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example.cpp
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example.cpp
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/*-----------------------------------------------------------------------
Licensed to the Apache Software Foundation (ASF) under one
or more contributor license agreements. See the NOTICE file
distributed with this work for additional information
distributed with this work for additional information
regarding copyright ownership. The ASF licenses this file
to you under the Apache License, Version 2.0 (the
"License"; you may not use this file except in compliance
with the License. You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing,
software distributed under the License is distributed on an
"AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY
KIND, either express or implied. See the License for the
specific language governing permissions and limitations
under the License.
-----------------------------------------------------------------------*/
// Acknowledgements: the serializeOrganizations function have been provided by Geosiris
#ifdef _WIN32
// ************************
// For memory leak
#define _CRTDBG_MAP_ALLOC
#include <stdlib.h>
#include <crtdbg.h>
// ************************
#endif
#include <fstream>
#include <iostream>
#include <sstream>
#include <vector>
#include "version_config.h"
#include "proxies/stdsoap2.h"
#include "common/EpcDocument.h"
#include "common/EnumStringMapper.h"
#include "eml2/AbstractHdfProxy.h"
#include "eml2/PropertyKind.h"
#include "eml2/TimeSeries.h"
#include "eml2_3/LocalEngineeringCompoundCrs.h"
#include "eml2_3/PropertyKind.h"
#include "resqml2/DoubleTableLookup.h"
#include "resqml2/GridConnectionSetRepresentation.h"
#include "resqml2/IjkGridExplicitRepresentation.h"
#include "resqml2/IjkGridParametricRepresentation.h"
#include "resqml2/SealedVolumeFrameworkRepresentation.h"
#include "resqml2/StratigraphicColumn.h"
#include "resqml2/StratigraphicColumnRankInterpretation.h"
#include "resqml2/StratigraphicOccurrenceInterpretation.h"
#include "resqml2/StringTableLookup.h"
#include "resqml2_0_1/Activity.h"
#include "resqml2_0_1/ActivityTemplate.h"
#include "resqml2_0_1/CategoricalProperty.h"
#include "resqml2_0_1/CommentProperty.h"
#include "resqml2_0_1/ContinuousProperty.h"
#include "resqml2_0_1/DeviationSurveyRepresentation.h"
#include "resqml2_0_1/DiscreteProperty.h"
#include "resqml2_0_1/EarthModelInterpretation.h"
#include "resqml2_0_1/FaultInterpretation.h"
#include "resqml2_0_1/FluidBoundaryFeature.h"
#include "resqml2_0_1/FrontierFeature.h"
#include "resqml2_0_1/GenericFeatureInterpretation.h"
#include "resqml2_0_1/GeobodyBoundaryInterpretation.h"
#include "resqml2_0_1/GeobodyFeature.h"
#include "resqml2_0_1/GeobodyInterpretation.h"
#include "resqml2_0_1/Grid2dRepresentation.h"
#include "resqml2_0_1/Horizon.h"
#include "resqml2_0_1/HorizonInterpretation.h"
#include "resqml2_0_1/LocalDepth3dCrs.h"
#include "resqml2_0_1/LocalTime3dCrs.h"
#include "resqml2_0_1/MdDatum.h"
#include "resqml2_0_1/OrganizationFeature.h"
#include "resqml2_0_1/PlaneSetRepresentation.h"
#include "resqml2_0_1/PointSetRepresentation.h"
#include "resqml2_0_1/PointsProperty.h"
#include "resqml2_0_1/PolylineRepresentation.h"
#include "resqml2_0_1/PolylineSetRepresentation.h"
#include "resqml2_0_1/PropertyKind.h"
#include "resqml2_0_1/PropertyKindMapper.h"
#include "resqml2_0_1/PropertySet.h"
#include "resqml2_0_1/RockFluidOrganizationInterpretation.h"
#include "resqml2_0_1/RockFluidUnitFeature.h"
#include "resqml2_0_1/RockFluidUnitInterpretation.h"
#include "resqml2_0_1/SealedSurfaceFrameworkRepresentation.h"
#include "resqml2_0_1/SeismicLatticeFeature.h"
#include "resqml2_0_1/SeismicLineFeature.h"
#include "resqml2_0_1/SeismicLineSetFeature.h"
#include "resqml2_0_1/StratigraphicUnitInterpretation.h"
#include "resqml2_0_1/StructuralOrganizationInterpretation.h"
#include "resqml2_0_1/SubRepresentation.h"
#include "resqml2_0_1/TectonicBoundaryFeature.h"
#include "resqml2_0_1/TimeSeries.h"
#include "resqml2_0_1/TriangulatedSetRepresentation.h"
#include "resqml2_0_1/UnstructuredGridRepresentation.h"
#include "resqml2_0_1/WellboreFeature.h"
#include "resqml2_0_1/WellboreInterpretation.h"
#include "resqml2_0_1/WellboreTrajectoryRepresentation.h"
#include "resqml2_0_1/WellboreMarker.h"
#include "resqml2_0_1/WellboreMarkerFrameRepresentation.h"
#if WITH_RESQML2_2
#include "eml2_3/GraphicalInformationSet.h"
#include "resqml2_2/DiscreteColorMap.h"
#include "resqml2_2/ContinuousColorMap.h"
#include "resqml2_2/FluidBoundaryInterpretation.h"
#include "resqml2_2/RockVolumeFeature.h"
#include "resqml2_2/SeismicWellboreFrameRepresentation.h"
#include "resqml2_2/ShotPointLineFeature.h"
#endif
#include "witsml2_1/Well.h"
#include "witsml2_1/Wellbore.h"
#include "witsml2_1/Trajectory.h"
#include "witsml2_1/WellboreCompletion.h"
#include "witsml2_1/WellboreGeometry.h"
#include "witsml2_1/WellboreMarker.h"
#include "witsml2_1/Log.h"
#include "witsml2_1/ChannelSet.h"
#include "witsml2_1/Channel.h"
#include "prodml2_2/FluidSystem.h"
#include "prodml2_2/FluidCharacterization.h"
#include "prodml2_2/FrictionTheorySpecification.h"
#include "prodml2_2/TimeSeriesData.h"
#include "HdfProxyFactoryExample.h"
using namespace std;
EML2_NS::AbstractLocal3dCrs* local3dCrs = nullptr;
EML2_NS::AbstractLocal3dCrs* localTime3dCrs = nullptr;
EML2_NS::PropertyKind* propType1 = nullptr;
EML2_NS::PropertyKind* pwls3Length = nullptr;
RESQML2_NS::BoundaryFeature* horizon1 = nullptr;
RESQML2_NS::BoundaryFeature* horizon2 = nullptr;
RESQML2_NS::BoundaryFeature* fault1 = nullptr;
RESQML2_NS::HorizonInterpretation* horizon1Interp1 = nullptr;
RESQML2_NS::HorizonInterpretation* horizon2Interp1 = nullptr;
RESQML2_NS::FaultInterpretation* fault1Interp1 = nullptr;
RESQML2_NS::Grid2dRepresentation* h1i1SingleGrid2dRep = nullptr;
RESQML2_NS::PolylineSetRepresentation* f1i1PolyLineRep = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* f1i1triRepSinglePatch = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* f1i1triRep = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* h1i1triRep = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* h2i1triRep = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* xMinusFrontierRep = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* xPlusFrontierRep = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* yMinusFrontierRep = nullptr;
RESQML2_NS::TriangulatedSetRepresentation* yPlusFrontierRep = nullptr;
RESQML2_NS::WellboreTrajectoryRepresentation* w1i1TrajRep = nullptr;
RESQML2_NS::WellboreFeature* wellbore1 = nullptr;
RESQML2_NS::WellboreInterpretation* wellbore1Interp1 = nullptr;
RESQML2_NS::StratigraphicColumnRankInterpretation* stratiColumnRank0 = nullptr;
RESQML2_NS::SealedSurfaceFrameworkRepresentation* sealedSurfaceFramework = nullptr;
RESQML2_NS::IjkGridExplicitRepresentation* twoCellsIjkGrid = nullptr;
RESQML2_NS::DiscreteProperty* discreteProp1 = nullptr;
RESQML2_NS::ContinuousProperty* contColMapContProp = nullptr;
RESQML2_NS::RockFluidOrganizationInterpretation* rockFluidOrgInterp = nullptr;
RESQML2_NS::RockFluidUnitInterpretation* gasCapInterp = nullptr;
RESQML2_NS::RockFluidUnitInterpretation* oilColumnInterp = nullptr;
RESQML2_NS::RockFluidUnitInterpretation* aquiferInterp = nullptr;
WITSML2_NS::Well* witsmlWell = nullptr;
WITSML2_NS::Wellbore* witsmlWellbore = nullptr;
WITSML2_1_NS::WellboreMarker* witsmlWellboreMarker = nullptr;
void serializeWitsmlWells(COMMON_NS::DataObjectRepository * repo)
{
EML2_3_NS::LocalEngineeringCompoundCrs* eml23Crs = dynamic_cast<EML2_3_NS::LocalEngineeringCompoundCrs*>(local3dCrs);
if (eml23Crs == nullptr) {
repo->setDefaultStandard(COMMON_NS::DataObjectRepository::EnergisticsStandard::EML2_3);
eml23Crs = static_cast<EML2_3_NS::LocalEngineeringCompoundCrs*>
(repo->createLocalDepth3dCrs("", "Local engineering compound CRS", .0, .0, .0, .0, gsoap_resqml2_0_1::eml20__LengthUom::m, 23031, gsoap_resqml2_0_1::eml20__LengthUom::m, "Unknown", false));
repo->setDefaultStandard(COMMON_NS::DataObjectRepository::EnergisticsStandard::EML2_0);
}
// WELL
witsmlWell = repo->createWell("704a287c-5c24-4af3-a97b-bc6670f4e14f", "Well1", false);
witsmlWell->setNameLegal("Legal Name");
witsmlWell->pushBackLocation(275, 75, eml23Crs->getLocalEngineering2dCrs());
witsmlWell->setWellheadElevation(15, gsoap_eml2_3::eml23__LengthUom::m, eml23Crs->getVerticalCrs());
witsmlWell->setGroundElevation(.0, gsoap_eml2_3::eml23__LengthUom::m, eml23Crs->getVerticalCrs());
// WELLBORE
witsmlWellbore = repo->createWellbore(witsmlWell, "3bd60188-5688-43df-89bb-935fe86a813f", "Wellbore1", false);
witsmlWellbore->setNumber("Wb1");
witsmlWellbore->setStatusWellbore(gsoap_eml2_3::eml23__WellStatus::completed);
witsmlWellbore->setTypeWellbore(gsoap_eml2_3::witsml21__WellboreType::initial);
witsmlWellbore->setShape(gsoap_eml2_3::witsml21__WellboreShape::vertical);
witsmlWellbore->setAchievedTD(true);
witsmlWellbore->setMd(1000, gsoap_eml2_3::eml23__LengthUom::m);
witsmlWellbore->setMdPlanned(1000, gsoap_eml2_3::eml23__LengthUom::m);
// TRAJECTORY
WITSML2_NS::Trajectory* witsmlTrajectory = repo->createTrajectory(witsmlWellbore, "4e76e1de-eff1-4458-805e-a6a877fa333b", "My trajectory", false);
witsmlTrajectory->setDefinitive(true);
witsmlTrajectory->setFinalTraj(true);
witsmlTrajectory->pushBackTrajectoryStation(gsoap_eml2_3::witsml21__TrajStationType::N_x0020E_x0020and_x0020TVD, 0, gsoap_eml2_3::eml23__LengthUom::m, "d3ac5401-d3e7-4474-b846-070673b210ae");
witsmlTrajectory->setTrajectoryStationManuallyEntered(0, true);
witsmlTrajectory->setTrajectoryStationDispNs(0, .0, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationDispEw(0, .0, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationTvd(0, .0, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->pushBackTrajectoryStation(gsoap_eml2_3::witsml21__TrajStationType::N_x0020E_x0020and_x0020TVD, 325, gsoap_eml2_3::eml23__LengthUom::m, "d3ac5401-d3e7-4474-b846-070673b210ae");
witsmlTrajectory->setTrajectoryStationManuallyEntered(1, true);
witsmlTrajectory->setTrajectoryStationDispNs(1, 325, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationDispEw(1, 325, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationTvd(1, 325, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->pushBackTrajectoryStation(gsoap_eml2_3::witsml21__TrajStationType::N_x0020E_x0020and_x0020TVD, 500, gsoap_eml2_3::eml23__LengthUom::m, "d3ac5401-d3e7-4474-b846-070673b210ae");
witsmlTrajectory->setTrajectoryStationManuallyEntered(2, true);
witsmlTrajectory->setTrajectoryStationDispNs(2, 500, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationDispEw(2, 500, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationTvd(2, 500, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->pushBackTrajectoryStation(gsoap_eml2_3::witsml21__TrajStationType::N_x0020E_x0020and_x0020TVD, 1000, gsoap_eml2_3::eml23__LengthUom::m, "d3ac5401-d3e7-4474-b846-070673b210ae");
witsmlTrajectory->setTrajectoryStationManuallyEntered(3, true);
witsmlTrajectory->setTrajectoryStationDispNs(3, 1000, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationDispEw(3, 1000, gsoap_eml2_3::eml23__LengthUom::m);
witsmlTrajectory->setTrajectoryStationTvd(3, 1000, gsoap_eml2_3::eml23__LengthUom::m);
// Geometry
WITSML2_1_NS::WellboreGeometry* witsmlWbGeom = repo->createWellboreGeometry(witsmlWellbore, "c9dc03e9-722c-478b-b0ae-b2dd9da67c11", "My wellbore geometry", false);
witsmlWbGeom->pushBackSection(0, 250, gsoap_eml2_3::eml23__LengthUom::m);
witsmlWbGeom->setWellboreGeometrySectionTypeHoleCasing(0, gsoap_eml2_3::witsml21__HoleCasingType::casing);
witsmlWbGeom->setWellboreGeometrySectionOdSection(0, 30, gsoap_eml2_3::eml23__LengthUom::in);
witsmlWbGeom->setWellboreGeometrySectionTvdInterval(0, 0, 250, gsoap_eml2_3::eml23__LengthUom::m);
witsmlWbGeom->pushBackSection(0, 99, gsoap_eml2_3::eml23__LengthUom::m);
witsmlWbGeom->setWellboreGeometrySectionTypeHoleCasing(1, gsoap_eml2_3::witsml21__HoleCasingType::casing);
witsmlWbGeom->setWellboreGeometrySectionCurveConductor(1, false);
witsmlWbGeom->setWellboreGeometrySectionDiaDrift(1, 17.5, gsoap_eml2_3::eml23__LengthUom::in);
witsmlWbGeom->setWellboreGeometrySectionFactFric(1, 0.25);
witsmlWbGeom->setWellboreGeometrySectionGrade(1, "L80");
witsmlWbGeom->setWellboreGeometrySectionIdSection(1, 18, gsoap_eml2_3::eml23__LengthUom::in);
witsmlWbGeom->setWellboreGeometrySectionOdSection(1, 20, gsoap_eml2_3::eml23__LengthUom::in);
witsmlWbGeom->setWellboreGeometrySectionWtPerLen(1, 123, gsoap_eml2_3::eml23__MassPerLengthUom::lbm_x002fft);
witsmlWbGeom->setWellboreGeometrySectionTvdInterval(1, 0, 99, gsoap_eml2_3::eml23__LengthUom::m);
// Log
//EML2_NS::PropertyKind* channelPk = repo->createPartial<WITSML2_1_NS::PropertyKind>("eac77e0f-d13a-4821-9a48-0c4b229ae06e", "My channel prop kind");
RESQML2_0_1_NS::PropertyKind* channelPk = repo->createPartial<RESQML2_0_1_NS::PropertyKind>("eac77e0f-d13a-4821-9a48-0c4b229ae06e", "My partial channel temperature prop kind");
WITSML2_1_NS::Channel* channel = repo->createChannel(channelPk, "c3ff6f85-f111-4603-840a-ae8bdc46e0c8", "My channel",
"my mnemo", gsoap_eml2_3::eml23__UnitOfMeasure::K, gsoap_eml2_3::witsml21__ChannelDataKind::double_, false);
channel->pushBackChannelIndex(gsoap_eml2_3::eml23__DataIndexKind::measured_x0020depth, gsoap_eml2_3::eml23__UnitOfMeasure::m, "MD");
WITSML2_1_NS::ChannelSet* channelSet = repo->createChannelSet("00e8ffda-bb07-46db-8c22-8947282d7535", "My channel set", false);
channelSet->pushBackChannelIndex(gsoap_eml2_3::eml23__DataIndexKind::measured_x0020depth, gsoap_eml2_3::eml23__UnitOfMeasure::m, "MD");
channelSet->pushBackChannel(channel);
channelSet->setDataAsJsonArray("[\n\
[[0],[300]],\n\
[[500],[305]],\n\
[[1000],[310]]\n\
]");
WITSML2_1_NS::Log* witsmlLog = repo->createLog(witsmlWellbore, "24093183-5a06-4bea-8c69-3e9769971014", "My log", false);
witsmlLog->pushBackChannelSet(channelSet);
// Marker
witsmlWellboreMarker = repo->createWellboreMarker(witsmlWellbore, "08b18514-e0c8-4667-850b-4ddd1cb785b5", "WITSML marker", 350, gsoap_eml2_3::eml23__LengthUom::m);
witsmlWellboreMarker->setDipAngle(5, gsoap_eml2_3::eml23__PlaneAngleUom::dega);
witsmlWellboreMarker->setDipDirection(10, gsoap_eml2_3::eml23__PlaneAngleUom::dega);
}
void serializeWells(COMMON_NS::DataObjectRepository * repo, EML2_NS::AbstractHdfProxy* hdfProxy)
{
serializeWitsmlWells(repo);
// Features
wellbore1 = repo->createWellboreFeature("22d5b48f-f789-46e7-a454-6d8bd05afd0b", "Wellbore1");
wellbore1->setWitsmlWellbore(witsmlWellbore);
// Interpretations
wellbore1Interp1 = repo->createWellboreInterpretation(wellbore1, "dc7840fe-e5a3-4b53-a1df-18040bc4d0c0", "Wellbore1 Interp1", false);
// Representation
RESQML2_NS::MdDatum* mdInfo = repo->createMdDatum("36e91de5-7833-4b6d-90d0-1d643c0adece", "md Info", local3dCrs, gsoap_eml2_3::eml23__ReferencePointKind::mean_x0020sea_x0020level, 275, 75, 15);
//Geometry
w1i1TrajRep = repo->createWellboreTrajectoryRepresentation(wellbore1Interp1, "acd2cdcf-bb5d-48da-bd0e-9aeff3e52180", "Wellbore1 Interp1 TrajRep", mdInfo);
double controlPoints[12] = { 275, 75, 0, 275, 75, 325, 275, 75, 500, 275, 75, 1000 };
double trajectoryTangentVectors[12] = { 0, 0, 1, 0, 0, 1, 0, 0, 1, 0, 0, 1 };
double trajectoryMds[4] = { 0, 325, 500, 1000 };
w1i1TrajRep->setGeometry(controlPoints, trajectoryTangentVectors, trajectoryMds, 4, 0, hdfProxy);
// WellboreFeature frame
RESQML2_NS::WellboreFrameRepresentation* w1i1FrameRep = repo->createWellboreFrameRepresentation(wellbore1Interp1, "d873e243-d893-41ab-9a3e-d20b851c099f", "Wellbore1 Interp1 FrameRep", w1i1TrajRep);
double logMds[5] = { 0, 250, 500, 750, 1000 };
w1i1FrameRep->setMdValues(logMds, 5, hdfProxy);
RESQML2_NS::WellboreFrameRepresentation* w1i1RegularFrameRep = repo->createWellboreFrameRepresentation(wellbore1Interp1, "a54b8399-d3ba-4d4b-b215-8d4f8f537e66", "Wellbore1 Interp1 Regular FrameRep", w1i1TrajRep);
w1i1RegularFrameRep->setMdValues(0, 200, 6);
EML2_NS::PropertyKind* unitNumberPropType = nullptr;
if (repo->getDefaultResqmlVersion() == COMMON_NS::DataObjectRepository::EnergisticsStandard::RESQML2_0_1) {
unitNumberPropType = repo->createPropertyKind("358aac23-b377-4349-9e72-bff99a6edf34", "Unit number", "F2I", gsoap_resqml2_0_1::resqml20__ResqmlUom::Euc, false,
gsoap_resqml2_0_1::resqml20__ResqmlPropertyKind::discrete);
}
#if WITH_RESQML2_2
else {
unitNumberPropType = repo->createPropertyKind("358aac23-b377-4349-9e72-bff99a6edf34", "Unit number", gsoap_eml2_3::eml23__QuantityClassKind::not_x0020a_x0020measure);
}
#endif
RESQML2_NS::DiscreteProperty* discreteProp = repo->createDiscreteProperty(w1i1FrameRep, "61c2917c-2334-4205-824e-d4f4a0cf6d8e", "Wellbore1 Interp1 FrameRep IntervalIndex", 1,
gsoap_eml2_3::eml23__IndexableElement::intervals, unitNumberPropType);
int8_t unitNumbers[5] = { 0, 1, 2, 3, 4 };
discreteProp->pushBackInt8Hdf5Array1dOfValues(unitNumbers, 5, hdfProxy, -1);
#if WITH_RESQML2_2
// SeismicWellboreFrameRepresentation
RESQML2_NS::SeismicWellboreFrameRepresentation* w1i1SeismicFrameRep = repo->createSeismicWellboreFrameRepresentation(
wellbore1Interp1, "dcbeea2e-8327-4c5b-97e3-bdced0680de5", "Wellbore1 Interp1 SeismicFrameRep",
w1i1TrajRep,
0.,
0.,
localTime3dCrs);
w1i1SeismicFrameRep->setMdValues(logMds, 5, hdfProxy);
double logTimes[5] = { 0., 10., 20., 25., 30. };
w1i1SeismicFrameRep->setTimeValues(logTimes, 5, hdfProxy);
RESQML2_NS::SeismicWellboreFrameRepresentation* w1i1RegularSeismicFrameRep = repo->createSeismicWellboreFrameRepresentation(
wellbore1Interp1, "7f1b75ff-1226-4c0a-a531-8f71661da419", "Wellbore1 Interp1 Regular SeismicFrameRep",
w1i1TrajRep,
0.,
0.,
localTime3dCrs);
w1i1RegularSeismicFrameRep->setMdValues(0, 200, 6);
w1i1RegularSeismicFrameRep->setTimeValues(0., 10., 6);
#endif
}
void serializePerforations(COMMON_NS::DataObjectRepository * repo)
{
if (witsmlWell == nullptr) {
std::cout << "No WITSML export have been operated" << endl;
return;
}
// WELLBORE COMPLETION
WITSML2_1_NS::WellboreCompletion* wellboreCompletion = repo->createWellboreCompletion(witsmlWellbore, "7bda8ecf-2037-4dc7-8c59-db6ca09f2008", "WellboreCompletion1");
wellboreCompletion->pushBackConnection(WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, gsoap_eml2_3::eml23__LengthUom::m, 970, 980, "myId");
wellboreCompletion->pushBackConnection(WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, gsoap_eml2_3::eml23__LengthUom::m, 990, 1000, "mySecondId");
wellboreCompletion->pushBackConnectionExtraMetadata(WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, "Testing Key", "Testing Value");
wellboreCompletion->pushBackConnectionHistory(WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0);
wellboreCompletion->setConnectionHistoryStatus(0, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, gsoap_eml2_3::witsml21__PhysicalStatus::open);
wellboreCompletion->setConnectionHistoryMdInterval(0, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, gsoap_eml2_3::eml23__LengthUom::m, 970, 980);
wellboreCompletion->setConnectionHistoryStartDate(0, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, 407568645);
wellboreCompletion->setConnectionHistoryEndDate(0, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, 1514764800);
wellboreCompletion->pushBackConnectionHistory(WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0);
wellboreCompletion->setConnectionHistoryStatus(1, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, gsoap_eml2_3::witsml21__PhysicalStatus::closed);
wellboreCompletion->setConnectionHistoryMdInterval(1, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, gsoap_eml2_3::eml23__LengthUom::m, 970, 980);
wellboreCompletion->setConnectionHistoryStartDate(1, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 0, 1514764800);
wellboreCompletion->pushBackConnectionHistory(WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 1);
wellboreCompletion->setConnectionHistoryStatus(0, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 1, gsoap_eml2_3::witsml21__PhysicalStatus::open);
wellboreCompletion->setConnectionHistoryStartDate(0, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 1, 410104800);
wellboreCompletion->pushBackConnectionHistory(WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 1);
wellboreCompletion->setConnectionHistoryStatus(1, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 1, gsoap_eml2_3::witsml21__PhysicalStatus::closed);
wellboreCompletion->setConnectionHistoryStartDate(1, WITSML2_1_NS::WellboreCompletion::WellReservoirConnectionType::PERFORATION, 1, 1514764800);
}
#if WITH_RESQML2_2
void serializeGraphicalInformationSet(COMMON_NS::DataObjectRepository * repo, EML2_NS::AbstractHdfProxy * hdfProxy)
{
EML2_NS::GraphicalInformationSet* graphicalInformationSet = repo->createGraphicalInformationSet("be17c053-9189-4bc0-9db1-75aa51a026cd", "Graphical Information Set");
// *************
// Default color
// *************
// fault1 representation is blue
graphicalInformationSet->setDefaultHsvColor(fault1, 240., 1., 1., 1., "blue");
graphicalInformationSet->setDefaultHsvColor(fault1Interp1, 240., 1., 1., 1., "blue");
graphicalInformationSet->setDefaultHsvColor(f1i1triRepSinglePatch, 240., 1., 1., 1., "blue");
graphicalInformationSet->setDefaultHsvColor(f1i1triRep, 240., 1., 1., 1., "blue");
graphicalInformationSet->setDefaultHsvColor(f1i1PolyLineRep, 240., 1., 1., 1., "blue");
// horizon1 representation is red
graphicalInformationSet->setDefaultHsvColor(horizon1, 0., 1., 1., 1., "red");
graphicalInformationSet->setDefaultHsvColor(horizon1Interp1, 0., 1., 1., 1., "red");
graphicalInformationSet->setDefaultHsvColor(h1i1triRep, 0., 1., 1., 1., "red");
// horizon2 representation is green
graphicalInformationSet->setDefaultHsvColor(horizon2, 120., 1., 1., 1., "green");
graphicalInformationSet->setDefaultHsvColor(horizon2Interp1, 120., 1., 1., 1., "green");
graphicalInformationSet->setDefaultHsvColor(h2i1triRep, 120., 1., 1., 1., "green");
graphicalInformationSet->setDefaultHsvColor(h1i1SingleGrid2dRep, 120., 1., 1., 1., "green");
// ******************
// Discrete color map
// ******************
// associating a discrete color map to property kind propType1
RESQML2_NS::DiscreteColorMap* propKindDiscrColMap = repo->createDiscreteColorMap("d808d79c-2cad-4c4f-9712-3b3ab4aa3f4a", "Property kind discrete color map");
uint8_t propKindDiscrColMapRgbColors[9] = { 0, 0, 255, 255, 255, 255, 255, 0, 0 };
double propKindDiscrColMapAlphas[3] = { 1., 1., 1. };
vector<string> propKindDiscrColMapTitles = { "blue", "white", "red" };
propKindDiscrColMap->setRgbColors(3, propKindDiscrColMapRgbColors, propKindDiscrColMapAlphas, nullptr, propKindDiscrColMapTitles);
graphicalInformationSet->setDiscreteColorMap(propType1, propKindDiscrColMap);
// associating a discrete color map to dicreteProp1
RESQML2_NS::DiscreteColorMap* discrColMap = repo->createDiscreteColorMap("3daf4661-ae8f-4357-adee-0b0159bdd0a9", "Discrete color map");
uint8_t discrColMapRgbColors[18] = { 255, 0, 0, 0, 255, 0, 0, 0, 255, 169, 84, 27, 0, 0, 0, 255, 255, 255 };
double discrColMapAlphas[6] = { 1., 1., 1., 1., 1., 1. };
vector<string> discrColMapTitles = { "red", "green", "blue", "orange", "black", "white" };
discrColMap->setRgbColors(6, discrColMapRgbColors, discrColMapAlphas, nullptr, discrColMapTitles);
graphicalInformationSet->setDiscreteColorMap(discreteProp1, discrColMap);
// creating a new discrete property of type propType1 without associating it to a discrete color map.
// Thus, its associated discrete color map remains the one associated to propType1
RESQML2_NS::DiscreteProperty* discreteProp2 = repo->createDiscreteProperty(twoCellsIjkGrid, "1e2822ef-b6cb-4123-bdf4-c99df84a896f", "Another two faulted sugar cubes cellIndex", 1,
gsoap_eml2_3::eml23__IndexableElement::cells, propType1);
uint16_t prop2Values[2] = { 0, 1 };
discreteProp2->pushBackUInt16Hdf5Array3dOfValues(prop2Values, 2, 1, 1, hdfProxy, -1);
// ********************
// Continuous color map
// ********************
RESQML2_NS::BoundaryFeature* contColMapHrz = repo->createHorizon("b9ec6ec9-2766-4af7-889e-5565b5fa5022", "Horizon for continuous color map");
RESQML2_NS::HorizonInterpretation* contColMapHrzInterp = repo->createHorizonInterpretation(contColMapHrz, "34b69c81-6cfa-4531-be5b-f6bd9b74802f", "Horizon interpretation for continuous color map");
RESQML2_NS::Grid2dRepresentation* contColMapGrid2dRep = repo->createGrid2dRepresentation(contColMapHrzInterp, "4e56b0e4-2cd1-4efa-97dd-95f72bcf9f80", "100x10 grid 2d for continuous color map");
const unsigned int numPointInFastestDirection = 50;
const unsigned int numPointsInSlowestDirection = 100;
contColMapGrid2dRep->setGeometryAsArray2dOfLatticePoints3d(numPointInFastestDirection, numPointsInSlowestDirection,
0., 0., 0.,
1., 0., 0.,
0., 1., 0.,
1., 1.);
auto standardOrientationPropKind = repo->createPropertyKind("b8e9afa0-7930-483b-931f-e5cf2008d03b", "orientation", gsoap_eml2_3::eml23__QuantityClassKind::plane_x0020angle);
contColMapContProp = repo->createContinuousProperty(contColMapGrid2dRep, "c2be50b6-08d2-461b-81a4-73dbb04ba605", "Continuous property for continuous color map", 2,
gsoap_eml2_3::eml23__IndexableElement::nodes, "continuousColorMapIndex", standardOrientationPropKind);
std::unique_ptr<double[]> values(new double[numPointInFastestDirection * numPointsInSlowestDirection]);
for (size_t slowestIndex = 0; slowestIndex < numPointsInSlowestDirection; ++slowestIndex) {
for (size_t fastestIndex = 0; fastestIndex < numPointInFastestDirection; ++fastestIndex) {
values[fastestIndex + slowestIndex * numPointInFastestDirection] = fastestIndex * (1. / (numPointInFastestDirection - 1));
}
}
contColMapContProp->pushBackDoubleHdf5Array2dOfValues(values.get(), numPointInFastestDirection, numPointsInSlowestDirection, hdfProxy);
RESQML2_NS::ContinuousColorMap* contColMap = repo->createContinuousColorMap("a207faa2-963e-48d6-b3ad-53f6c1fc4dd4", "Continuous color map", gsoap_eml2_3::resqml22__InterpolationDomain::rgb, gsoap_eml2_3::resqml22__InterpolationMethod::linear);
uint8_t contColMapRgbColors[6] = { 0, 255, 0, 255, 0, 0 };
vector<string> contColMapColTitles = { "green", "red" };
double contColMapAlphas[2] = { 1., 1. };
contColMap->setRgbColors(2, contColMapRgbColors, contColMapAlphas, nullptr, contColMapColTitles);
graphicalInformationSet->setContinuousColorMap(contColMapContProp, contColMap);
graphicalInformationSet->setColorMapMinMax(contColMapContProp, 0., 1.);
graphicalInformationSet->setValueVectorIndex(contColMapContProp, 1);
}
#endif
void serializeStratigraphicModel(COMMON_NS::DataObjectRepository * repo, EML2_NS::AbstractHdfProxy* hdfProxy)
{
// Build the Stratigraphic column
RESQML2_NS::StratigraphicColumn* stratiColumn = repo->createStratigraphicColumn("7f6666a0-fa3b-11e5-a509-0002a5d5c51b", "Stratigraphic column");
RESQML2_NS::Model* stratiModelFeature = repo->createStratigraphicModel("7fcde2b5-d184-4481-b31e-32aafbdc4b7f", "stratiModel");
repo->createStratigraphicOccurrenceInterpretationInApparentDepth(stratiModelFeature, "2426e574-1ea3-4f20-9deb-669c15a17625", "stratiModel Interp");
stratiColumnRank0 = repo->createStratigraphicColumnRankInterpretationInApparentDepth(stratiModelFeature, "ba06f220-fa3b-11e5-928c-0002a5d5c51b", "Stratigraphic column rank 0", 0);
RESQML2_NS::StratigraphicColumnRankInterpretation* stratiColumnRank1 = repo->createStratigraphicColumnRankInterpretationInApparentDepth(stratiModelFeature, "9d2d19cf-aedb-4766-9691-758d536456ba", "Stratigraphic column rank 1", 1);
stratiColumn->pushBackStratiColumnRank(stratiColumnRank0);
stratiColumn->pushBackStratiColumnRank(stratiColumnRank1);
RESQML2_NS::RockVolumeFeature* stratiUnitAFeature = nullptr;
RESQML2_NS::RockVolumeFeature* stratiUnitBFeature = nullptr;
RESQML2_NS::RockVolumeFeature* stratiUnitB1Feature = nullptr;
RESQML2_NS::RockVolumeFeature* stratiUnitB2Feature = nullptr;
if (repo->getDefaultResqmlVersion() == COMMON_NS::DataObjectRepository::EnergisticsStandard::RESQML2_0_1) {
stratiUnitAFeature = repo->createStratigraphicUnitFeature("0426c6a0-fa3c-11e5-8b9c-0002a5d5c51b", "Unit A");
stratiUnitBFeature = repo->createStratigraphicUnitFeature("273a92c0-fa3c-11e5-85f8-0002a5d5c51b", "Unit B");
stratiUnitB1Feature = repo->createStratigraphicUnitFeature("0b7cc266-4280-4696-b9dc-5d17017797e2", "Unit B1");
stratiUnitB2Feature = repo->createStratigraphicUnitFeature("87255cf5-033f-4fa4-941b-7947b434f4c2", "Unit B2");
}
#if WITH_RESQML2_2
else {
stratiUnitAFeature = repo->createRockVolumeFeature("0426c6a0-fa3c-11e5-8b9c-0002a5d5c51b", "Unit A");
stratiUnitBFeature = repo->createRockVolumeFeature("273a92c0-fa3c-11e5-85f8-0002a5d5c51b", "Unit B");
stratiUnitB1Feature = repo->createRockVolumeFeature("0b7cc266-4280-4696-b9dc-5d17017797e2", "Unit B1");
stratiUnitB2Feature = repo->createRockVolumeFeature("87255cf5-033f-4fa4-941b-7947b434f4c2", "Unit B2");
}
#endif
RESQML2_NS::StratigraphicUnitInterpretation* stratiUnitAInterp = repo->createStratigraphicUnitInterpretation(stratiUnitAFeature, "1a919b40-fa3c-11e5-a72c-0002a5d5c51b", "Unit A interp");
RESQML2_NS::StratigraphicUnitInterpretation* stratiUnitBInterp = repo->createStratigraphicUnitInterpretation(stratiUnitBFeature, "2b9169c0-fa3c-11e5-ae2c-0002a5d5c51b", "Unit B interp");
RESQML2_NS::StratigraphicUnitInterpretation* stratiUnitB1Interp = repo->createStratigraphicUnitInterpretation(stratiUnitB1Feature, "7d7ab0bc-554d-48f5-ab5c-3bb7b66696e5", "Unit B1 interp");
RESQML2_NS::StratigraphicUnitInterpretation* stratiUnitB2Interp = repo->createStratigraphicUnitInterpretation(stratiUnitB2Feature, "34c37be0-964f-41a8-ba78-db5147744927", "Unit B2 interp");
// Build a minimal Stratigraphic column to allow the definition of a minimal sealed volume framework
RESQML2_NS::StratigraphicColumn* minimalStratiColumn = repo->createStratigraphicColumn("90f375b7-6865-4a69-943e-f2328fdbbb7e", "Minimal Stratigraphic column");
RESQML2_NS::Model* minimalStratiModelFeature = repo->createStratigraphicModel("ea021981-1b79-435f-9f26-8bf03472efcf", "Minimal stratiModel");
RESQML2_NS::StratigraphicColumnRankInterpretation* minimalStratiColumnRank = repo->createStratigraphicColumnRankInterpretationInApparentDepth(minimalStratiModelFeature, "31b0b787-31df-4b87-8830-a3863eb9842c", "Minimal Stratigraphic column rank ", 0);
minimalStratiColumn->pushBackStratiColumnRank(minimalStratiColumnRank);
// Build the stratigraphic column ranks
stratiColumnRank0->pushBackStratiUnitInterpretation(stratiUnitAInterp);
stratiColumnRank1->pushBackStratiUnitInterpretation(stratiUnitAInterp);
stratiColumnRank0->pushBackStratiUnitInterpretation(stratiUnitBInterp);
stratiColumnRank1->pushBackStratiUnitInterpretation(stratiUnitB1Interp);
stratiColumnRank1->pushBackStratiUnitInterpretation(stratiUnitB2Interp);
minimalStratiColumnRank->pushBackStratiUnitInterpretation(stratiUnitB1Interp);
stratiColumnRank0->pushBackStratigraphicBinaryContact(stratiUnitAInterp, gsoap_eml2_3::resqml22__ContactMode::conformable, stratiUnitBInterp, gsoap_eml2_3::resqml22__ContactMode::conformable, horizon2Interp1);
// WellboreFeature marker frame
if (wellbore1Interp1 != nullptr) {
RESQML2_NS::WellboreMarkerFrameRepresentation* wmf = repo->createWellboreMarkerFrameRepresentation(wellbore1Interp1, "657d5e6b-1752-425d-b3e7-237037fa11eb", "Wellbore Marker Frame", w1i1TrajRep);
double markerMdValues[2] = { 350, 550 };
wmf->setMdValues(markerMdValues, 2, hdfProxy);
RESQML2_NS::WellboreMarker* marker0 = repo->createWellboreMarker(wmf, "624f9f17-6797-4d78-b3fc-9ca2c8174bcd", "", gsoap_resqml2_0_1::resqml20__GeologicBoundaryKind::horizon);
marker0->setBoundaryFeatureInterpretation(horizon1Interp1);
marker0->setWitsmlWellboreMarker(witsmlWellboreMarker);
RESQML2_NS::WellboreMarker* marker1 = repo->createWellboreMarker(wmf, "3611725e-4d9b-4d3e-87e6-58fcd238f5a8", "testing Fault", gsoap_resqml2_0_1::resqml20__GeologicBoundaryKind::fault);
marker1->setBoundaryFeatureInterpretation(fault1Interp1);
}
#ifndef WITH_RESQML2_2
// ***********************
// Sealed volume framework
// ***********************
RESQML2_NS::SealedVolumeFrameworkRepresentation* svf = repo->createSealedVolumeFrameworkRepresentation(stratiColumnRank1, "c7ed87c2-9a46-4e3d-8f0f-b25d4d72892a", "Minimal Sealed volume framework", sealedSurfaceFramework);
// Add the surfaces.
f1i1triRep->pushBackIntoRepresentationSet(svf);
h1i1triRep->pushBackIntoRepresentationSet(svf);
h2i1triRep->pushBackIntoRepresentationSet(svf);
xMinusFrontierRep->pushBackIntoRepresentationSet(svf);
xPlusFrontierRep->pushBackIntoRepresentationSet(svf);
yMinusFrontierRep->pushBackIntoRepresentationSet(svf);
yPlusFrontierRep->pushBackIntoRepresentationSet(svf);
//Region 2
std::vector<unsigned int> region2RepIndices = { 1, 0, 0, 2, 3, 5, 6 }; // face order => top, x plus, btm, x minus, y minus, y plus
std::vector<unsigned int> region2PatchIndices = { 0, 1, 2, 0, 0, 0, 0 };
bool region2Sides[7] = { false, false, false, true, true, true, true }; //Top face is true, bottom face is false and Frontiers are always on true side flag in this example.
svf->pushBackVolumeRegion(stratiUnitB1Interp, 7, region2RepIndices.data(), region2PatchIndices.data(), region2Sides);
//Region 5
std::vector<unsigned int> region5RepIndices = { 1, 4, 2, 0, 0, 5, 6 };
std::vector<unsigned int> region5PatchIndices = { 1, 0, 1, 3, 2, 1, 1 };
bool region5Sides[7] = { false, true, true, true, true, true, true };
svf->pushBackVolumeRegion(stratiUnitB1Interp, 7, region5RepIndices.data(), region5PatchIndices.data(), region5Sides);
#endif // !
}
void serializeGeobody(COMMON_NS::DataObjectRepository * repo, EML2_NS::AbstractHdfProxy* hdfProxy)
{
// 2D
RESQML2_NS::BoundaryFeature* geobodyBoundary = repo->createGeobodyBoundaryFeature("6d3c158c-303f-4b0d-bfc0-9ce4102ea616", "Geobody boundary");
RESQML2_NS::GeobodyBoundaryInterpretation* geobodyBoundaryInterp = repo->createGeobodyBoundaryInterpretation(geobodyBoundary, "12c301a4-3e8b-401a-aca3-8d6f02d5d6d5", "Geobody boundary interp");
RESQML2_NS::PointSetRepresentation* geobodyBoundaryPointSetRep = repo->createPointSetRepresentation(geobodyBoundaryInterp, "fbc5466c-94cd-46ab-8b48-2ae2162b372f", "Geobody boundary PointSetRep");
double geobodyBoundaryPointCoords[12] = { 10, 70, 11, 21, 150, 30, 400, 0, 450, 75, 475, 100 };
geobodyBoundaryPointSetRep->pushBackXyGeometryPatch(6, geobodyBoundaryPointCoords, hdfProxy);
// 3D
RESQML2_NS::RockVolumeFeature* geobody = repo->createGeobodyFeature("e221f9da-ead3-4a9d-8324-fc2e6606cb01", "Geobody");
RESQML2_NS::GeobodyInterpretation* geobodyInterp = repo->createGeobodyInterpretation(geobody, "d445041f-6364-44e7-a7f8-ade5a93bfd49", "Geobody interp");
RESQML2_NS::PointSetRepresentation* geobodyGraphNode = repo->createPointSetRepresentation(geobodyInterp, "8442a6b7-a97b-431e-abda-f72cf7ef346f", "Geobody graph node");
double geobodyPointCoords[18] = { 50, 30, 330, 10, 28, 3000, 100, 50, 350, 300, 100, 400, 400, 20, 400, 400, 300, 400 };
geobodyGraphNode->pushBackXyzGeometryPatch(6, geobodyPointCoords, hdfProxy);
//RESQML2_NS::SubRepresentation* geobodyGraphEdge = repo->createSubRepresentation(geobodyBoundaryInterp, "7e0450aa-c39d-49f8-bee4-62fc42bb849d", "Geobody graph edge");
}
void serializeBoundaries(COMMON_NS::DataObjectRepository * repo, EML2_NS::AbstractHdfProxy* hdfProxy)
{
// Seismic Lattice
RESQML2_NS::SeismicLatticeFeature* seismicLattice = repo->createSeismicLattice("eb6a5e97-4d86-4809-b136-051f34cfcb51", "Seismic lattice", 2, 2, 150, 152, 4, 2);
RESQML2_NS::GenericFeatureInterpretation* seismicLatticeInterp = repo->createGenericFeatureInterpretation(seismicLattice, "97816427-6ef6-4776-b21c-5b93c8a6310a", "Seismic lattice Interp");
RESQML2_NS::Grid2dRepresentation* seismicLatticeRep = repo->createGrid2dRepresentation(seismicLatticeInterp, "aa5b90f1-2eab-4fa6-8720-69dd4fd51a4d", "Seismic lattice Rep");
seismicLatticeRep->setGeometryAsArray2dOfLatticePoints3d(4, 2, 0, 0, 0, 1, 0, 2, 0, 1, 3, 250, 200);
// Seismic Line Set
RESQML2_NS::SeismicLineSetFeature* seismicLineSet = repo->createSeismicLineSet("53c6a0be-c901-4bb6-845b-fba79745da02", "Seismic line Set");
// Seismic Line
RESQML2_NS::AbstractSeismicLineFeature* seismicLine = nullptr;
if (repo->getDefaultResqmlVersion() == COMMON_NS::DataObjectRepository::EnergisticsStandard::RESQML2_0_1) {
seismicLine = repo->createSeismicLine("117f9bf6-6bb0-49f2-9cee-46912300bff6", "Seismic line", 1, 0, 5);
}
#if WITH_RESQML2_2
else {
seismicLine = repo->createShotPointLine("117f9bf6-6bb0-49f2-9cee-46912300bff6", "Seismic line");
}
#endif
seismicLine->setSeismicLineSet(seismicLineSet);
RESQML2_NS::GenericFeatureInterpretation* seismicLineInterp = repo->createGenericFeatureInterpretation(seismicLine, "", "Seismic line Interp");
RESQML2_NS::PolylineRepresentation* seismicLineRep = repo->createPolylineRepresentation(seismicLineInterp, "", "Seismic line Rep");
double seismicLinePoints[15] = { 0, 100, 0, 150, 110, 0, 300, 120, 0, 450, 130, 0, 600, 140, 0 };
seismicLineRep->setGeometry(seismicLinePoints, 5, hdfProxy);
// Features
//BoundaryFeature* bf = repo->createBoundaryFeature("", "testingBoundaryFeature");
horizon1 = repo->createHorizon("35d7b57e-e5ff-4062-95af-ba2d7c4ce347", "Horizon1");
tm timeStruct;
timeStruct.tm_hour = 15;
timeStruct.tm_min = 2;
timeStruct.tm_sec = 35;
timeStruct.tm_mday = 8;
timeStruct.tm_mon = 1;
timeStruct.tm_year = 0;
timeStruct.tm_isdst = -1;
mktime(&timeStruct);
horizon1->setCreation(timeStruct);
if (dynamic_cast<RESQML2_0_1_NS::Horizon*>(horizon1) != nullptr) {
static_cast<RESQML2_0_1_NS::Horizon*>(horizon1)->setAge(300000000);
}
horizon2 = repo->createHorizon("fd7950a6-f62e-4e47-96c4-048820a61c59", "Horizon2");
horizon2->setVersion("my version");
fault1 = repo->createFault("1424bcc2-3d9d-4f30-b1f9-69dcb897e33b", "Fault1");
fault1->setMetadata("", "philippe", 148526020, "philippe", "", 148526100, "");
// Interpretations
//BoundaryFeatureInterpretation* bfi = repo->createBoundaryFeatureInterpretation(bf, "", "testingBoundaryFeatureInterp");
horizon1Interp1 = repo->createHorizonInterpretation(horizon1, "ac12dc12-4951-459b-b585-90f48aa88a5a", "Horizon1 Interp1");
horizon2Interp1 = repo->createHorizonInterpretation(horizon2, "06993923-6331-4fad-bceb-fc79b05adfd7", "Horizon2 Interp1");
fault1Interp1 = repo->createFaultInterpretation(fault1, "ba224651-7dd3-4952-85b0-cff6fe37508d", "Fault1 Interp1");
//**************
// Horizon Representations
//**************
RESQML2_NS::PolylineRepresentation* h1i1SinglePolylineRep = repo->createPolylineRepresentation(horizon1Interp1, "", "Horizon1 Interp1 SinglePolylineRep");
double h1i1SinglePolylineRepPoints[12] = { 0, 100, 300, 150, 110, 300, 450, 130, 350, 600, 140, 350 };
h1i1SinglePolylineRep->setGeometry(h1i1SinglePolylineRepPoints, 4, hdfProxy);
double seismicLineAbscissa[4] = { 0.0, 1.0, 3.0, 4.0 };
h1i1SinglePolylineRep->addSeismic2dCoordinatesToPatch(0, seismicLineAbscissa, seismicLineRep, hdfProxy);
#if defined(OFFICIAL)
h1i1SingleGrid2dRep = repo->createGrid2dRepresentation(horizon1Interp1, local3dCrs, "030a82f6-10a7-4ecf-af03-54749e098624", "Horizon1 Interp1 Grid2dRep");
double zValues[8] = { 300, 300, 350, 350, 300, 300, 350, 350 };
h1i1SingleGrid2dRep->setGeometryAsArray2dOfExplicitZ(zValues, 4, 2, hdfProxy, seismicLatticeRep);
#else
h1i1SingleGrid2dRep = repo->createGrid2dRepresentation(horizon1Interp1, "030a82f6-10a7-4ecf-af03-54749e098624", "Horizon1 Interp1 Grid2dRep");
double zValues[8] = { 300, 300, 350, 350, 300, 300, 350, 350 };
h1i1SingleGrid2dRep->setGeometryAsArray2dOfExplicitZ(zValues, 4, 2, hdfProxy, seismicLatticeRep, localTime3dCrs);
#endif
RESQML2_NS::PointSetRepresentation* h1i1PointSetRep = repo->createPointSetRepresentation(horizon1Interp1, "", "Horizon1 Interp1 PointSetRep");
double pointCoords[18] = { 10, 70, 301, 11, 21, 299, 150, 30, 301, 400, 0, 351, 450, 75, 340, 475, 100, 350 };
h1i1PointSetRep->pushBackXyzGeometryPatch(6, pointCoords, hdfProxy);
// Horizon 1 triangulated representation
h1i1triRep = repo->createTriangulatedSetRepresentation(horizon1Interp1,
"0c49b40a-632a-457a-b519-a178f40a397d",
"Horizon1 Interp1 TriRep");
// Patch 0
double explicitPointsHor1Patch0[15] = { 250, 0, 300, 250, 100, 300, 250, 200, 300, 0, 0, 300, 0, 200, 300 };
unsigned int triangleNodeIndexHorPatch0[9] = { 0, 1, 3, 1, 4, 3, 1, 2, 4 };
h1i1triRep->pushBackTrianglePatch(5, explicitPointsHor1Patch0, 3, triangleNodeIndexHorPatch0, hdfProxy);
// Patch 1
double explicitPointsHor1Patch1[15] = { 300, 0, 350, 300, 100, 350, 300, 200, 350, 700, 0, 350, 700, 200, 350 };
unsigned int triangleNodeIndexHorPatch1[9] = { 5, 6, 8, 6, 9, 8, 6, 7, 9 };
h1i1triRep->pushBackTrianglePatch(5, explicitPointsHor1Patch1, 3, triangleNodeIndexHorPatch1, hdfProxy);
// Horizon 2 triangulated representation
h2i1triRep = repo->createTriangulatedSetRepresentation(horizon2Interp1,
"ea6943d0-30b0-47fd-80ad-a3cf019a8c92",
"Horizon2 Interp1 TriRep");
// Patch 0 (no seismic support)
double explicitPointsHor2Patch0[15] = { 450, 0, 500, 450, 100, 500, 450, 200, 500, 0, 0, 500, 0, 200, 500 };
h2i1triRep->pushBackTrianglePatch(5, explicitPointsHor2Patch0, 3, triangleNodeIndexHorPatch0, hdfProxy);
// Patch 1 (seismic support)
double explicitPointsHor2Patch1[15] = { 500, 0, 550, 500, 100, 550, 500, 200, 550, 700, 0, 550, 700, 200, 550 };
h2i1triRep->pushBackTrianglePatch(5, explicitPointsHor2Patch1, 3, triangleNodeIndexHorPatch1, hdfProxy);
double inlines[5] = { 0, 1, 2, 3, 4 }; // dummy values
double crosslines[5] = { 10, 11, 12, 13, 14 }; // dummy values
h2i1triRep->addSeismic3dCoordinatesToPatch(1, inlines, crosslines, 5, seismicLatticeRep, hdfProxy);
// TriRep without interp
RESQML2_NS::TriangulatedSetRepresentation* triRepWithoutInterp = repo->createTriangulatedSetRepresentation("eb0b55a5-9562-4642-946b-d2ec57172daf", "TriRep without interp");
triRepWithoutInterp->pushBackTrianglePatch(5, explicitPointsHor2Patch0, 3, triangleNodeIndexHorPatch0, hdfProxy);
//**************
// Fault Representations
//**************
// Single patch triangulated representation
f1i1triRepSinglePatch = repo->createTriangulatedSetRepresentation(fault1Interp1,
"d8a03d57-8bf3-4f75-8645-ef2fbfa5d1e3",
"Fault1 Interp1 TriRep Single Patch");
//uint64_t dimExplicitPointsFault1 [1] = {6};
double explicitPointsFault1[54] = { 150, 0, 200, 150, 100, 200, 150, 200, 200,
250, 0, 300, 250, 100, 300, 250, 200, 300,
300, 0, 350, 300, 100, 350, 300, 200, 350,
450, 0, 500, 450, 100, 500, 450, 200, 500,
500, 0, 550, 500, 100, 550, 500, 200, 550,
600, 0, 650, 600, 100, 650, 600, 200, 650 };
unsigned int triangleNodeIndexFault[60] = { 0, 4, 3, 0, 1, 4, 1, 2, 4, 2, 5, 4,
3, 7, 6, 3, 4, 7, 4, 5, 7, 5, 8, 7,
6, 10, 9, 6, 7, 10, 7, 8, 10, 8, 11, 10,
9, 13, 12, 9, 10, 13, 10, 11, 13, 11, 14, 13,
12, 16, 15, 12, 13, 16, 13, 14, 16, 14, 17, 16 };
f1i1triRepSinglePatch->pushBackTrianglePatch(18, explicitPointsFault1, 20, triangleNodeIndexFault, hdfProxy);
// multi patch triangulated representation
f1i1triRep = repo->createTriangulatedSetRepresentation(fault1Interp1,
"1a4112fa-c4ef-4c8d-aed0-47d9273bebc5",
"Fault1 Interp1 TriRep");
// Patch 0
double explicitPointsFault1Patch0[18] = { 150, 0, 200, 150, 100, 200, 150, 200, 200,
250, 0, 300, 250, 100, 300, 250, 200, 300 };
unsigned int triangleNodeIndexFaultPatch0[12] = { 0, 4, 3, 0, 1, 4, 1, 2, 4, 2, 5, 4 };
f1i1triRep->pushBackTrianglePatch(6, explicitPointsFault1Patch0, 4, triangleNodeIndexFaultPatch0, hdfProxy);
// Patch 1
double explicitPointsFault1Patch1[18] = { 250, 0, 300, 250, 100, 300, 250, 200, 300,
300, 0, 350, 300, 100, 350, 300, 200, 350 };
unsigned int triangleNodeIndexFaultPatch1[12] = { 6, 10, 9, 6, 7, 10, 7, 8, 10, 8, 11, 10 };
f1i1triRep->pushBackTrianglePatch(6, explicitPointsFault1Patch1, 4, triangleNodeIndexFaultPatch1, hdfProxy);
// Patch 2
double explicitPointsFault1Patch2[18] = { 300, 0, 350, 300, 100, 350, 300, 200, 350,
450, 0, 500, 450, 100, 500, 450, 200, 500 };
unsigned int triangleNodeIndexFaultPatch2[12] = { 12, 16, 15, 12, 13, 16, 13, 14, 16, 14, 17, 16 };
f1i1triRep->pushBackTrianglePatch(6, explicitPointsFault1Patch2, 4, triangleNodeIndexFaultPatch2, hdfProxy);
// Patch 3
double explicitPointsFault1Patch3[18] = { 450, 0, 500, 450, 100, 500, 450, 200, 500,
500, 0, 550, 500, 100, 550, 500, 200, 550 };
unsigned int triangleNodeIndexFaultPatch3[12] = { 18, 22, 21, 18, 19, 22, 19, 20, 22, 20, 23, 22 };
f1i1triRep->pushBackTrianglePatch(6, explicitPointsFault1Patch3, 4, triangleNodeIndexFaultPatch3, hdfProxy);
// Patch 4
double explicitPointsFault1Patch4[18] = { 500, 0, 550, 500, 100, 550, 500, 200, 550,
600, 0, 650, 600, 100, 650, 600, 200, 650 };
unsigned int triangleNodeIndexFaultPatch4[12] = { 24, 28, 27, 24, 25, 28, 25, 26, 28, 26, 29, 28 };
f1i1triRep->pushBackTrianglePatch(6, explicitPointsFault1Patch4, 4, triangleNodeIndexFaultPatch4, hdfProxy);
// Fault polyline rep
f1i1PolyLineRep = repo->createPolylineSetRepresentation(
fault1Interp1,
"65c59595-bf48-451e-94aa-120ebdf28d8b",
"Fault1 Interp1 PolylineRep");
unsigned int numNodesPerPolylinePerPatch[2] = { 3, 2 };
double polylinePoints[15] = { 150, 0, 200, 300, 0, 350, 450, 0, 500, 150, 200, 200, 450, 200, 500 };
f1i1PolyLineRep->pushBackGeometryPatch(numNodesPerPolylinePerPatch, polylinePoints, 2, false, hdfProxy);
f1i1PolyLineRep->addSeismic3dCoordinatesToPatch(0, inlines, crosslines, 5, seismicLatticeRep, hdfProxy);
//**************
// Properties
//**************
if (repo->getDefaultResqmlVersion() == COMMON_NS::DataObjectRepository::EnergisticsStandard::RESQML2_0_1) {
propType1 = repo->createPropertyKind("f7ad7cf5-f2e7-4daa-8b13-7b3df4edba3b", "propType1", "F2I", gsoap_resqml2_0_1::resqml20__ResqmlUom::m, false,
gsoap_resqml2_0_1::resqml20__ResqmlPropertyKind::length);
}
#if WITH_RESQML2_2
else {
propType1 = repo->createPropertyKind("f7ad7cf5-f2e7-4daa-8b13-7b3df4edba3b", "propType1", gsoap_eml2_3::eml23__QuantityClassKind::length);
}
#endif
RESQML2_NS::ContinuousProperty* contProp1 = repo->createContinuousProperty(h1i1SingleGrid2dRep, "fcaccfc7-10cb-4f73-800e-a381642478cb", "Horizon1 Interp1 Grid2dRep Prop1", 2,
gsoap_eml2_3::eml23__IndexableElement::nodes, "exoticMeter", propType1);
float prop1Values[16] = { 301, 302, 301, 302, 351, 352, 351, 352, 301, 302, 301, 302, 351, 352, 351, 352 };
contProp1->pushBackFloatHdf5Array2dOfValues(prop1Values, 2, 8, hdfProxy);
EML2_NS::PropertyKind * propType2 = nullptr;
if (repo->getDefaultResqmlVersion() == COMMON_NS::DataObjectRepository::EnergisticsStandard::RESQML2_0_1) {
propType2 = repo->createPropertyKind("7372f8f6-b1fd-4263-b9a8-699d9cbf7da6", "propType2", "F2I", gsoap_resqml2_0_1::resqml20__ResqmlUom::K, false,
gsoap_resqml2_0_1::resqml20__ResqmlPropertyKind::thermodynamic_x0020temperature);
}
#if WITH_RESQML2_2
else {
propType2 = repo->createPropertyKind("7372f8f6-b1fd-4263-b9a8-699d9cbf7da6", "propType2", gsoap_eml2_3::eml23__QuantityClassKind::thermodynamic_x0020temperature);
}
#endif
RESQML2_NS::ContinuousProperty* contProp2 = repo->createContinuousProperty(h1i1SingleGrid2dRep, "d3efb337-19f8-4b91-8b4f-3698afe17f01", "Horizon1 Interp1 Grid2dRep Prop2", 1,
gsoap_eml2_3::eml23__IndexableElement::nodes, gsoap_resqml2_0_1::resqml20__ResqmlUom::ft, propType2);
double prop2Values[8] = { 302, 302, 352, 352, 302, 302, 352, 352 };
contProp2->pushBackDoubleHdf5Array2dOfValues(prop2Values, 4, 2, hdfProxy);
}
void serializeGrid(COMMON_NS::DataObjectRepository * repo, EML2_NS::AbstractHdfProxy* hdfProxy)
{
RESQML2_NS::Model * earthModel = repo->createEarthModel("f2060ce0-fa3d-11e5-8620-0002a5d5c51b", "Grid");
RESQML2_NS::EarthModelInterpretation * earthModelInterp = repo->createEarthModelInterpretation(earthModel, "f5cd7520-fa3d-11e5-b65b-0002a5d5c51b", "Grid interp");
// ONE SUGAR
RESQML2_NS::IjkGridExplicitRepresentation* singleCellIjkgrid = repo->createIjkGridExplicitRepresentation("e69bfe00-fa3d-11e5-b5eb-0002a5d5c51b", "One unfaulted sugar cube", 1, 1, 1);
double singleCellIjkgridNodes[24] = { 0, 0, 300, 700, 0, 350, 0, 150, 300, 700, 150, 350,
0, 0, 500, 700, 0, 550, 0, 150, 500, 700, 150, 550 };
singleCellIjkgrid->setGeometryAsCoordinateLineNodes(gsoap_resqml2_0_1::resqml20__PillarShape::vertical, gsoap_resqml2_0_1::resqml20__KDirection::down, false, singleCellIjkgridNodes, hdfProxy);
// ONE SUGAR PARAMETRIC
RESQML2_NS::IjkGridParametricRepresentation* singleCellIjkgridParametric = repo->createIjkGridParametricRepresentation(earthModelInterp, "53bb70fe-2eef-4691-b4fe-14541e3a57eb", "One unfaulted sugar cube (parametric geometry)", 1, 1, 1);
double singleCellParameters[8] = { 300, 300, 300, 300, 500, 500, 500, 500 };
double singleCellControlPoints[12] = { 0, 0, 300, 700, 0, 300, 0, 150, 300, 700, 150, 300 };
short singleCellPillarKind[4] = { 0, 0, 0, 0 };
singleCellIjkgridParametric->setGeometryAsParametricNonSplittedPillarNodes(gsoap_resqml2_0_1::resqml20__PillarShape::vertical, false,
singleCellParameters, singleCellControlPoints, NULL, 1, singleCellPillarKind, hdfProxy);
// TWO SUGARS EXPLICIT
twoCellsIjkGrid = repo->createIjkGridExplicitRepresentation(earthModelInterp, "df2103a0-fa3d-11e5-b8d4-0002a5d5c51b", "Two faulted sugar cubes (explicit geometry)", 2, 1, 1);
double nodes[48] = { 0, 0, 300, 375, 0, 300, 700, 0, 350, 0, 150, 300, 375, 150, 300, 700, 150, 350, /* SPLIT*/ 375, 0, 350, 375, 150, 350,
0, 0, 500, 375, 0, 500, 700, 0, 550, 0, 150, 500, 375, 150, 500, 700, 150, 550, /* SPLIT*/ 375, 0, 550, 375, 150, 550 };
unsigned int pillarOfCoordinateLine[2] = { 1, 4 };
unsigned int splitCoordinateLineColumnCumulativeCount[2] = { 1, 2 };
unsigned int splitCoordinateLineColumns[2] = { 1, 1 };
twoCellsIjkGrid->setGeometryAsCoordinateLineNodes(gsoap_resqml2_0_1::resqml20__PillarShape::vertical, gsoap_resqml2_0_1::resqml20__KDirection::down, false, nodes, hdfProxy,
2, pillarOfCoordinateLine, splitCoordinateLineColumnCumulativeCount, splitCoordinateLineColumns);
// FOUR SUGARS PARAMETRIC
RESQML2_NS::IjkGridParametricRepresentation* ijkgridParametric = repo->createIjkGridParametricRepresentation(earthModelInterp, "37c45c00-fa3e-11e5-a21e-0002a5d5c51b", "Four faulted sugar cubes (parametric geometry)", 2, 1, 2);
double parameters[24] = { 300, 300, 350, 300, 300, 350, /* SPLIT*/ 350, 350,
400, 400, 450, 400, 400, 450, /* SPLIT*/ 450, 450,
500, 500, 550, 500, 500, 550, /* SPLIT*/ 550, 550 };
double controlPoints[18] = { 0, 0, 300, 375, 0, 300, 700, 0, 350, 0, 150, 300, 375, 150, 300, 700, 150, 350 };
ijkgridParametric->setGeometryAsParametricSplittedPillarNodes(false, parameters, controlPoints, NULL, 1, 0, hdfProxy,
2, pillarOfCoordinateLine, splitCoordinateLineColumnCumulativeCount, splitCoordinateLineColumns);
// FOUR SUGARS PARAMETRIC STRAIGHT
RESQML2_NS::IjkGridParametricRepresentation* ijkgridParametricStraight = repo->createIjkGridParametricRepresentation(earthModelInterp, "f68235af-1d7a-4e24-93a8-10739b15ca40", "Four faulted sugar cubes (straight parametric geometry)", 2, 1, 2);
double controlPointsParametricStraight[36] = { 0, 0, 300, 375, 0, 300, 700, 0, 350, 0, 150, 300, 375, 150, 300, 700, 150, 350,
0, 0, 500, 375, 0, 500, 700, 0, 550, 0, 150, 500, 375, 150, 500, 700, 150, 550 };
double controlPointsParameters[12] = { 300, 300, 350, 300, 300, 350,
500, 500, 550, 500, 500, 550 };
ijkgridParametricStraight->setGeometryAsParametricSplittedPillarNodes(false, parameters, controlPointsParametricStraight, controlPointsParameters, 2, 1, hdfProxy,
2, pillarOfCoordinateLine, splitCoordinateLineColumnCumulativeCount, splitCoordinateLineColumns);
// FOUR SUGARS PARAMETRIC different line kind and one cubic pillar
RESQML2_NS::IjkGridParametricRepresentation* ijkgridParametricNotSameLineKind = repo->createIjkGridParametricRepresentation("3ce91933-4f6f-4f35-b0ac-4ba4672f0a87", "Four faulted sugar cubes with one cubic pillar", 2, 1, 2);
const double nan = numeric_limits<double>::quiet_NaN();
double controlPointsNotSameLineKind[54] = { 0, 0, 300, 375, 0, 300, 700, 0, 350, 0, 150, 300, 375, 150, 300, 700, 150, 350,
50, 30, 1000, 400, 0, 400, nan, nan, nan, nan, nan, nan, nan, nan, nan, nan, nan, nan,
nan, nan, nan, 450, 0, 600, nan, nan, nan, nan, nan, nan, nan, nan, nan, nan, nan, nan };
double controlPointParametersNotSameLineKind[18] = { 300, 300, 350, 300, 300, 350,
1000, 400, nan, nan, nan, nan,
nan, 600, nan, nan, nan, nan };
short pillarKind[6] = { 1, 4, 0, 0, 0, 0 };
ijkgridParametricNotSameLineKind->setGeometryAsParametricSplittedPillarNodes(gsoap_resqml2_0_1::resqml20__PillarShape::straight, false, parameters, controlPointsNotSameLineKind, controlPointParametersNotSameLineKind, 3, pillarKind, hdfProxy,
2, pillarOfCoordinateLine, splitCoordinateLineColumnCumulativeCount, splitCoordinateLineColumns);
// FOUR SUGARS PARAMETRIC different line kind an one cubic pillar : A copy
RESQML2_NS::IjkGridParametricRepresentation* ijkgridParametricNotSameLineKindCopy = repo->createIjkGridParametricRepresentation("46efd88c-87e1-4e00-bbdd-4c7bcc941749", "Copy of Four faulted sugar cubes with one cubic pillar", 2, 1, 2);
const std::string hdfDatasetPrefix = "/" + ijkgridParametricNotSameLineKind->getXmlNamespace() + "/" + ijkgridParametricNotSameLineKind->getUuid();
ijkgridParametricNotSameLineKindCopy->setGeometryAsParametricSplittedPillarNodesUsingExistingDatasets(gsoap_resqml2_0_1::resqml20__PillarShape::straight, gsoap_resqml2_0_1::resqml20__KDirection::down, false,
hdfDatasetPrefix + "/PointParameters", hdfDatasetPrefix + "/ControlPoints", hdfDatasetPrefix + "/controlPointParameters", 3, hdfDatasetPrefix + "/LineKindIndices", hdfDatasetPrefix + "/PillarGeometryIsDefined", hdfProxy,
2, hdfDatasetPrefix + "/PillarIndices",
hdfDatasetPrefix + "/ColumnsPerSplitCoordinateLine/" + EML2_NS::AbstractHdfProxy::CUMULATIVE_LENGTH_DS_NAME, hdfDatasetPrefix + "/ColumnsPerSplitCoordinateLine/" + EML2_NS::AbstractHdfProxy::ELEMENTS_DS_NAME);
// 4*3*2 explicit grid Left Handed
RESQML2_NS::IjkGridExplicitRepresentation* ijkgrid432 = repo->createIjkGridExplicitRepresentation("e96c2bde-e3ae-4d51-b078-a8e57fb1e667", "Four by Three by Two Left Handed", 4, 3, 2);
double nodes432[216] = {
0, 0, 300, 150, 0, 300, 375, 0, 300, 550, 0, 350, 700, 0, 350, //IJ0K0
0, 50, 300, 150, 50, 300, 375, 50, 300, 550, 50, 350, 700, 50, 350, //IJ1K0
0, 100, 300, 150, 100, 300, 375, 100, 300, 550, 100, 350, 700, 100, 350, //IJ2K0
0, 150, 300, 150, 150, 300, 375, 150, 300, 550, 150, 350, 700, 150, 350, //IJ3K0
375, 0, 350, 375, 50, 350, 375, 100, 350, 375, 150, 350, // SPLIT K0
0, 0, 400, 150, 0, 400, 375, 0, 400, 550, 0, 450, 700, 0, 450, //IJ0K1
0, 50, 400, 150, 50, 400, 375, 50, 400, 550, 50, 450, 700, 50, 450, //IJ1K1
0, 100, 400, 150, 100, 400, 375, 100, 400, 550, 100, 450, 700, 100, 450, //IJ2K1
0, 150, 400, 150, 150, 400, 375, 150, 400, 550, 150, 450, 700, 150, 450, //IJ3K1
375, 0, 450, 375, 50, 450, 375, 100, 450, 375, 150, 450, // SPLIT K1
0, 0, 500, 150, 0, 500, 375, 0, 500, 550, 0, 550, 700, 0, 550, //IJ0K2
0, 50, 500, 150, 50, 500, 375, 50, 500, 550, 50, 550, 700, 50, 550, //IJ1K2
0, 100, 500, 150, 100, 500, 375, 100, 500, 550, 100, 550, 700, 100, 550, //IJ2K2
0, 150, 500, 150, 150, 500, 375, 150, 500, 550, 150, 550, 700, 150, 550, //IJ3K2
375, 0, 550, 375, 50, 550, 375, 100, 550, 375, 150, 550 // SPLIT K2
};
unsigned int pillarOfCoordinateLine432[4] = { 2, 7, 12, 17 };
unsigned int splitCoordinateLineColumnCumulativeCount432[4] = { 1, 3, 5, 6 };
unsigned int splitCoordinateLineColumns432[6] = { 2, 2, 6, 6, 10, 10 };
ijkgrid432->setGeometryAsCoordinateLineNodes(gsoap_resqml2_0_1::resqml20__PillarShape::vertical, gsoap_resqml2_0_1::resqml20__KDirection::down, false, nodes432, hdfProxy,
4, pillarOfCoordinateLine432, splitCoordinateLineColumnCumulativeCount432, splitCoordinateLineColumns432);
// 4*3*2 explicit grid Right Handed
RESQML2_NS::IjkGridExplicitRepresentation* ijkgrid432rh = repo->createIjkGridExplicitRepresentation("4fc004e1-0f7d-46a8-935e-588f790a6f84", "Four by Three by Two Right Handed", 4, 3, 2);
double nodes432rh[216] = {
0, 150, 300, 150, 150, 300, 375, 150, 300, 550, 150, 350, 700, 150, 350, //IJ0K0
0, 100, 300, 150, 100, 300, 375, 100, 300, 550, 100, 350, 700, 100, 350, //IJ1K0
0, 50, 300, 150, 50, 300, 375, 50, 300, 550, 50, 350, 700, 50, 350, //IJ2K0
0, 0, 300, 150, 0, 300, 375, 0, 300, 550, 0, 350, 700, 0, 350, //IJ3K0
375, 0, 350, 375, 50, 350, 375, 100, 350, 375, 150, 350, // SPLIT K0
0, 150, 400, 150, 150, 400, 375, 150, 400, 550, 150, 450, 700, 150, 450, //IJ0K1
0, 100, 400, 150, 100, 400, 375, 100, 400, 550, 100, 450, 700, 100, 450, //IJ1K1
0, 50, 400, 150, 50, 400, 375, 50, 400, 550, 50, 450, 700, 50, 450, //IJ2K1
0, 0, 400, 150, 0, 400, 375, 0, 400, 550, 0, 450, 700, 0, 450, //IJ3K1
375, 0, 450, 375, 50, 450, 375, 100, 450, 375, 150, 450, // SPLIT K1
0, 150, 500, 150, 150, 500, 375, 150, 500, 550, 150, 550, 700, 150, 550, //IJ0K2
0, 100, 500, 150, 100, 500, 375, 100, 500, 550, 100, 550, 700, 100, 550, //IJ1K2
0, 50, 500, 150, 50, 500, 375, 50, 500, 550, 50, 550, 700, 50, 550, //IJ2K2
0, 0, 500, 150, 0, 500, 375, 0, 500, 550, 0, 550, 700, 0, 550, //IJ3K2
375, 0, 550, 375, 50, 550, 375, 100, 550, 375, 150, 550 // SPLIT K2
};
unsigned int pillarOfCoordinateLine432rh[4] = { 17, 12, 7, 2 };
unsigned int splitCoordinateLineColumnCumulativeCount432rh[4] = { 1, 3, 5, 6 };
unsigned int splitCoordinateLineColumns432rh[6] = { 10, 10, 6, 6, 2, 2 };
ijkgrid432rh->setGeometryAsCoordinateLineNodes(gsoap_resqml2_0_1::resqml20__PillarShape::vertical, gsoap_resqml2_0_1::resqml20__KDirection::down, true, nodes432rh, hdfProxy,
4, pillarOfCoordinateLine432rh, splitCoordinateLineColumnCumulativeCount432rh, splitCoordinateLineColumns432rh);
unsigned char enabledCells32rh[24] = {
0, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 0,
1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 0
};
ijkgrid432rh->setCellGeometryIsDefinedFlags(enabledCells32rh);
// 4*3*2 explicit grid with gap layer
bool kgap[1] = { true };
RESQML2_NS::IjkGridExplicitRepresentation* ijkgrid432gap = repo->createIjkGridExplicitRepresentation("c14755a5-e3b3-4272-99e5-fc20993b79a0", "Four by Three by Two with gap layer", 4, 3, 2, kgap);
double nodes432gap[288] = {
0, 150, 300, 150, 150, 300, 375, 150, 300, 550, 150, 350, 700, 150, 350, //IJ0K0
0, 100, 300, 150, 100, 300, 375, 100, 300, 550, 100, 350, 700, 100, 350, //IJ1K0
0, 50, 300, 150, 50, 300, 375, 50, 300, 550, 50, 350, 700, 50, 350, //IJ2K0
0, 0, 300, 150, 0, 300, 375, 0, 300, 550, 0, 350, 700, 0, 350, //IJ3K0
375, 0, 350, 375, 50, 350, 375, 100, 350, 375, 150, 350, // SPLIT K0
0, 150, 360, 150, 150, 360, 375, 150, 360, 550, 150, 410, 700, 150, 410, //IJ0K1
0, 100, 360, 150, 100, 360, 375, 100, 360, 550, 100, 410, 700, 100, 410, //IJ1K1
0, 50, 360, 150, 50, 360, 375, 50, 360, 550, 50, 410, 700, 50, 410, //IJ2K1
0, 0, 360, 150, 0, 360, 375, 0, 360, 550, 0, 410, 700, 0, 410, //IJ3K1
375, 0, 410, 375, 50, 410, 375, 100, 410, 375, 150, 410, // SPLIT K1
// K Gap Layer
0, 150, 400, 150, 150, 400, 375, 150, 400, 550, 150, 450, 700, 150, 450, //IJ0K1
0, 100, 400, 150, 100, 400, 375, 100, 400, 550, 100, 450, 700, 100, 450, //IJ1K1
0, 50, 400, 150, 50, 400, 375, 50, 400, 550, 50, 450, 700, 50, 450, //IJ2K1
0, 0, 400, 150, 0, 400, 375, 0, 400, 550, 0, 450, 700, 0, 450, //IJ3K1
375, 0, 450, 375, 50, 450, 375, 100, 450, 375, 150, 450, // SPLIT K1
0, 150, 500, 150, 150, 500, 375, 150, 500, 550, 150, 550, 700, 150, 550, //IJ0K3
0, 100, 500, 150, 100, 500, 375, 100, 500, 550, 100, 550, 700, 100, 550, //IJ1K3
0, 50, 500, 150, 50, 500, 375, 50, 500, 550, 50, 550, 700, 50, 550, //IJ2K3
0, 0, 500, 150, 0, 500, 375, 0, 500, 550, 0, 550, 700, 0, 550, //IJ3K3
375, 0, 550, 375, 50, 550, 375, 100, 550, 375, 150, 550 // SPLIT K3
};
unsigned int pillarOfCoordinateLine432gap[4] = { 17, 12, 7, 2 };
unsigned int splitCoordinateLineColumnCumulativeCount432gap[4] = { 1, 3, 5, 6 };
unsigned int splitCoordinateLineColumns432gap[6] = { 10, 10, 6, 6, 2, 2 };
ijkgrid432gap->setGeometryAsCoordinateLineNodes(gsoap_resqml2_0_1::resqml20__PillarShape::vertical, gsoap_resqml2_0_1::resqml20__KDirection::down, true, nodes432gap, hdfProxy,
4, pillarOfCoordinateLine432gap, splitCoordinateLineColumnCumulativeCount432gap, splitCoordinateLineColumns432gap);
unsigned char enabledCells32gap[24] = {
0, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 0,
1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 0
};
ijkgrid432gap->setCellGeometryIsDefinedFlags(enabledCells32gap);
/**************
Subrepresentations
***************/
#ifndef WITH_RESQML2_2
if (fault1Interp1 != nullptr)
{
RESQML2_NS::SubRepresentation * faultSubRep = repo->createSubRepresentation(fault1Interp1, "ff248280-fa3d-11e5-a35c-0002a5d5c51b", "Fault Subrep In Grid");
faultSubRep->pushBackSupportingRepresentation(twoCellsIjkGrid);
uint64_t faultPillar[2] = { 1, 4 };
faultSubRep->pushBackSubRepresentationPatch(gsoap_eml2_3::eml23__IndexableElement::pillars, 2, faultPillar, hdfProxy);
}
RESQML2_NS::SubRepresentation * actnum = repo->createSubRepresentation("323001d0-468c-41d7-abec-7d12c3c9428b", "ACTNUM");
actnum->pushBackSupportingRepresentation(ijkgrid432);
uint64_t actnumValues[21] = {
1, 2, 3, 4, 5, 6, 7, 8, 9, 10,
12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22
};
actnum->pushBackSubRepresentationPatch(gsoap_eml2_3::eml23__IndexableElement::cells, 21, actnumValues, hdfProxy);
// Double grid subrep
RESQML2_NS::SubRepresentation * doubleGridSubrep = repo->createSubRepresentation("f6d23b9c-e45d-4638-9601-ae3b682129a0", "TEST MULTI GRIDS SUBREP");
doubleGridSubrep->pushBackSupportingRepresentation(ijkgrid432);
doubleGridSubrep->pushBackSupportingRepresentation(twoCellsIjkGrid);
uint64_t doubleGridSubrepValues[23] = {
1, 4,
1, 2, 3, 4, 5, 6, 7, 8, 9, 10,
12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22
};
short doubleGridSubrepSupportingRepIndices[23] = {
0, 0,
1, 1, 1, 1, 1, 1, 1, 1, 1, 1,
1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1
};
doubleGridSubrep->pushBackSubRepresentationPatch(gsoap_eml2_3::eml23__IndexableElement::cells, 23, doubleGridSubrepValues, hdfProxy, doubleGridSubrepSupportingRepIndices);
#endif
/**************
Grid Connection
***************/
RESQML2_NS::GridConnectionSetRepresentation * gridConnSet = repo->createGridConnectionSetRepresentation("03bb6fc0-fa3e-11e5-8c09-0002a5d5c51b", "GridConnectionSetRepresentation");
gridConnSet->pushBackSupportingGridRepresentation(twoCellsIjkGrid);
int64_t cellConn[6] = { 0, 9999, 0, 1, 9999, 1 };
gridConnSet->setCellIndexPairs(3, cellConn, 9999, hdfProxy);
int localFacePerCellIndexPairs[6] = { 3, -1, 3, 5, -1, 5 };
gridConnSet->setLocalFacePerCellIndexPairs(localFacePerCellIndexPairs, -1, hdfProxy);
if (fault1Interp1 != nullptr)
{
// link to fault
gridConnSet->pushBackInterpretation(fault1Interp1);
uint64_t interpCumulativeCount[3] = { 0, 1, 1 };
int64_t faultIndices = 0;
gridConnSet->setConnectionInterpretationIndices(interpCumulativeCount, &faultIndices, hdfProxy);
}
RESQML2_NS::GridConnectionSetRepresentation * gridConnSet432 = repo->createGridConnectionSetRepresentation("20b480a8-5e3b-4336-8f6e-1b3099c2c60f", "GridConnectionSetRepresentation");
gridConnSet432->pushBackSupportingGridRepresentation(ijkgrid432);
int64_t cellConn432[30] = {
1, 9999, 5, 9999, 9, 9999,
1, 2, 5, 6, 9, 10,
13, 2, 17, 6, 21, 10,
13, 14, 17, 18, 21, 22,
9999, 14, 9999, 18, 9999, 22
};
gridConnSet432->setCellIndexPairs(15, cellConn432, 9999, hdfProxy);
int localFacePerCellIndexPairs432[30] = {
3, -1, 3, -1, 3, -1,
3, 5, 3, 5, 3, 5,
3, 5, 3, 5, 3, 5,
3, 5, 3, 5, 3, 5,
-1, 5, -1, 5, -1, 5