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FieldProps.hpp
/*
Copyright 2019 Equinor ASA.
This file is part of the Open Porous Media project (OPM).
OPM 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.
OPM 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
OPM. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef FIELDPROPS_HPP
#define FIELDPROPS_HPP
#include <opm/common/utility/OpmInputError.hpp>
#include <opm/input/eclipse/EclipseState/Grid/Box.hpp>
#include <opm/input/eclipse/EclipseState/Grid/FieldData.hpp>
#include <opm/input/eclipse/EclipseState/Grid/Keywords.hpp>
#include <opm/input/eclipse/EclipseState/Grid/SatfuncPropertyInitializers.hpp>
#include <opm/input/eclipse/EclipseState/Grid/TranCalculator.hpp>
#include <opm/input/eclipse/EclipseState/Runspec.hpp>
#include <opm/input/eclipse/EclipseState/Tables/TableManager.hpp>
#include <opm/input/eclipse/Units/UnitSystem.hpp>
#include <opm/input/eclipse/Deck/DeckSection.hpp>
#include <opm/input/eclipse/Deck/value_status.hpp>
#include <cstddef>
#include <limits>
#include <map>
#include <memory>
#include <optional>
#include <set>
#include <stdexcept>
#include <string>
#include <string_view>
#include <type_traits>
#include <unordered_map>
#include <unordered_set>
#include <utility>
#include <vector>
namespace Opm {
class Deck;
class EclipseGrid;
class NumericalAquifers;
namespace Fieldprops
{
namespace keywords {
/*
Regarding global keywords
=========================
It turns out that when the option 'ALL' is used for the PINCH keyword we
require the MULTZ keyword specified for all cells, also the inactive cells.
The premise for the FieldProps implementation has all the way been that only
the active cells should be stored.
In order to support the ALL option of the PINCH keyword we have bolted on a
limited support for global storage. By setting .global = true in the
keyword_info describing the keyword you get:
1. Normal deck assignment like
MULTZ
..... /
2. Scalar operations like EQUALS and MULTIPLY.
These operations also support the full details of the BOX behavior.
The following operations do not work
------------------------------------
1. Operations involving multiple keywords like
COPY
MULTX MULTZ /
/
this also includes the OPERATE which involves multiple keywords for some
of its operations.
2. All region operatins like EQUALREG and MULTREG.
The operations which are not properly implemented will be intercepted and a
std::logic_error() exception will be thrown.
*/
inline bool isFipxxx(const std::string& keyword) {
// FIPxxxx can be any keyword, e.g. FIPREG or FIPXYZ that has the pattern "FIP.+"
// However, it can not be FIPOWG as that is an actual keyword.
if (keyword.size() < 4 || keyword == "FIPOWG") {
return false;
}
return keyword[0] == 'F' && keyword[1] == 'I' && keyword[2] == 'P';
}
/*
The aliased_keywords map defines aliases for other keywords. The FieldProps
objects will translate those keywords before further processing. The aliases
will also be exposed by the FieldPropsManager object.
However, the following methods of FieldProps do not fully support aliases:
- FieldProps::keys() does not return the aliases.
- FieldProps::erase() and FieldProps::extract() do not support aliases. Using
them with an aliased keyword will also remove the alias.
Note that the aliases are also added to GRID::double_keywords.
The PERMR and PERMTHT keywords are aliases for PERMX and PERMY, respectively.
*/
namespace ALIAS {
static const std::unordered_map<std::string, std::string> aliased_keywords = {{"PERMR", "PERMX"},
{"PERMTHT", "PERMY"}};
}
namespace GRID {
static const std::unordered_map<std::string, keyword_info<double>> double_keywords = {{"DISPERC",keyword_info<double>{}.unit_string("Length")},
{"MINPVV", keyword_info<double>{}.init(0.0).unit_string("ReservoirVolume").global_kw(true)},
{"MULTPV", keyword_info<double>{}.init(1.0).mult(true)},
{"NTG", keyword_info<double>{}.init(1.0)},
{"PORO", keyword_info<double>{}.distribute_top(true)},
{"PERMX", keyword_info<double>{}.unit_string("Permeability").distribute_top(true).global_kw_until_edit()},
{"PERMY", keyword_info<double>{}.unit_string("Permeability").distribute_top(true).global_kw_until_edit()},
{"PERMZ", keyword_info<double>{}.unit_string("Permeability").distribute_top(true).global_kw_until_edit()},
{"PERMR", keyword_info<double>{}.unit_string("Permeability").distribute_top(true).global_kw_until_edit()},
{"PERMTHT", keyword_info<double>{}.unit_string("Permeability").distribute_top(true).global_kw_until_edit()},
{"TEMPI", keyword_info<double>{}.unit_string("Temperature")},
{"THCONR", keyword_info<double>{}.unit_string("Energy/AbsoluteTemperature*Length*Time")},
{"THCONSF", keyword_info<double>{}},
{"HEATCR", keyword_info<double>{}.unit_string("Energy/ReservoirVolume*AbsoluteTemperature")},
{"HEATCRT", keyword_info<double>{}.unit_string("Energy/ReservoirVolume*AbsoluteTemperature*AbsoluteTemperature")},
{"THCROCK", keyword_info<double>{}.unit_string("Energy/AbsoluteTemperature*Length*Time")},
{"THCOIL", keyword_info<double>{}.unit_string("Energy/AbsoluteTemperature*Length*Time")},
{"THCGAS", keyword_info<double>{}.unit_string("Energy/AbsoluteTemperature*Length*Time")},
{"THCWATER",keyword_info<double>{}.unit_string("Energy/AbsoluteTemperature*Length*Time")},
{"YMODULE", keyword_info<double>{}.unit_string("Ymodule")},
{"CSTRESS", keyword_info<double>{}.unit_string("1")},
{"PRATIO", keyword_info<double>{}.unit_string("1")},
{"BIOTCOEF", keyword_info<double>{}.unit_string("1")},
{"POELCOEF", keyword_info<double>{}.unit_string("1")},
{"THERMEXR", keyword_info<double>{}.unit_string("1/AbsoluteTemperature")},
{"THELCOEF", keyword_info<double>{}.unit_string("Pressure/AbsoluteTemperature")},
{"MULTX", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTX-", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTY", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTY-", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTZ", keyword_info<double>{}.init(1.0).mult(true).global_kw(true)},
{"MULTZ-", keyword_info<double>{}.init(1.0).mult(true).global_kw(true)}};
static const std::unordered_map<std::string, keyword_info<int>> int_keywords = {{"ACTNUM", keyword_info<int>{}.init(1)},
{"FLUXNUM", keyword_info<int>{}},
{"ISOLNUM", keyword_info<int>{}.init(1)},
{"MULTNUM", keyword_info<int>{}.init(1)},
{"OPERNUM", keyword_info<int>{}},
{"ROCKNUM", keyword_info<int>{}}};
}
namespace EDIT {
/*
The TRANX, TRANY and TRANZ properties are handled very differently from the
other properties. It is important that these fields are not entered into the
double_keywords list of the EDIT section, that way we risk silent failures
due to the special treatment of the TRAN fields.
*/
static const std::unordered_map<std::string, keyword_info<double>> double_keywords = {{"MULTPV", keyword_info<double>{}.init(1.0).mult(true)},
{"PORV", keyword_info<double>{}.unit_string("ReservoirVolume")},
{"MULTX", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTX-", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTY", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTY-", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTZ", keyword_info<double>{}.init(1.0).mult(true).global_kw(true)},
{"MULTZ-", keyword_info<double>{}.init(1.0).mult(true).global_kw(true)}};
static const std::unordered_map<std::string, keyword_info<int>> int_keywords = {};
}
namespace PROPS {
static const std::unordered_map<std::string, keyword_info<double>> double_keywords = {{"SWATINIT", keyword_info<double>{}},
{"PCG", keyword_info<double>{}.unit_string("Pressure")},
{"IPCG", keyword_info<double>{}.unit_string("Pressure")},
{"PCW", keyword_info<double>{}.unit_string("Pressure")},
{"IPCW", keyword_info<double>{}.unit_string("Pressure")}};
static const std::unordered_map<std::string, keyword_info<int>> int_keywords = {};
#define dirfunc(base) base, base "X", base "X-", base "Y", base "Y-", base "Z", base "Z-"
static const std::set<std::string> satfunc = {"SWLPC", "ISWLPC", "SGLPC", "ISGLPC",
dirfunc("SGL"),
dirfunc("ISGL"),
dirfunc("SGU"),
dirfunc("ISGU"),
dirfunc("SWL"),
dirfunc("ISWL"),
dirfunc("SWU"),
dirfunc("ISWU"),
dirfunc("SGCR"),
dirfunc("ISGCR"),
dirfunc("SOWCR"),
dirfunc("ISOWCR"),
dirfunc("SOGCR"),
dirfunc("ISOGCR"),
dirfunc("SWCR"),
dirfunc("ISWCR"),
dirfunc("KRW"),
dirfunc("IKRW"),
dirfunc("KRWR"),
dirfunc("IKRWR"),
dirfunc("KRO"),
dirfunc("IKRO"),
dirfunc("KRORW"),
dirfunc("IKRORW"),
dirfunc("KRORG"),
dirfunc("IKRORG"),
dirfunc("KRG"),
dirfunc("IKRG"),
dirfunc("KRGR"),
dirfunc("IKRGR")};
#undef dirfunc
}
namespace REGIONS {
static const std::unordered_map<std::string, keyword_info<int>> int_keywords = {{"ENDNUM", keyword_info<int>{}.init(1)},
{"EOSNUM", keyword_info<int>{}.init(1)},
{"EQLNUM", keyword_info<int>{}.init(1)},
{"FIPNUM", keyword_info<int>{}.init(1)},
{"IMBNUM", keyword_info<int>{}.init(1)},
{"OPERNUM", keyword_info<int>{}},
{"STRESSEQUILNUM", keyword_info<int>{}.init(1)},
{"MISCNUM", keyword_info<int>{}},
{"MISCNUM", keyword_info<int>{}},
{"PVTNUM", keyword_info<int>{}.init(1)},
{"SATNUM", keyword_info<int>{}.init(1)},
{"LWSLTNUM", keyword_info<int>{}},
{"ROCKNUM", keyword_info<int>{}},
{"KRNUMX", keyword_info<int>{}},
{"KRNUMY", keyword_info<int>{}},
{"KRNUMZ", keyword_info<int>{}},
{"IMBNUMX", keyword_info<int>{}},
{"IMBNUMY", keyword_info<int>{}},
{"IMBNUMZ", keyword_info<int>{}},
};
}
namespace SOLUTION {
static const std::unordered_map<std::string, keyword_info<double>> double_keywords = {{"PRESSURE", keyword_info<double>{}.unit_string("Pressure")},
{"SPOLY", keyword_info<double>{}.unit_string("Concentration")},
{"SPOLYMW", keyword_info<double>{}},
{"SSOL", keyword_info<double>{}},
{"SWAT", keyword_info<double>{}},
{"SGAS", keyword_info<double>{}},
{"SMICR", keyword_info<double>{}.unit_string("Concentration")},
{"SOXYG", keyword_info<double>{}.unit_string("Concentration")},
{"SUREA", keyword_info<double>{}.unit_string("Concentration")},
{"SBIOF", keyword_info<double>{}},
{"SCALC", keyword_info<double>{}},
{"SALTP", keyword_info<double>{}},
{"SALT", keyword_info<double>{}.unit_string("Concentration")},
{"TEMPI", keyword_info<double>{}.unit_string("Temperature")},
{"RS", keyword_info<double>{}.unit_string("GasDissolutionFactor")},
{"RSW", keyword_info<double>{}.unit_string("GasDissolutionFactor")},
{"RV", keyword_info<double>{}.unit_string("OilDissolutionFactor")},
{"RVW", keyword_info<double>{}.unit_string("OilDissolutionFactor")}
};
static const std::unordered_map<std::string, keyword_info<double>> composition_keywords = {{"XMF", keyword_info<double>{}},
{"YMF", keyword_info<double>{}},
{"ZMF", keyword_info<double>{}},
};
}
namespace SCHEDULE {
static const std::unordered_map<std::string, keyword_info<double>> double_keywords = {{"MULTX", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTX-", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTY", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTY-", keyword_info<double>{}.init(1.0).mult(true)},
{"MULTZ", keyword_info<double>{}.init(1.0).mult(true).global_kw(true)},
{"MULTZ-", keyword_info<double>{}.init(1.0).mult(true).global_kw(true)}};
static const std::unordered_map<std::string, keyword_info<int>> int_keywords = {{"ROCKNUM", keyword_info<int>{}}};
}
template <typename T>
keyword_info<T> global_kw_info(const std::string& name, bool allow_unsupported = false);
bool is_oper_keyword(const std::string& name);
} // end namespace keywords
} // end namespace Fieldprops
class FieldProps {
public:
using ScalarOperation = Fieldprops::ScalarOperation;
struct MultregpRecord {
int region_value;
double multiplier;
std::string region_name;
MultregpRecord(int rv, double m, const std::string& rn) :
region_value(rv),
multiplier(m),
region_name(rn)
{}
bool operator==(const MultregpRecord& other) const {
return this->region_value == other.region_value &&
this->multiplier == other.multiplier &&
this->region_name == other.region_name;
}
};
enum class GetStatus {
OK = 1,
INVALID_DATA = 2,
MISSING_KEYWORD = 3,
NOT_SUPPPORTED_KEYWORD = 4,
};
template<typename T>
struct FieldDataManager
{
const std::string& keyword;
GetStatus status;
const Fieldprops::FieldData<T>* data_ptr;
FieldDataManager(const std::string& k, GetStatus s, const Fieldprops::FieldData<T>* d)
: keyword(k)
, status(s)
, data_ptr(d)
{}
void verify_status(const KeywordLocation& loc,
const std::string& descr,
const std::string& operation) const
{
switch (this->status) {
case FieldProps::GetStatus::OK:
return;
case FieldProps::GetStatus::INVALID_DATA:
throw OpmInputError {
descr + " " + this->keyword +
" is not fully initialised for " + operation,
loc
};
case FieldProps::GetStatus::MISSING_KEYWORD:
throw OpmInputError {
descr + " " + this->keyword +
" does not exist in input deck for " + operation,
loc
};
case FieldProps::GetStatus::NOT_SUPPPORTED_KEYWORD:
throw OpmInputError {
descr + " " + this->keyword +
" is not supported for " + operation,
loc
};
}
}
void verify_status() const
{
switch (status) {
case FieldProps::GetStatus::OK:
return;
case FieldProps::GetStatus::INVALID_DATA:
throw std::runtime_error("The keyword: " + keyword + " has not been fully initialized");
case FieldProps::GetStatus::MISSING_KEYWORD:
throw std::out_of_range("No such keyword in deck: " + keyword);
case FieldProps::GetStatus::NOT_SUPPPORTED_KEYWORD:
throw std::logic_error("The keyword " + keyword + " is not supported");
}
}
const std::vector<T>* ptr() const
{
return (this->data_ptr != nullptr)
? &this->data_ptr->data
: nullptr;
}
const std::vector<T>& data() const
{
this->verify_status();
return this->data_ptr->data;
}
const Fieldprops::FieldData<T>& field_data() const
{
this->verify_status();
return *this->data_ptr;
}
bool valid() const
{
return this->status == GetStatus::OK;
}
};
enum TryGetFlags : unsigned int {
AllowUnsupported = (1u << 0),
MustExist = (1u << 1),
};
FieldProps(const Deck& deck,
const Phases& phases,
EclipseGrid& grid,
const TableManager& table_arg,
const std::size_t ncomps);
FieldProps(const Deck& deck, const EclipseGrid& grid);
void reset_actnum(const std::vector<int>& actnum);
void prune_global_for_schedule_run();
void apply_numerical_aquifers(const NumericalAquifers& numerical_aquifers);
const std::string& default_region() const;
std::vector<int> actnum();
const std::vector<int>& actnumRaw() const;
template <typename T>
static bool supported(const std::string& keyword);
template <typename T>
bool has(const std::string& keyword) const;
template <typename T>
std::vector<std::string> keys() const;
template <typename T>
FieldDataManager<T>
try_get(const std::string& keyword, const unsigned int flags = 0u)
{
const auto allow_unsupported =
(flags & TryGetFlags::AllowUnsupported) != 0u;
if (!allow_unsupported && !FieldProps::template supported<T>(keyword)) {
return { keyword, GetStatus::NOT_SUPPPORTED_KEYWORD, nullptr };
}
const auto has0 = this->template has<T>(keyword);
if (!has0 && ((flags & TryGetFlags::MustExist) != 0)) {
// Client requested a property which must exist, e.g., as a
// source array for a COPY operation, but the property has not
// (yet) been defined in the run's input.
return { keyword, GetStatus::MISSING_KEYWORD, nullptr };
}
const auto& field_data = this->template
init_get<T>(keyword, std::is_same_v<T, double> && allow_unsupported);
if (field_data.valid() || allow_unsupported) {
// Note: FieldDataManager depends on init_get<>() producing a
// long-lived FieldData instance.
return { keyword, GetStatus::OK, &field_data };
}
if (! has0) {
// Client requested a property which did not exist and which
// could not be created from a default description.
this->template erase<T>(keyword);
return { keyword, GetStatus::MISSING_KEYWORD, nullptr };
}
// If we get here then the property exists but has not been fully
// defined yet.
return { keyword, GetStatus::INVALID_DATA, nullptr };
}
template <typename T>
const std::vector<T>& get(const std::string& keyword)
{
return this->template try_get<T>(keyword).data();
}
template <typename T>
std::vector<T> get_global(const std::string& keyword)
{
const auto managed_field_data = this->template try_get<T>(keyword);
const auto& field_data = managed_field_data.field_data();
const auto& kw_info = Fieldprops::keywords::
template global_kw_info<T>(keyword);
return kw_info.global
? *field_data.global_data
: this->global_copy(field_data.data, kw_info.scalar_init);
}
template <typename T>
std::vector<T> get_copy(const std::string& keyword, bool global)
{
const auto has0 = this->template has<T>(keyword);
// Recall: FieldDataManager::field_data() will throw various
// exception types if the 'status' is anything other than 'OK'.
//
// Get_copy() depends on this behaviour to not proceed to extracting
// values in such cases. In other words, get_copy() uses exceptions
// for control flow, and we cannot move this try_get() call into the
// 'has0' branch even though the actual 'field_data' object returned
// from try_get() is only needed/used there.
const auto& field_data = this->template try_get<T>(keyword).field_data();
if (has0) {
return this->get_copy(field_data.data, field_data.kw_info.scalar_init, global);
}
const auto initial_value = Fieldprops::keywords::
template global_kw_info<T>(keyword).scalar_init;
return this->get_copy(this->template extract<T>(keyword), initial_value, global);
}
template <typename T>
std::vector<bool> defaulted(const std::string& keyword)
{
const auto& field = this->template init_get<T>(keyword);
std::vector<bool> def(field.numCells());
for (std::size_t i = 0; i < def.size(); ++i) {
def[i] = value::defaulted(field.value_status[i]);
}
return def;
}
template <typename T>
std::vector<T> global_copy(const std::vector<T>& data,
const std::optional<T>& default_value) const
{
const T fill_value = default_value.has_value() ? *default_value : 0;
std::vector<T> global_data(this->global_size, fill_value);
std::size_t i = 0;
for (std::size_t g = 0; g < this->global_size; g++) {
if (this->m_actnum[g]) {
global_data[g] = data[i];
++i;
}
}
return global_data;
}
std::size_t active_size;
std::size_t global_size;
void handle_schedule_keywords(const std::vector<DeckKeyword>& keywords);
bool tran_active(const std::string& keyword) const;
void apply_tran(const std::string& keyword, std::vector<double>& data);
void apply_tranz_global(const std::vector<size_t>& indices, std::vector<double>& data) const;
bool operator==(const FieldProps& other) const;
static bool rst_cmp(const FieldProps& full_arg, const FieldProps& rst_arg);
const std::unordered_map<std::string,Fieldprops::TranCalculator>& getTran() const
{
return tran;
}
std::vector<std::string> fip_regions() const;
void deleteMINPVV();
void set_active_indices(const std::vector<int>& indices);
private:
void processMULTREGP(const Deck& deck);
void scanGRIDSection(const GRIDSection& grid_section);
void scanGRIDSectionOnlyACTNUM(const GRIDSection& grid_section);
void scanEDITSection(const EDITSection& edit_section);
void scanPROPSSection(const PROPSSection& props_section);
void scanREGIONSSection(const REGIONSSection& regions_section);
void scanSOLUTIONSection(const SOLUTIONSection& solution_section, const std::size_t ncomps);
double getSIValue(const std::string& keyword, double raw_value) const;
double getSIValue(ScalarOperation op, const std::string& keyword, double raw_value) const;
template <typename T>
void erase(const std::string& keyword);
template <typename T>
std::vector<T> extract(const std::string& keyword);
template <typename T>
std::vector<T> get_copy(const std::vector<T>& x,
const std::optional<T>& initial_value,
const bool global) const
{
return (! global) ? x : this->global_copy(x, initial_value);
}
template <typename T>
std::vector<T> get_copy(std::vector<T>&& x,
const std::optional<T>& initial_value,
const bool global) const
{
return (! global) ? std::move(x) : this->global_copy(x, initial_value);
}
template <typename T>
void operate(const DeckRecord& record,
Fieldprops::FieldData<T>& target_data,
const Fieldprops::FieldData<T>& src_data,
const std::vector<Box::cell_index>& index_list,
const bool global = false);
template <typename T>
Fieldprops::FieldData<T>&
init_get(const std::string& keyword, bool allow_unsupported = false);
template <typename T>
Fieldprops::FieldData<T>&
init_get(const std::string& keyword,
const Fieldprops::keywords::keyword_info<T>& kw_info,
const bool multiplier_in_edit = false);
std::string region_name(const DeckItem& region_item) const;
std::pair<std::vector<Box::cell_index>,bool>
region_index(const std::string& region_name, int region_value);
void handle_OPERATE(const DeckKeyword& keyword, Box box);
void handle_operation(Section section, const DeckKeyword& keyword, Box box);
void handle_operateR(const DeckKeyword& keyword);
void handle_region_operation(const DeckKeyword& keyword);
void handle_COPY(const DeckKeyword& keyword, Box box, bool region);
void distribute_toplayer(Fieldprops::FieldData<double>& field_data,
const std::vector<double>& deck_data,
const Box& box);
void handle_keyword(Section section, const DeckKeyword& keyword, Box& box);
void handle_double_keyword(Section section,
const Fieldprops::keywords::keyword_info<double>& kw_info,
const DeckKeyword& keyword,
const std::string& keyword_name,
const Box& box);
void handle_double_keyword(Section section,
const Fieldprops::keywords::keyword_info<double>& kw_info,
const DeckKeyword& keyword,
const Box& box);
void handle_int_keyword(const Fieldprops::keywords::keyword_info<int>& kw_info,
const DeckKeyword& keyword,
const Box& box);
void init_satfunc(const std::string& keyword, Fieldprops::FieldData<double>& satfunc);
void init_porv(Fieldprops::FieldData<double>& porv);
void init_tempi(Fieldprops::FieldData<double>& tempi);
std::string canonical_fipreg_name(const std::string& fipreg);
const std::string& canonical_fipreg_name(const std::string& fipreg) const;
void apply_multipliers();
static constexpr std::string_view getMultiplierPrefix()
{
using namespace std::literals;
return "__MULT__"sv;
}
const UnitSystem unit_system;
std::size_t nx,ny,nz;
Phases m_phases;
SatFuncControls m_satfuncctrl;
std::vector<int> m_actnum;
std::unordered_map<int,int> m_active_index;
std::vector<double> cell_volume;
std::vector<double> cell_depth;
const std::string m_default_region;
const EclipseGrid * grid_ptr; // A bit undecided whether to properly use the grid or not ...
TableManager tables;
std::optional<satfunc::RawTableEndPoints> m_rtep;
std::vector<MultregpRecord> multregp;
std::unordered_map<std::string, Fieldprops::FieldData<int>> int_data;
std::unordered_map<std::string, Fieldprops::FieldData<double>> double_data;
std::unordered_map<std::string, std::string> fipreg_shortname_translation{};
std::unordered_map<std::string,Fieldprops::TranCalculator> tran;
std::unordered_map<std::string,Fieldprops::keywords::keyword_info<double>> multiplier_kw_infos_;
};
}
#endif
Opm::Deck
Definition Deck.hpp:46
Opm::EclipseGrid
About cell information and dimension: The actual grid information is held in a pointer to an ERT ecl_...
Definition EclipseGrid.hpp:61
Opm::FieldProps::try_get
FieldDataManager< T > try_get(const std::string &keyword, const unsigned int flags=0u)
Request read-only property array from internal cache.
Definition FieldProps.hpp:569
Opm::FieldProps::TryGetFlags
TryGetFlags
Options to restrict or relax a try_get() request.
Definition FieldProps.hpp:516
Opm::FieldProps::AllowUnsupported
@ AllowUnsupported
Whether or not to permit looking up property names of unmatching types.
Definition FieldProps.hpp:519
Opm::FieldProps::MustExist
@ MustExist
Whether or not the property must already exist.
Definition FieldProps.hpp:522
Opm::FieldProps::GetStatus
GetStatus
Property array existence status.
Definition FieldProps.hpp:343
Opm::FieldProps::GetStatus::NOT_SUPPPORTED_KEYWORD
@ NOT_SUPPPORTED_KEYWORD
Named property is not known to the internal handling mechanism.
Definition FieldProps.hpp:371
Opm::FieldProps::GetStatus::MISSING_KEYWORD
@ MISSING_KEYWORD
Property has not yet been defined in the input file.
Definition FieldProps.hpp:360
Opm::FieldProps::GetStatus::OK
@ OK
Property exists and its property data is fully defined.
Definition FieldProps.hpp:345
Opm::FieldProps::GetStatus::INVALID_DATA
@ INVALID_DATA
Property array has not been fully initialised.
Definition FieldProps.hpp:354
Opm::FieldProps::FieldProps
FieldProps(const Deck &deck, const Phases &phases, EclipseGrid &grid, const TableManager &table_arg, const std::size_t ncomps)
Normal constructor for FieldProps.
Definition FieldProps.cpp:837
Opm::KeywordLocation
Definition KeywordLocation.hpp:27
Opm::NumericalAquifers
Definition NumericalAquifers.hpp:38
Opm::OpmInputError
Definition OpmInputError.hpp:49
Opm::Phases
Definition Runspec.hpp:46
Opm::TableManager
Definition TableManager.hpp:66
Opm
This class implements a small container which holds the transmissibility mulitpliers for all the face...
Definition Exceptions.hpp:30
Opm::has
bool has(const std::string &name) const
This method checks if there is something with name name in the parameter gropup.
Opm::get
T get(const std::string &name) const
This method is used to read a parameter from the parameter group.
Opm::FieldProps::FieldDataManager::FieldDataManager
FieldDataManager(const std::string &k, GetStatus s, const Fieldprops::FieldData< T > *d)
Constructor.
Definition FieldProps.hpp:394
Opm::FieldProps::FieldDataManager::status
GetStatus status
Request status.
Definition FieldProps.hpp:384
Opm::FieldProps::FieldDataManager::field_data
const Fieldprops::FieldData< T > & field_data() const
Read-only access to contained FieldData object.
Definition FieldProps.hpp:489
Opm::FieldProps::FieldDataManager::ptr
const std::vector< T > * ptr() const
Access underlying property data elements.
Definition FieldProps.hpp:468
Opm::FieldProps::FieldDataManager::data_ptr
const Fieldprops::FieldData< T > * data_ptr
Property data.
Definition FieldProps.hpp:387
Opm::FieldProps::FieldDataManager::verify_status
void verify_status(const KeywordLocation &loc, const std::string &descr, const std::string &operation) const
Validate result of.
Definition FieldProps.hpp:412
Opm::FieldProps::FieldDataManager::verify_status
void verify_status() const
Validate result of.
Definition FieldProps.hpp:448
Opm::FieldProps::FieldDataManager::valid
bool valid() const
Property validity predicate.
Definition FieldProps.hpp:499
Opm::FieldProps::FieldDataManager::data
const std::vector< T > & data() const
Access underlying property data elements.
Definition FieldProps.hpp:479
Opm::FieldProps::FieldDataManager::keyword
const std::string & keyword
Property name.
Definition FieldProps.hpp:381
Opm::Fieldprops::FieldData
Definition FieldData.hpp:72
Opm::Fieldprops::keywords::keyword_info
Definition Keywords.hpp:31