kim_model_compute_arguments_module.f90

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! Copyright (c) 2016--2019, Regents of the University of Minnesota.
! All rights reserved.
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! Contributors:
!    Ryan S. Elliott
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! Release: This file is part of the kim-api-2.1.2 package.
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module kim_model_compute_arguments_module
  use, intrinsic :: iso_c_binding
  implicit none
  private

  public &
    ! Derived types
    kim_model_compute_arguments_handle_type, &

    ! Constants
    kim_model_compute_arguments_null_handle, &

    ! Routines
    operator (.eq.), &
    operator (.ne.), &
    kim_get_neighbor_list, &
    kim_process_dedr_term, &
    kim_process_d2edr2_term, &
    kim_get_argument_pointer, &
    kim_is_callback_present, &
    kim_set_model_buffer_pointer, &
    kim_get_model_buffer_pointer, &
    kim_log_entry, &
    kim_to_string


  type, bind(c) :: kim_model_compute_arguments_handle_type
    type(c_ptr) :: p = c_null_ptr
  end type kim_model_compute_arguments_handle_type

  type(kim_model_compute_arguments_handle_type), protected, save &
    :: kim_model_compute_arguments_null_handle

  interface operator (.eq.)
    module procedure kim_model_compute_arguments_handle_equal
  end interface operator (.eq.)

  interface operator (.ne.)
    module procedure kim_model_compute_arguments_handle_not_equal
  end interface operator (.ne.)

  interface kim_get_neighbor_list
    module procedure kim_model_compute_arguments_get_neighbor_list
  end interface kim_get_neighbor_list

  interface kim_process_dedr_term
    module procedure kim_model_compute_arguments_process_dedr_term
  end interface kim_process_dedr_term

  interface kim_process_d2edr2_term
    module procedure kim_model_compute_arguments_process_d2edr2_term
  end interface kim_process_d2edr2_term

  interface kim_get_argument_pointer
    module procedure kim_model_compute_arguments_get_argument_pointer_int0
    module procedure kim_model_compute_arguments_get_argument_pointer_int1
    module procedure kim_model_compute_arguments_get_argument_pointer_int2
    module procedure kim_model_compute_arguments_get_argument_pointer_double0
    module procedure kim_model_compute_arguments_get_argument_pointer_double1
    module procedure kim_model_compute_arguments_get_argument_pointer_double2
  end interface kim_get_argument_pointer

  interface kim_is_callback_present
    module procedure kim_model_compute_arguments_is_callback_present
  end interface kim_is_callback_present

  interface kim_set_model_buffer_pointer
    module procedure kim_model_compute_arguments_set_model_buffer_pointer
  end interface kim_set_model_buffer_pointer

  interface kim_get_model_buffer_pointer
    module procedure kim_model_compute_arguments_get_model_buffer_pointer
  end interface kim_get_model_buffer_pointer

  interface kim_log_entry
    module procedure kim_model_compute_arguments_log_entry
  end interface kim_log_entry

  interface kim_to_string
    module procedure kim_model_compute_arguments_to_string
  end interface kim_to_string

contains
  logical recursive function kim_model_compute_arguments_handle_equal(lhs, rhs)
    implicit none
    type(kim_model_compute_arguments_handle_type), intent(in) :: lhs
    type(kim_model_compute_arguments_handle_type), intent(in) :: rhs

    if ((.not. c_associated(lhs%p)) .and. (.not. c_associated(rhs%p))) then
      kim_model_compute_arguments_handle_equal = .true.
    else
      kim_model_compute_arguments_handle_equal = c_associated(lhs%p, rhs%p)
    end if
  end function kim_model_compute_arguments_handle_equal

  logical recursive function kim_model_compute_arguments_handle_not_equal(lhs, &
    rhs)
    implicit none
    type(kim_model_compute_arguments_handle_type), intent(in) :: lhs
    type(kim_model_compute_arguments_handle_type), intent(in) :: rhs

    kim_model_compute_arguments_handle_not_equal = .not. (lhs .eq. rhs)
  end function kim_model_compute_arguments_handle_not_equal

  recursive subroutine kim_model_compute_arguments_get_neighbor_list( &
    model_compute_arguments_handle, neighbor_list_index, particle_number, &
    number_of_neighbors, neighbors_of_particle, ierr)
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function get_neighbor_list( &
        model_compute_arguments, neighbor_list_index, particle_number, &
        number_of_neighbors, neighbors_of_particle) &
        bind(c, name="KIM_ModelComputeArguments_GetNeighborList")
        use, intrinsic :: iso_c_binding
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        integer(c_int), intent(in), value :: neighbor_list_index
        integer(c_int), intent(in), value :: particle_number
        integer(c_int), intent(out) :: number_of_neighbors
        type(c_ptr), intent(out) :: neighbors_of_particle
      end function get_neighbor_list
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    integer(c_int), intent(in) :: neighbor_list_index
    integer(c_int), intent(in) :: particle_number
    integer(c_int), intent(out) :: number_of_neighbors
    integer(c_int), intent(out), pointer :: neighbors_of_particle(:)
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = get_neighbor_list(model_compute_arguments, neighbor_list_index-1, &
      particle_number, number_of_neighbors, p)
    if (c_associated(p)) then
      call c_f_pointer(p, neighbors_of_particle, [number_of_neighbors])
    else
      nullify(neighbors_of_particle)
    end if
  end subroutine kim_model_compute_arguments_get_neighbor_list

  recursive subroutine kim_model_compute_arguments_process_dedr_term( &
    model_compute_arguments_handle, de, r, dx, i, j, ierr)
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function process_dedr_term( &
        model_compute_arguments, de, r, dx, i, j) &
        bind(c, name="KIM_ModelComputeArguments_ProcessDEDrTerm")
        use, intrinsic :: iso_c_binding
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        real(c_double), intent(in), value :: de
        real(c_double), intent(in), value :: r
        real(c_double), intent(in) :: dx
        integer(c_int), intent(in), value :: i
        integer(c_int), intent(in), value :: j
      end function process_dedr_term
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    real(c_double), intent(in) :: de
    real(c_double), intent(in) :: r
    real(c_double), intent(in) :: dx(:)
    integer(c_int), intent(in) :: i
    integer(c_int), intent(in) :: j
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = process_dedr_term(model_compute_arguments, de, r, dx(1), i, j)
  end subroutine kim_model_compute_arguments_process_dedr_term

  recursive subroutine kim_model_compute_arguments_process_d2edr2_term( &
    model_compute_arguments_handle, de, r, dx, i, j, ierr)
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function process_d2edr2_term( &
        model_compute_arguments, de, r, dx, i, j) &
        bind(c, name="KIM_ModelComputeArguments_ProcessD2EDr2Term")
        use, intrinsic :: iso_c_binding
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        real(c_double), intent(in), value :: de
        real(c_double), intent(in) :: r
        real(c_double), intent(in) :: dx
        integer(c_int), intent(in) :: i
        integer(c_int), intent(in) :: j
      end function process_d2edr2_term
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    real(c_double), intent(in) :: de
    real(c_double), intent(in) :: r(:)
    real(c_double), intent(in) :: dx(:,:)
    integer(c_int), intent(in) :: i(:)
    integer(c_int), intent(in) :: j(:)
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = process_d2edr2_term(model_compute_arguments, &
      de, r(1), dx(1,1), i(1), j(1))
  end subroutine kim_model_compute_arguments_process_d2edr2_term

  recursive subroutine kim_model_compute_arguments_get_argument_pointer_int0( &
    model_compute_arguments_handle, compute_argument_name, int0, ierr)
    use kim_compute_argument_name_module, only : kim_compute_argument_name_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function get_argument_pointer_integer( &
        model_compute_arguments, compute_argument_name, ptr) &
        bind(c, name="KIM_ModelComputeArguments_GetArgumentPointerInteger")
        use, intrinsic :: iso_c_binding
        use kim_compute_argument_name_module, only : &
          kim_compute_argument_name_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_compute_argument_name_type), intent(in), value :: &
          compute_argument_name
        type(c_ptr), intent(out) :: ptr
      end function get_argument_pointer_integer
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_compute_argument_name_type), intent(in) :: &
      compute_argument_name
    integer(c_int), intent(out), pointer :: int0
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = get_argument_pointer_integer(model_compute_arguments, &
      compute_argument_name, p)
    if (c_associated(p)) then
      call c_f_pointer(p, int0)
    else
      nullify(int0)
    end if
  end subroutine kim_model_compute_arguments_get_argument_pointer_int0

  recursive subroutine kim_model_compute_arguments_get_argument_pointer_int1( &
    model_compute_arguments_handle, compute_argument_name, extent1, int1, ierr)
    use kim_compute_argument_name_module, only : kim_compute_argument_name_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function get_argument_pointer_integer( &
        model_compute_arguments, compute_argument_name, ptr) &
        bind(c, name="KIM_ModelComputeArguments_GetArgumentPointerInteger")
        use, intrinsic :: iso_c_binding
        use kim_compute_argument_name_module, only : &
          kim_compute_argument_name_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_compute_argument_name_type), intent(in), value :: &
          compute_argument_name
        type(c_ptr), intent(out) :: ptr
      end function get_argument_pointer_integer
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_compute_argument_name_type), intent(in) :: &
      compute_argument_name
    integer(c_int), intent(in) :: extent1
    integer(c_int), intent(out), pointer :: int1(:)
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = get_argument_pointer_integer(model_compute_arguments, &
      compute_argument_name, p)
    if (c_associated(p)) then
      call c_f_pointer(p, int1, [extent1])
    else
      nullify(int1)
    end if

  end subroutine kim_model_compute_arguments_get_argument_pointer_int1

  recursive subroutine kim_model_compute_arguments_get_argument_pointer_int2( &
    model_compute_arguments_handle, compute_argument_name, extent1, extent2, &
    int2, ierr)
    use kim_compute_argument_name_module, only : kim_compute_argument_name_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function get_argument_pointer_integer( &
        model_compute_arguments, compute_argument_name, ptr) &
        bind(c, name="KIM_ModelComputeArguments_GetArgumentPointerInteger")
        use, intrinsic :: iso_c_binding
        use kim_compute_argument_name_module, only : &
          kim_compute_argument_name_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_compute_argument_name_type), intent(in), value :: &
          compute_argument_name
        type(c_ptr), intent(out) :: ptr
      end function get_argument_pointer_integer
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_compute_argument_name_type), intent(in) :: &
      compute_argument_name
    integer(c_int), intent(in) :: extent1
    integer(c_int), intent(in) :: extent2
    integer(c_int), intent(out), pointer :: int2(:,:)
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = get_argument_pointer_integer(model_compute_arguments, &
      compute_argument_name, p)
    if (c_associated(p)) then
      call c_f_pointer(p, int2, [extent1, extent2])
    else
      nullify(int2)
    end if
  end subroutine kim_model_compute_arguments_get_argument_pointer_int2

  recursive subroutine &
    kim_model_compute_arguments_get_argument_pointer_double0( &
    model_compute_arguments_handle, compute_argument_name, double0, ierr)
    use kim_compute_argument_name_module, only : kim_compute_argument_name_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function get_argument_pointer_double( &
        model_compute_arguments, compute_argument_name, ptr) &
        bind(c, name="KIM_ModelComputeArguments_GetArgumentPointerDouble")
        use, intrinsic :: iso_c_binding
        use kim_compute_argument_name_module, only : &
          kim_compute_argument_name_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_compute_argument_name_type), intent(in), value :: &
          compute_argument_name
        type(c_ptr), intent(out) :: ptr
      end function get_argument_pointer_double
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_compute_argument_name_type), intent(in) :: &
      compute_argument_name
    real(c_double), intent(out), pointer :: double0
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = get_argument_pointer_double(model_compute_arguments, &
      compute_argument_name, p)
    if (c_associated(p)) then
      call c_f_pointer(p, double0)
    else
      nullify(double0)
    end if
  end subroutine kim_model_compute_arguments_get_argument_pointer_double0

  recursive subroutine &
    kim_model_compute_arguments_get_argument_pointer_double1( &
    model_compute_arguments_handle, compute_argument_name, extent1, double1, &
    ierr)
    use kim_compute_argument_name_module, only : kim_compute_argument_name_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function get_argument_pointer_double( &
        model_compute_arguments, compute_argument_name, ptr) &
        bind(c, name="KIM_ModelComputeArguments_GetArgumentPointerDouble")
        use, intrinsic :: iso_c_binding
        use kim_compute_argument_name_module, only : &
          kim_compute_argument_name_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_compute_argument_name_type), intent(in), value :: &
          compute_argument_name
        type(c_ptr), intent(out) :: ptr
      end function get_argument_pointer_double
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_compute_argument_name_type), intent(in) :: &
      compute_argument_name
    integer(c_int), intent(in) :: extent1
    real(c_double), intent(out), pointer :: double1(:)
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = get_argument_pointer_double(model_compute_arguments, &
      compute_argument_name, p)
    if (c_associated(p)) then
      call c_f_pointer(p, double1, [extent1])
    else
      nullify(double1)
    end if
  end subroutine kim_model_compute_arguments_get_argument_pointer_double1

  recursive subroutine &
    kim_model_compute_arguments_get_argument_pointer_double2( &
    model_compute_arguments_handle, compute_argument_name, extent1, extent2, &
    double2, ierr)
    use kim_compute_argument_name_module, only : kim_compute_argument_name_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function get_argument_pointer_double( &
        model_compute_arguments, compute_argument_name, ptr) &
        bind(c, name="KIM_ModelComputeArguments_GetArgumentPointerDouble")
        use, intrinsic :: iso_c_binding
        use kim_compute_argument_name_module, only : &
          kim_compute_argument_name_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_compute_argument_name_type), intent(in), value :: &
          compute_argument_name
        type(c_ptr), intent(out) :: ptr
      end function get_argument_pointer_double
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_compute_argument_name_type), intent(in) :: &
      compute_argument_name
    integer(c_int), intent(in) :: extent1
    integer(c_int), intent(in) :: extent2
    real(c_double), intent(out), pointer :: double2(:,:)
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = get_argument_pointer_double(model_compute_arguments, &
      compute_argument_name, p)
    if (c_associated(p)) then
      call c_f_pointer(p, double2, [extent1, extent2])
    else
      nullify(double2)
    end if
  end subroutine kim_model_compute_arguments_get_argument_pointer_double2

  recursive subroutine kim_model_compute_arguments_is_callback_present( &
    model_compute_arguments_handle, compute_callback_name, present, ierr)
    use kim_compute_callback_name_module, only : kim_compute_callback_name_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      integer(c_int) recursive function is_callback_present( &
        model_compute_arguments, compute_callback_name, present) &
        bind(c, name="KIM_ModelComputeArguments_IsCallbackPresent")
        use, intrinsic :: iso_c_binding
        use kim_compute_callback_name_module, only : &
          kim_compute_callback_name_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_compute_callback_name_type), intent(in), value :: &
          compute_callback_name
        integer(c_int), intent(out) :: present
      end function is_callback_present
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_compute_callback_name_type), intent(in) :: &
      compute_callback_name
    integer(c_int), intent(out) :: present
    integer(c_int), intent(out) :: ierr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    ierr = is_callback_present(model_compute_arguments, compute_callback_name, &
      present)
  end subroutine kim_model_compute_arguments_is_callback_present

  recursive subroutine kim_model_compute_arguments_set_model_buffer_pointer( &
    model_compute_arguments_handle, ptr)
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      recursive subroutine set_model_buffer_pointer(model_compute_arguments, &
        ptr) bind(c, name="KIM_ModelComputeArguments_SetModelBufferPointer")
        use, intrinsic :: iso_c_binding
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(c_ptr), intent(in), value :: ptr
      end subroutine set_model_buffer_pointer
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(c_ptr), intent(in) :: ptr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    call set_model_buffer_pointer(model_compute_arguments, ptr)
  end subroutine kim_model_compute_arguments_set_model_buffer_pointer

  recursive subroutine kim_model_compute_arguments_get_model_buffer_pointer( &
    model_compute_arguments_handle, ptr)
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      recursive subroutine get_model_buffer_pointer(model_compute_arguments, &
        ptr) bind(c, name="KIM_ModelComputeArguments_GetModelBufferPointer")
        use, intrinsic :: iso_c_binding
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(c_ptr), intent(out) :: ptr
      end subroutine get_model_buffer_pointer
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(c_ptr), intent(out) :: ptr
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    call get_model_buffer_pointer(model_compute_arguments, ptr)
  end subroutine kim_model_compute_arguments_get_model_buffer_pointer

  recursive subroutine kim_model_compute_arguments_log_entry( &
    model_compute_arguments_handle, log_verbosity, message)
    use kim_log_verbosity_module, only : kim_log_verbosity_type
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      recursive subroutine log_entry(model_compute_arguments, log_verbosity, &
        message, line_number, file_name) bind(c, &
        name="KIM_ModelComputeArguments_LogEntry")
        use, intrinsic :: iso_c_binding
        use kim_log_verbosity_module, only : kim_log_verbosity_type
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
        type(kim_log_verbosity_type), intent(in), value :: log_verbosity
        character(c_char), intent(in) :: message(*)
        integer(c_int), intent(in), value :: line_number
        character(c_char), intent(in) :: file_name(*)
      end subroutine log_entry
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    type(kim_log_verbosity_type), intent(in) :: log_verbosity
    character(len=*, kind=c_char), intent(in) :: message
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    call log_entry(model_compute_arguments, log_verbosity, &
      trim(message)//c_null_char, 0, ""//c_null_char)
  end subroutine kim_model_compute_arguments_log_entry

  recursive subroutine kim_model_compute_arguments_to_string( &
    model_compute_arguments_handle, string)
    use kim_convert_string_module, only : kim_convert_c_char_ptr_to_string
    use kim_interoperable_types_module, only : kim_model_compute_arguments_type
    implicit none
    interface
      type(c_ptr) recursive function model_compute_string( &
        model_compute_arguments) &
        bind(c, name="KIM_ModelComputeArguments_ToString")
        use, intrinsic :: iso_c_binding
        use kim_interoperable_types_module, only : &
          kim_model_compute_arguments_type
        implicit none
        type(kim_model_compute_arguments_type), intent(in) :: &
          model_compute_arguments
      end function model_compute_string
    end interface
    type(kim_model_compute_arguments_handle_type), intent(in) :: &
      model_compute_arguments_handle
    character(len=*, kind=c_char), intent(out) :: string
    type(kim_model_compute_arguments_type), pointer :: model_compute_arguments

    type(c_ptr) :: p

    call c_f_pointer(model_compute_arguments_handle%p, model_compute_arguments)
    p = model_compute_string(model_compute_arguments)
    call kim_convert_c_char_ptr_to_string(p, string)
  end subroutine kim_model_compute_arguments_to_string
end module kim_model_compute_arguments_module