void GridProperties<T>::handleOPERATERecord( const DeckRecord& record, BoxManager& boxManager) {
const std::string& srcArray = record.getItem("ARRAY").get< std::string >(0);
const std::string& targetArray = record.getItem("TARGET_ARRAY").get< std::string >(0);
const std::string& operation = record.getItem("OPERATION").get< std::string >(0);
double alpha = record.getItem("PARAM1").get< double >(0);
double beta = record.getItem("PARAM2").get< double >(0);
if (!supportsKeyword( targetArray))
throw std::invalid_argument("Fatal error processing OPERATE record - invalid/undefined keyword: " + targetArray);
{
auto& result_prop = getKeyword(targetArray);
if (srcArray == targetArray)
result_prop.runPostProcessor();
else {
if (operation == "MULTIPLY" || operation == "POLY")
result_prop.runPostProcessor();
}
std::vector<T>& targetData= result_prop.getData();
const std::vector<T>& srcData = getKeyword( srcArray ).getData();
operate_fptr func = operations.at( operation );
setKeywordBox(record, boxManager);
for (auto index : boxManager.getActiveBox())
targetData[index] = func( targetData[index] , srcData[index] , alpha, beta );
}
}
void GridProperties<T>::handleMULTIPLYRecord( const DeckRecord& record, BoxManager& boxManager) {
const std::string& field = record.getItem("field").get< std::string >(0);
assertKeyword(field);
GridProperty<T>& property = getKeyword( field );
T factor = convertInputValue( record.getItem("factor").get< double >(0) );
setKeywordBox(record, boxManager);
property.scale( factor , boxManager.getActiveBox() );
}
void GridProperties<T>::handleADDRecord( const DeckRecord& record, BoxManager& boxManager) {
const std::string& field = record.getItem("field").get< std::string >(0);
assertKeyword(field);
GridProperty<T>& property = getKeyword( field );
T shiftValue = convertInputValue( property , record.getItem("shift").get< double >(0) );
setKeywordBox(record, boxManager);
property.add( shiftValue , boxManager.getActiveBox() );
}
void GridProperties<T>::handleMINVALUERecord( const DeckRecord& record, BoxManager& boxManager) {
const std::string& field = record.getItem("field").get< std::string >(0);
if (hasKeyword( field )) {
GridProperty<T>& property = getKeyword( field );
T value = convertInputValue( property, record.getItem("value").get< double >(0) );
setKeywordBox(record, boxManager);
property.minvalue( value , boxManager.getActiveBox() );
} else
throw std::invalid_argument("Fatal error processing MINVALUE keyword. Tried to limit not defined keyword " + field);
}
WellProductionProperties WellProductionProperties::history(double BHPLimit, const DeckRecord& record, const Phases &phases)
{
// Modes supported in WCONHIST just from {O,W,G}RAT values
//
// Note: The default value of observed {O,W,G}RAT is zero
// (numerically) whence the following control modes are
// unconditionally supported.
WellProductionProperties p(record);
p.predictionMode = false;
namespace wp = WellProducer;
if(phases.active(Phase::OIL))
p.addProductionControl( wp::ORAT );
if(phases.active(Phase::WATER))
p.addProductionControl( wp::WRAT );
if(phases.active(Phase::GAS))
p.addProductionControl( wp::GRAT );
for( auto cmode : { wp::LRAT, wp::RESV, wp::GRUP } ) {
p.addProductionControl( cmode );
}
/*
We do not update the BHPLIMIT based on the BHP value given
in WCONHIST, that is purely a historical value; instead we
copy the old value of the BHP limit from the previous
timestep.
To actually set the BHPLIMIT in historical mode you must
use the WELTARG keyword.
*/
p.BHPLimit = BHPLimit;
const auto& cmodeItem = record.getItem("CMODE");
if (!cmodeItem.defaultApplied(0)) {
const auto cmode = WellProducer::ControlModeFromString( cmodeItem.getTrimmedString( 0 ) );
if (p.hasProductionControl( cmode ))
p.controlMode = cmode;
else
throw std::invalid_argument("Setting CMODE to unspecified control");
}
if ( record.getItem( "BHP" ).hasValue(0) )
p.BHPH = record.getItem("BHP").getSIDouble(0);
if ( record.getItem( "THP" ).hasValue(0) )
p.THPH = record.getItem("THP").getSIDouble(0);
return p;
}
void GridProperties<T>::handleMULTIREGRecord( const DeckRecord& record, const GridProperty<int>& regionProperty ) {
const std::string& targetArray = record.getItem("ARRAY").get< std::string >(0);
assertKeyword( targetArray );
GridProperty<T>& targetProperty = getOrCreateProperty( targetArray );
double inputValue = record.getItem("FACTOR").get<double>(0);
int regionValue = record.getItem("REGION_NUMBER").get<int>(0);
T factor = convertInputValue( inputValue );
std::vector<bool> mask;
regionProperty.initMask( regionValue , mask);
targetProperty.maskedMultiply( factor , mask);
}
void GridProperties<T>::handleEQUALSRecord( const DeckRecord& record, BoxManager& boxManager) {
const std::string& field = record.getItem("field").get< std::string >(0);
double value = record.getItem("value").get< double >(0);
if (supportsKeyword( field )) {
GridProperty<T>& property = getOrCreateProperty( field );
T targetValue = convertInputValue( property , value );
setKeywordBox(record, boxManager);
property.setScalar( targetValue , boxManager.getActiveBox() );
} else
throw std::invalid_argument("Fatal error processing EQUALS keyword. Tried to set not defined keyword " + field);
}
void GridProperties<T>::handleCOPYRecord( const DeckRecord& record, BoxManager& boxManager) {
const std::string& srcField = record.getItem("src").get< std::string >(0);
const std::string& targetField = record.getItem("target").get< std::string >(0);
if (hasKeyword( srcField )) {
setKeywordBox(record, boxManager);
copyKeyword( srcField , targetField , boxManager.getActiveBox() );
} else {
if (!supportsKeyword( srcField))
throw std::invalid_argument("Fatal error processing COPY keyword."
" Tried to copy from not defined keyword " + srcField);
}
}
void GridProperties<T>::handleADDREGRecord( const DeckRecord& record, const GridProperty<int>& regionProperty ) {
const std::string& targetArray = record.getItem("ARRAY").get< std::string >(0);
assertKeyword(targetArray);
GridProperty<T>& targetProperty = getKeyword( targetArray );
double inputValue = record.getItem("SHIFT").get<double>(0);
int regionValue = record.getItem("REGION_NUMBER").get<int>(0);
T shiftValue = convertInputValue( targetProperty , inputValue );
std::vector<bool> mask;
regionProperty.initMask( regionValue , mask);
targetProperty.maskedAdd( shiftValue , mask);
}
void GridProperties<T>::handleEQUALREGRecord( const DeckRecord& record, const GridProperty<int>& regionProperty ) {
const std::string& targetArray = record.getItem("ARRAY").get< std::string >(0);
if (supportsKeyword( targetArray )) {
GridProperty<T>& targetProperty = getOrCreateProperty( targetArray );
double inputValue = record.getItem("VALUE").get<double>(0);
int regionValue = record.getItem("REGION_NUMBER").get<int>(0);
T targetValue = convertInputValue( targetProperty , inputValue );
std::vector<bool> mask;
regionProperty.initMask( regionValue , mask);
targetProperty.maskedSet( targetValue , mask);
} else
throw std::invalid_argument("Fatal error processing EQUALREG record - invalid/undefined keyword: " + targetArray);
}
EquilRecord::EquilRecord( const DeckRecord& record ) :
datum_depth( record.getItem( 0 ).getSIDouble( 0 ) ),
datum_depth_ps( record.getItem( 1 ).getSIDouble( 0 ) ),
water_oil_contact_depth( record.getItem( 2 ).getSIDouble( 0 ) ),
water_oil_contact_capillary_pressure( record.getItem( 3 ).getSIDouble( 0 ) ),
gas_oil_contact_depth( record.getItem( 4 ).getSIDouble( 0 ) ),
gas_oil_contact_capillary_pressure( record.getItem( 5 ).getSIDouble( 0 ) ),
live_oil_init_proc( record.getItem( 6 ).get< int >( 0 ) <= 0 ),
wet_gas_init_proc( record.getItem( 7 ).get< int >( 0 ) <= 0 ),
init_target_accuracy( record.getItem( 8 ).get< int >( 0 ) )
{}
static std::shared_ptr< Deck > deckWithGRUPTREE() {
DeckPtr deck = createDeck();
DeckKeyword gruptreeKeyword("GRUPTREE");
DeckRecord recordChildOfField;
auto itemChild1 = DeckItem::make< std::string >( "CHILD_GROUP" );
itemChild1.push_back(std::string("BARNET"));
auto itemParent1 = DeckItem::make< std::string >( "PARENT_GROUP" );
itemParent1.push_back(std::string("FAREN"));
recordChildOfField.addItem( std::move( itemChild1 ) );
recordChildOfField.addItem( std::move( itemParent1 ) );
gruptreeKeyword.addRecord( std::move( recordChildOfField ) );
deck->addKeyword( std::move( gruptreeKeyword ) );
return deck;
}
static Opm::EquilRecord mkEquilRecord( double datd, double datp,
double zwoc, double pcow_woc,
double zgoc, double pcgo_goc ) {
using namespace Opm;
auto dd = DeckItem::make< double >( "datdep" );
dd.push_back( datd );
auto dd_dim = std::make_shared< Opm::Dimension >( "dddim", 1 );
dd.push_backDimension( dd_dim, dd_dim );
auto dp = DeckItem::make< double >( "datps" );
dp.push_back( datp );
auto dp_dim = std::make_shared< Opm::Dimension >( "dpdim", 1 );
dp.push_backDimension( dp_dim, dp_dim );
auto zw = DeckItem::make< double >( "zwoc" );
zw.push_back( zwoc );
auto zw_dim = std::make_shared< Opm::Dimension >( "zwdim", 1 );
zw.push_backDimension( zw_dim, zw_dim );
auto pcow = DeckItem::make< double >( "pcow" );
pcow.push_back( pcow_woc );
auto pcow_dim = std::make_shared< Opm::Dimension >( "pcowdim", 1 );
pcow.push_backDimension( pcow_dim, pcow_dim );
auto zg = DeckItem::make< double >( "zgoc" );
zg.push_back( zgoc );
auto zg_dim = std::make_shared< Opm::Dimension >( "zgdim", 1 );
zg.push_backDimension( zg_dim, zg_dim );
auto pcgo = DeckItem::make< double >( "pcgo" );
pcgo.push_back( pcgo_goc );
auto pcgo_dim = std::make_shared< Opm::Dimension >( "pcgodim", 1 );
pcgo.push_backDimension( pcgo_dim, pcgo_dim );
auto i1 = DeckItem::make< int >( "i1" );
auto i2 = DeckItem::make< int >( "i2" );
auto i3 = DeckItem::make< int >( "i3" );
i1.push_back( 0 );
i2.push_back( 0 );
i3.push_back( 0 );
DeckRecord rec;
rec.addItem( std::move( dd ) );
rec.addItem( std::move( dp ) );
rec.addItem( std::move( zw ) );
rec.addItem( std::move( pcow ) );
rec.addItem( std::move( zg ) );
rec.addItem( std::move( pcgo ) );
rec.addItem( std::move( i1 ) );
rec.addItem( std::move( i2 ) );
rec.addItem( std::move( i3 ) );
return EquilRecord( rec );
}
void GridProperties<T>::handleCOPYREGRecord( const DeckRecord& record, const GridProperty<int>& regionProperty ) {
const std::string& srcArray = record.getItem("ARRAY").get< std::string >(0);
const std::string& targetArray = record.getItem("TARGET_ARRAY").get< std::string >(0);
if (!supportsKeyword( targetArray))
throw std::invalid_argument("Fatal error processing COPYREG record - invalid/undefined keyword: " + targetArray);
if (!hasKeyword( srcArray ))
throw std::invalid_argument("Fatal error processing COPYREG record - invalid/undefined keyword: " + srcArray);
{
int regionValue = record.getItem("REGION_NUMBER").get< int >(0);
std::vector<bool> mask;
GridProperty<T>& targetProperty = getOrCreateProperty( targetArray );
GridProperty<T>& srcProperty = getKeyword( srcArray );
regionProperty.initMask( regionValue , mask);
targetProperty.maskedCopy( srcProperty , mask );
}
}
inline std::vector< Completion >
fromCOMPDAT( const EclipseGrid& grid,
const DeckRecord& compdatRecord,
const Well& well,
int prev_complnum ) {
std::vector< Completion > completions;
// We change from eclipse's 1 - n, to a 0 - n-1 solution
// I and J can be defaulted with 0 or *, in which case they are fetched
// from the well head
const auto& itemI = compdatRecord.getItem( "I" );
const auto defaulted_I = itemI.defaultApplied( 0 ) || itemI.get< int >( 0 ) == 0;
const int I = !defaulted_I ? itemI.get< int >( 0 ) - 1 : well.getHeadI();
const auto& itemJ = compdatRecord.getItem( "J" );
const auto defaulted_J = itemJ.defaultApplied( 0 ) || itemJ.get< int >( 0 ) == 0;
const int J = !defaulted_J ? itemJ.get< int >( 0 ) - 1 : well.getHeadJ();
int K1 = compdatRecord.getItem("K1").get< int >(0) - 1;
int K2 = compdatRecord.getItem("K2").get< int >(0) - 1;
WellCompletion::StateEnum state = WellCompletion::StateEnumFromString( compdatRecord.getItem("STATE").getTrimmedString(0) );
Value<double> connectionTransmissibilityFactor("ConnectionTransmissibilityFactor");
Value<double> diameter("Diameter");
Value<double> skinFactor("SkinFactor");
{
const auto& connectionTransmissibilityFactorItem = compdatRecord.getItem("CONNECTION_TRANSMISSIBILITY_FACTOR");
const auto& diameterItem = compdatRecord.getItem("DIAMETER");
const auto& skinFactorItem = compdatRecord.getItem("SKIN");
if (connectionTransmissibilityFactorItem.hasValue(0) && connectionTransmissibilityFactorItem.getSIDouble(0) > 0)
connectionTransmissibilityFactor.setValue(connectionTransmissibilityFactorItem.getSIDouble(0));
if (diameterItem.hasValue(0))
diameter.setValue( diameterItem.getSIDouble(0));
if (skinFactorItem.hasValue(0))
skinFactor.setValue( skinFactorItem.get< double >(0));
}
const WellCompletion::DirectionEnum direction = WellCompletion::DirectionEnumFromString(compdatRecord.getItem("DIR").getTrimmedString(0));
for (int k = K1; k <= K2; k++) {
completions.emplace_back( I, J, k,
int( completions.size() + prev_complnum ) + 1,
grid.getCellDepth( I,J,k ),
state,
connectionTransmissibilityFactor,
diameter,
skinFactor,
direction );
}
return completions;
}
void GridProperties<T>::handleOPERATERRecord( const DeckRecord& record, const GridProperty<int>& regionProperty) {
const std::string& result_array = record.getItem("RESULT_ARRAY").get< std::string >(0);
const std::string& parameter_array = record.getItem("ARRAY_PARAMETER").get< std::string >(0);
const std::string& operation = record.getItem("OPERATION").get< std::string >(0);
double alpha = record.getItem("PARAM1").get< double >(0);
double beta = record.getItem("PARAM2").get< double >(0);
int region_value = record.getItem("REGION_NUMBER").get<int>(0);
if (!supportsKeyword( result_array))
throw std::invalid_argument("Fatal error processing OPERATER record - invalid/undefined keyword: " + result_array);
{
auto& result_prop = getKeyword(result_array);
if (parameter_array == result_array)
result_prop.runPostProcessor();
else {
if (operation == "MULTIPLY" || operation == "POLY")
result_prop.runPostProcessor();
}
std::vector<T>& result_data = result_prop.getData();
const std::vector<T>& parameter_data = getKeyword( parameter_array ).getData();
operate_fptr func = operations.at( operation );
std::vector<bool> mask;
regionProperty.initMask(region_value, mask);
for (size_t index = 0; index < mask.size(); index++) {
if (mask[index])
result_data[index] = func(result_data[index], parameter_data[index], alpha, beta);
}
}
}
MULTREGTRecord::MULTREGTRecord( const DeckRecord& deckRecord, const std::string& defaultRegion) :
m_srcRegion("SRC_REGION"),
m_targetRegion("TARGET_REGION"),
m_region("REGION" , defaultRegion)
{
const auto& srcItem = deckRecord.getItem("SRC_REGION");
const auto& targetItem = deckRecord.getItem("TARGET_REGION");
const auto& tranItem = deckRecord.getItem("TRAN_MULT");
const auto& dirItem = deckRecord.getItem("DIRECTIONS");
const auto& nncItem = deckRecord.getItem("NNC_MULT");
const auto& defItem = deckRecord.getItem("REGION_DEF");
if (!srcItem.defaultApplied(0))
m_srcRegion.setValue( srcItem.get< int >(0) );
if (!targetItem.defaultApplied(0))
m_targetRegion.setValue( targetItem.get< int >(0) );
m_transMultiplier = tranItem.get< double >(0);
m_directions = FaceDir::FromMULTREGTString( dirItem.get< std::string >(0) );
m_nncBehaviour = MULTREGT::NNCBehaviourFromString( nncItem.get< std::string >(0));
if (!defItem.defaultApplied(0))
m_region.setValue( MULTREGT::RegionNameFromDeckValue ( defItem.get< std::string >(0) ));
}
void ParserRecord::applyUnitsToDeck( Deck& deck, DeckRecord& deckRecord ) const {
for( const auto& item : *this ) {
if( !item.hasDimension() ) continue;
auto& deckItem = deckRecord.getItem( item.name() );
for (size_t idim = 0; idim < item.numDimensions(); idim++) {
auto activeDimension = deck.getActiveUnitSystem().getNewDimension( item.getDimension(idim) );
auto defaultDimension = deck.getDefaultUnitSystem().getNewDimension( item.getDimension(idim) );
deckItem.push_backDimension( activeDimension , defaultDimension );
}
}
}
boost::posix_time::ptime TimeMap::timeFromEclipse( const DeckRecord& dateRecord ) {
static const std::string errorMsg("The datarecord must consist of the for values "
"\"DAY(int), MONTH(string), YEAR(int), TIME(string)\".\n");
if (dateRecord.size() != 4) {
throw std::invalid_argument( errorMsg);
}
const auto& dayItem = dateRecord.getItem( 0 );
const auto& monthItem = dateRecord.getItem( 1 );
const auto& yearItem = dateRecord.getItem( 2 );
const auto& timeItem = dateRecord.getItem( 3 );
try {
int day = dayItem.get< int >(0);
const std::string& month = monthItem.get< std::string >(0);
int year = yearItem.get< int >(0);
std::string eclipseTimeString = timeItem.get< std::string >(0);
return TimeMap::timeFromEclipse(day, month, year, eclipseTimeString);
} catch (...) {
throw std::invalid_argument( errorMsg );
}
}
void ParserRecord::applyUnitsToDeck( Deck& deck, DeckRecord& deckRecord ) const {
for (auto iter=begin(); iter != end(); ++iter) {
if ((*iter)->hasDimension()) {
auto& deckItem = deckRecord.getItem( (*iter)->name() );
std::shared_ptr<const ParserItem> parserItem = get( (*iter)->name() );
for (size_t idim=0; idim < (*iter)->numDimensions(); idim++) {
std::shared_ptr<const Dimension> activeDimension = deck.getActiveUnitSystem().getNewDimension( parserItem->getDimension(idim) );
std::shared_ptr<const Dimension> defaultDimension = deck.getDefaultUnitSystem().getNewDimension( parserItem->getDimension(idim) );
deckItem.push_backDimension( activeDimension , defaultDimension );
}
}
}
}
WellProductionProperties WellProductionProperties::history(double BHPLimit, const DeckRecord& record)
{
// Modes supported in WCONHIST just from {O,W,G}RAT values
//
// Note: The default value of observed {O,W,G}RAT is zero
// (numerically) whence the following control modes are
// unconditionally supported.
WellProductionProperties p(record);
p.predictionMode = false;
for (auto const& modeKey : {"ORAT", "WRAT", "GRAT", "LRAT", "RESV", "GRUP"}) {
auto cmode = WellProducer::ControlModeFromString( modeKey );
p.addProductionControl( cmode );
}
/*
We do not update the BHPLIMIT based on the BHP value given
in WCONHIST, that is purely a historical value; instead we
copy the old value of the BHP limit from the previous
timestep.
To actually set the BHPLIMIT in historical mode you must
use the WELTARG keyword.
*/
p.BHPLimit = BHPLimit;
const auto& cmodeItem = record.getItem("CMODE");
if (!cmodeItem.defaultApplied(0)) {
const WellProducer::ControlModeEnum cmode = WellProducer::ControlModeFromString( cmodeItem.get< std::string >(0) );
if (p.hasProductionControl( cmode ))
p.controlMode = cmode;
else
throw std::invalid_argument("Setting CMODE to unspecified control");
}
return p;
}
WellProductionProperties WellProductionProperties::prediction( const DeckRecord& record, bool addGroupProductionControl)
{
WellProductionProperties p(record);
p.predictionMode = true;
p.LiquidRate = record.getItem("LRAT" ).getSIDouble(0);
p.ResVRate = record.getItem("RESV" ).getSIDouble(0);
p.BHPLimit = record.getItem("BHP" ).getSIDouble(0);
p.THPLimit = record.getItem("THP" ).getSIDouble(0);
p.ALQValue = record.getItem("ALQ" ).get< double >(0); //NOTE: Unit of ALQ is never touched
p.VFPTableNumber = record.getItem("VFP_TABLE").get< int >(0);
namespace wp = WellProducer;
using mode = std::pair< const char*, wp::ControlModeEnum >;
static const mode modes[] = {
{ "ORAT", wp::ORAT }, { "WRAT", wp::WRAT }, { "GRAT", wp::GRAT },
{ "LRAT", wp::LRAT }, { "RESV", wp::RESV }, { "THP", wp::THP }
};
for( const auto& cmode : modes ) {
if( !record.getItem( cmode.first ).defaultApplied( 0 ) )
p.addProductionControl( cmode.second );
}
// There is always a BHP constraint, when not specified, will use the default value
p.addProductionControl( wp::BHP );
if (addGroupProductionControl) {
p.addProductionControl(WellProducer::GRUP);
}
{
const auto& cmodeItem = record.getItem("CMODE");
if (cmodeItem.hasValue(0)) {
const WellProducer::ControlModeEnum cmode = WellProducer::ControlModeFromString( cmodeItem.getTrimmedString(0) );
if (p.hasProductionControl( cmode ))
p.controlMode = cmode;
else
throw std::invalid_argument("Setting CMODE to unspecified control");
}
}
return p;
}
void Well::handleWPIMULT(const DeckRecord& record, size_t time_step) {
auto match = [=]( const Connection &c) -> bool {
if (!match_ge(c.complnum, record, "FIRST")) return false;
if (!match_le(c.complnum, record, "LAST")) return false;
if (!match_eq(c.getI() , record, "I", -1)) return false;
if (!match_eq(c.getJ() , record, "J", -1)) return false;
if (!match_eq(c.getK() , record, "K", -1)) return false;
return true;
};
WellConnections * new_connections = this->newWellConnections(time_step);
double wellPi = record.getItem("WELLPI").get< double >(0);
for (auto c : this->getConnections(time_step)) {
if (match(c))
c.wellPi *= wellPi;
new_connections->add(c);
}
this->updateWellConnections(time_step, new_connections);
}
void Well::handleCOMPLUMP(const DeckRecord& record, size_t time_step) {
auto match = [=]( const Connection& c ) -> bool {
if (!match_eq(c.getI(), record, "I" , -1)) return false;
if (!match_eq(c.getJ(), record, "J" , -1)) return false;
if (!match_ge(c.getK(), record, "K1", -1)) return false;
if (!match_le(c.getK(), record, "K2", -1)) return false;
return true;
};
WellConnections * new_connections = this->newWellConnections(time_step);
const int complnum = record.getItem("N").get<int>(0);
if (complnum <= 0)
throw std::invalid_argument("Completion number must be >= 1. COMPLNUM=" + std::to_string(complnum) + "is invalid");
for (auto c : this->getConnections(time_step)) {
if (match(c))
c.complnum = complnum;
new_connections->add(c);
}
this->updateWellConnections(time_step, new_connections);
}
std::pair<std::string , std::vector<CompletionPtr> > Completion::completionsFromCOMPDATRecord( const DeckRecord& compdatRecord ) {
std::vector<CompletionPtr> completions;
std::string well = compdatRecord.getItem("WELL").getTrimmedString(0);
// We change from eclipse's 1 - n, to a 0 - n-1 solution
int I = compdatRecord.getItem("I").get< int >(0) - 1;
int J = compdatRecord.getItem("J").get< int >(0) - 1;
int K1 = compdatRecord.getItem("K1").get< int >(0) - 1;
int K2 = compdatRecord.getItem("K2").get< int >(0) - 1;
WellCompletion::StateEnum state = WellCompletion::StateEnumFromString( compdatRecord.getItem("STATE").getTrimmedString(0) );
Value<double> connectionTransmissibilityFactor("ConnectionTransmissibilityFactor");
Value<double> diameter("Diameter");
Value<double> skinFactor("SkinFactor");
{
const auto& connectionTransmissibilityFactorItem = compdatRecord.getItem("CONNECTION_TRANSMISSIBILITY_FACTOR");
const auto& diameterItem = compdatRecord.getItem("DIAMETER");
const auto& skinFactorItem = compdatRecord.getItem("SKIN");
if (connectionTransmissibilityFactorItem.hasValue(0) && connectionTransmissibilityFactorItem.getSIDouble(0) > 0)
connectionTransmissibilityFactor.setValue(connectionTransmissibilityFactorItem.getSIDouble(0));
if (diameterItem.hasValue(0))
diameter.setValue( diameterItem.getSIDouble(0));
if (skinFactorItem.hasValue(0))
skinFactor.setValue( skinFactorItem.get< double >(0));
}
const WellCompletion::DirectionEnum direction = WellCompletion::DirectionEnumFromString(compdatRecord.getItem("DIR").getTrimmedString(0));
for (int k = K1; k <= K2; k++) {
CompletionPtr completion(new Completion(I , J , k , state , connectionTransmissibilityFactor, diameter, skinFactor, direction ));
completions.push_back( completion );
}
return std::pair<std::string , std::vector<CompletionPtr> >( well , completions );
}
WellProductionProperties WellProductionProperties::prediction( const DeckRecord& record, bool addGroupProductionControl)
{
WellProductionProperties p(record);
p.predictionMode = true;
p.LiquidRate = record.getItem("LRAT" ).getSIDouble(0);
p.ResVRate = record.getItem("RESV" ).getSIDouble(0);
p.BHPLimit = record.getItem("BHP" ).getSIDouble(0);
p.THPLimit = record.getItem("THP" ).getSIDouble(0);
p.ALQValue = record.getItem("ALQ" ).get< double >(0); //NOTE: Unit of ALQ is never touched
p.VFPTableNumber = record.getItem("VFP_TABLE").get< int >(0);
for (auto const& modeKey : {"ORAT", "WRAT", "GRAT", "LRAT","RESV", "BHP" , "THP"}) {
if (!record.getItem(modeKey).defaultApplied(0)) {
auto cmode = WellProducer::ControlModeFromString( modeKey );
p.addProductionControl( cmode );
}
}
if (addGroupProductionControl) {
p.addProductionControl(WellProducer::GRUP);
}
{
const auto& cmodeItem = record.getItem("CMODE");
if (cmodeItem.hasValue(0)) {
const WellProducer::ControlModeEnum cmode = WellProducer::ControlModeFromString( cmodeItem.get< std::string >(0) );
if (p.hasProductionControl( cmode ))
p.controlMode = cmode;
else
throw std::invalid_argument("Setting CMODE to unspecified control");
}
}
return p;
}
WellProductionProperties::
WellProductionProperties( const DeckRecord& record ) :
OilRate( record.getItem( "ORAT" ).getSIDouble( 0 ) ),
WaterRate( record.getItem( "WRAT" ).getSIDouble( 0 ) ),
GasRate( record.getItem( "GRAT" ).getSIDouble( 0 ) )
{}
