SIAFD_diagnostics.cc

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// Copyright (C) 2010, 2011, 2012, 2013, 2014, 2015, 2016, 2017, 2018, 2020, 2021, 2022, 2023 Constantine Khroulev
//
// This file is part of PISM.
//
// PISM is free software; you can redistribute it and/or modify it under the
// terms of the GNU General Public License as published by the Free Software
// Foundation; either version 3 of the License, or (at your option) any later
// version.
//
// PISM is distributed in the hope that it will be useful, but WITHOUT ANY
// WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS
// FOR A PARTICULAR PURPOSE.  See the GNU General Public License for more
// details.
//
// You should have received a copy of the GNU General Public License
// along with PISM; if not, write to the Free Software
// Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA  02110-1301  USA
 
#include "pism/stressbalance/sia/SIAFD_diagnostics.hh"
#include "pism/stressbalance/sia/BedSmoother.hh"
#include "pism/util/Vars.hh"
#include "pism/util/array/CellType.hh"
 
namespace pism {
namespace stressbalance {
 
DiagnosticList SIAFD::diagnostics_impl() const {
  DiagnosticList result = {
    {"diffusivity",           Diagnostic::Ptr(new SIAFD_diffusivity(this))},
    {"diffusivity_staggered", Diagnostic::Ptr(new SIAFD_diffusivity_staggered(this))},
    {"schoofs_theta",         Diagnostic::Ptr(new SIAFD_schoofs_theta(this))},
    {"thksmooth",             Diagnostic::Ptr(new SIAFD_thksmooth(this))},
    {"topgsmooth",            Diagnostic::Ptr(new SIAFD_topgsmooth(this))},
    {"h_x",                   Diagnostic::Ptr(new SIAFD_h_x(this))},
    {"h_y",                   Diagnostic::Ptr(new SIAFD_h_y(this))}
  };
  return result;
}
DiagnosticList SIAFD::diagnostics_impl() const  {…}
 
SIAFD_schoofs_theta::SIAFD_schoofs_theta(const SIAFD *m) : Diag<SIAFD>(m) {
  m_vars = { { m_sys, "schoofs_theta" } };
 
  m_vars[0]
      .long_name("multiplier 'theta' in Schoof's (2003) theory of bed roughness in SIA")
      .units("1");
  m_vars[0]["valid_range"] = { 0.0, 1.0 };
}
SIAFD_schoofs_theta::SIAFD_schoofs_theta(const SIAFD *m) : Diag<SIAFD>(m) {…}
 
std::shared_ptr<array::Array> SIAFD_schoofs_theta::compute_impl() const {
  const array::Scalar *surface = m_grid->variables().get_2d_scalar("surface_altitude");
  auto result                  = allocate<array::Scalar>("schoofs_theta");
 
  model->bed_smoother().theta(*surface, *result);
 
  return result;
}
std::shared_ptr<array::Array> SIAFD_schoofs_theta::compute_impl() const  {…}
 
 
SIAFD_topgsmooth::SIAFD_topgsmooth(const SIAFD *m) : Diag<SIAFD>(m) {
  m_vars = { { m_sys, "topgsmooth" } };
  m_vars[0]
      .long_name("smoothed bed elevation in Schoof's (2003) theory of bed roughness in SIA")
      .units("m");
}
SIAFD_topgsmooth::SIAFD_topgsmooth(const SIAFD *m) : Diag<SIAFD>(m) {…}
 
std::shared_ptr<array::Array> SIAFD_topgsmooth::compute_impl() const {
  auto result = allocate<array::Scalar>("topgsmooth");
 
  result->copy_from(model->bed_smoother().smoothed_bed());
 
  return result;
}
std::shared_ptr<array::Array> SIAFD_topgsmooth::compute_impl() const  {…}
 
SIAFD_thksmooth::SIAFD_thksmooth(const SIAFD *m)
  : Diag<SIAFD>(m) {
 
  m_vars = { { m_sys, "thksmooth" } };
  m_vars[0]
      .long_name(
          "thickness relative to smoothed bed elevation in Schoof's (2003) theory of bed roughness in SIA")
      .units("m");
}
SIAFD_thksmooth::SIAFD_thksmooth(const SIAFD *m) {…}
 
std::shared_ptr<array::Array> SIAFD_thksmooth::compute_impl() const {
 
  const auto &surface   = *m_grid->variables().get_2d_scalar("surface_altitude");
  const auto &thickness = *m_grid->variables().get_2d_scalar("land_ice_thickness");
 
  array::CellType2 cell_type(m_grid, "cell_type");
  {
    const auto &mask = *m_grid->variables().get_2d_cell_type("mask");
    cell_type.copy_from(mask);
  }
 
  auto result = allocate<array::Scalar>("thksmooth");
 
  model->bed_smoother().smoothed_thk(surface, thickness, cell_type,
                                     *result);
  return result;
}
std::shared_ptr<array::Array> SIAFD_thksmooth::compute_impl() const  {…}
 
 
 
SIAFD_diffusivity::SIAFD_diffusivity(const SIAFD *m)
  : Diag<SIAFD>(m) {
 
  m_vars = { { m_sys, "diffusivity" } };
  m_vars[0].long_name("diffusivity of SIA mass continuity equation").units("m^2 s^-1");
}
SIAFD_diffusivity::SIAFD_diffusivity(const SIAFD *m) {…}
 
std::shared_ptr<array::Array> SIAFD_diffusivity::compute_impl() const {
  auto result = allocate<array::Scalar>("diffusivity");
 
  array::CellType1 cell_type(m_grid, "cell_type");
  {
    const auto &mask = *m_grid->variables().get_2d_cell_type("mask");
    cell_type.copy_from(mask);
  }
  bool include_floating_ice = true;
  staggered_to_regular(cell_type, model->diffusivity(), include_floating_ice, *result);
 
  return result;
}
std::shared_ptr<array::Array> SIAFD_diffusivity::compute_impl() const  {…}
 
SIAFD_diffusivity_staggered::SIAFD_diffusivity_staggered(const SIAFD *m)
  : Diag<SIAFD>(m) {
 
  m_vars = { { m_sys, "diffusivity_i" }, { m_sys, "diffusivity_j" } };
  m_vars[0]
      .long_name("diffusivity of SIA mass continuity equation on the staggered grid (i-offset)")
      .units("m^2 s^-1");
  m_vars[1]
      .long_name("diffusivity of SIA mass continuity equation on the staggered grid (j-offset)")
      .units("m^2 s^-1");
}
SIAFD_diffusivity_staggered::SIAFD_diffusivity_staggered(const SIAFD *m) {…}
 
static void copy_staggered_vec(const array::Staggered &input, array::Staggered &output) {
  auto grid = output.grid();
 
  array::AccessScope list{ &input, &output };
 
  for (auto p = grid->points(); p; p.next()) {
    const int i = p.i(), j = p.j();
 
    output(i, j, 0) = input(i, j, 0);
    output(i, j, 1) = input(i, j, 1);
  }
}
static void copy_staggered_vec(const array::Staggered &input, array::Staggered &output) {…}
 
std::shared_ptr<array::Array> SIAFD_diffusivity_staggered::compute_impl() const {
  auto result = allocate<array::Staggered>("diffusivity");
 
  copy_staggered_vec(model->diffusivity(), *result);
 
  return result;
}
std::shared_ptr<array::Array> SIAFD_diffusivity_staggered::compute_impl() const  {…}
 
SIAFD_h_x::SIAFD_h_x(const SIAFD *m)
  : Diag<SIAFD>(m) {
 
  m_vars = { { m_sys, "h_x_i" }, { m_sys, "h_x_j" } };
  m_vars[0].long_name("the x-component of the surface gradient, i-offset").units("1");
  m_vars[1].long_name("the x-component of the surface gradient, j-offset").units("1");
}
SIAFD_h_x::SIAFD_h_x(const SIAFD *m) {…}
 
std::shared_ptr<array::Array> SIAFD_h_x::compute_impl() const {
  auto result = allocate<array::Staggered>("h_x");
 
  copy_staggered_vec(model->surface_gradient_x(), *result);
 
  return result;
}
std::shared_ptr<array::Array> SIAFD_h_x::compute_impl() const  {…}
 
SIAFD_h_y::SIAFD_h_y(const SIAFD *m)
  : Diag<SIAFD>(m) {
 
  m_vars = { { m_sys, "h_y_i" }, { m_sys, "h_y_j" } };
  m_vars[0].long_name("the y-component of the surface gradient, i-offset").units("1");
  m_vars[1].long_name("the y-component of the surface gradient, j-offset").units("1");
}
SIAFD_h_y::SIAFD_h_y(const SIAFD *m) {…}
 
std::shared_ptr<array::Array> SIAFD_h_y::compute_impl() const {
 
  auto result = allocate<array::Staggered>("h_y");
 
  copy_staggered_vec(model->surface_gradient_y(), *result);
 
  return result;
}
std::shared_ptr<array::Array> SIAFD_h_y::compute_impl() const  {…}
 
} // end of namespace stressbalance
} // end of namespace pism