MOved satfunc initializers to separate file.

This commit is contained in:
Joakim Hove
2015-03-31 11:56:33 +02:00
parent 819e92965f
commit 2d08d78257
4 changed files with 448 additions and 400 deletions

View File

@@ -0,0 +1,445 @@
/*
Copyright 2014 Andreas Lauser
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 ECLIPSE_SATFUNCPROPERTY_INITIALIZERS_HPP
#define ECLIPSE_SATFUNCPROPERTY_INITIALIZERS_HPP
#include <vector>
#include <string>
#include <exception>
#include <memory>
#include <limits>
#include <algorithm>
#include <cmath>
#include <cassert>
#include <opm/parser/eclipse/EclipseState/Tables/SwofTable.hpp>
#include <opm/parser/eclipse/EclipseState/Tables/SgofTable.hpp>
#include <opm/parser/eclipse/EclipseState/Grid/GridPropertyInitializers.hpp>
namespace Opm {
// forward definitions
class Deck;
class EclipseState;
class EnptvdTable;
class ImptvdTable;
template <class EclipseState=Opm::EclipseState,
class Deck=Opm::Deck>
class EndpointInitializer
: public GridPropertyBaseInitializer<double>
{
public:
EndpointInitializer(const Deck& deck, const EclipseState& eclipseState)
: m_deck(deck)
, m_eclipseState(eclipseState)
{ }
/*
See the "Saturation Functions" chapter in the Eclipse Technical
Description; there are several alternative families of keywords
which can be used to enter relperm and capillary pressure
tables.
*/
void apply(std::vector<double>& values,
const std::string& propertyName) const
{
auto eclipseGrid = m_eclipseState.getEclipseGrid();
auto tabdims = m_eclipseState.getTabdims();
int numSatTables = tabdims->getNumSatTables();
const std::vector<int>& satnumData = m_eclipseState.getIntGridProperty("SATNUM")->getData();
const std::vector<int>& imbnumData = m_eclipseState.getIntGridProperty("IMBNUM")->getData();
const std::vector<int>& endnumData = m_eclipseState.getIntGridProperty("ENDNUM")->getData();
assert(satnumData.size() == values.size());
assert(imbnumData.size() == values.size());
findSaturationEndpoints( );
findCriticalPoints( );
// acctually assign the defaults. if the ENPVD keyword was specified in the deck,
// this currently cannot be done because we would need the Z-coordinate of the
// cell and we would need to know how the simulator wants to interpolate between
// sampling points. Both of these are outside the scope of opm-parser, so we just
// assign a NaN in this case...
bool useEnptvd = m_deck.hasKeyword("ENPTVD");
bool useImptvd = m_deck.hasKeyword("IMPTVD");
const auto& enptvdTables = m_eclipseState.getEnptvdTables();
const auto& imptvdTables = m_eclipseState.getImptvdTables();
for (size_t cellIdx = 0; cellIdx < satnumData.size(); ++cellIdx) {
int satTableIdx = satnumData[cellIdx] - 1;
int imbTableIdx = imbnumData[cellIdx] - 1;
int endNum = endnumData[cellIdx] - 1;
double cellDepth = std::get<2>(eclipseGrid->getCellCenter(cellIdx));
assert(0 <= satTableIdx && satTableIdx < numSatTables);
assert(0 <= imbTableIdx && imbTableIdx < numSatTables);
// the SWL keyword family
if (propertyName.find("SWL") == 0)
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SWCO",
cellDepth,
m_minWaterSat[satTableIdx]);
else if (propertyName.find("ISWL") == 0)
values[cellIdx] = selectValue(imptvdTables,
(useImptvd && endNum >= 0) ? endNum : -1,
"SWCO",
cellDepth,
m_minWaterSat[imbTableIdx]);
// the SGU keyword family
else if (propertyName.find("SGU") == 0)
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SGMAX",
cellDepth,
m_maxGasSat[satTableIdx]);
else if (propertyName.find("ISGU") == 0)
values[cellIdx] = selectValue(imptvdTables,
(useImptvd && endNum >= 0) ? endNum : -1,
"SGMAX",
cellDepth,
m_maxGasSat[imbTableIdx]);
// the SWU keyword family
else if (propertyName.find("SWU") == 0)
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SWMAX",
cellDepth,
m_maxWaterSat[satTableIdx],
/*useOneMinusTableValue=*/true);
else if (propertyName.find("ISWU") == 0)
values[cellIdx] = selectValue(imptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SWMAX",
cellDepth,
m_maxWaterSat[imbTableIdx],
/*useOneMinusTableValue=*/true);
// the SGCR keyword family
else if (propertyName.find("SGCR") == 0)
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SGCRIT",
cellDepth,
m_criticalGasSat[satTableIdx]);
else if (propertyName.find("ISGCR") == 0)
values[cellIdx] = selectValue(imptvdTables,
(useImptvd && endNum >= 0) ? endNum : -1,
"SGCRIT",
cellDepth,
m_criticalGasSat[imbTableIdx]);
// the SWCR keyword family
else if (propertyName.find("SWCR") == 0)
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SWCRIT",
cellDepth,
m_criticalWaterSat[satTableIdx]);
else if (propertyName.find("ISWCR") == 0)
values[cellIdx] = selectValue(imptvdTables,
(useImptvd && endNum >= 0) ? endNum : -1,
"SWCRIT",
cellDepth,
m_criticalWaterSat[imbTableIdx]);
// the SOGCR keyword family
else if (propertyName.find("SOGCR") == 0)
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SOGCRIT",
cellDepth,
m_criticalOilOGSat[satTableIdx]);
else if (propertyName.find("ISOGCR") == 0)
values[cellIdx] = selectValue(imptvdTables,
(useImptvd && endNum >= 0) ? endNum : -1,
"SOGCRIT",
cellDepth,
m_criticalOilOGSat[imbTableIdx]);
// the SOWCR keyword family
else if (propertyName.find("SOWCR") == 0)
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SOWCRIT",
cellDepth,
m_criticalOilOWSat[satTableIdx]);
else if (propertyName.find("ISOWCR") == 0)
values[cellIdx] = selectValue(imptvdTables,
(useImptvd && endNum >= 0) ? endNum : -1,
"SOWCRIT",
cellDepth,
m_criticalOilOWSat[imbTableIdx]);
}
}
protected:
/*
The method here goes through the SWOF and SGOF tables to
determine the critical saturations of the various
phases. The code in question has a hard assumption that
relperm properties is entered using the SGOF and SWOF
keywords, however other keyword combinations can be used -
and then this will break.
** Must be fixed. **
*/
void findSaturationEndpoints( ) const {
const std::vector<SwofTable>& swofTables = m_eclipseState.getSwofTables();
const std::vector<SgofTable>& sgofTables = m_eclipseState.getSgofTables();
auto tabdims = m_eclipseState.getTabdims();
int numSatTables = tabdims->getNumSatTables();
if (swofTables.size() == numSatTables) {
assert(swofTables.size() == sgofTables.size());
m_minWaterSat.resize( numSatTables , 0 );
m_maxWaterSat.resize( numSatTables , 0 );
m_minGasSat.resize( numSatTables , 0 );
m_maxGasSat.resize( numSatTables , 0 );
for (int tableIdx = 0; tableIdx < numSatTables; ++tableIdx) {
m_minWaterSat[tableIdx] = swofTables[tableIdx].getSwColumn().front();
m_maxWaterSat[tableIdx] = swofTables[tableIdx].getSwColumn().back();
m_minGasSat[tableIdx] = sgofTables[tableIdx].getSgColumn().front();
m_maxGasSat[tableIdx] = sgofTables[tableIdx].getSgColumn().back();
}
} else
throw std::domain_error("Hardcoded assumption absout saturation keyword family has failed");
}
void findCriticalPoints( ) const {
const std::vector<SwofTable>& swofTables = m_eclipseState.getSwofTables();
const std::vector<SgofTable>& sgofTables = m_eclipseState.getSgofTables();
auto tabdims = m_eclipseState.getTabdims();
int numSatTables = tabdims->getNumSatTables();
m_criticalWaterSat.resize( numSatTables , 0 );
m_criticalGasSat.resize( numSatTables , 0 );
m_criticalOilOGSat.resize( numSatTables , 0 );
m_criticalOilOWSat.resize( numSatTables , 0 );
for (int tableIdx = 0; tableIdx < numSatTables; ++tableIdx) {
// find the critical water saturation
int numRows = swofTables[tableIdx].numRows();
const auto &krwCol = swofTables[tableIdx].getKrwColumn();
for (int rowIdx = 0; rowIdx < numRows; ++rowIdx) {
if (krwCol[rowIdx] > 0.0) {
double Sw = 0.0;
if (rowIdx > 0)
Sw = swofTables[tableIdx].getSwColumn()[rowIdx - 1];
m_criticalWaterSat[tableIdx] = Sw;
break;
}
}
// find the critical gas saturation
numRows = sgofTables[tableIdx].numRows();
const auto &krgCol = sgofTables[tableIdx].getKrgColumn();
for (int rowIdx = 0; rowIdx < numRows; ++rowIdx) {
if (krgCol[rowIdx] > 0.0) {
double Sg = 0.0;
if (rowIdx > 0)
Sg = sgofTables[tableIdx].getSgColumn()[rowIdx - 1];
m_criticalGasSat[tableIdx] = Sg;
break;
}
}
// find the critical oil saturation of the oil-gas system
numRows = sgofTables[tableIdx].numRows();
const auto &kroOGCol = sgofTables[tableIdx].getKrogColumn();
for (int rowIdx = 0; rowIdx < numRows; ++rowIdx) {
if (kroOGCol[rowIdx] == 0.0) {
double Sg = sgofTables[tableIdx].getSgColumn()[rowIdx];
m_criticalOilOGSat[tableIdx] = 1 - Sg - m_minWaterSat[tableIdx];
break;
}
}
// find the critical oil saturation of the water-oil system
numRows = swofTables[tableIdx].numRows();
const auto &kroOWCol = swofTables[tableIdx].getKrowColumn();
for (int rowIdx = 0; rowIdx < numRows; ++rowIdx) {
if (kroOWCol[rowIdx] == 0.0) {
double Sw = swofTables[tableIdx].getSwColumn()[rowIdx];
m_criticalOilOWSat[tableIdx] = 1 - Sw - m_minGasSat[tableIdx];
break;
}
}
}
}
template <class TableType>
double selectValue(const std::vector<TableType>& depthTables,
int tableIdx,
const std::string& columnName,
double cellDepth,
double fallbackValue,
bool useOneMinusTableValue = false) const {
double value = fallbackValue;
if (tableIdx >= 0) {
if (tableIdx >= static_cast<int>(depthTables.size()))
throw std::invalid_argument("Not enough tables!");
// evaluate the table at the cell depth
value = depthTables[tableIdx].evaluate(columnName, cellDepth);
if (!std::isfinite(value))
// a column can be fully defaulted. In this case, eval() returns a NaN
// and we have to use the data from SWOF/SGOF
value = fallbackValue;
else if (useOneMinusTableValue)
value = 1 - value;
}
return value;
}
const Deck& m_deck;
const EclipseState& m_eclipseState;
mutable std::vector<double> m_criticalGasSat;
mutable std::vector<double> m_criticalWaterSat;
mutable std::vector<double> m_criticalOilOWSat;
mutable std::vector<double> m_criticalOilOGSat;
mutable std::vector<double> m_minGasSat;
mutable std::vector<double> m_maxGasSat;
mutable std::vector<double> m_minWaterSat;
mutable std::vector<double> m_maxWaterSat;
};
template <class EclipseState=Opm::EclipseState,
class Deck=Opm::Deck>
class SGLEndpointInitializer
: public EndpointInitializer<EclipseState,Deck>
{
public:
SGLEndpointInitializer(const Deck& deck, const EclipseState& eclipseState)
: EndpointInitializer<EclipseState,Deck>( deck , eclipseState )
{ }
void apply(std::vector<double>& values,
const std::string& /* propertyname */ ) const
{
auto eclipseGrid = this->m_eclipseState.getEclipseGrid();
auto tabdims = this->m_eclipseState.getTabdims();
auto satnum = this->m_eclipseState.getIntGridProperty("SATNUM");
auto endnum = this->m_eclipseState.getIntGridProperty("ENDNUM");
int numSatTables = tabdims->getNumSatTables();
satnum->checkLimits(1 , numSatTables);
this->findSaturationEndpoints( );
// acctually assign the defaults. if the ENPVD keyword was specified in the deck,
// this currently cannot be done because we would need the Z-coordinate of the
// cell and we would need to know how the simulator wants to interpolate between
// sampling points. Both of these are outside the scope of opm-parser, so we just
// assign a NaN in this case...
bool useEnptvd = this->m_deck.hasKeyword("ENPTVD");
const auto& enptvdTables = this->m_eclipseState.getEnptvdTables();
for (size_t cellIdx = 0; cellIdx < eclipseGrid->getCartesianSize(); cellIdx++) {
int satTableIdx = satnum->iget( cellIdx ) - 1;
int endNum = endnum->iget( cellIdx ) - 1;
double cellDepth = std::get<2>(eclipseGrid->getCellCenter(cellIdx));
values[cellIdx] = selectValue(enptvdTables,
(useEnptvd && endNum >= 0) ? endNum : -1,
"SGCO",
cellDepth,
this->m_minGasSat[satTableIdx]);
}
}
};
template <class EclipseState=Opm::EclipseState,
class Deck=Opm::Deck>
class ISGLEndpointInitializer
: public EndpointInitializer<EclipseState,Deck>
{
public:
ISGLEndpointInitializer(const Deck& deck, const EclipseState& eclipseState)
: EndpointInitializer<EclipseState,Deck>( deck , eclipseState )
{ }
void apply(std::vector<double>& values,
const std::string& /* propertyname */ ) const
{
auto eclipseGrid = this->m_eclipseState.getEclipseGrid();
auto tabdims = this->m_eclipseState.getTabdims();
auto imbnum = this->m_eclipseState.getIntGridProperty("IMBNUM");
auto endnum = this->m_eclipseState.getIntGridProperty("ENDNUM");
int numSatTables = tabdims->getNumSatTables();
imbnum->checkLimits(1 , numSatTables);
this->findSaturationEndpoints( );
// acctually assign the defaults. if the ENPVD keyword was specified in the deck,
// this currently cannot be done because we would need the Z-coordinate of the
// cell and we would need to know how the simulator wants to interpolate between
// sampling points. Both of these are outside the scope of opm-parser, so we just
// assign a NaN in this case...
bool useImptvd = this->m_deck.hasKeyword("IMPTVD");
const auto& imptvdTables = this->m_eclipseState.getImptvdTables();
for (size_t cellIdx = 0; cellIdx < eclipseGrid->getCartesianSize(); cellIdx++) {
int imbTableIdx = imbnum->iget( cellIdx ) - 1;
int endNum = endnum->iget( cellIdx ) - 1;
double cellDepth = std::get<2>(eclipseGrid->getCellCenter(cellIdx));
values[cellIdx] = selectValue(imptvdTables,
(useImptvd && endNum >= 0) ? endNum : -1,
"SGCO",
cellDepth,
this->m_minGasSat[imbTableIdx]);
}
}
};
}
#endif