current head
[in,out]	rhs	right-hand side contributions
[in]	ib	interbed number
[in,out]	hcof	head dependent coefficient
[in,out]	rhs	right-hand side

Definition at line 6683 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(inout) :: hcof !< head dependent coefficient
    real(DP), intent(inout) :: rhs !< right-hand side
    ! -- local variables
    integer(I4B) :: idelay
    real(DP) :: c1
    real(DP) :: c2
    !
    ! -- initialize variables
    idelay = this%idelay(ib)
    hcof = dzero
    rhs = dzero
    if (this%thickini(ib) > dzero) then
      ! -- calculate terms for gwf matrix
      c1 = dtwo * this%kv(ib) / this%dbdzini(1, idelay)
      rhs = -c1 * this%dbh(1, idelay)
      c2 = dtwo * &
           this%kv(ib) / this%dbdzini(this%ndelaycells, idelay)
      rhs = rhs - c2 * this%dbh(this%ndelaycells, idelay)
      hcof = c1 + c2
    end if

csub_delay_head_check()

subroutine gwfcsubmodule::csub_delay_head_check ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib  )

private

Method to determine if the delay interbed head in any delay cell in a non-convertible gwf cell is less than the top of each delay interbed cell.

Parameters

[in]

ib

interbed number

Definition at line 5467 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    ! -- local variables
    integer(I4B) :: iviolate
    integer(I4B) :: idelay
    integer(I4B) :: node
    integer(I4B) :: n
    real(DP) :: z
    real(DP) :: h
    real(DP) :: dzhalf
    real(DP) :: ztop
    !
    ! -- initialize variables
    iviolate = 0
    idelay = this%idelay(ib)
    node = this%nodelist(ib)
    !
    ! -- evaluate every delay cell
    idelaycells: do n = 1, this%ndelaycells
      z = this%dbz(n, idelay)
      h = this%dbh(n, idelay)
      dzhalf = dhalf * this%dbdzini(1, idelay)
      !
      ! -- non-convertible cell
      if (this%stoiconv(node) == 0) then
        ztop = z + dzhalf
        if (h < ztop) then
          this%idb_nconv_count(1) = this%idb_nconv_count(1) + 1
          iviolate = 1
        end if
      end if
      !
      ! -- terminate the loop
      if (iviolate > 0) then
        exit idelaycells
      end if
    end do idelaycells

csub_delay_init_zcell()

subroutine gwfcsubmodule::csub_delay_init_zcell ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib  )

private

Method to calculate the initial center of each delay interbed cell, assuming the delay bed head is equal to the top of the delay interbed. The method also calculates the distance of the center of each delay bed cell from the center of the delay interbed (z_offset) that is used to calculate average skeletal specific storage values for a delay interbed centered on the center of the saturated thickness for a cell.

Parameters

[in]

ib

interbed number

Definition at line 5742 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    ! -- local variables
    integer(I4B) :: n
    integer(I4B) :: node
    integer(I4B) :: idelay
    real(DP) :: bot
    real(DP) :: top
    real(DP) :: hbar
    real(DP) :: znode
    real(DP) :: dzz
    real(DP) :: z
    real(DP) :: zr
    real(DP) :: b
    real(DP) :: dz
    !
    ! -- initialize variables
    idelay = this%idelay(ib)
    node = this%nodelist(ib)
    b = this%thickini(ib)
    bot = this%dis%bot(node)
    top = bot + b
    hbar = top
    !
    ! -- calculate znode based on assumption that the delay bed bottom
    !    is equal to the cell bottom
    znode = this%csub_calc_znode(top, bot, hbar)
    dz = dhalf * this%dbdzini(1, idelay)
    dzz = dhalf * b
    z = znode + dzz
    zr = dzz
    !
    ! -- calculate z and z relative to znode for each delay
    !    interbed node
    do n = 1, this%ndelaycells
      ! z of node relative to bottom of cell
      z = z - dz
      this%dbz(n, idelay) = z
      z = z - dz
      ! z relative to znode
      zr = zr - dz
      if (abs(zr) < dz) then
        zr = dzero
      end if
      this%dbrelz(n, idelay) = zr
      zr = zr - dz
    end do

csub_delay_sln()

subroutine gwfcsubmodule::csub_delay_sln ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, real(dp), intent(in)  hcell, logical(lgp), intent(in), optional  update  )

private

Method to calculate solve the delay interbed continuity equation for a delay interbed. The method encapsulates the non-linear loop and calls the linear solution.

Parameters

[in]	ib	interbed number
[in]	hcell	current head in a cell
[in]	update	optional logical variable indicating if the maximum head change variable in a delay bed should be updated

Definition at line 5649 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(in) :: hcell !< current head in a cell
    logical(LGP), intent(in), optional :: update !< optional logical variable indicating
                                                 !! if the maximum head change variable
                                                 !! in a delay bed should be updated
    ! -- local variables
    logical(LGP) :: lupdate
    integer(I4B) :: n
    integer(I4B) :: icnvg
    integer(I4B) :: iter
    integer(I4B) :: idelay
    real(DP) :: dh
    real(DP) :: dhmax
    real(DP) :: dhmax0
    real(DP), parameter :: dclose = dhundred * dprec
    !
    ! -- initialize variables
    if (present(update)) then
      lupdate = update
    else
      lupdate = .true.
    end if
    !
    ! -- calculate geostatic and effective stress for each delay bed cell
    call this%csub_delay_calc_stress(ib, hcell)
    !
    ! -- terminate if the aquifer head is below the top of delay interbeds
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if
    !
    ! -- solve for delay bed heads
    if (this%thickini(ib) > dzero) then
      icnvg = 0
      iter = 0
      idelay = this%idelay(ib)
      do
        iter = iter + 1
        !
        ! -- assemble coefficients
        call this%csub_delay_assemble(ib, hcell)
        !
        ! -- solve for head change in delay interbed cells
        call ims_misc_thomas(this%ndelaycells, &
                             this%dbal, this%dbad, this%dbau, &
                             this%dbrhs, this%dbdh, this%dbaw)
        !
        ! -- calculate maximum head change and update delay bed heads
        dhmax = dzero
        do n = 1, this%ndelaycells
          dh = this%dbdh(n) - this%dbh(n, idelay)
          if (abs(dh) > abs(dhmax)) then
            dhmax = dh
            if (lupdate) then
              this%dbdhmax(idelay) = dhmax
            end if
          end if
          ! -- update delay bed heads
          this%dbh(n, idelay) = this%dbdh(n)
        end do
        !
        ! -- update delay bed stresses
        call this%csub_delay_calc_stress(ib, hcell)
        !
        ! -- check delay bed convergence
        if (abs(dhmax) < dclose) then
          icnvg = 1
        else if (iter /= 1) then
          if (abs(dhmax) - abs(dhmax0) < dprec) then
            icnvg = 1
          end if
        end if
        if (icnvg == 1) then
          exit
        end if
        dhmax0 = dhmax
      end do
    end if

Here is the call graph for this function:

csub_delay_update()

subroutine gwfcsubmodule::csub_delay_update ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib  )

private

Method to update the thickness and porosity of each delay interbed cell.

Parameters

[in]

ib

interbed number

Definition at line 6603 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    ! -- local variables
    integer(I4B) :: idelay
    integer(I4B) :: n
    real(DP) :: comp
    real(DP) :: thick
    real(DP) :: theta
    real(DP) :: tthick
    real(DP) :: wtheta
    !
    ! -- initialize variables
    idelay = this%idelay(ib)
    comp = dzero
    tthick = dzero
    wtheta = dzero
    !
    !
    do n = 1, this%ndelaycells
      !
      ! -- initialize compaction for delay cell
      comp = this%dbtcomp(n, idelay) + this%dbcomp(n, idelay)
      !
      ! -- scale compaction by rnb to get the compaction for
      !    the interbed system (as opposed to the full system)
      comp = comp / this%rnb(ib)
      !
      ! -- update thickness and theta
      if (abs(comp) > dzero) then
        thick = this%dbdzini(n, idelay)
        theta = this%dbthetaini(n, idelay)
        call this%csub_adj_matprop(comp, thick, theta)
        if (thick <= dzero) then
          write (errmsg, '(2(a,i0),a,g0,a)') &
            'Adjusted thickness for delay interbed (', ib, &
            ') cell (', n, ') is less than or equal to 0 (', thick, ').'
          call store_error(errmsg)
        end if
        if (theta <= dzero) then
          write (errmsg, '(2(a,i0),a,g0,a)') &
            'Adjusted theta for delay interbed (', ib, &
            ') cell (', n, 'is less than or equal to 0 (', theta, ').'
          call store_error(errmsg)
        end if
        this%dbdz(n, idelay) = thick
        this%dbtheta(n, idelay) = theta
        tthick = tthick + thick
        wtheta = wtheta + thick * theta
      else
        thick = this%dbdz(n, idelay)
        theta = this%dbtheta(n, idelay)
        tthick = tthick + thick
        wtheta = wtheta + thick * theta
      end if
    end do
    !
    ! -- calculate thickness weighted theta and save thickness and weighted
    !    theta values for delay interbed
    if (tthick > dzero) then
      wtheta = wtheta / tthick
    else
      tthick = dzero
      wtheta = dzero
    end if
    this%thick(ib) = tthick
    this%theta(ib) = wtheta

Here is the call graph for this function:

csub_df_obs()

subroutine gwfcsubmodule::csub_df_obs ( class(gwfcsubtype)  this )

private

Method to define the observation types available in the CSUB package.

Definition at line 6755 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    ! -- local variables
    integer(I4B) :: indx
    !
    ! -- Store obs type and assign procedure pointer
    !    for csub observation type.
    call this%obs%StoreObsType('csub', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for inelastic-csub observation type.
    call this%obs%StoreObsType('inelastic-csub', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for elastic-csub observation type.
    call this%obs%StoreObsType('elastic-csub', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for coarse-csub observation type.
    call this%obs%StoreObsType('coarse-csub', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for csub-cell observation type.
    call this%obs%StoreObsType('csub-cell', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for watercomp-csub observation type.
    call this%obs%StoreObsType('wcomp-csub-cell', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for interbed ske observation type.
    call this%obs%StoreObsType('ske', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for interbed sk observation type.
    call this%obs%StoreObsType('sk', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for ske-cell observation type.
    call this%obs%StoreObsType('ske-cell', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for sk-cell observation type.
    call this%obs%StoreObsType('sk-cell', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for geostatic-stress-cell observation type.
    call this%obs%StoreObsType('gstress-cell', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for effective-stress-cell observation type.
    call this%obs%StoreObsType('estress-cell', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for total-compaction observation type.
    call this%obs%StoreObsType('interbed-compaction', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for inelastic-compaction observation type.
    call this%obs%StoreObsType('inelastic-compaction', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for inelastic-compaction observation type.
    call this%obs%StoreObsType('elastic-compaction', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for coarse-compaction observation type.
    call this%obs%StoreObsType('coarse-compaction', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for inelastic-compaction-cell observation type.
    call this%obs%StoreObsType('inelastic-compaction-cell', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for elastic-compaction-cell observation type.
    call this%obs%StoreObsType('elastic-compaction-cell', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for compaction-cell observation type.
    call this%obs%StoreObsType('compaction-cell', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for interbed thickness observation type.
    call this%obs%StoreObsType('thickness', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for coarse-thickness observation type.
    call this%obs%StoreObsType('coarse-thickness', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for thickness-cell observation type.
    call this%obs%StoreObsType('thickness-cell', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for interbed theta observation type.
    call this%obs%StoreObsType('theta', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for coarse-theta observation type.
    call this%obs%StoreObsType('coarse-theta', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for theta-cell observation type.
    call this%obs%StoreObsType('theta-cell', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for preconstress-cell observation type.
    call this%obs%StoreObsType('preconstress-cell', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-preconstress observation type.
    call this%obs%StoreObsType('delay-preconstress', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-head observation type.
    call this%obs%StoreObsType('delay-head', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-gstress observation type.
    call this%obs%StoreObsType('delay-gstress', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-estress observation type.
    call this%obs%StoreObsType('delay-estress', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-compaction observation type.
    call this%obs%StoreObsType('delay-compaction', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-thickness observation type.
    call this%obs%StoreObsType('delay-thickness', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-theta observation type.
    call this%obs%StoreObsType('delay-theta', .false., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-flowtop observation type.
    call this%obs%StoreObsType('delay-flowtop', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid
    !
    ! -- Store obs type and assign procedure pointer
    !    for delay-flowbot observation type.
    call this%obs%StoreObsType('delay-flowbot', .true., indx)
    this%obs%obsData(indx)%ProcessIdPtr => csub_process_obsid

Here is the call graph for this function:

csub_fc()

subroutine gwfcsubmodule::csub_fc	(	class(gwfcsubtype)	this,
		integer(i4b), intent(in)	kiter,
		real(dp), dimension(:), intent(in)	hold,
		real(dp), dimension(:), intent(in)	hnew,
		class(matrixbasetype), pointer	matrix_sln,
		integer(i4b), dimension(:), intent(in)	idxglo,
		real(dp), dimension(:), intent(inout)	rhs
	)

Fill the coefficient matrix and right-hand side with the CSUB package terms.

Parameters

[in]	kiter	outer iteration numbed
[in]	hold	previous heads
[in]	hnew	current heads
	matrix_sln	A matrix
[in]	idxglo	global index model to solution
[in,out]	rhs	right-hand side

Definition at line 2761 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: kiter !< outer iteration numbed
    real(DP), intent(in), dimension(:) :: hold !< previous heads
    real(DP), intent(in), dimension(:) :: hnew !< current heads
    class(MatrixBaseType), pointer :: matrix_sln !< A matrix
    integer(I4B), intent(in), dimension(:) :: idxglo !< global index model to solution
    real(DP), intent(inout), dimension(:) :: rhs !< right-hand side
    ! -- local variables
    integer(I4B) :: ib
    integer(I4B) :: node
    integer(I4B) :: idiag
    integer(I4B) :: idelay
    real(DP) :: tled
    real(DP) :: area
    real(DP) :: hcof
    real(DP) :: rhsterm
    real(DP) :: comp
    !
    ! -- update geostatic load calculation
    call this%csub_cg_calc_stress(this%dis%nodes, hnew)
    !
    ! -- formulate csub terms
    if (this%gwfiss == 0) then
      !
      ! -- initialize tled
      tled = done / delt
      !
      ! -- coarse-grained storage
      do node = 1, this%dis%nodes
        idiag = this%dis%con%ia(node)
        area = this%dis%get_area(node)
        !
        ! -- skip inactive cells
        if (this%ibound(node) < 1) cycle
        !
        ! -- update coarse-grained material properties
        if (this%iupdatematprop /= 0) then
          if (this%ieslag == 0) then
            !
            ! -- calculate compaction
            call this%csub_cg_calc_comp(node, hnew(node), hold(node), comp)
            this%cg_comp(node) = comp
            !
            ! -- update coarse-grained thickness and void ratio
            call this%csub_cg_update(node)
          end if
        end if
        !
        ! -- calculate coarse-grained storage terms
        call this%csub_cg_fc(node, tled, area, hnew(node), hold(node), &
                             hcof, rhsterm)
        !
        ! -- add coarse-grained storage terms to amat and rhs for coarse-grained storage
        call matrix_sln%add_value_pos(idxglo(idiag), hcof)
        rhs(node) = rhs(node) + rhsterm
        !
        ! -- calculate coarse-grained water compressibility
        !    storage terms
        if (this%brg /= dzero) then
          call this%csub_cg_wcomp_fc(node, tled, area, hnew(node), hold(node), &
                                     hcof, rhsterm)
          !
          ! -- add water compression storage terms to amat and rhs for
          !   coarse-grained storage
          call matrix_sln%add_value_pos(idxglo(idiag), hcof)
          rhs(node) = rhs(node) + rhsterm
        end if
      end do
      !
      ! -- interbed storage
      if (this%ninterbeds /= 0) then
        !
        ! -- calculate the contribution of interbeds to the
        !    groundwater flow equation
        do ib = 1, this%ninterbeds
          node = this%nodelist(ib)
          idelay = this%idelay(ib)
          idiag = this%dis%con%ia(node)
          area = this%dis%get_area(node)
          call this%csub_interbed_fc(ib, node, area, hnew(node), hold(node), &
                                     hcof, rhsterm)
          call matrix_sln%add_value_pos(idxglo(idiag), hcof)
          rhs(node) = rhs(node) + rhsterm
          !
          ! -- calculate interbed water compressibility terms
          if (.not. is_close(this%brg, dzero) .and. idelay == 0) then
            call this%csub_nodelay_wcomp_fc(ib, node, tled, area, &
                                            hnew(node), hold(node), &
                                            hcof, rhsterm)
            !
            ! -- add water compression storage terms to amat and rhs for interbed
            call matrix_sln%add_value_pos(idxglo(idiag), hcof)
            rhs(node) = rhs(node) + rhsterm
          end if
        end do
      end if
    end if
    !
    ! -- terminate if errors encountered when updating material properties
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if

Here is the call graph for this function:

csub_fn()

subroutine gwfcsubmodule::csub_fn	(	class(gwfcsubtype)	this,
		integer(i4b), intent(in)	kiter,
		real(dp), dimension(:), intent(in)	hold,
		real(dp), dimension(:), intent(in)	hnew,
		class(matrixbasetype), pointer	matrix_sln,
		integer(i4b), dimension(:), intent(in)	idxglo,
		real(dp), dimension(:), intent(inout)	rhs
	)

Fill the coefficient matrix and right-hand side with CSUB package with Newton-Raphson terms.

Parameters

[in,out]	amat	A matrix
[in,out]	rhs	right-hand side
[in]	kiter	outer iteration number
[in]	hold	previous heads
[in]	hnew	current heads
	matrix_sln	A matrix
[in]	idxglo	global index model to solution
[in,out]	rhs	right-hand side

Definition at line 2878 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: kiter !< outer iteration number
    real(DP), intent(in), dimension(:) :: hold !< previous heads
    real(DP), intent(in), dimension(:) :: hnew !< current heads
    class(MatrixBaseType), pointer :: matrix_sln !< A matrix
    integer(I4B), intent(in), dimension(:) :: idxglo !< global index model to solution
    real(DP), intent(inout), dimension(:) :: rhs !< right-hand side
    ! -- local variables
    integer(I4B) :: idelay
    integer(I4B) :: node
    integer(I4B) :: idiag
    integer(I4B) :: ib
    real(DP) :: tled
    real(DP) :: area
    real(DP) :: hcof
    real(DP) :: rhsterm
    !
    ! -- formulate csub terms
    if (this%gwfiss == 0) then
      tled = done / delt
      !
      ! -- coarse-grained storage
      do node = 1, this%dis%nodes
        idiag = this%dis%con%ia(node)
        area = this%dis%get_area(node)
        !
        ! -- skip inactive cells
        if (this%ibound(node) < 1) cycle
        !
        ! -- calculate coarse-grained storage newton terms
        call this%csub_cg_fn(node, tled, area, &
                             hnew(node), hcof, rhsterm)
        !
        ! -- add coarse-grained storage newton terms to amat and rhs for
        !   coarse-grained storage
        call matrix_sln%add_value_pos(idxglo(idiag), hcof)
        rhs(node) = rhs(node) + rhsterm
        !
        ! -- calculate coarse-grained water compressibility storage
        !    newton terms
        if (this%brg /= dzero) then
          call this%csub_cg_wcomp_fn(node, tled, area, hnew(node), hold(node), &
                                     hcof, rhsterm)
          !
          ! -- add water compression storage newton terms to amat and rhs for
          !    coarse-grained storage
          call matrix_sln%add_value_pos(idxglo(idiag), hcof)
          rhs(node) = rhs(node) + rhsterm
        end if
      end do
      !
      ! -- interbed storage
      if (this%ninterbeds /= 0) then
        !
        ! -- calculate the interbed newton terms for the
        !    groundwater flow equation
        do ib = 1, this%ninterbeds
          idelay = this%idelay(ib)
          node = this%nodelist(ib)
          !
          ! -- skip inactive cells
          if (this%ibound(node) < 1) cycle
          !
          ! -- calculate interbed newton terms
          idiag = this%dis%con%ia(node)
          area = this%dis%get_area(node)
          call this%csub_interbed_fn(ib, node, hnew(node), hold(node), &
                                     hcof, rhsterm)
          !
          ! -- add interbed newton terms to amat and rhs
          call matrix_sln%add_value_pos(idxglo(idiag), hcof)
          rhs(node) = rhs(node) + rhsterm
          !
          ! -- calculate interbed water compressibility terms
          if (this%brg /= dzero .and. idelay == 0) then
            call this%csub_nodelay_wcomp_fn(ib, node, tled, area, &
                                            hnew(node), hold(node), &
                                            hcof, rhsterm)
            !
            ! -- add interbed water compression newton terms to amat and rhs
            call matrix_sln%add_value_pos(idxglo(idiag), hcof)
            rhs(node) = rhs(node) + rhsterm
          end if
        end do
      end if
    end if

csub_fp()

subroutine gwfcsubmodule::csub_fp

(

class(gwfcsubtype)

this

)

Final processing for the CSUB package. This method generates the final strain tables that are output so that the user can evaluate if calculated strain rates in coarse-grained sediments and interbeds exceed 1 percent.

Definition at line 1852 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    ! -- local variables
    character(len=LINELENGTH) :: title
    character(len=LINELENGTH) :: tag
    character(len=LINELENGTH) :: msg
    character(len=10) :: ctype
    character(len=20) :: cellid
    character(len=10) :: cflag
    integer(I4B) :: i
    integer(I4B) :: ib
    integer(I4B) :: i0
    integer(I4B) :: i1
    integer(I4B) :: node
    integer(I4B) :: nn
    integer(I4B) :: idelay
    integer(I4B) :: iexceed
    integer(I4B), parameter :: ncells = 20
    integer(I4B) :: nlen
    integer(I4B) :: ntabrows
    integer(I4B) :: ntabcols
    integer(I4B) :: ipos
    real(DP) :: b0
    real(DP) :: b1
    real(DP) :: strain
    real(DP) :: pctcomp
    integer(I4B), dimension(:), allocatable :: imap_sel
    integer(I4B), dimension(:), allocatable :: locs
    real(DP), dimension(:), allocatable :: pctcomp_arr
    !
    ! -- initialize locs
    allocate (locs(this%dis%ndim))
    !
    ! -- calculate and report strain for interbeds
    if (this%ninterbeds > 0) then
      nlen = min(ncells, this%ninterbeds)
      allocate (imap_sel(nlen))
      allocate (pctcomp_arr(this%ninterbeds))
      iexceed = 0
      do ib = 1, this%ninterbeds
        idelay = this%idelay(ib)
        b0 = this%thickini(ib)
        strain = this%tcomp(ib) / b0
        pctcomp = dhundred * strain
        pctcomp_arr(ib) = pctcomp
        if (pctcomp >= done) then
          iexceed = iexceed + 1
        end if
      end do
      call selectn(imap_sel, pctcomp_arr, reverse=.true.)
      !
      ! -- summary interbed strain table
      i0 = max(1, this%ninterbeds - ncells + 1)
      i1 = this%ninterbeds
      msg = ''
      if (iexceed /= 0) then
        write (msg, '(1x,a,1x,i0,1x,a,1x,i0,1x,a)') &
          'LARGEST', (i1 - i0 + 1), 'OF', this%ninterbeds, &
          'INTERBED STRAIN VALUES SHOWN'
        call write_message(msg, this%iout, skipbefore=1)
        !
        ! -- interbed strain data
        ! -- set title
        title = trim(adjustl(this%packName))//' PACKAGE INTERBED STRAIN SUMMARY'
        !
        ! -- determine the number of columns and rows
        ntabrows = nlen
        ntabcols = 9
        !
        ! -- setup table
        call table_cr(this%outputtab, this%packName, title)
        call this%outputtab%table_df(ntabrows, ntabcols, this%iout)
        !
        ! add columns
        tag = 'INTERBED NUMBER'
        call this%outputtab%initialize_column(tag, 10, alignment=tabcenter)
        tag = 'INTERBED TYPE'
        call this%outputtab%initialize_column(tag, 10, alignment=tabcenter)
        tag = 'CELLID'
        call this%outputtab%initialize_column(tag, 20, alignment=tableft)
        tag = 'INITIAL THICKNESS'
        call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
        tag = 'FINAL THICKNESS'
        call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
        tag = 'TOTAL COMPACTION'
        call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
        tag = 'FINAL STRAIN'
        call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
        tag = 'PERCENT COMPACTION'
        call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
        tag = 'FLAG'
        call this%outputtab%initialize_column(tag, 10, alignment=tabcenter)
        !
        ! -- write data
        do i = 1, nlen
          ib = imap_sel(i)
          idelay = this%idelay(ib)
          b0 = this%thickini(ib)
          b1 = this%csub_calc_interbed_thickness(ib)
          if (idelay == 0) then
            ctype = 'no-delay'
          else
            ctype = 'delay'
            b0 = b0 * this%rnb(ib)
          end if
          strain = this%tcomp(ib) / b0
          pctcomp = dhundred * strain
          if (pctcomp >= 5.0_dp) then
            cflag = '**>=5%'
          else if (pctcomp >= done) then
            cflag = '*>=1%'
          else
            cflag = ''
          end if
          node = this%nodelist(ib)
          call this%dis%noder_to_string(node, cellid)
          !
          ! -- fill table line
          call this%outputtab%add_term(ib)
          call this%outputtab%add_term(ctype)
          call this%outputtab%add_term(cellid)
          call this%outputtab%add_term(b0)
          call this%outputtab%add_term(b1)
          call this%outputtab%add_term(this%tcomp(ib))
          call this%outputtab%add_term(strain)
          call this%outputtab%add_term(pctcomp)
          call this%outputtab%add_term(cflag)
        end do
        write (this%iout, '(/1X,A,1X,I0,1X,A,1X,I0,1X,A,/1X,A,/1X,A)') &
          'PERCENT COMPACTION IS GREATER THAN OR EQUAL TO 1 PERCENT IN', &
          iexceed, 'OF', this%ninterbeds, 'INTERBED(S).', &
          'USE THE STRAIN_CSV_INTERBED OPTION TO OUTPUT A CSV '// &
          'FILE WITH PERCENT COMPACTION ', 'VALUES FOR ALL INTERBEDS.'
      else
        msg = 'PERCENT COMPACTION WAS LESS THAN 1 PERCENT IN ALL INTERBEDS'
        write (this%iout, '(/1X,A)') trim(adjustl(msg))
      end if
      !
      ! -- write csv file
      if (this%istrainib /= 0) then
        !
        ! -- determine the number of columns and rows
        ntabrows = this%ninterbeds
        ntabcols = 7
        if (this%dis%ndim > 1) then
          ntabcols = ntabcols + 1
        end if
        ntabcols = ntabcols + this%dis%ndim
        !
        ! -- setup table
        call table_cr(this%outputtab, this%packName, '')
        call this%outputtab%table_df(ntabrows, ntabcols, this%istrainib, &
                                     lineseparator=.false., separator=',')
        !
        ! add columns
        tag = 'INTERBED_NUMBER'
        call this%outputtab%initialize_column(tag, 20, alignment=tabright)
        tag = 'INTERBED_TYPE'
        call this%outputtab%initialize_column(tag, 20, alignment=tabright)
        tag = 'NODE'
        call this%outputtab%initialize_column(tag, 10, alignment=tabright)
        if (this%dis%ndim == 2) then
          tag = 'LAYER'
          call this%outputtab%initialize_column(tag, 10, alignment=tabright)
          tag = 'ICELL2D'
          call this%outputtab%initialize_column(tag, 10, alignment=tabright)
        else
          tag = 'LAYER'
          call this%outputtab%initialize_column(tag, 10, alignment=tabright)
          tag = 'ROW'
          call this%outputtab%initialize_column(tag, 10, alignment=tabright)
          tag = 'COLUMN'
          call this%outputtab%initialize_column(tag, 10, alignment=tabright)
        end if
        tag = 'INITIAL_THICKNESS'
        call this%outputtab%initialize_column(tag, 20, alignment=tabright)
        tag = 'FINAL_THICKNESS'
        call this%outputtab%initialize_column(tag, 20, alignment=tabright)
        tag = 'TOTAL_COMPACTION'
        call this%outputtab%initialize_column(tag, 20, alignment=tabright)
        tag = 'TOTAL_STRAIN'
        call this%outputtab%initialize_column(tag, 20, alignment=tabright)
        tag = 'PERCENT_COMPACTION'
        call this%outputtab%initialize_column(tag, 20, alignment=tabright)
        !
        ! -- write data
        do ib = 1, this%ninterbeds
          idelay = this%idelay(ib)
          b0 = this%thickini(ib)
          b1 = this%csub_calc_interbed_thickness(ib)
          if (idelay == 0) then
            ctype = 'no-delay'
          else
            ctype = 'delay'
            b0 = b0 * this%rnb(ib)
          end if
          strain = this%tcomp(ib) / b0
          pctcomp = dhundred * strain
          node = this%nodelist(ib)
          call this%dis%noder_to_array(node, locs)
          !
          ! -- fill table line
          call this%outputtab%add_term(ib)
          call this%outputtab%add_term(ctype)
          if (this%dis%ndim > 1) then
            call this%outputtab%add_term(this%dis%get_nodeuser(node))
          end if
          do ipos = 1, this%dis%ndim
            call this%outputtab%add_term(locs(ipos))
          end do
          call this%outputtab%add_term(b0)
          call this%outputtab%add_term(b1)
          call this%outputtab%add_term(this%tcomp(ib))
          call this%outputtab%add_term(strain)
          call this%outputtab%add_term(pctcomp)
        end do
      end if
      !
      ! -- deallocate temporary storage
      deallocate (imap_sel)
      deallocate (pctcomp_arr)
    end if
    !
    ! -- calculate and report strain for coarse-grained materials
    nlen = min(ncells, this%dis%nodes)
    allocate (imap_sel(nlen))
    allocate (pctcomp_arr(this%dis%nodes))
    iexceed = 0
    do node = 1, this%dis%nodes
      strain = dzero
      if (this%cg_thickini(node) > dzero) then
        strain = this%cg_tcomp(node) / this%cg_thickini(node)
      end if
      pctcomp = dhundred * strain
      pctcomp_arr(node) = pctcomp
      if (pctcomp >= done) then
        iexceed = iexceed + 1
      end if
    end do
    call selectn(imap_sel, pctcomp_arr, reverse=.true.)
    !
    ! -- summary coarse-grained strain table
    i0 = max(1, this%dis%nodes - ncells + 1)
    i1 = this%dis%nodes
    msg = ''
    if (iexceed /= 0) then
      write (msg, '(a,1x,i0,1x,a,1x,i0,1x,a)') &
        'LARGEST ', (i1 - i0 + 1), 'OF', this%dis%nodes, &
        'CELL COARSE-GRAINED VALUES SHOWN'
      call write_message(msg, this%iout, skipbefore=1)
      !
      ! -- set title
      title = trim(adjustl(this%packName))// &
              ' PACKAGE COARSE-GRAINED STRAIN SUMMARY'
      !
      ! -- determine the number of columns and rows
      ntabrows = nlen
      ntabcols = 7
      !
      ! -- setup table
      call table_cr(this%outputtab, this%packName, title)
      call this%outputtab%table_df(ntabrows, ntabcols, this%iout)
      !
      ! add columns
      tag = 'CELLID'
      call this%outputtab%initialize_column(tag, 20, alignment=tableft)
      tag = 'INITIAL THICKNESS'
      call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
      tag = 'FINAL THICKNESS'
      call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
      tag = 'TOTAL COMPACTION'
      call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
      tag = 'FINAL STRAIN'
      call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
      tag = 'PERCENT COMPACTION'
      call this%outputtab%initialize_column(tag, 12, alignment=tabcenter)
      tag = 'FLAG'
      call this%outputtab%initialize_column(tag, 10, alignment=tabcenter)
      ! -- write data
      do nn = 1, nlen
        node = imap_sel(nn)
        if (this%cg_thickini(node) > dzero) then
          strain = this%cg_tcomp(node) / this%cg_thickini(node)
        else
          strain = dzero
        end if
        pctcomp = dhundred * strain
        if (pctcomp >= 5.0_dp) then
          cflag = '**>=5%'
        else if (pctcomp >= done) then
          cflag = '*>=1%'
        else
          cflag = ''
        end if
        call this%dis%noder_to_string(node, cellid)
        !
        ! -- fill table line
        call this%outputtab%add_term(cellid)
        call this%outputtab%add_term(this%cg_thickini(node))
        call this%outputtab%add_term(this%cg_thick(node))
        call this%outputtab%add_term(this%cg_tcomp(node))
        call this%outputtab%add_term(strain)
        call this%outputtab%add_term(pctcomp)
        call this%outputtab%add_term(cflag)
      end do
      write (this%iout, '(/1X,A,1X,I0,1X,A,1X,I0,1X,A,/1X,A,/1X,A)') &
        'COARSE-GRAINED STORAGE PERCENT COMPACTION IS GREATER THAN OR '// &
        'EQUAL TO 1 PERCENT IN', iexceed, 'OF', this%dis%nodes, 'CELL(S).', &
        'USE THE STRAIN_CSV_COARSE OPTION TO OUTPUT A CSV '// &
        'FILE WITH PERCENT COMPACTION ', 'VALUES FOR ALL CELLS.'
    else
      msg = 'COARSE-GRAINED STORAGE PERCENT COMPACTION WAS LESS THAN '// &
            '1 PERCENT IN ALL CELLS '
      write (this%iout, '(/1X,A)') trim(adjustl(msg))
    end if
    !
    ! -- write csv file
    if (this%istrainsk /= 0) then
      !
      ! -- determine the number of columns and rows
      ntabrows = this%dis%nodes
      ntabcols = 5
      if (this%dis%ndim > 1) then
        ntabcols = ntabcols + 1
      end if
      ntabcols = ntabcols + this%dis%ndim
      !
      ! -- setup table
      call table_cr(this%outputtab, this%packName, '')
      call this%outputtab%table_df(ntabrows, ntabcols, this%istrainsk, &
                                   lineseparator=.false., separator=',')
      !
      ! add columns
      tag = 'NODE'
      call this%outputtab%initialize_column(tag, 10, alignment=tabright)
      if (this%dis%ndim == 2) then
        tag = 'LAYER'
        call this%outputtab%initialize_column(tag, 10, alignment=tabright)
        tag = 'ICELL2D'
        call this%outputtab%initialize_column(tag, 10, alignment=tabright)
      else
        tag = 'LAYER'
        call this%outputtab%initialize_column(tag, 10, alignment=tabright)
        tag = 'ROW'
        call this%outputtab%initialize_column(tag, 10, alignment=tabright)
        tag = 'COLUMN'
        call this%outputtab%initialize_column(tag, 10, alignment=tabright)
      end if
      tag = 'INITIAL_THICKNESS'
      call this%outputtab%initialize_column(tag, 20, alignment=tabright)
      tag = 'FINAL_THICKNESS'
      call this%outputtab%initialize_column(tag, 20, alignment=tabright)
      tag = 'TOTAL_COMPACTION'
      call this%outputtab%initialize_column(tag, 20, alignment=tabright)
      tag = 'TOTAL_STRAIN'
      call this%outputtab%initialize_column(tag, 20, alignment=tabright)
      tag = 'PERCENT_COMPACTION'
      call this%outputtab%initialize_column(tag, 20, alignment=tabright)
      !
      ! -- write data
      do node = 1, this%dis%nodes
        if (this%cg_thickini(node) > dzero) then
          strain = this%cg_tcomp(node) / this%cg_thickini(node)
        else
          strain = dzero
        end if
        pctcomp = dhundred * strain
        call this%dis%noder_to_array(node, locs)
        !
        ! -- fill table line
        if (this%dis%ndim > 1) then
          call this%outputtab%add_term(this%dis%get_nodeuser(node))
        end if
        do ipos = 1, this%dis%ndim
          call this%outputtab%add_term(locs(ipos))
        end do
        call this%outputtab%add_term(this%cg_thickini(node))
        call this%outputtab%add_term(this%cg_thick(node))
        call this%outputtab%add_term(this%cg_tcomp(node))
        call this%outputtab%add_term(strain)
        call this%outputtab%add_term(pctcomp)
      end do
    end if
    !
    ! -- write a warning message for delay interbeds in non-convertible gwf
    !    cells that violate minimum head assumptions
    if (this%ndelaybeds > 0) then
      if (this%idb_nconv_count(2) > 0) then
        write (warnmsg, '(a,1x,a,1x,i0,1x,a,1x,a)') &
          'Delay interbed cell heads were less than the top of the interbed', &
          'cell in', this%idb_nconv_count(2), 'interbed cells in ', &
          'non-convertible GWF cells for at least one time step during '// &
          'the simulation.'
        call store_warning(warnmsg)
      end if
    end if
    !
    ! -- deallocate temporary storage
    deallocate (imap_sel)
    deallocate (locs)
    deallocate (pctcomp_arr)

Here is the call graph for this function:

csub_initialize_tables()

subroutine gwfcsubmodule::csub_initialize_tables

(

class(gwfcsubtype)

this

)

Subroutine to initialize optional tables. Tables include: o delay interbeds convergence tables

Definition at line 2976 of file gwf-csub.f90.

    class(GwfCsubType) :: this
 
    character(len=LINELENGTH) :: tag
    integer(I4B) :: ntabrows
    integer(I4B) :: ntabcols
 
    if (this%ipakcsv > 0) then
      if (this%ndelaybeds < 1) then
        write (warnmsg, '(a,1x,3a)') &
          'Package convergence data is requested but delay interbeds', &
          'are not included in package (', &
          trim(adjustl(this%packName)), ').'
        call store_warning(warnmsg)
      end if
 
      ntabrows = 1
      ntabcols = 9
 
      ! setup table
      call table_cr(this%pakcsvtab, this%packName, '')
      call this%pakcsvtab%table_df(ntabrows, ntabcols, this%ipakcsv, &
                                   lineseparator=.false., separator=',', &
                                   finalize=.false.)
 
      ! add columns to package csv
      tag = 'total_inner_iterations'
      call this%pakcsvtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'totim'
      call this%pakcsvtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'kper'
      call this%pakcsvtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'kstp'
      call this%pakcsvtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'nouter'
      call this%pakcsvtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'dvmax'
      call this%pakcsvtab%initialize_column(tag, 15, alignment=tableft)
      tag = 'dvmax_loc'
      call this%pakcsvtab%initialize_column(tag, 15, alignment=tableft)
      tag = 'dstoragemax'
      call this%pakcsvtab%initialize_column(tag, 15, alignment=tableft)
      tag = 'dstoragemax_loc'
      call this%pakcsvtab%initialize_column(tag, 15, alignment=tableft)
    end if
 

Here is the call graph for this function:

csub_interbed_fc()

subroutine gwfcsubmodule::csub_interbed_fc ( class(gwfcsubtype)  this, integer(i4b), intent(in)  ib, integer(i4b), intent(in)  node, real(dp), intent(in)  area, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the coefficient matrix and right-hand side terms for a interbed in a cell.

Parameters

[in,out]	hcof	interbed A matrix entry
[in,out]	rhs	interbed right-hand side entry
[in]	ib	interbed number
[in]	node	cell node number
[in]	area	horizontal cell area
[in]	hcell	current head in cell
[in]	hcellold	previous head in cell
[in,out]	hcof	interbed A matrix entry
[in,out]	rhs	interbed right-hand side

Definition at line 4832 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: area !< horizontal cell area
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(in) :: hcellold !< previous head in cell
    real(DP), intent(inout) :: hcof !< interbed A matrix entry
    real(DP), intent(inout) :: rhs !< interbed right-hand side
    ! -- local variables
    real(DP) :: snnew
    real(DP) :: snold
    real(DP) :: comp
    real(DP) :: compi
    real(DP) :: compe
    real(DP) :: rho1
    real(DP) :: rho2
    real(DP) :: f
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    comp = dzero
    compi = dzero
    compe = dzero
    !
    ! -- skip inactive and constant head cells
    if (this%ibound(node) > 0) then
      if (this%idelay(ib) == 0) then
        !
        ! -- update material properties
        if (this%iupdatematprop /= 0) then
          if (this%ieslag == 0) then
            !
            ! -- calculate compaction
            call this%csub_nodelay_calc_comp(ib, hcell, hcellold, comp, &
                                             rho1, rho2)
            this%comp(ib) = comp
            !
            ! -- update thickness and void ratio
            call this%csub_nodelay_update(ib)
          end if
        end if
        !
        ! -- calculate no-delay interbed rho1 and rho2
        call this%csub_nodelay_fc(ib, hcell, hcellold, rho1, hcof, rhs)
        f = area
      else
        !
        ! -- calculate cell saturation
        call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
        !
        ! -- update material properties
        if (this%iupdatematprop /= 0) then
          if (this%ieslag == 0) then
            !
            ! -- calculate compaction
            call this%csub_delay_calc_comp(ib, hcell, hcellold, &
                                           comp, compi, compe)
            this%comp(ib) = comp
            !
            ! -- update thickness and void ratio
            call this%csub_delay_update(ib)
          end if
        end if
        !
        ! -- calculate delay interbed hcof and rhs
        call this%csub_delay_sln(ib, hcell)
        call this%csub_delay_fc(ib, hcof, rhs)
        f = area * this%rnb(ib)
      end if
      rhs = rhs * f
      hcof = -hcof * f
    end if

csub_interbed_fn()

subroutine gwfcsubmodule::csub_interbed_fn ( class(gwfcsubtype)  this, integer(i4b), intent(in)  ib, integer(i4b), intent(in)  node, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the Newton-Raphson formulation coefficient matrix and right-hand side terms for a interbed in a cell.

Parameters

[in,out]	hcof	interbed A matrix entry
[in,out]	rhs	interbed right-hand side entry
[in]	ib	interbed number
[in]	node	cell node number
[in]	hcell	current head in a cell
[in]	hcellold	previous head in a cell
[in,out]	hcof	interbed A matrix entry
[in,out]	rhs	interbed right-hand side entry

Definition at line 4918 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: hcell !< current head in a cell
    real(DP), intent(in) :: hcellold !< previous head in a cell
    real(DP), intent(inout) :: hcof !< interbed A matrix entry
    real(DP), intent(inout) :: rhs !< interbed right-hand side entry
    ! -- local variables
    integer(I4B) :: idelay
    real(DP) :: hcofn
    real(DP) :: rhsn
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: tled
    real(DP) :: tthk
    real(DP) :: snnew
    real(DP) :: snold
    real(DP) :: f
    real(DP) :: satderv
    real(DP) :: hbar
    real(DP) :: hbarderv
    real(DP) :: rho1
    real(DP) :: rho2
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    rhsn = dzero
    hcofn = dzero
    satderv = dzero
    idelay = this%idelay(ib)
    top = this%dis%top(node)
    bot = this%dis%bot(node)
    !
    ! -- skip inactive and constant head cells
    if (this%ibound(node) > 0) then
      tled = done / delt
      tthk = this%thickini(ib)
      !
      ! -- calculate cell saturation
      call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
      !
      ! -- no-delay interbeds
      if (idelay == 0) then
        !
        ! -- initialize factor
        f = done
        !
        ! -- calculate the saturation derivative
        satderv = this%csub_calc_sat_derivative(node, hcell)
        !
        ! -- calculate corrected head (hbar)
        hbar = squadratic0sp(hcell, bot, this%satomega)
        !
        ! -- calculate the derivative of the hbar functions
        hbarderv = squadratic0spderivative(hcell, bot, this%satomega)
        !
        ! -- calculate storage coefficient
        call this%csub_nodelay_fc(ib, hcell, hcellold, rho1, rho2, rhsn)
        !
        ! -- calculate hcofn term
        hcofn = rho2 * (done - hbarderv) * snnew + &
                rho2 * (this%cg_gs(node) - hbar + bot) * satderv
        if (this%ielastic(ib) == 0) then
          hcofn = hcofn - rho2 * this%pcs(ib) * satderv
        end if
        !
        ! -- Add additional term if using lagged effective stress
        if (this%ieslag /= 0) then
          if (this%ielastic(ib) /= 0) then
            hcofn = hcofn - rho1 * this%cg_es0(node) * satderv
          else
            hcofn = hcofn - rho1 * (this%pcs(ib) - this%cg_es0(node)) * satderv
          end if
        end if
      end if
    end if

Here is the call graph for this function:

csub_nodelay_calc_comp()

subroutine gwfcsubmodule::csub_nodelay_calc_comp	(	class(gwfcsubtype)	this,
		integer(i4b), intent(in)	ib,
		real(dp), intent(in)	hcell,
		real(dp), intent(in)	hcellold,
		real(dp), intent(inout)	comp,
		real(dp), intent(inout)	rho1,
		real(dp), intent(inout)	rho2
	)

Method calculates the compaction for a no-delay interbed. The method also calculates the storage coefficients for the no-delay interbed.

Parameters

[in,out]	comp	no-delay compaction
[in,out]	rho1	no-delay storage value using Sske
[in,out]	rho2	no-delay storage value using Ssk
[in]	ib	interbed number
[in]	hcell	current head for the cell
[in]	hcellold	previous head for the cell
[in,out]	comp	no-delay interbed compaction
[in,out]	rho1	current storage coefficient based on Sske
[in,out]	rho2	current storage coefficient based on Ssk

Definition at line 4264 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(in) :: hcell !< current head for the cell
    real(DP), intent(in) :: hcellold !< previous head for the cell
    real(DP), intent(inout) :: comp !< no-delay interbed compaction
    real(DP), intent(inout) :: rho1 !< current storage coefficient based on Sske
    real(DP), intent(inout) :: rho2 !< current storage coefficient based on Ssk
    ! -- local variables
    integer(I4B) :: node
    real(DP) :: es
    real(DP) :: es0
    real(DP) :: pcs
    real(DP) :: tled
    real(DP) :: rhs
    !
    ! -- initialize variables
    node = this%nodelist(ib)
    tled = done
    es = this%cg_es(node)
    es0 = this%cg_es0(node)
    pcs = this%pcs(ib)
    !
    ! -- calculate no-delay interbed rho1 and rho2
    call this%csub_nodelay_fc(ib, hcell, hcellold, rho1, rho2, rhs, argtled=tled)
    !
    ! -- calculate no-delay interbed compaction
    if (this%ielastic(ib) /= 0) then
      comp = rho2 * es - rho1 * es0
    else
      comp = -pcs * (rho2 - rho1) - (rho1 * es0) + (rho2 * es)
    end if

csub_nodelay_fc()

subroutine gwfcsubmodule::csub_nodelay_fc ( class(gwfcsubtype)  this, integer(i4b), intent(in)  ib, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  rho1, real(dp), intent(inout)  rho2, real(dp), intent(inout)  rhs, real(dp), intent(in), optional  argtled  )

private

Method calculates the skeletal storage coefficients for a no-delay interbed. The method also calculates the contribution of the no-delay interbed to the right-hand side of the groundwater flow equation for the cell.

Parameters

[in,out]	rho1	no-delay storage value using Sske
[in,out]	rho2	no-delay storage value using Ssk
[in,out]	rhs	no-delay right-hand side contribution
[in]	ib	interbed number
[in]	hcell	current head in the cell
[in]	hcellold	previous head in the cell
[in,out]	rho1	current storage coefficient value using Sske
[in,out]	rho2	current storage coefficient value based on Ssk
[in,out]	rhs	no-delay interbed contribution to the right-hand side
[in]	argtled	optional reciprocal of the time step length

Definition at line 4156 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: delt
    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    real(DP), intent(in) :: hcell !< current head in the cell
    real(DP), intent(in) :: hcellold !< previous head in the cell
    real(DP), intent(inout) :: rho1 !< current storage coefficient value using Sske
    real(DP), intent(inout) :: rho2 !< current storage coefficient value based on Ssk
    real(DP), intent(inout) :: rhs !< no-delay interbed contribution to the right-hand side
    real(DP), intent(in), optional :: argtled !< optional reciprocal of the time step length
    ! -- local variables
    integer(I4B) :: node
    real(DP) :: tled
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: thick
    real(DP) :: hbar
    real(DP) :: znode
    real(DP) :: snold
    real(DP) :: snnew
    real(DP) :: sto_fac
    real(DP) :: sto_fac0
    real(DP) :: area
    real(DP) :: theta
    real(DP) :: es
    real(DP) :: es0
    real(DP) :: f
    real(DP) :: f0
    real(DP) :: rcorr
    !
    ! -- process optional variables
    if (present(argtled)) then
      tled = argtled
    else
      tled = done / delt
    end if
    node = this%nodelist(ib)
    area = this%dis%get_area(node)
    bot = this%dis%bot(node)
    top = this%dis%top(node)
    thick = this%thickini(ib)
    !
    ! -- calculate corrected head (hbar)
    hbar = squadratic0sp(hcell, bot, this%satomega)
    !
    ! -- set iconvert
    this%iconvert(ib) = 0
    !
    ! -- aquifer saturation
    call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
    if (this%lhead_based .EQV. .true.) then
      f = done
      f0 = done
    else
      znode = this%csub_calc_znode(top, bot, hbar)
      es = this%cg_es(node)
      es0 = this%cg_es0(node)
      theta = this%thetaini(ib)
      !
      ! -- calculate the compression index factors for the delay
      !    node relative to the center of the cell based on the
      !    current and previous head
      call this%csub_calc_sfacts(node, bot, znode, theta, es, es0, f)
    end if
    sto_fac = tled * snnew * thick * f
    sto_fac0 = tled * snold * thick * f
    !
    ! -- calculate rho1 and rho2
    rho1 = this%rci(ib) * sto_fac0
    rho2 = this%rci(ib) * sto_fac
    if (this%cg_es(node) > this%pcs(ib)) then
      this%iconvert(ib) = 1
      rho2 = this%ci(ib) * sto_fac
    end if
    !
    ! -- calculate correction term
    rcorr = rho2 * (hcell - hbar)
    !
    ! -- fill right-hand side
    if (this%ielastic(ib) /= 0) then
      rhs = rho1 * this%cg_es0(node) - &
            rho2 * (this%cg_gs(node) + bot) - &
            rcorr
    else
      rhs = -rho2 * (this%cg_gs(node) + bot) + &
            (this%pcs(ib) * (rho2 - rho1)) + &
            (rho1 * this%cg_es0(node)) - &
            rcorr
    end if
    !
    ! -- save ske and sk
    this%ske(ib) = rho1
    this%sk(ib) = rho2

Here is the call graph for this function:

csub_nodelay_update()

subroutine gwfcsubmodule::csub_nodelay_update ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  i  )

private

Method updates no-delay material properties based on the current compaction value.

Definition at line 4112 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: i
    ! -- local variables
    real(DP) :: comp
    real(DP) :: thick
    real(DP) :: theta
    !
    ! -- update thickness and theta
    comp = this%tcomp(i) + this%comp(i)
    if (abs(comp) > dzero) then
      thick = this%thickini(i)
      theta = this%thetaini(i)
      call this%csub_adj_matprop(comp, thick, theta)
      if (thick <= dzero) then
        write (errmsg, '(a,1x,i0,1x,a,g0,a)') &
          'Adjusted thickness for no-delay interbed', i, &
          'is less than or equal to 0 (', thick, ').'
        call store_error(errmsg)
      end if
      if (theta <= dzero) then
        write (errmsg, '(a,1x,i0,1x,a,g0,a)') &
          'Adjusted theta for no-delay interbed', i, &
          'is less than or equal to 0 (', theta, ').'
        call store_error(errmsg)
      end if
      this%thick(i) = thick
      this%theta(i) = theta
    end if

Here is the call graph for this function:

csub_nodelay_wcomp_fc()

subroutine gwfcsubmodule::csub_nodelay_wcomp_fc ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, integer(i4b), intent(in)  node, real(dp), intent(in)  tled, real(dp), intent(in)  area, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the standard formulation coefficient matrix and right-hand side terms for water compressibility in no-delay interbeds.

Parameters

[in,out]	hcof	no-delay A matrix entry
[in,out]	rhs	no-delay right-hand side entry
[in]	ib	interbed number
[in]	node	cell node number
[in]	tled	reciprocal of time step length
[in]	area	horizontal cell area
[in]	hcell	current head in cell
[in]	hcellold	previous head in cell
[in,out]	hcof	no-delay A matrix entry
[in,out]	rhs	no-delay right-hand side entry

Definition at line 5254 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: tled !< reciprocal of time step length
    real(DP), intent(in) :: area !< horizontal cell area
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(in) :: hcellold !< previous head in cell
    real(DP), intent(inout) :: hcof !< no-delay A matrix entry
    real(DP), intent(inout) :: rhs !< no-delay right-hand side entry
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: snold
    real(DP) :: snnew
    real(DP) :: f
    real(DP) :: wc
    real(DP) :: wc0
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    !
    ! -- aquifer elevations and thickness
    top = this%dis%top(node)
    bot = this%dis%bot(node)
    !
    ! -- calculate cell saturation
    call this%csub_calc_sat(node, hcell, hcellold, snnew, snold)
    !
    !
    f = this%brg * area * tled
    wc0 = f * this%theta0(ib) * this%thick0(ib)
    wc = f * this%theta(ib) * this%thick(ib)
    hcof = -wc * snnew
    rhs = -wc0 * snold * hcellold

csub_nodelay_wcomp_fn()

subroutine gwfcsubmodule::csub_nodelay_wcomp_fn ( class(gwfcsubtype), intent(inout)  this, integer(i4b), intent(in)  ib, integer(i4b), intent(in)  node, real(dp), intent(in)  tled, real(dp), intent(in)  area, real(dp), intent(in)  hcell, real(dp), intent(in)  hcellold, real(dp), intent(inout)  hcof, real(dp), intent(inout)  rhs  )

private

Method formulates the Newton-Raphson formulation coefficient matrix and right-hand side terms for water compressibility in no-delay interbeds.

Parameters

[in,out]	hcof	no-delay A matrix entry
[in,out]	rhs	no-delay right-hand side entry
[in]	ib	interbed number
[in]	node	cell node number
[in]	tled	reciprocal of time step length
[in]	area	horizontal cell area
[in]	hcell	current head in cell
[in]	hcellold	previous head in cell
[in,out]	hcof	no-delay A matrix entry
[in,out]	rhs	no-delay right-hand side entry

Definition at line 5304 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    integer(I4B), intent(in) :: ib !< interbed number
    integer(I4B), intent(in) :: node !< cell node number
    real(DP), intent(in) :: tled !< reciprocal of time step length
    real(DP), intent(in) :: area !< horizontal cell area
    real(DP), intent(in) :: hcell !< current head in cell
    real(DP), intent(in) :: hcellold !< previous head in cell
    real(DP), intent(inout) :: hcof !< no-delay A matrix entry
    real(DP), intent(inout) :: rhs !< no-delay right-hand side entry
    ! -- local variables
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: f
    real(DP) :: wc
    real(DP) :: wc0
    real(DP) :: satderv
    !
    ! -- initialize variables
    rhs = dzero
    hcof = dzero
    !
    ! -- aquifer elevations and thickness
    top = this%dis%top(node)
    bot = this%dis%bot(node)
    !
    !
    f = this%brg * area * tled
    !
    ! -- calculate saturation derivative
    satderv = this%csub_calc_sat_derivative(node, hcell)
    !
    ! -- calculate the current water compressibility factor
    wc = f * this%theta(ib) * this%thick(ib)
    !
    ! -- calculate derivative term
    hcof = -wc * hcell * satderv
    !
    ! -- Add additional term if using lagged effective stress
    if (this%ieslag /= 0) then
      wc0 = f * this%theta0(ib) * this%thick0(ib)
      hcof = hcof + wc0 * hcellold * satderv
    end if
    !
    ! -- set rhs
    rhs = hcof * hcell

csub_obs_supported()

logical function gwfcsubmodule::csub_obs_supported ( class(gwfcsubtype)  this )

private

Function to determine if observations are supported by the CSUB package. Observations are supported by the CSUB package.

Definition at line 6742 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    !
    ! -- initialize variables
    csub_obs_supported = .true.

csub_ot_dv()

subroutine gwfcsubmodule::csub_ot_dv ( class(gwfcsubtype)  this, integer(i4b), intent(in)  idvfl, integer(i4b), intent(in)  idvprint  )

private

Method saves cell-by-cell compaction and z-displacement terms. The method also calls the method to process observation output.

Parameters

[in]	idvfl	flag to save dependent variable data
[in]	idvprint	flag to print dependent variable data

Definition at line 3653 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: idvfl !< flag to save dependent variable data
    integer(I4B), intent(in) :: idvprint !< flag to print dependent variable data
    ! -- local variables
    character(len=1) :: cdatafmp = ' '
    character(len=1) :: editdesc = ' '
    integer(I4B) :: ibinun
    integer(I4B) :: iprint
    integer(I4B) :: nvaluesp
    integer(I4B) :: nwidthp
    integer(I4B) :: ib
    integer(I4B) :: node
    integer(I4B) :: nodem
    integer(I4B) :: nodeu
    integer(I4B) :: i
    integer(I4B) :: ii
    integer(I4B) :: idx_conn
    integer(I4B) :: k
    integer(I4B) :: ncpl
    integer(I4B) :: nlay
    integer(I4B) :: ihc
    real(DP) :: dinact
    real(DP) :: va_scale
    ! -- formats
    character(len=*), parameter :: fmtnconv = &
    "(/4x, 'DELAY INTERBED CELL HEADS IN ', i0, ' INTERBEDS IN', &
    &' NON-CONVERTIBLE GWF CELLS WERE LESS THAN THE TOP OF THE INTERBED CELL')"
    !
    ! -- Save compaction results
    !
    ! -- Set unit number for binary compaction and z-displacement output
    if (this%ioutcomp /= 0 .or. this%ioutzdisp /= 0) then
      ibinun = 1
    else
      ibinun = 0
    end if
    if (idvfl == 0) ibinun = 0
    !
    ! -- save compaction results
    if (ibinun /= 0) then
      iprint = 0
      dinact = dhnoflo
      !
      ! -- fill buff with total compaction
      do node = 1, this%dis%nodes
        this%buff(node) = this%cg_tcomp(node)
      end do
      do ib = 1, this%ninterbeds
        node = this%nodelist(ib)
        this%buff(node) = this%buff(node) + this%tcomp(ib)
      end do
      !
      ! -- write compaction data to binary file
      if (this%ioutcomp /= 0) then
        ibinun = this%ioutcomp
        call this%dis%record_array(this%buff, this%iout, iprint, ibinun, &
                                   comptxt(1), cdatafmp, nvaluesp, &
                                   nwidthp, editdesc, dinact)
      end if
      !
      ! -- calculate z-displacement (subsidence) and write data to binary file
      if (this%ioutzdisp /= 0) then
        ibinun = this%ioutzdisp
        !
        ! -- initialize buffusr
        do nodeu = 1, this%dis%nodesuser
          this%buffusr(nodeu) = dzero
        end do
        !
        ! -- fill buffusr with buff
        do node = 1, this%dis%nodes
          nodeu = this%dis%get_nodeuser(node)
          this%buffusr(nodeu) = this%buff(node)
        end do
        !
        ! -- calculate z-displacement
        ncpl = this%dis%get_ncpl()
        !
        ! -- disu
        if (this%dis%ndim == 1) then
          do node = this%dis%nodes, 1, -1
            do ii = this%dis%con%ia(node) + 1, this%dis%con%ia(node + 1) - 1
              !
              ! -- Set the m cell number
              nodem = this%dis%con%ja(ii)
              idx_conn = this%dis%con%jas(ii)
              !
              ! -- vertical connection
              ihc = this%dis%con%ihc(idx_conn)
              if (ihc == 0) then
                !
                ! -- node has an underlying cell
                if (node < nodem) then
                  va_scale = this%dis%get_area_factor(node, idx_conn)
                  this%buffusr(node) = this%buffusr(node) + &
                                       va_scale * this%buffusr(nodem)
                end if
              end if
            end do
          end do
          ! -- disv or dis
        else
          nlay = this%dis%nodesuser / ncpl
          do k = nlay - 1, 1, -1
            do i = 1, ncpl
              node = (k - 1) * ncpl + i
              nodem = k * ncpl + i
              this%buffusr(node) = this%buffusr(node) + this%buffusr(nodem)
            end do
          end do
        end if
        !
        ! -- fill buff with data from buffusr
        do nodeu = 1, this%dis%nodesuser
          node = this%dis%get_nodenumber_idx1(nodeu, 1)
          if (node > 0) then
            this%buff(node) = this%buffusr(nodeu)
          end if
        end do
        !
        ! -- write z-displacement
        call this%dis%record_array(this%buff, this%iout, iprint, ibinun, &
                                   comptxt(6), cdatafmp, nvaluesp, &
                                   nwidthp, editdesc, dinact)
 
      end if
    end if
    !
    ! -- Set unit number for binary inelastic interbed compaction
    if (this%ioutcompi /= 0) then
      ibinun = this%ioutcompi
    else
      ibinun = 0
    end if
    if (idvfl == 0) ibinun = 0
    !
    ! -- save inelastic interbed compaction results
    if (ibinun /= 0) then
      iprint = 0
      dinact = dhnoflo
      !
      ! -- fill buff with inelastic interbed compaction
      do node = 1, this%dis%nodes
        this%buff(node) = dzero
      end do
      do ib = 1, this%ninterbeds
        node = this%nodelist(ib)
        this%buff(node) = this%buff(node) + this%tcompi(ib)
      end do
      !
      ! -- write inelastic interbed compaction data to binary file
      call this%dis%record_array(this%buff, this%iout, iprint, ibinun, &
                                 comptxt(2), cdatafmp, nvaluesp, &
                                 nwidthp, editdesc, dinact)
    end if
    !
    ! -- Set unit number for binary elastic interbed compaction
    if (this%ioutcompe /= 0) then
      ibinun = this%ioutcompe
    else
      ibinun = 0
    end if
    if (idvfl == 0) ibinun = 0
    !
    ! -- save elastic interbed compaction results
    if (ibinun /= 0) then
      iprint = 0
      dinact = dhnoflo
      !
      ! -- fill buff with elastic interbed compaction
      do node = 1, this%dis%nodes
        this%buff(node) = dzero
      end do
      do ib = 1, this%ninterbeds
        node = this%nodelist(ib)
        this%buff(node) = this%buff(node) + this%tcompe(ib)
      end do
      !
      ! -- write elastic interbed compaction data to binary file
      call this%dis%record_array(this%buff, this%iout, iprint, ibinun, &
                                 comptxt(3), cdatafmp, nvaluesp, &
                                 nwidthp, editdesc, dinact)
    end if
    !
    ! -- Set unit number for binary interbed compaction
    if (this%ioutcompib /= 0) then
      ibinun = this%ioutcompib
    else
      ibinun = 0
    end if
    if (idvfl == 0) ibinun = 0
    !
    ! -- save interbed compaction results
    if (ibinun /= 0) then
      iprint = 0
      dinact = dhnoflo
      !
      ! -- fill buff with interbed compaction
      do node = 1, this%dis%nodes
        this%buff(node) = dzero
      end do
      do ib = 1, this%ninterbeds
        node = this%nodelist(ib)
        this%buff(node) = this%buff(node) + this%tcompe(ib) + this%tcompi(ib)
      end do
      !
      ! -- write interbed compaction data to binary file
      call this%dis%record_array(this%buff, this%iout, iprint, ibinun, &
                                 comptxt(4), cdatafmp, nvaluesp, &
                                 nwidthp, editdesc, dinact)
    end if
    !
    ! -- Set unit number for binary coarse-grained compaction
    if (this%ioutcomps /= 0) then
      ibinun = this%ioutcomps
    else
      ibinun = 0
    end if
    if (idvfl == 0) ibinun = 0
    !
    ! -- save coarse-grained compaction results
    if (ibinun /= 0) then
      iprint = 0
      dinact = dhnoflo
      !
      ! -- fill buff with coarse-grained compaction
      do node = 1, this%dis%nodes
        this%buff(node) = this%cg_tcomp(node)
      end do
      !
      ! -- write coarse-grained compaction data to binary file
      call this%dis%record_array(this%buff, this%iout, iprint, ibinun, &
                                 comptxt(5), cdatafmp, nvaluesp, &
                                 nwidthp, editdesc, dinact)
    end if
    !
    ! -- check that final effective stress values for the time step
    !    are greater than zero
    if (this%gwfiss == 0) then
      call this%csub_cg_chk_stress()
    end if
    !
    ! -- update maximum count of delay interbeds that violate
    !    basic head assumptions for delay beds and write a message
    !    for delay interbeds in non-convertible gwf cells that
    !    violate these head assumptions
    if (this%ndelaybeds > 0) then
      if (this%idb_nconv_count(1) > this%idb_nconv_count(2)) then
        this%idb_nconv_count(2) = this%idb_nconv_count(1)
      end if
      if (this%idb_nconv_count(1) > 0) then
        write (this%iout, fmtnconv) this%idb_nconv_count(1)
      end if
    end if

csub_process_obsid()

subroutine gwfcsubmodule::csub_process_obsid	(	type(observetype), intent(inout)	obsrv,
		class(disbasetype), intent(in)	dis,
		integer(i4b), intent(in)	inunitobs,
		integer(i4b), intent(in)	iout
	)

Method to process the observation IDs for the CSUB package. This procedure is pointed to by ObsDataTypeProcesssIdPtr. It processes the ID string of an observation definition for csub-package observations.

Parameters

[in,out]	obsrv	observation type
[in]	dis	pointer to the model discretization
[in]	inunitobs	unit number of the observation file
[in]	iout	unit number to the model listing file

Definition at line 7331 of file gwf-csub.f90.

    ! -- dummy variables
    type(ObserveType), intent(inout) :: obsrv !< observation type
    class(DisBaseType), intent(in) :: dis !< pointer to the model discretization
    integer(I4B), intent(in) :: inunitobs !< unit number of the observation file
    integer(I4B), intent(in) :: iout !< unit number to the model listing file
    ! -- local variables
    integer(I4B) :: nn1
    integer(I4B) :: nn2
    integer(I4B) :: icol, istart, istop
    character(len=LINELENGTH) :: string
    character(len=LENBOUNDNAME) :: bndname
    logical(LGP) :: flag_string
    !
    ! -- initialize variables
    string = obsrv%IDstring
    flag_string = .true.
    !
    ! -- Extract reach number from string and store it.
    !    If 1st item is not an integer(I4B), it should be a
    !    boundary name--deal with it.
    icol = 1
    !
    ! -- get icsubno number or boundary name
    if (obsrv%ObsTypeId == 'CSUB' .or. &
        obsrv%ObsTypeId == 'INELASTIC-CSUB' .or. &
        obsrv%ObsTypeId == 'ELASTIC-CSUB' .or. &
        obsrv%ObsTypeId == 'SK' .or. &
        obsrv%ObsTypeId == 'SKE' .or. &
        obsrv%ObsTypeId == 'THETA' .or. &
        obsrv%ObsTypeId == 'THICKNESS' .or. &
        obsrv%ObsTypeId == 'INTERBED-COMPACTION' .or. &
        obsrv%ObsTypeId == 'INELASTIC-COMPACTION' .or. &
        obsrv%ObsTypeId == 'ELASTIC-COMPACTION' .or. &
        obsrv%ObsTypeId == 'DELAY-HEAD' .or. &
        obsrv%ObsTypeId == 'DELAY-GSTRESS' .or. &
        obsrv%ObsTypeId == 'DELAY-ESTRESS' .or. &
        obsrv%ObsTypeId == 'DELAY-PRECONSTRESS' .or. &
        obsrv%ObsTypeId == 'DELAY-COMPACTION' .or. &
        obsrv%ObsTypeId == 'DELAY-THICKNESS' .or. &
        obsrv%ObsTypeId == 'DELAY-THETA' .or. &
        obsrv%ObsTypeId == 'DELAY-FLOWTOP' .or. &
        obsrv%ObsTypeId == 'DELAY-FLOWBOT') then
      call extract_idnum_or_bndname(string, icol, istart, istop, nn1, bndname)
    else
      nn1 = dis%noder_from_string(icol, istart, istop, inunitobs, &
                                  iout, string, flag_string)
    end if
    if (nn1 == namedboundflag) then
      obsrv%FeatureName = bndname
    else
      if (obsrv%ObsTypeId == 'DELAY-HEAD' .or. &
          obsrv%ObsTypeId == 'DELAY-GSTRESS' .or. &
          obsrv%ObsTypeId == 'DELAY-ESTRESS' .or. &
          obsrv%ObsTypeId == 'DELAY-PRECONSTRESS' .or. &
          obsrv%ObsTypeId == 'DELAY-COMPACTION' .or. &
          obsrv%ObsTypeId == 'DELAY-THICKNESS' .or. &
          obsrv%ObsTypeId == 'DELAY-THETA') then
        call extract_idnum_or_bndname(string, icol, istart, istop, nn2, bndname)
        if (nn2 == namedboundflag) then
          obsrv%FeatureName = bndname
          ! -- reset nn1
          nn1 = nn2
        else
          obsrv%NodeNumber2 = nn2
        end if
      end if
    end if
    !
    ! -- store reach number (NodeNumber)
    obsrv%NodeNumber = nn1

Here is the call graph for this function:

Here is the caller graph for this function:

csub_read_dimensions()

subroutine gwfcsubmodule::csub_read_dimensions

(

class(gwfcsubtype), intent(inout)

this

)

Read the number of interbeds and maximum number of cells with a specified overlying geostatic stress.

Definition at line 1039 of file gwf-csub.f90.

    ! -- modules
    use constantsmodule, only: linelength, lenboundname
    use kindmodule, only: i4b
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    ! -- local variables
    character(len=LENBOUNDNAME) :: keyword
    integer(I4B) :: ierr
    logical(LGP) :: isfound, endOfBlock
    ! -- format
    !
    ! -- initialize dimensions to -1
    this%ninterbeds = -1
    !
    ! -- get dimensions block
    call this%parser%GetBlock('DIMENSIONS', isfound, ierr, &
                              supportopenclose=.true.)
    !
    ! -- parse dimensions block if detected
    if (isfound) then
      write (this%iout, '(/1x,a)') 'PROCESSING '//trim(adjustl(this%packName))// &
        ' DIMENSIONS'
      do
        call this%parser%GetNextLine(endofblock)
        if (endofblock) exit
        call this%parser%GetStringCaps(keyword)
        select case (keyword)
        case ('NINTERBEDS')
          this%ninterbeds = this%parser%GetInteger()
          write (this%iout, '(4x,a,i0)') 'NINTERBEDS = ', this%ninterbeds
        case ('MAXSIG0')
          this%maxsig0 = this%parser%GetInteger()
          write (this%iout, '(4x,a,i0)') 'MAXSIG0 = ', this%maxsig0
        case default
          write (errmsg, '(a,3(1x,a),a)') &
            'Unknown', trim(this%packName), "dimension '", trim(keyword), "'."
          call store_error(errmsg)
        end select
      end do
      write (this%iout, '(1x,a)') &
        'END OF '//trim(adjustl(this%packName))//' DIMENSIONS'
    else
      call store_error('Required dimensions block not found.')
    end if
    !
    ! -- verify dimensions were set correctly
    if (this%ninterbeds < 0) then
      write (errmsg, '(a)') &
        'NINTERBEDS was not specified or was specified incorrectly.'
      call store_error(errmsg)
    end if
    !
    ! -- stop if errors were encountered in the DIMENSIONS block
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if
 
    ! -- Call define_listlabel to construct the list label that is written
    !    when PRINT_INPUT option is used.
    call this%define_listlabel()

Here is the call graph for this function:

csub_read_packagedata()

subroutine gwfcsubmodule::csub_read_packagedata

(

class(gwfcsubtype), intent(inout)

this

)

Read delay and no-delay interbed input data for the CSUB package. Method also validates interbed input data.

Definition at line 1397 of file gwf-csub.f90.

    ! -- modules
    use constantsmodule, only: linelength
    use memorymanagermodule, only: mem_allocate, mem_setptr
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    ! -- local variables
    character(len=LINELENGTH) :: cellid
    character(len=LINELENGTH) :: title
    character(len=LINELENGTH) :: tag
    character(len=20) :: scellid
    character(len=10) :: text
    character(len=LENBOUNDNAME) :: bndName
    character(len=7) :: cdelay
    logical(LGP) :: isfound
    logical(LGP) :: endOfBlock
    integer(I4B) :: ival
    integer(I4B) :: n
    integer(I4B) :: nn
    integer(I4B) :: ib
    integer(I4B) :: itmp
    integer(I4B) :: ierr
    integer(I4B) :: ndelaybeds
    integer(I4B) :: idelay
    integer(I4B) :: ntabrows
    integer(I4B) :: ntabcols
    real(DP) :: rval
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: baq
    real(DP) :: q
    integer, allocatable, dimension(:) :: nboundchk
    !
    ! -- initialize temporary variables
    ndelaybeds = 0
    !
    ! -- allocate temporary arrays
    allocate (nboundchk(this%ninterbeds))
    do n = 1, this%ninterbeds
      nboundchk(n) = 0
    end do
    !
    call this%parser%GetBlock('PACKAGEDATA', isfound, ierr, &
                              supportopenclose=.true.)
    !
    ! -- parse locations block if detected
    if (isfound) then
      write (this%iout, '(/1x,a)') 'PROCESSING '//trim(adjustl(this%packName))// &
        ' PACKAGEDATA'
      do
        call this%parser%GetNextLine(endofblock)
        if (endofblock) then
          exit
        end if
        !
        ! -- get interbed number
        itmp = this%parser%GetInteger()
        !
        ! -- check for error condition
        if (itmp < 1 .or. itmp > this%ninterbeds) then
          write (errmsg, '(a,1x,i0,2(1x,a),1x,i0,a)') &
            'Interbed number (', itmp, ') must be greater than 0 and ', &
            'less than or equal to', this%ninterbeds, '.'
          call store_error(errmsg)
          cycle
        end if
        !
        ! -- increment nboundchk
        nboundchk(itmp) = nboundchk(itmp) + 1
        !
        ! -- read cellid
        call this%parser%GetCellid(this%dis%ndim, cellid)
        nn = this%dis%noder_from_cellid(cellid, &
                                        this%parser%iuactive, this%iout)
        n = this%dis%nodeu_from_cellid(cellid, &
                                       this%parser%iuactive, this%iout)
        top = this%dis%top(nn)
        bot = this%dis%bot(nn)
        baq = top - bot
        !
        ! -- determine if a valid cell location was provided
        if (nn < 1) then
          write (errmsg, '(a,1x,i0,a)') &
            'Invalid cellid for packagedata entry', itmp, '.'
          call store_error(errmsg)
        end if
        !
        ! -- set nodelist and unodelist
        this%nodelist(itmp) = nn
        this%unodelist(itmp) = n
        !
        ! -- get cdelay
        call this%parser%GetStringCaps(cdelay)
        select case (cdelay)
        case ('NODELAY')
          ival = 0
        case ('DELAY')
          ndelaybeds = ndelaybeds + 1
          ival = ndelaybeds
        case default
          write (errmsg, '(a,1x,a,1x,i0,1x,a)') &
            'Invalid CDELAY ', trim(adjustl(cdelay)), &
            'for packagedata entry', itmp, '.'
          call store_error(errmsg)
          cycle
        end select
        idelay = ival
        this%idelay(itmp) = ival
        !
        ! -- get initial preconsolidation stress
        this%pcs(itmp) = this%parser%GetDouble()
        !
        ! -- get thickness or cell fraction
        rval = this%parser%GetDouble()
        if (this%icellf == 0) then
          if (rval < dzero .or. rval > baq) then
            write (errmsg, '(a,g0,2(a,1x),g0,1x,a,1x,i0,a)') &
              'THICK (', rval, ') MUST BE greater than or equal to 0 ', &
              'and less than or equal to than', baq, &
              'for packagedata entry', itmp, '.'
            call store_error(errmsg)
          end if
        else
          if (rval < dzero .or. rval > done) then
            write (errmsg, '(a,1x,a,1x,i0,a)') &
              'FRAC MUST BE greater than 0 and less than or equal to 1', &
              'for packagedata entry', itmp, '.'
            call store_error(errmsg)
          end if
          rval = rval * baq
        end if
        this%thickini(itmp) = rval
        if (this%iupdatematprop /= 0) then
          this%thick(itmp) = rval
        end if
        !
        ! -- get rnb
        rval = this%parser%GetDouble()
        if (idelay > 0) then
          if (rval < done) then
            write (errmsg, '(a,g0,a,1x,a,1x,i0,a)') &
              'RNB (', rval, ') must be greater than or equal to 1', &
              'for packagedata entry', itmp, '.'
            call store_error(errmsg)
          end if
        else
          rval = done
        end if
        this%rnb(itmp) = rval
        !
        ! -- get skv or ci
        rval = this%parser%GetDouble()
        if (rval < dzero) then
          write (errmsg, '(2(a,1x),i0,a)') &
            '(SKV,CI) must be greater than or equal to 0', &
            'for packagedata entry', itmp, '.'
          call store_error(errmsg)
        end if
        this%ci(itmp) = rval
        !
        ! -- get ske or rci
        rval = this%parser%GetDouble()
        if (rval < dzero) then
          write (errmsg, '(2(a,1x),i0,a)') &
            '(SKE,RCI) must be greater than or equal to 0', &
            'for packagedata entry', itmp, '.'
          call store_error(errmsg)
        end if
        this%rci(itmp) = rval
        !
        ! -- set ielastic
        if (this%ci(itmp) == this%rci(itmp)) then
          this%ielastic(itmp) = 1
        else
          this%ielastic(itmp) = 0
        end if
        !
        ! -- get porosity
        rval = this%parser%GetDouble()
        this%thetaini(itmp) = rval
        if (this%iupdatematprop /= 0) then
          this%theta(itmp) = rval
        end if
        if (rval <= dzero .or. rval > done) then
          write (errmsg, '(a,1x,a,1x,i0,a)') &
            'THETA must be greater than 0 and less than or equal to 1', &
            'for packagedata entry', itmp, '.'
          call store_error(errmsg)
        end if
        !
        ! -- get kv
        rval = this%parser%GetDouble()
        if (idelay > 0) then
          if (rval <= 0.0) then
            write (errmsg, '(a,1x,i0,a)') &
              'KV must be greater than 0 for packagedata entry', itmp, '.'
            call store_error(errmsg)
          end if
        end if
        this%kv(itmp) = rval
        !
        ! -- get h0
        rval = this%parser%GetDouble()
        this%h0(itmp) = rval
        !
        ! -- get bound names
        if (this%inamedbound /= 0) then
          call this%parser%GetStringCaps(bndname)
          if (len_trim(bndname) < 1) then
            write (errmsg, '(a,1x,i0,a)') &
              'BOUNDNAME must be specified for packagedata entry', itmp, '.'
            call store_error(errmsg)
          else
            this%boundname(itmp) = bndname
          end if
        end if
      end do
 
      write (this%iout, '(1x,a)') &
        'END OF '//trim(adjustl(this%packName))//' PACKAGEDATA'
    end if
    !
    ! -- write summary of interbed data
    if (this%iprpak == 1) then
      ! -- set title
      title = trim(adjustl(this%packName))//' PACKAGE INTERBED DATA'
      !
      ! -- determine the number of columns and rows
      ntabrows = this%ninterbeds
      ntabcols = 11
      if (this%inamedbound /= 0) then
        ntabcols = ntabcols + 1
      end if
      !
      ! -- setup table
      call table_cr(this%inputtab, this%packName, title)
      call this%inputtab%table_df(ntabrows, ntabcols, this%iout)
      !
      ! add columns
      tag = 'INTERBED'
      call this%inputtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'CELLID'
      call this%inputtab%initialize_column(tag, 20, alignment=tabcenter)
      tag = 'CDELAY'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'PCS'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'THICK'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'RNB'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'SSV_CC'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'SSV_CR'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'THETA'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'KV'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      tag = 'H0'
      call this%inputtab%initialize_column(tag, 10, alignment=tabcenter)
      if (this%inamedbound /= 0) then
        tag = 'BOUNDNAME'
        call this%inputtab%initialize_column(tag, lenboundname, &
                                             alignment=tableft)
      end if
      !
      ! -- write the data
      do ib = 1, this%ninterbeds
        call this%dis%noder_to_string(this%nodelist(ib), scellid)
        if (this%idelay(ib) == 0) then
          text = 'NODELAY'
        else
          text = 'DELAY'
        end if
        call this%inputtab%add_term(ib)
        call this%inputtab%add_term(scellid)
        call this%inputtab%add_term(text)
        call this%inputtab%add_term(this%pcs(ib))
        call this%inputtab%add_term(this%thickini(ib))
        call this%inputtab%add_term(this%rnb(ib))
        call this%inputtab%add_term(this%ci(ib))
        call this%inputtab%add_term(this%rci(ib))
        call this%inputtab%add_term(this%thetaini(ib))
        if (this%idelay(ib) == 0) then
          call this%inputtab%add_term('-')
          call this%inputtab%add_term('-')
        else
          call this%inputtab%add_term(this%kv(ib))
          call this%inputtab%add_term(this%h0(ib))
        end if
        if (this%inamedbound /= 0) then
          call this%inputtab%add_term(this%boundname(ib))
        end if
      end do
    end if
    !
    ! -- Check to make sure that every interbed is specified and that no
    !    interbed is specified more than once.
    do ib = 1, this%ninterbeds
      if (nboundchk(ib) == 0) then
        write (errmsg, '(a,1x,i0,a)') &
          'Information for interbed', ib, 'not specified in packagedata block.'
        call store_error(errmsg)
      else if (nboundchk(ib) > 1) then
        write (errmsg, '(2(a,1x,i0),a)') &
          'Information specified', nboundchk(ib), 'times for interbed', ib, '.'
        call store_error(errmsg)
      end if
    end do
    deallocate (nboundchk)
    !
    ! -- set the number of delay interbeds
    this%ndelaybeds = ndelaybeds
    !
    ! -- process delay interbeds
    if (ndelaybeds > 0) then
      !
      ! -- reallocate and initialize delay interbed arrays
      if (ierr == 0) then
        call mem_allocate(this%idb_nconv_count, 2, &
                          'IDB_NCONV_COUNT', trim(this%memoryPath))
        call mem_allocate(this%idbconvert, this%ndelaycells, ndelaybeds, &
                          'IDBCONVERT', trim(this%memoryPath))
        call mem_allocate(this%dbdhmax, ndelaybeds, &
                          'DBDHMAX', trim(this%memoryPath))
        call mem_allocate(this%dbz, this%ndelaycells, ndelaybeds, &
                          'DBZ', trim(this%memoryPath))
        call mem_allocate(this%dbrelz, this%ndelaycells, ndelaybeds, &
                          'DBRELZ', trim(this%memoryPath))
        call mem_allocate(this%dbh, this%ndelaycells, ndelaybeds, &
                          'DBH', trim(this%memoryPath))
        call mem_allocate(this%dbh0, this%ndelaycells, ndelaybeds, &
                          'DBH0', trim(this%memoryPath))
        call mem_allocate(this%dbgeo, this%ndelaycells, ndelaybeds, &
                          'DBGEO', trim(this%memoryPath))
        call mem_allocate(this%dbes, this%ndelaycells, ndelaybeds, &
                          'DBES', trim(this%memoryPath))
        call mem_allocate(this%dbes0, this%ndelaycells, ndelaybeds, &
                          'DBES0', trim(this%memoryPath))
        call mem_allocate(this%dbpcs, this%ndelaycells, ndelaybeds, &
                          'DBPCS', trim(this%memoryPath))
        call mem_allocate(this%dbflowtop, ndelaybeds, &
                          'DBFLOWTOP', trim(this%memoryPath))
        call mem_allocate(this%dbflowbot, ndelaybeds, &
                          'DBFLOWBOT', trim(this%memoryPath))
        call mem_allocate(this%dbdzini, this%ndelaycells, ndelaybeds, &
                          'DBDZINI', trim(this%memoryPath))
        call mem_allocate(this%dbthetaini, this%ndelaycells, ndelaybeds, &
                          'DBTHETAINI', trim(this%memoryPath))
        call mem_allocate(this%dbcomp, this%ndelaycells, ndelaybeds, &
                          'DBCOMP', trim(this%memoryPath))
        call mem_allocate(this%dbtcomp, this%ndelaycells, ndelaybeds, &
                          'DBTCOMP', trim(this%memoryPath))
        !
        ! -- allocate delay bed arrays
        if (this%iupdatematprop == 0) then
          call mem_setptr(this%dbdz, 'DBDZINI', trim(this%memoryPath))
          call mem_setptr(this%dbdz0, 'DBDZINI', trim(this%memoryPath))
          call mem_setptr(this%dbtheta, 'DBTHETAINI', trim(this%memoryPath))
          call mem_setptr(this%dbtheta0, 'DBTHETAINI', trim(this%memoryPath))
        else
          call mem_allocate(this%dbdz, this%ndelaycells, ndelaybeds, &
                            'DBDZ', trim(this%memoryPath))
          call mem_allocate(this%dbdz0, this%ndelaycells, ndelaybeds, &
                            'DBDZ0', trim(this%memoryPath))
          call mem_allocate(this%dbtheta, this%ndelaycells, ndelaybeds, &
                            'DBTHETA', trim(this%memoryPath))
          call mem_allocate(this%dbtheta0, this%ndelaycells, ndelaybeds, &
                            'DBTHETA0', trim(this%memoryPath))
        end if
        !
        ! -- allocate delay interbed solution arrays
        call mem_allocate(this%dbal, this%ndelaycells, &
                          'DBAL', trim(this%memoryPath))
        call mem_allocate(this%dbad, this%ndelaycells, &
                          'DBAD', trim(this%memoryPath))
        call mem_allocate(this%dbau, this%ndelaycells, &
                          'DBAU', trim(this%memoryPath))
        call mem_allocate(this%dbrhs, this%ndelaycells, &
                          'DBRHS', trim(this%memoryPath))
        call mem_allocate(this%dbdh, this%ndelaycells, &
                          'DBDH', trim(this%memoryPath))
        call mem_allocate(this%dbaw, this%ndelaycells, &
                          'DBAW', trim(this%memoryPath))
        !
        ! -- initialize delay bed counters
        do n = 1, 2
          this%idb_nconv_count(n) = 0
        end do
        !
        ! -- initialize delay bed storage
        do ib = 1, this%ninterbeds
          idelay = this%idelay(ib)
          if (idelay == 0) then
            cycle
          end if
          !
          ! -- initialize delay interbed variables
          do n = 1, this%ndelaycells
            rval = this%thickini(ib) / real(this%ndelaycells, dp)
            this%dbdzini(n, idelay) = rval
            this%dbh(n, idelay) = this%h0(ib)
            this%dbh0(n, idelay) = this%h0(ib)
            this%dbthetaini(n, idelay) = this%thetaini(ib)
            this%dbgeo(n, idelay) = dzero
            this%dbes(n, idelay) = dzero
            this%dbes0(n, idelay) = dzero
            this%dbpcs(n, idelay) = this%pcs(ib)
            this%dbcomp(n, idelay) = dzero
            this%dbtcomp(n, idelay) = dzero
            if (this%iupdatematprop /= 0) then
              this%dbdz(n, idelay) = this%dbdzini(n, idelay)
              this%dbdz0(n, idelay) = this%dbdzini(n, idelay)
              this%dbtheta(n, idelay) = this%theta(ib)
              this%dbtheta0(n, idelay) = this%theta(ib)
            end if
          end do
          !
          ! -- initialize elevation of delay bed cells
          call this%csub_delay_init_zcell(ib)
        end do
        !
        ! -- initialize delay bed solution arrays
        do n = 1, this%ndelaycells
          this%dbal(n) = dzero
          this%dbad(n) = dzero
          this%dbau(n) = dzero
          this%dbrhs(n) = dzero
          this%dbdh(n) = dzero
          this%dbaw(n) = dzero
        end do
      end if
    end if
    !
    ! -- check that ndelaycells is odd when using
    !    the effective stress formulation
    if (ndelaybeds > 0) then
      q = mod(real(this%ndelaycells, dp), dtwo)
      if (q == dzero) then
        write (errmsg, '(a,i0,a,1x,a)') &
          'NDELAYCELLS (', this%ndelaycells, ') must be an', &
          'odd number when using the effective stress formulation.'
        call store_error(errmsg)
      end if
    end if

Here is the call graph for this function:

csub_rp()

subroutine gwfcsubmodule::csub_rp

(

class(gwfcsubtype), intent(inout)

this

)

Method reads and prepares stress period data for the CSUB package. The overlying geostatic stress (sig0) is the only stress period data read by the CSUB package.

Definition at line 2483 of file gwf-csub.f90.

    ! -- modules
    use constantsmodule, only: linelength
    use tdismodule, only: kper, nper
    use timeseriesmanagermodule, only: read_value_or_time_series_adv
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    ! -- local variables
    character(len=LINELENGTH) :: line
    character(len=LINELENGTH) :: title
    character(len=LINELENGTH) :: text
    character(len=20) :: cellid
    logical(LGP) :: isfound
    logical(LGP) :: endOfBlock
    integer(I4B) :: jj
    integer(I4B) :: ierr
    integer(I4B) :: node
    integer(I4B) :: nlist
    real(DP), pointer :: bndElem => null()
    ! -- formats
    character(len=*), parameter :: fmtblkerr = &
      &"('Looking for BEGIN PERIOD iper.  Found ',a,' instead.')"
    character(len=*), parameter :: fmtlsp = &
      &"(1X,/1X,'REUSING ',a,'S FROM LAST STRESS PERIOD')"
    !
    ! -- return if data is not read from file
    if (this%inunit == 0) return
    !
    ! -- get stress period data
    if (this%ionper < kper) then
      !
      ! -- get period block
      call this%parser%GetBlock('PERIOD', isfound, ierr, &
                                supportopenclose=.true., &
                                blockrequired=.false.)
      if (isfound) then
        !
        ! -- read ionper and check for increasing period numbers
        call this%read_check_ionper()
      else
        !
        ! -- PERIOD block not found
        if (ierr < 0) then
          ! -- End of file found; data applies for remainder of simulation.
          this%ionper = nper + 1
        else
          ! -- Found invalid block
          call this%parser%GetCurrentLine(line)
          write (errmsg, fmtblkerr) adjustl(trim(line))
          call store_error(errmsg)
        end if
      end if
    end if
    !
    ! -- read data if ionper == kper
    if (this%ionper == kper) then
      !
      ! -- setup table for period data
      if (this%iprpak /= 0) then
        !
        ! -- reset the input table object
        title = 'CSUB'//' PACKAGE ('// &
                trim(adjustl(this%packName))//') DATA FOR PERIOD'
        write (title, '(a,1x,i6)') trim(adjustl(title)), kper
        call table_cr(this%inputtab, this%packName, title)
        call this%inputtab%table_df(1, 2, this%iout, finalize=.false.)
        text = 'CELLID'
        call this%inputtab%initialize_column(text, 20)
        text = 'SIG0'
        call this%inputtab%initialize_column(text, 15, alignment=tableft)
      end if
      !
      ! -- initialize nlist
      nlist = 0
      !
      ! -- Remove all time-series links associated with this package.
      call this%TsManager%Reset(this%packName)
      !
      ! -- read data
      readdata: do
        call this%parser%GetNextLine(endofblock)
        !
        ! -- test for end of block
        if (endofblock) then
          exit readdata
        end if
        !
        ! -- increment counter
        nlist = nlist + 1
        !
        ! -- check for error condition with nlist
        if (nlist > this%maxsig0) then
          write (errmsg, '(a,i0,a,i0,a)') &
            'The number of stress period entries (', nlist, &
            ') exceeds the maximum number of stress period entries (', &
            this%maxsig0, ').'
          call store_error(errmsg)
          exit readdata
        end if
        !
        ! -- get cell i
        call this%parser%GetCellid(this%dis%ndim, cellid)
        node = this%dis%noder_from_cellid(cellid, &
                                          this%parser%iuactive, this%iout)
        !
        !
        if (node < 1) then
          write (errmsg, '(a,2(1x,a))') &
            'CELLID', cellid, 'is not in the active model domain.'
          call store_error(errmsg)
          cycle readdata
        end if
        this%nodelistsig0(nlist) = node
        !
        ! -- get sig0
        call this%parser%GetString(text)
        jj = 1 ! For 'SIG0'
        bndelem => this%sig0(nlist)
        call read_value_or_time_series_adv(text, nlist, jj, bndelem, &
                                           this%packName, 'BND', &
                                           this%tsManager, this%iprpak, &
                                           'SIG0')
        !
        ! -- write line to table
        if (this%iprpak /= 0) then
          call this%dis%noder_to_string(node, cellid)
          call this%inputtab%add_term(cellid)
          call this%inputtab%add_term(bndelem)
        end if
      end do readdata
      !
      ! -- set nbound
      this%nbound = nlist
      !
      ! -- finalize the table
      if (this%iprpak /= 0) then
        call this%inputtab%finalize_table()
      end if
      !
      ! -- reuse data from last stress period
    else
      write (this%iout, fmtlsp) trim(this%filtyp)
    end if
    !
    ! -- terminate if errors encountered in reach block
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if
    !
    ! -- read observations
    call this%csub_rp_obs()

Here is the call graph for this function:

csub_rp_obs()

subroutine gwfcsubmodule::csub_rp_obs ( class(gwfcsubtype), intent(inout)  this )

private

Method to read and prepare the observations for the CSUB package.

Definition at line 7160 of file gwf-csub.f90.

    ! -- modules
    use tdismodule, only: kper
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    ! -- local variables
    class(ObserveType), pointer :: obsrv => null()
    character(len=LENBOUNDNAME) :: bname
    integer(I4B) :: i
    integer(I4B) :: j
    integer(I4B) :: n
    integer(I4B) :: n2
    integer(I4B) :: idelay
    !
    !  -- return if observations are not supported
    if (.not. this%csub_obs_supported()) then
      return
    end if
    !
    ! -- process each package observation
    !    only done the first stress period since boundaries are fixed
    !    for the simulation
    if (kper == 1) then
      do i = 1, this%obs%npakobs
        obsrv => this%obs%pakobs(i)%obsrv
        !
        ! -- initialize BndFound to .false.
        obsrv%BndFound = .false.
        !
        bname = obsrv%FeatureName
        if (bname /= '') then
          !
          ! -- Observation location(s) is(are) based on a boundary name.
          !    Iterate through all boundaries to identify and store
          !    corresponding index(indices) in bound array.
          do j = 1, this%ninterbeds
            if (this%boundname(j) == bname) then
              obsrv%BndFound = .true.
              obsrv%CurrentTimeStepEndValue = dzero
              call obsrv%AddObsIndex(j)
            end if
          end do
          !
          ! -- one value per cell
        else if (obsrv%ObsTypeId == 'GSTRESS-CELL' .or. &
                 obsrv%ObsTypeId == 'ESTRESS-CELL' .or. &
                 obsrv%ObsTypeId == 'THICKNESS-CELL' .or. &
                 obsrv%ObsTypeId == 'COARSE-CSUB' .or. &
                 obsrv%ObsTypeId == 'WCOMP-CSUB-CELL' .or. &
                 obsrv%ObsTypeId == 'COARSE-COMPACTION' .or. &
                 obsrv%ObsTypeId == 'COARSE-THETA' .or. &
                 obsrv%ObsTypeId == 'COARSE-THICKNESS') then
          obsrv%BndFound = .true.
          obsrv%CurrentTimeStepEndValue = dzero
          call obsrv%AddObsIndex(obsrv%NodeNumber)
        else if (obsrv%ObsTypeId == 'DELAY-PRECONSTRESS' .or. &
                 obsrv%ObsTypeId == 'DELAY-HEAD' .or. &
                 obsrv%ObsTypeId == 'DELAY-GSTRESS' .or. &
                 obsrv%ObsTypeId == 'DELAY-ESTRESS' .or. &
                 obsrv%ObsTypeId == 'DELAY-COMPACTION' .or. &
                 obsrv%ObsTypeId == 'DELAY-THICKNESS' .or. &
                 obsrv%ObsTypeId == 'DELAY-THETA') then
          if (this%ninterbeds > 0) then
            n = obsrv%NodeNumber
            idelay = this%idelay(n)
            if (idelay /= 0) then
              j = (idelay - 1) * this%ndelaycells + 1
              n2 = obsrv%NodeNumber2
              if (n2 < 1 .or. n2 > this%ndelaycells) then
                write (errmsg, '(a,2(1x,a),1x,i0,1x,a,i0,a)') &
                  trim(adjustl(obsrv%ObsTypeId)), 'interbed cell must be ', &
                  'greater than 0 and less than or equal to', this%ndelaycells, &
                  '(specified value is ', n2, ').'
                call store_error(errmsg)
              else
                j = (idelay - 1) * this%ndelaycells + n2
              end if
              obsrv%BndFound = .true.
              call obsrv%AddObsIndex(j)
            end if
          end if
          !
          ! -- interbed value
        else if (obsrv%ObsTypeId == 'CSUB' .or. &
                 obsrv%ObsTypeId == 'INELASTIC-CSUB' .or. &
                 obsrv%ObsTypeId == 'ELASTIC-CSUB' .or. &
                 obsrv%ObsTypeId == 'SK' .or. &
                 obsrv%ObsTypeId == 'SKE' .or. &
                 obsrv%ObsTypeId == 'THICKNESS' .or. &
                 obsrv%ObsTypeId == 'THETA' .or. &
                 obsrv%ObsTypeId == 'INTERBED-COMPACTION' .or. &
                 obsrv%ObsTypeId == 'INELASTIC-COMPACTION' .or. &
                 obsrv%ObsTypeId == 'ELASTIC-COMPACTION') then
          if (this%ninterbeds > 0) then
            j = obsrv%NodeNumber
            if (j < 1 .or. j > this%ninterbeds) then
              write (errmsg, '(a,2(1x,a),1x,i0,1x,a,i0,a)') &
                trim(adjustl(obsrv%ObsTypeId)), 'interbed cell must be greater', &
                'than 0 and less than or equal to', this%ninterbeds, &
                '(specified value is ', j, ').'
              call store_error(errmsg)
            else
              obsrv%BndFound = .true.
              obsrv%CurrentTimeStepEndValue = dzero
              call obsrv%AddObsIndex(j)
            end if
          end if
        else if (obsrv%ObsTypeId == 'DELAY-FLOWTOP' .or. &
                 obsrv%ObsTypeId == 'DELAY-FLOWBOT') then
          if (this%ninterbeds > 0) then
            j = obsrv%NodeNumber
            if (j < 1 .or. j > this%ninterbeds) then
              write (errmsg, '(a,2(1x,a),1x,i0,1x,a,i0,a)') &
                trim(adjustl(obsrv%ObsTypeId)), &
                'interbed cell must be greater ', &
                'than 0 and less than or equal to', this%ninterbeds, &
                '(specified value is ', j, ').'
              call store_error(errmsg)
            end if
            idelay = this%idelay(j)
            if (idelay /= 0) then
              obsrv%BndFound = .true.
              obsrv%CurrentTimeStepEndValue = dzero
              call obsrv%AddObsIndex(j)
            end if
          end if
        else
          !
          ! -- Accumulate values in a single cell
          ! -- Observation location is a single node number
          ! -- save node number in first position
          if (obsrv%ObsTypeId == 'CSUB-CELL' .or. &
              obsrv%ObsTypeId == 'SKE-CELL' .or. &
              obsrv%ObsTypeId == 'SK-CELL' .or. &
              obsrv%ObsTypeId == 'THETA-CELL' .or. &
              obsrv%ObsTypeId == 'INELASTIC-COMPACTION-CELL' .or. &
              obsrv%ObsTypeId == 'ELASTIC-COMPACTION-CELL' .or. &
              obsrv%ObsTypeId == 'COMPACTION-CELL') then
            if (.NOT. obsrv%BndFound) then
              obsrv%BndFound = .true.
              obsrv%CurrentTimeStepEndValue = dzero
              call obsrv%AddObsIndex(obsrv%NodeNumber)
            end if
          end if
          jloop: do j = 1, this%ninterbeds
            if (this%nodelist(j) == obsrv%NodeNumber) then
              obsrv%BndFound = .true.
              obsrv%CurrentTimeStepEndValue = dzero
              call obsrv%AddObsIndex(j)
            end if
          end do jloop
        end if
      end do
      !
      ! -- evaluate if there are any observation errors
      if (count_errors() > 0) then
        call store_error_unit(this%inunit)
      end if
    end if

Here is the call graph for this function:

csub_save_model_flows()

subroutine gwfcsubmodule::csub_save_model_flows	(	class(gwfcsubtype)	this,
		integer(i4b), intent(in)	icbcfl,
		integer(i4b), intent(in)	icbcun
	)

Save cell-by-cell budget terms for the CSUB package.

Parameters

[in]	icbcfl	flag to output budget data
[in]	icbcun	unit number for cell-by-cell file

Definition at line 3562 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    integer(I4B), intent(in) :: icbcfl !< flag to output budget data
    integer(I4B), intent(in) :: icbcun !< unit number for cell-by-cell file
    ! -- local variables
    character(len=1) :: cdatafmp = ' '
    character(len=1) :: editdesc = ' '
    integer(I4B) :: ibinun
    integer(I4B) :: iprint
    integer(I4B) :: nvaluesp
    integer(I4B) :: nwidthp
    integer(I4B) :: ib
    integer(I4B) :: node
    integer(I4B) :: naux
    real(DP) :: dinact
    real(DP) :: Q
    ! -- formats
    !
    ! -- Set unit number for binary output
    if (this%ipakcb < 0) then
      ibinun = icbcun
    elseif (this%ipakcb == 0) then
      ibinun = 0
    else
      ibinun = this%ipakcb
    end if
    if (icbcfl == 0) ibinun = 0
    !
    ! -- Record the storage rates if requested
    if (ibinun /= 0) then
      iprint = 0
      dinact = dzero
      !
      ! -- coarse-grained storage (sske)
      call this%dis%record_array(this%cg_stor, this%iout, iprint, -ibinun, &
                                 budtxt(1), cdatafmp, nvaluesp, &
                                 nwidthp, editdesc, dinact)
      if (this%ninterbeds > 0) then
        naux = 0
        !
        ! -- interbed elastic storage
        call this%dis%record_srcdst_list_header(budtxt(2), &
                                                this%name_model, &
                                                this%name_model, &
                                                this%name_model, &
                                                this%packName, &
                                                naux, &
                                                this%auxname, &
                                                ibinun, &
                                                this%ninterbeds, &
                                                this%iout)
        do ib = 1, this%ninterbeds
          q = this%storagee(ib)
          node = this%nodelist(ib)
          call this%dis%record_mf6_list_entry(ibinun, node, node, q, naux, &
                                              this%auxvar(:, ib))
        end do
        !
        ! -- interbed inelastic storage
        call this%dis%record_srcdst_list_header(budtxt(3), &
                                                this%name_model, &
                                                this%name_model, &
                                                this%name_model, &
                                                this%packName, &
                                                naux, &
                                                this%auxname, &
                                                ibinun, &
                                                this%ninterbeds, &
                                                this%iout)
        do ib = 1, this%ninterbeds
          q = this%storagei(ib)
          node = this%nodelist(ib)
          call this%dis%record_mf6_list_entry(ibinun, node, node, q, naux, &
                                              this%auxvar(:, ib))
        end do
      end if
      !
      ! -- water compressibility
      call this%dis%record_array(this%cell_wcstor, this%iout, iprint, -ibinun, &
                                 budtxt(4), cdatafmp, nvaluesp, &
                                 nwidthp, editdesc, dinact)
    end if

csub_set_initial_state()

subroutine gwfcsubmodule::csub_set_initial_state ( class(gwfcsubtype)  this, integer(i4b), intent(in)  nodes, real(dp), dimension(nodes), intent(in)  hnew  )

private

Method sets the initial states for coarse-grained materials and fine- grained sediments in the interbeds.

Parameters

[in]	nodes	number of active model nodes
[in]	hnew	current heads

Definition at line 4305 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType) :: this
    ! -- dummy variables
    integer(I4B), intent(in) :: nodes !< number of active model nodes
    real(DP), dimension(nodes), intent(in) :: hnew !< current heads
    ! -- local variables
    character(len=LINELENGTH) :: title
    character(len=LINELENGTH) :: tag
    character(len=20) :: cellid
    integer(I4B) :: ib
    integer(I4B) :: node
    integer(I4B) :: n
    integer(I4B) :: idelay
    integer(I4B) :: ntabrows
    integer(I4B) :: ntabcols
    real(DP) :: pcs0
    real(DP) :: pcs
    real(DP) :: fact
    real(DP) :: top
    real(DP) :: bot
    real(DP) :: void_ratio
    real(DP) :: es
    real(DP) :: znode
    real(DP) :: hcell
    real(DP) :: hbar
    real(DP) :: dzhalf
    real(DP) :: zbot
    real(DP) :: dbpcs
    !
    ! -- update geostatic load calculation
    call this%csub_cg_calc_stress(nodes, hnew)
    !
    ! -- initialize coarse-grained material effective stress
    !    for the previous time step and the previous iteration
    do node = 1, nodes
      this%cg_es0(node) = this%cg_es(node)
    end do
    !
    ! -- initialize interbed initial states
    do ib = 1, this%ninterbeds
      idelay = this%idelay(ib)
      node = this%nodelist(ib)
      top = this%dis%top(node)
      bot = this%dis%bot(node)
      hcell = hnew(node)
      pcs = this%pcs(ib)
      pcs0 = pcs
      if (this%ispecified_pcs == 0) then
        ! relative pcs...subtract head (u) from sigma'
        if (this%ipch /= 0) then
          pcs = this%cg_es(node) - pcs0
        else
          pcs = this%cg_es(node) + pcs0
        end if
      else
        ! specified pcs...subtract head (u) from sigma
        if (this%ipch /= 0) then
          pcs = this%cg_gs(node) - (pcs0 - bot)
        end if
        if (pcs < this%cg_es(node)) then
          pcs = this%cg_es(node)
        end if
      end if
      this%pcs(ib) = pcs
      !
      ! -- delay bed initial states
      if (idelay /= 0) then
        dzhalf = dhalf * this%dbdzini(1, idelay)
        !
        ! -- fill delay bed head with aquifer head or offset from aquifer head
        !    heads need to be filled first since used to calculate
        !    the effective stress for each delay bed
        do n = 1, this%ndelaycells
          if (this%ispecified_dbh == 0) then
            this%dbh(n, idelay) = hcell + this%dbh(n, idelay)
          else
            this%dbh(n, idelay) = hcell
          end if
          this%dbh0(n, idelay) = this%dbh(n, idelay)
        end do
        !
        ! -- fill delay bed effective stress
        call this%csub_delay_calc_stress(ib, hcell)
        !
        ! -- fill delay bed pcs
        pcs = this%pcs(ib)
        do n = 1, this%ndelaycells
          zbot = this%dbz(n, idelay) - dzhalf
          ! -- adjust pcs to bottom of each delay bed cell
          !    not using csub_calc_adjes() since smoothing not required
          dbpcs = pcs - (zbot - bot) * (this%sgs(node) - done)
          this%dbpcs(n, idelay) = dbpcs
          !
          ! -- initialize effective stress for previous time step
          this%dbes0(n, idelay) = this%dbes(n, idelay)
        end do
      end if
    end do
    !
    ! -- scale coarse-grained materials cr
    do node = 1, nodes
      top = this%dis%top(node)
      bot = this%dis%bot(node)
      !
      ! -- user-specified specific storage
      if (this%istoragec == 1) then
        !
        ! -- retain specific storage values since they are constant
        if (this%lhead_based .EQV. .true.) then
          fact = done
          !
          ! -- convert specific storage values since they are simulated to
          !    be a function of the average effective stress
        else
          void_ratio = this%csub_calc_void_ratio(this%cg_theta(node))
          es = this%cg_es(node)
          hcell = hnew(node)
          !
          ! -- calculate corrected head (hbar)
          hbar = squadratic0sp(hcell, bot, this%satomega)
          !
          ! -- calculate znode and factor
          znode = this%csub_calc_znode(top, bot, hbar)
          fact = this%csub_calc_adjes(node, es, bot, znode)
          fact = fact * (done + void_ratio)
        end if
        !
        ! -- user-specified compression indices - multiply by dlog10es
      else
        fact = dlog10es
      end if
      this%cg_ske_cr(node) = this%cg_ske_cr(node) * fact
      !
      ! -- write error message if negative compression indices
      if (fact <= dzero) then
        call this%dis%noder_to_string(node, cellid)
        write (errmsg, '(a,1x,a,a)') &
          'Negative recompression index calculated for cell', &
          trim(adjustl(cellid)), '.'
        call store_error(errmsg)
      end if
    end do
    !
    ! -- scale interbed cc and cr
    do ib = 1, this%ninterbeds
      idelay = this%idelay(ib)
      node = this%nodelist(ib)
      top = this%dis%top(node)
      bot = this%dis%bot(node)
      !
      ! -- user-specified specific storage
      if (this%istoragec == 1) then
        !
        ! -- retain specific storage values since they are constant
        if (this%lhead_based .EQV. .true.) then
          fact = done
          !
          ! -- convert specific storage values since they are simulated to
          !    be a function of the average effective stress
        else
          void_ratio = this%csub_calc_void_ratio(this%theta(ib))
          es = this%cg_es(node)
          hcell = hnew(node)
          !
          ! -- calculate corrected head (hbar)
          hbar = squadratic0sp(hcell, bot, this%satomega)
          !
          ! -- calculate zone and factor
          znode = this%csub_calc_znode(top, bot, hbar)
          fact = this%csub_calc_adjes(node, es, bot, znode)
          fact = fact * (done + void_ratio)
        end if
        !
        ! -- user-specified compression indices - multiply by dlog10es
      else
        fact = dlog10es
      end if
      this%ci(ib) = this%ci(ib) * fact
      this%rci(ib) = this%rci(ib) * fact
      !
      ! -- write error message if negative compression indices
      if (fact <= dzero) then
        call this%dis%noder_to_string(node, cellid)
        write (errmsg, '(a,1x,i0,2(1x,a),a)') &
          'Negative compression indices calculated for interbed', ib, &
          'in cell', trim(adjustl(cellid)), '.'
        call store_error(errmsg)
      end if
    end do
    !
    ! -- write current stress and initial preconsolidation stress
    if (this%iprpak == 1) then
      ! -- set title
      title = trim(adjustl(this%packName))// &
              ' PACKAGE CALCULATED INITIAL INTERBED STRESSES AT THE CELL BOTTOM'
      !
      ! -- determine the number of columns and rows
      ntabrows = this%ninterbeds
      ntabcols = 5
      if (this%inamedbound /= 0) then
        ntabcols = ntabcols + 1
      end if
      !
      ! -- setup table
      call table_cr(this%inputtab, this%packName, title)
      call this%inputtab%table_df(ntabrows, ntabcols, this%iout)
      !
      ! add columns
      tag = 'INTERBED NUMBER'
      call this%inputtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'CELLID'
      call this%inputtab%initialize_column(tag, 20)
      tag = 'GEOSTATIC STRESS'
      call this%inputtab%initialize_column(tag, 16)
      tag = 'EFFECTIVE STRESS'
      call this%inputtab%initialize_column(tag, 16)
      tag = 'PRECONSOLIDATION STRESS'
      call this%inputtab%initialize_column(tag, 16)
      if (this%inamedbound /= 0) then
        tag = 'BOUNDNAME'
        call this%inputtab%initialize_column(tag, lenboundname, &
                                             alignment=tableft)
      end if
      !
      ! -- write the data
      do ib = 1, this%ninterbeds
        node = this%nodelist(ib)
        call this%dis%noder_to_string(node, cellid)
        !
        ! -- write the columns
        call this%inputtab%add_term(ib)
        call this%inputtab%add_term(cellid)
        call this%inputtab%add_term(this%cg_gs(node))
        call this%inputtab%add_term(this%cg_es(node))
        call this%inputtab%add_term(this%pcs(ib))
        if (this%inamedbound /= 0) then
          call this%inputtab%add_term(this%boundname(ib))
        end if
      end do
      !
      ! -- write effective stress and preconsolidation stress
      !    for delay beds
      ! -- set title
      title = trim(adjustl(this%packName))// &
              ' PACKAGE CALCULATED INITIAL DELAY INTERBED STRESSES'
      !
      ! -- determine the number of columns and rows
      ntabrows = 0
      do ib = 1, this%ninterbeds
        idelay = this%idelay(ib)
        if (idelay /= 0) then
          ntabrows = ntabrows + this%ndelaycells
        end if
      end do
      ntabcols = 6
      if (this%inamedbound /= 0) then
        ntabcols = ntabcols + 1
      end if
      !
      ! -- setup table
      call table_cr(this%inputtab, this%packName, title)
      call this%inputtab%table_df(ntabrows, ntabcols, this%iout)
      !
      ! add columns
      tag = 'INTERBED NUMBER'
      call this%inputtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'CELLID'
      call this%inputtab%initialize_column(tag, 20)
      tag = 'DELAY CELL'
      call this%inputtab%initialize_column(tag, 10, alignment=tableft)
      tag = 'GEOSTATIC STRESS'
      call this%inputtab%initialize_column(tag, 16)
      tag = 'EFFECTIVE STRESS'
      call this%inputtab%initialize_column(tag, 16)
      tag = 'PRECONSOLIDATION STRESS'
      call this%inputtab%initialize_column(tag, 16)
      if (this%inamedbound /= 0) then
        tag = 'BOUNDNAME'
        call this%inputtab%initialize_column(tag, lenboundname, &
                                             alignment=tableft)
      end if
      !
      ! -- write the data
      do ib = 1, this%ninterbeds
        idelay = this%idelay(ib)
        if (idelay /= 0) then
          node = this%nodelist(ib)
          call this%dis%noder_to_string(node, cellid)
          !
          ! -- write the columns
          do n = 1, this%ndelaycells
            if (n == 1) then
              call this%inputtab%add_term(ib)
              call this%inputtab%add_term(cellid)
            else
              call this%inputtab%add_term(' ')
              call this%inputtab%add_term(' ')
            end if
            call this%inputtab%add_term(n)
            call this%inputtab%add_term(this%dbgeo(n, idelay))
            call this%inputtab%add_term(this%dbes(n, idelay))
            call this%inputtab%add_term(this%dbpcs(n, idelay))
            if (this%inamedbound /= 0) then
              if (n == 1) then
                call this%inputtab%add_term(this%boundname(ib))
              else
                call this%inputtab%add_term(' ')
              end if
            end if
          end do
        end if
      end do
      !
      ! -- write calculated compression indices
      if (this%istoragec == 1) then
        if (this%lhead_based .EQV. .false.) then
          ! -- set title
          title = trim(adjustl(this%packName))// &
                  ' PACKAGE COMPRESSION INDICES'
          !
          ! -- determine the number of columns and rows
          ntabrows = this%ninterbeds
          ntabcols = 4
          if (this%inamedbound /= 0) then
            ntabcols = ntabcols + 1
          end if
          !
          ! -- setup table
          call table_cr(this%inputtab, this%packName, title)
          call this%inputtab%table_df(ntabrows, ntabcols, this%iout)
          !
          ! add columns
          tag = 'INTERBED NUMBER'
          call this%inputtab%initialize_column(tag, 10, alignment=tableft)
          tag = 'CELLID'
          call this%inputtab%initialize_column(tag, 20)
          tag = 'CC'
          call this%inputtab%initialize_column(tag, 16)
          tag = 'CR'
          call this%inputtab%initialize_column(tag, 16)
          if (this%inamedbound /= 0) then
            tag = 'BOUNDNAME'
            call this%inputtab%initialize_column(tag, lenboundname, &
                                                 alignment=tableft)
          end if
          !
          ! -- write the data
          do ib = 1, this%ninterbeds
            fact = done / dlog10es
            node = this%nodelist(ib)
            call this%dis%noder_to_string(node, cellid)
            !
            ! -- write the columns
            call this%inputtab%add_term(ib)
            call this%inputtab%add_term(cellid)
            call this%inputtab%add_term(this%ci(ib) * fact)
            call this%inputtab%add_term(this%rci(ib) * fact)
            if (this%inamedbound /= 0) then
              call this%inputtab%add_term(this%boundname(ib))
            end if
          end do
        end if
      end if
    end if
    !
    ! -- terminate if any initialization errors have been detected
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if
    !
    ! -- set initialized
    this%initialized = 1
    !
    ! -- set flag to retain initial stresses for entire simulation
    if (this%lhead_based .EQV. .true.) then
      this%iupdatestress = 0
    end if

Here is the call graph for this function:

define_listlabel()

subroutine gwfcsubmodule::define_listlabel ( class(gwfcsubtype), intent(inout)  this )

private

Method defined the list label for the CSUB package. The list label is the heading that is written to iout when PRINT_INPUT option is used.

Definition at line 7410 of file gwf-csub.f90.

    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    !
    ! -- create the header list label
    this%listlabel = trim(this%filtyp)//' NO.'
    if (this%dis%ndim == 3) then
      write (this%listlabel, '(a, a7)') trim(this%listlabel), 'LAYER'
      write (this%listlabel, '(a, a7)') trim(this%listlabel), 'ROW'
      write (this%listlabel, '(a, a7)') trim(this%listlabel), 'COL'
    elseif (this%dis%ndim == 2) then
      write (this%listlabel, '(a, a7)') trim(this%listlabel), 'LAYER'
      write (this%listlabel, '(a, a7)') trim(this%listlabel), 'CELL2D'
    else
      write (this%listlabel, '(a, a7)') trim(this%listlabel), 'NODE'
    end if
    write (this%listlabel, '(a, a16)') trim(this%listlabel), 'SIG0'
    if (this%inamedbound == 1) then
      write (this%listlabel, '(a, a16)') trim(this%listlabel), 'BOUNDARY NAME'
    end if

read_options()

subroutine gwfcsubmodule::read_options

(

class(gwfcsubtype), intent(inout)

this

)

Read options block for CSUB package.

Definition at line 600 of file gwf-csub.f90.

    ! -- modules
    use constantsmodule, only: maxcharlen, dzero, mnormal
    use memorymanagermodule, only: mem_reallocate
    use openspecmodule, only: access, form
    use inputoutputmodule, only: getunit, urdaux, openfile
    ! -- dummy variables
    class(GwfCsubType), intent(inout) :: this
    ! -- local variables
    character(len=LINELENGTH) :: keyword
    character(len=:), allocatable :: line
    character(len=MAXCHARLEN) :: fname
    character(len=LENAUXNAME), dimension(:), allocatable :: caux
    logical(LGP) :: isfound
    logical(LGP) :: endOfBlock
    integer(I4B) :: n
    integer(I4B) :: lloc
    integer(I4B) :: istart
    integer(I4B) :: istop
    integer(I4B) :: ierr
    integer(I4B) :: inobs
    integer(I4B) :: ibrg
    integer(I4B) :: ieslag
    integer(I4B) :: isetgamma
    ! -- formats
    character(len=*), parameter :: fmtts = &
      &"(4x,'TIME-SERIES DATA WILL BE READ FROM FILE: ',a)"
    character(len=*), parameter :: fmtflow = &
      &"(4x,'FLOWS WILL BE SAVED TO FILE: ',a,/4x,'OPENED ON UNIT: ',I7)"
    character(len=*), parameter :: fmtflow2 = &
      &"(4x,'FLOWS WILL BE SAVED TO BUDGET FILE SPECIFIED IN OUTPUT CONTROL')"
    character(len=*), parameter :: fmtssessv = &
      &"(4x,'USING SSE AND SSV INSTEAD OF CR AND CC.')"
    character(len=*), parameter :: fmtoffset = &
      &"(4x,'INITIAL_STRESS TREATED AS AN OFFSET.')"
    character(len=*), parameter :: fmtopt = &
      &"(4x,A)"
    character(len=*), parameter :: fmtopti = &
      &"(4x,A,1X,I0)"
    character(len=*), parameter :: fmtoptr = &
      &"(4x,A,1X,G0)"
    character(len=*), parameter :: fmtfileout = &
      "(4x,'CSUB ',1x,a,1x,' WILL BE SAVED TO FILE: ',a,/4x,&
      &'OPENED ON UNIT: ',I7)"
    !
    ! -- initialize variables
    ibrg = 0
    ieslag = 0
    isetgamma = 0
    !
    ! -- get options block
    call this%parser%GetBlock('OPTIONS', isfound, ierr, blockrequired=.false., &
                              supportopenclose=.true.)
    !
    ! -- parse options block if detected
    if (isfound) then
      write (this%iout, '(1x,a)') 'PROCESSING CSUB OPTIONS'
      do
        call this%parser%GetNextLine(endofblock)
        if (endofblock) then
          exit
        end if
        call this%parser%GetStringCaps(keyword)
        select case (keyword)
        case ('AUX', 'AUXILIARY')
          call this%parser%GetRemainingLine(line)
          lloc = 1
          call urdaux(this%naux, this%parser%iuactive, this%iout, lloc, &
                      istart, istop, caux, line, this%packName)
          call mem_reallocate(this%auxname, lenauxname, this%naux, &
                              'AUXNAME', this%memoryPath)
          do n = 1, this%naux
            this%auxname(n) = caux(n)
          end do
          deallocate (caux)
        case ('SAVE_FLOWS')
          this%ipakcb = -1
          write (this%iout, fmtflow2)
        case ('PRINT_INPUT')
          this%iprpak = 1
          write (this%iout, '(4x,a)') &
            'LISTS OF '//trim(adjustl(this%packName))//' CELLS WILL BE PRINTED.'
        case ('PRINT_FLOWS')
          this%iprflow = 1
          write (this%iout, '(4x,a)') trim(adjustl(this%packName))// &
            ' FLOWS WILL BE PRINTED TO LISTING FILE.'
        case ('BOUNDNAMES')
          this%inamedbound = 1
          write (this%iout, '(4x,a)') trim(adjustl(this%packName))// &
            ' BOUNDARIES HAVE NAMES IN LAST COLUMN.' ! user specified boundnames
        case ('TS6')
          call this%parser%GetStringCaps(keyword)
          if (trim(adjustl(keyword)) /= 'FILEIN') then
            errmsg = 'TS6 keyword must be followed by "FILEIN" '// &
                     'then by filename.'
            call store_error(errmsg)
            call this%parser%StoreErrorUnit()
          end if
          call this%parser%GetString(fname)
          write (this%iout, fmtts) trim(fname)
          call this%TsManager%add_tsfile(fname, this%inunit)
        case ('OBS6')
          call this%parser%GetStringCaps(keyword)
          if (trim(adjustl(keyword)) /= 'FILEIN') then
            errmsg = 'OBS6 keyword must be followed by "FILEIN" '// &
                     'then by filename.'
            call store_error(errmsg)
          end if
          if (this%obs%active) then
            errmsg = 'Multiple OBS6 keywords detected in OPTIONS block. '// &
                     'Only one OBS6 entry allowed for a package.'
            call store_error(errmsg)
          end if
          this%obs%active = .true.
          call this%parser%GetString(this%obs%inputFilename)
          inobs = getunit()
          call openfile(inobs, this%iout, this%obs%inputFilename, 'OBS')
          this%obs%inUnitObs = inobs
          this%inobspkg = inobs
 
          call this%obs%obs_df(this%iout, this%packName, this%filtyp, this%dis)
          call this%csub_df_obs()
          !
          ! -- CSUB specific options
        case ('GAMMAW')
          this%gammaw = this%parser%GetDouble()
          ibrg = 1
        case ('BETA')
          this%beta = this%parser%GetDouble()
          ibrg = 1
        case ('HEAD_BASED')
          this%ipch = 1
          this%lhead_based = .true.
        case ('INITIAL_PRECONSOLIDATION_HEAD')
          this%ipch = 1
        case ('NDELAYCELLS')
          this%ndelaycells = this%parser%GetInteger()
          !
          ! -- compression indices (CR amd CC) will be specified instead of
          !    storage coefficients (SSE and SSV)
        case ('COMPRESSION_INDICES')
          this%istoragec = 0
          !
          ! -- variable thickness and void ratio
        case ('UPDATE_MATERIAL_PROPERTIES')
          this%iupdatematprop = 1
          !
          ! -- cell fraction will be specified instead of interbed thickness
        case ('CELL_FRACTION')
          this%icellf = 1
          !
          ! -- specified initial pcs and delay bed heads
        case ('SPECIFIED_INITIAL_INTERBED_STATE')
          this%ispecified_pcs = 1
          this%ispecified_dbh = 1
          !
          ! -- specified initial pcs
        case ('SPECIFIED_INITIAL_PRECONSOLIDATION_STRESS')
          this%ispecified_pcs = 1
          !
          ! -- specified initial delay bed heads
        case ('SPECIFIED_INITIAL_DELAY_HEAD')
          this%ispecified_dbh = 1
          !
          ! -- lag the effective stress used to calculate storage properties
        case ('EFFECTIVE_STRESS_LAG')
          ieslag = 1
          !
          ! -- strain table options
        case ('STRAIN_CSV_INTERBED')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%istrainib = getunit()
            call openfile(this%istrainib, this%iout, fname, 'CSV_OUTPUT', &
                          filstat_opt='REPLACE', mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'INTERBED STRAIN CSV', fname, this%istrainib
          else
            errmsg = 'Optional STRAIN_CSV_INTERBED keyword must be '// &
                     'followed by FILEOUT.'
            call store_error(errmsg)
          end if
        case ('STRAIN_CSV_COARSE')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%istrainsk = getunit()
            call openfile(this%istrainsk, this%iout, fname, 'CSV_OUTPUT', &
                          filstat_opt='REPLACE', mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'COARSE STRAIN CSV', fname, this%istrainsk
          else
            errmsg = 'Optional STRAIN_CSV_COARSE keyword must be '// &
                     'followed by fileout.'
            call store_error(errmsg)
          end if
          !
          ! -- compaction output
        case ('COMPACTION')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%ioutcomp = getunit()
            call openfile(this%ioutcomp, this%iout, fname, 'DATA(BINARY)', &
                          form, access, 'REPLACE', mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'COMPACTION', fname, this%ioutcomp
          else
            errmsg = 'Optional COMPACTION keyword must be '// &
                     'followed by FILEOUT.'
            call store_error(errmsg)
          end if
        case ('COMPACTION_INELASTIC')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%ioutcompi = getunit()
            call openfile(this%ioutcompi, this%iout, fname, &
                          'DATA(BINARY)', form, access, 'REPLACE', &
                          mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'COMPACTION_INELASTIC', fname, this%ioutcompi
          else
            errmsg = 'Optional COMPACTION_INELASTIC keyword must be '// &
                     'followed by fileout.'
            call store_error(errmsg)
          end if
        case ('COMPACTION_ELASTIC')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%ioutcompe = getunit()
            call openfile(this%ioutcompe, this%iout, fname, &
                          'DATA(BINARY)', form, access, 'REPLACE', &
                          mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'COMPACTION_ELASTIC', fname, this%ioutcompe
          else
            errmsg = 'Optional COMPACTION_ELASTIC keyword must be '// &
                     'followed by FILEOUT.'
            call store_error(errmsg)
          end if
        case ('COMPACTION_INTERBED')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%ioutcompib = getunit()
            call openfile(this%ioutcompib, this%iout, fname, &
                          'DATA(BINARY)', form, access, 'REPLACE', &
                          mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'COMPACTION_INTERBED', fname, this%ioutcompib
          else
            errmsg = 'Optional COMPACTION_INTERBED keyword must be '// &
                     'followed by FILEOUT.'
            call store_error(errmsg)
          end if
        case ('COMPACTION_COARSE')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%ioutcomps = getunit()
            call openfile(this%ioutcomps, this%iout, fname, &
                          'DATA(BINARY)', form, access, 'REPLACE', &
                          mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'COMPACTION_COARSE', fname, this%ioutcomps
          else
            errmsg = 'Optional COMPACTION_COARSE keyword must be '// &
                     'followed by FILEOUT.'
            call store_error(errmsg)
          end if
          !
          ! -- zdisplacement output
        case ('ZDISPLACEMENT')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%ioutzdisp = getunit()
            call openfile(this%ioutzdisp, this%iout, fname, &
                          'DATA(BINARY)', form, access, 'REPLACE', &
                          mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'ZDISPLACEMENT', fname, this%ioutzdisp
          else
            errmsg = 'Optional ZDISPLACEMENT keyword must be '// &
                     'followed by FILEOUT.'
            call store_error(errmsg)
          end if
          ! -- package convergence
        case ('PACKAGE_CONVERGENCE')
          call this%parser%GetStringCaps(keyword)
          if (keyword == 'FILEOUT') then
            call this%parser%GetString(fname)
            this%ipakcsv = getunit()
            call openfile(this%ipakcsv, this%iout, fname, 'CSV', &
                          filstat_opt='REPLACE', mode_opt=mnormal)
            write (this%iout, fmtfileout) &
              'PACKAGE_CONVERGENCE', fname, this%ipakcsv
          else
            call store_error('Optional PACKAGE_CONVERGENCE keyword must be '// &
                             'followed by FILEOUT.')
          end if
          !
          ! -- right now these are options that are only available in the
          !    development version and are not included in the documentation.
          !    These options are only available when IDEVELOPMODE in
          !    constants module is set to 1
        case ('DEV_NO_FINAL_CHECK')
          call this%parser%DevOpt()
          this%iconvchk = 0
          write (this%iout, '(4x,a)') &
            'A FINAL CONVERGENCE CHECK OF THE CHANGE IN DELAY INTERBED '// &
            'HEADS AND FLOWS WILL NOT BE MADE'
 
          !
          ! default case
        case default
          write (errmsg, '(a,3(1x,a),a)') &
            'Unknown', trim(adjustl(this%packName)), "option '", &
            trim(keyword), "'."
          call store_error(errmsg)
        end select
      end do
      write (this%iout, '(1x,a)') &
        'END OF '//trim(adjustl(this%packName))//' OPTIONS'
    end if
    !
    ! -- write messages for options
    write (this%iout, '(//2(1X,A))') trim(adjustl(this%packName)), &
      'PACKAGE SETTINGS'
    write (this%iout, fmtopti) 'NUMBER OF DELAY CELLS =', &
      this%ndelaycells
    if (this%lhead_based .EQV. .true.) then
      write (this%iout, '(4x,a)') &
        'HEAD-BASED FORMULATION'
    else
      write (this%iout, '(4x,a)') &
        'EFFECTIVE-STRESS FORMULATION'
    end if
    if (this%istoragec == 0) then
      write (this%iout, '(4x,a,1(/,6x,a))') &
        'COMPRESSION INDICES WILL BE SPECIFIED INSTEAD OF ELASTIC AND', &
        'INELASTIC SPECIFIC STORAGE COEFFICIENTS'
    else
      write (this%iout, '(4x,a,1(/,6x,a))') &
        'ELASTIC AND INELASTIC SPECIFIC STORAGE COEFFICIENTS WILL BE ', &
        'SPECIFIED'
    end if
    if (this%iupdatematprop /= 1) then
      write (this%iout, '(4x,a,1(/,6x,a))') &
        'THICKNESS AND VOID RATIO WILL NOT BE ADJUSTED DURING THE', &
        'SIMULATION'
    else
      write (this%iout, '(4x,a)') &
        'THICKNESS AND VOID RATIO WILL BE ADJUSTED DURING THE SIMULATION'
    end if
    if (this%icellf /= 1) then
      write (this%iout, '(4x,a)') &
        'INTERBED THICKNESS WILL BE SPECIFIED AS A THICKNESS'
    else
      write (this%iout, '(4x,a,1(/,6x,a))') &
        'INTERBED THICKNESS WILL BE SPECIFIED AS A AS A CELL FRACTION'
    end if
    if (this%ispecified_pcs /= 1) then
      if (this%ipch /= 0) then
        write (this%iout, '(4x,a,1(/,6x,a))') &
          'PRECONSOLIDATION HEAD WILL BE SPECIFIED RELATIVE TO INITIAL', &
          'STRESS CONDITIONS'
      else
        write (this%iout, '(4x,a,1(/,6x,a))') &
          'PRECONSOLIDATION STRESS WILL BE SPECIFIED RELATIVE TO INITIAL', &
          'STRESS CONDITIONS'
      end if
    else
      if (this%ipch /= 0) then
        write (this%iout, '(4x,a,1(/,6x,a))') &
          'PRECONSOLIDATION HEAD WILL BE SPECIFIED AS ABSOLUTE VALUES', &
          'INSTEAD OF RELATIVE TO INITIAL HEAD CONDITIONS'
      else
        write (this%iout, '(4x,a,1(/,6x,a))') &
          'PRECONSOLIDATION STRESS WILL BE SPECIFIED AS ABSOLUTE VALUES', &
          'INSTEAD OF RELATIVE TO INITIAL STRESS CONDITIONS'
      end if
    end if
    if (this%ispecified_dbh /= 1) then
      write (this%iout, '(4x,a,1(/,6x,a))') &
        'DELAY INTERBED HEADS WILL BE SPECIFIED RELATIVE TO INITIAL ', &
        'GWF HEADS'
    else
      write (this%iout, '(4x,a,1(/,6x,a))') &
        'DELAY INTERBED HEADS WILL BE SPECIFIED AS ABSOLUTE VALUES INSTEAD', &
        'OF RELATIVE TO INITIAL GWF HEADS'
    end if
    !
    ! -- process effective_stress_lag, if effective stress formulation
    if (this%lhead_based .EQV. .false.) then
      if (ieslag /= 0) then
        write (this%iout, '(4x,a,1(/,6x,a))') &
          'SPECIFIC STORAGE VALUES WILL BE CALCULATED USING THE EFFECTIVE', &
          'STRESS FROM THE PREVIOUS TIME STEP'
      else
        write (this%iout, '(4x,a,1(/,6x,a))') &
          'SPECIFIC STORAGE VALUES WILL BE CALCULATED USING THE CURRENT', &
          'EFFECTIVE STRESS'
      end if
    else
      if (ieslag /= 0) then
        ieslag = 0
        write (this%iout, '(4x,a,2(/,6x,a))') &
          'EFFECTIVE_STRESS_LAG HAS BEEN SPECIFIED BUT HAS NO EFFECT WHEN', &
          'USING THE HEAD-BASED FORMULATION (HEAD_BASED HAS BEEN SPECIFIED', &
          'IN THE OPTIONS BLOCK)'
      end if
    end if
    this%ieslag = ieslag
    !
    ! -- recalculate BRG if necessary and output
    !    water compressibility values
    if (ibrg /= 0) then
      this%brg = this%gammaw * this%beta
    end if
    write (this%iout, fmtoptr) 'GAMMAW        =', this%gammaw
    write (this%iout, fmtoptr) 'BETA          =', this%beta
    write (this%iout, fmtoptr) 'GAMMAW * BETA =', this%brg
    !
    ! -- terminate if errors encountered in reach block
    if (count_errors() > 0) then
      call this%parser%StoreErrorUnit()
    end if

Here is the call graph for this function:

Variable Documentation

budtxt

character(len=lenbudtxt), dimension(4) gwfcsubmodule::budtxt = [' CSUB-CGELASTIC', ' CSUB-ELASTIC', ' CSUB-INELASTIC', ' CSUB-WATERCOMP']

private

Definition at line 55 of file gwf-csub.f90.

  character(len=LENBUDTXT), dimension(4) :: budtxt = & !< text labels for budget terms
                                            [' CSUB-CGELASTIC', &
                                             '   CSUB-ELASTIC', &
                                             ' CSUB-INELASTIC', &
                                             ' CSUB-WATERCOMP']

comptxt

character(len=lenbudtxt), dimension(6) gwfcsubmodule::comptxt = ['CSUB-COMPACTION', ' CSUB-INELASTIC', ' CSUB-ELASTIC', ' CSUB-INTERBED', ' CSUB-COARSE', ' CSUB-ZDISPLACE']

private

Definition at line 60 of file gwf-csub.f90.

  character(len=LENBUDTXT), dimension(6) :: comptxt = & !< text labels for compaction terms
                                            ['CSUB-COMPACTION', &
                                             ' CSUB-INELASTIC', &
                                             '   CSUB-ELASTIC', &
                                             '  CSUB-INTERBED', &
                                             '    CSUB-COARSE', &
                                             ' CSUB-ZDISPLACE']

dlog10es

real(dp), parameter gwfcsubmodule::dlog10es = 0.4342942_DP

private

Definition at line 70 of file gwf-csub.f90.

  real(DP), parameter :: dlog10es = 0.4342942_dp !< derivative of the log of effective stress