//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void RimCellRangeFilter::setDefaultValues()
{
CVF_ASSERT(m_parentContainer);
RigMainGrid* mainGrid = m_parentContainer->mainGrid();
if (mainGrid)
{
cvf::Vec3st min, max;
mainGrid->matrixModelActiveCellsBoundingBox(min, max);
// Adjust to Eclipse indexing
min.x() = min.x() + 1;
min.y() = min.y() + 1;
min.z() = min.z() + 1;
max.x() = max.x() + 1;
max.y() = max.y() + 1;
max.z() = max.z() + 1;
startIndexI = static_cast<int>(min.x());
startIndexJ = static_cast<int>(min.y());
startIndexK = static_cast<int>(min.z());
cellCountI = static_cast<int>(max.x() - min.x() + 1);
cellCountJ = static_cast<int>(max.y() - min.y() + 1);
cellCountK = static_cast<int>(max.z() - min.z() + 1);
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
QList<caf::PdmOptionItemInfo> RimCellRangeFilter::calculateValueOptions(const caf::PdmFieldHandle* fieldNeedingOptions, bool * useOptionsOnly)
{
QList<caf::PdmOptionItemInfo> options;
if (useOptionsOnly) (*useOptionsOnly) = true;
if (&gridIndex == fieldNeedingOptions)
{
RigMainGrid * mainGrid = NULL;
if (parentContainer() && parentContainer()->reservoirView() && parentContainer()->reservoirView()->eclipseCase() && parentContainer()->reservoirView()->eclipseCase()->reservoirData())
mainGrid = parentContainer()->reservoirView()->eclipseCase()->reservoirData()->mainGrid();
for (size_t gIdx = 0; gIdx < mainGrid->gridCount(); ++gIdx)
{
RigGridBase* grid = mainGrid->gridByIndex(gIdx);
QString gridName;
gridName += grid->gridName().c_str();
if (gIdx == 0)
{
if (gridName.isEmpty())
gridName += "Main Grid";
else
gridName += " (Main Grid)";
}
caf::PdmOptionItemInfo item(gridName, (int)gIdx);
options.push_back(item);
}
}
return options;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
const cvf::StructGridInterface* RimCellRangeFilterCollection::gridByIndex(int gridIndex) const
{
RigMainGrid* mnGrid = mainGrid();
RigFemPartCollection* femPartColl = this->femPartColl();
if (mnGrid)
{
RigGridBase* grid = NULL;
grid = mnGrid->gridByIndex(gridIndex);
CVF_ASSERT(grid);
return grid;
}
else if (femPartColl)
{
if (gridIndex < femPartColl->partCount())
return femPartColl->part(gridIndex)->structGrid();
else
return NULL;
}
return NULL;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
RigGridBase* RimCellRangeFilter::selectedGrid()
{
RigMainGrid* mainGrid = m_parentContainer->mainGrid();
CVF_ASSERT(mainGrid);
RigGridBase* grid = NULL;
if (static_cast<size_t>(gridIndex()) >= mainGrid->gridCount())
{
gridIndex = 0;
}
grid = mainGrid->gridByIndex(gridIndex());
CVF_ASSERT(grid);
return grid;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
QString RimCellRangeFilterCollection::gridName(int gridIndex) const
{
RigMainGrid* mnGrid = mainGrid();
RigFemPartCollection* femPartColl = this->femPartColl();
if (mnGrid)
{
return mnGrid->gridByIndex(gridIndex)->gridName().c_str();
}
else if (femPartColl)
{
return QString::number(gridIndex);
}
return "";
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
int RimCellRangeFilterCollection::gridCount() const
{
RigMainGrid* mnGrid = mainGrid();
RigFemPartCollection* femPartColl = this->femPartColl();
if (mnGrid)
{
return (int)mnGrid->gridCount();
}
else if (femPartColl)
{
return femPartColl->partCount();
}
return 0;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void RimCellRangeFilter::defineEditorAttribute(const caf::PdmFieldHandle* field, QString uiConfigName, caf::PdmUiEditorAttribute * attribute)
{
caf::PdmUiSliderEditorAttribute* myAttr = static_cast<caf::PdmUiSliderEditorAttribute*>(attribute);
if (!myAttr || !m_parentContainer)
{
return;
}
RigMainGrid* mainGrid = m_parentContainer->mainGrid();
if (mainGrid)
{
cvf::Vec3st min, max;
mainGrid->matrixModelActiveCellsBoundingBox(min, max);
// Adjust to Eclipse indexing
min.x() = min.x() + 1;
min.y() = min.y() + 1;
min.z() = min.z() + 1;
max.x() = max.x() + 1;
max.y() = max.y() + 1;
max.z() = max.z() + 1;
startIndexI.setUiName(QString("I Start (%1)").arg(min.x()));
startIndexJ.setUiName(QString("J Start (%1)").arg(min.y()));
startIndexK.setUiName(QString("K Start (%1)").arg(min.z()));
cellCountI.setUiName(QString(" Width (%1)").arg(max.x() - min.x() + 1));
cellCountJ.setUiName(QString(" Width (%1)").arg(max.y() - min.y() + 1));
cellCountK.setUiName(QString(" Width (%1)").arg(max.z() - min.z() + 1));
if (field == &startIndexI || field == &cellCountI)
{
myAttr->m_minimum = 1;
myAttr->m_maximum = static_cast<int>(mainGrid->cellCountI());
}
else if (field == &startIndexJ || field == &cellCountJ)
{
myAttr->m_minimum = 1;
myAttr->m_maximum = static_cast<int>(mainGrid->cellCountJ());
}
else if (field == &startIndexK || field == &cellCountK)
{
myAttr->m_minimum = 1;
myAttr->m_maximum = static_cast<int>(mainGrid->cellCountK());
}
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void RimCellRangeFilter::computeAndSetValidValues()
{
CVF_ASSERT(m_parentContainer);
RigMainGrid* mainGrid = m_parentContainer->mainGrid();
if (mainGrid && mainGrid->cellCount() > 0 )
{
cellCountI = cvf::Math::clamp(cellCountI.v(), 1, static_cast<int>(mainGrid->cellCountI()));
startIndexI = cvf::Math::clamp(startIndexI.v(), 1, static_cast<int>(mainGrid->cellCountI()));
cellCountJ = cvf::Math::clamp(cellCountJ.v(), 1, static_cast<int>(mainGrid->cellCountJ()));
startIndexJ = cvf::Math::clamp(startIndexJ.v(), 1, static_cast<int>(mainGrid->cellCountJ()));
cellCountK = cvf::Math::clamp(cellCountK.v(), 1, static_cast<int>(mainGrid->cellCountK()));
startIndexK = cvf::Math::clamp(startIndexK.v(), 1, static_cast<int>(mainGrid->cellCountK()));
}
this->updateIconState();
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void RigNNCData::processConnections(const RigMainGrid& mainGrid)
{
//cvf::Trace::show("NNC: Total number: " + cvf::String((int)m_connections.size()));
for (size_t cnIdx = 0; cnIdx < m_connections.size(); ++cnIdx)
{
const RigCell& c1 = mainGrid.globalCellArray()[m_connections[cnIdx].m_c1GlobIdx];
const RigCell& c2 = mainGrid.globalCellArray()[m_connections[cnIdx].m_c2GlobIdx];
bool foundAnyOverlap = false;
std::vector<size_t> connectionPolygon;
std::vector<cvf::Vec3d> connectionIntersections;
cvf::StructGridInterface::FaceType connectionFace = cvf::StructGridInterface::NO_FACE;
connectionFace = calculateCellFaceOverlap(c1, c2, mainGrid, &connectionPolygon, &connectionIntersections);
if (connectionFace != cvf::StructGridInterface::NO_FACE)
{
foundAnyOverlap = true;
// Found an overlap polygon. Store data about connection
m_connections[cnIdx].m_c1Face = connectionFace;
for (size_t pIdx = 0; pIdx < connectionPolygon.size(); ++pIdx)
{
if (connectionPolygon[pIdx] < mainGrid.nodes().size())
m_connections[cnIdx].m_polygon.push_back(mainGrid.nodes()[connectionPolygon[pIdx]]);
else
m_connections[cnIdx].m_polygon.push_back(connectionIntersections[connectionPolygon[pIdx] - mainGrid.nodes().size()]);
}
// Add to search map, possibly not needed
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c1GlobIdx][connectionFace].push_back(cnIdx);
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c2GlobIdx][cvf::StructGridInterface::oppositeFace(connectionFace].push_back(cnIdx);
}
else
{
//cvf::Trace::show("NNC: No overlap found for : C1: " + cvf::String((int)m_connections[cnIdx].m_c1GlobIdx) + "C2: " + cvf::String((int)m_connections[cnIdx].m_c2GlobIdx));
}
}
}
//--------------------------------------------------------------------------------------------------
/// Create mask for the parts outside the grid cells of the reservoir
//--------------------------------------------------------------------------------------------------
cvf::ref<cvf::Part> RivWellFracturePartMgr::createMaskOfFractureOutsideGrid(const RimEclipseView& activeView)
{
cvf::Mat4d frMx = m_rimFracture->transformMatrix();
std::vector<cvf::Vec3f> maskTriangles;
auto displCoordTrans = activeView.displayCoordTransform();
for (const auto& visibleFracturePolygon : m_visibleFracturePolygons)
{
std::vector<cvf::Vec3d> borderOfFractureCellPolygonLocalCsd;
cvf::BoundingBox frBBox;
for (const auto& pv : visibleFracturePolygon)
{
cvf::Vec3d pvd(pv);
borderOfFractureCellPolygonLocalCsd.push_back(pvd);
pvd.transformPoint(frMx);
frBBox.add(pvd);
}
std::vector<std::vector<cvf::Vec3d>> clippedPolygons;
std::vector<size_t> cellCandidates;
activeView.mainGrid()->findIntersectingCells(frBBox, &cellCandidates);
if (cellCandidates.empty())
{
clippedPolygons.push_back(borderOfFractureCellPolygonLocalCsd);
}
else
{
// Check if fracture polygon is fully inside the grid
bool allPointsInsideGrid = true;
for (const auto& v : borderOfFractureCellPolygonLocalCsd)
{
auto pointInDomainCoords = v.getTransformedPoint(frMx);
bool pointInsideGrid = false;
RigMainGrid* mainGrid = activeView.mainGrid();
std::array<cvf::Vec3d, 8> corners;
for (size_t cellIndex : cellCandidates)
{
mainGrid->cellCornerVertices(cellIndex, corners.data());
if (RigHexIntersectionTools::isPointInCell(pointInDomainCoords, corners.data()))
{
pointInsideGrid = true;
break;
}
}
if (!pointInsideGrid)
{
allPointsInsideGrid = false;
break;
}
}
if (!allPointsInsideGrid)
{
std::vector<std::vector<cvf::Vec3d>> allEclCellPolygons;
for (size_t resCellIdx : cellCandidates)
{
// Calculate Eclipse cell intersection with fracture plane
std::array<cvf::Vec3d, 8> corners;
activeView.mainGrid()->cellCornerVertices(resCellIdx, corners.data());
std::vector<std::vector<cvf::Vec3d>> eclCellPolygons;
bool hasIntersection = RigHexIntersectionTools::planeHexIntersectionPolygons(corners, frMx, eclCellPolygons);
if (!hasIntersection || eclCellPolygons.empty()) continue;
// Transform eclCell - plane intersection onto fracture
cvf::Mat4d invertedTransformMatrix = frMx.getInverted();
for (std::vector<cvf::Vec3d>& eclCellPolygon : eclCellPolygons)
{
for (cvf::Vec3d& v : eclCellPolygon)
{
v.transformPoint(invertedTransformMatrix);
}
allEclCellPolygons.push_back(eclCellPolygon);
}
}
{
std::vector<std::vector<cvf::Vec3d>> polys =
RigCellGeometryTools::subtractPolygons(borderOfFractureCellPolygonLocalCsd, allEclCellPolygons);
for (const auto& polygon : polys)
{
clippedPolygons.push_back(polygon);
}
}
}
}
for (auto& clippedPolygon : clippedPolygons)
{
for (auto& point : clippedPolygon)
{
point.transformPoint(frMx);
}
}
// Create triangles from the clipped polygons
cvf::Vec3d fractureNormal = cvf::Vec3d(frMx.col(2));
for (const auto& clippedPolygon : clippedPolygons)
{
cvf::EarClipTesselator tess;
tess.setNormal(fractureNormal);
cvf::Vec3dArray cvfNodes(clippedPolygon);
tess.setGlobalNodeArray(cvfNodes);
std::vector<size_t> polyIndexes;
for (size_t idx = 0; idx < clippedPolygon.size(); ++idx)
polyIndexes.push_back(idx);
tess.setPolygonIndices(polyIndexes);
std::vector<size_t> triangleIndices;
tess.calculateTriangles(&triangleIndices);
for (size_t idx : triangleIndices)
{
maskTriangles.push_back(cvf::Vec3f(displCoordTrans->transformToDisplayCoord(clippedPolygon[idx])));
}
}
}
if (maskTriangles.size() >= 3)
{
cvf::ref<cvf::DrawableGeo> maskTriangleGeo = new cvf::DrawableGeo;
maskTriangleGeo->setVertexArray(new cvf::Vec3fArray(maskTriangles));
cvf::ref<cvf::PrimitiveSetDirect> primitives = new cvf::PrimitiveSetDirect(cvf::PT_TRIANGLES);
primitives->setIndexCount(maskTriangles.size());
maskTriangleGeo->addPrimitiveSet(primitives.p());
maskTriangleGeo->computeNormals();
cvf::ref<cvf::Part> containmentMaskPart = new cvf::Part(0, "FractureContainmentMaskPart");
containmentMaskPart->setDrawable(maskTriangleGeo.p());
containmentMaskPart->setSourceInfo(new RivObjectSourceInfo(m_rimFracture));
cvf::Color4f maskColor = cvf::Color4f(cvf::Color3f(cvf::Color3::GRAY));
caf::SurfaceEffectGenerator surfaceGen(maskColor, caf::PO_NONE);
cvf::ref<cvf::Effect> eff = surfaceGen.generateCachedEffect();
containmentMaskPart->setEffect(eff.p());
return containmentMaskPart;
}
return nullptr;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
cvf::StructGridInterface::FaceType RigNNCData::calculateCellFaceOverlap(const RigCell &c1,
const RigCell &c2,
const RigMainGrid &mainGrid,
std::vector<size_t>* connectionPolygon,
std::vector<cvf::Vec3d>* connectionIntersections)
{
// Try to find the shared face
bool isPossibleNeighborInDirection[6]={ true, true, true, true, true, true };
if ( c1.hostGrid() == c2.hostGrid() )
{
char hasNeighbourInAnyDirection = 0;
size_t i1, j1, k1;
c1.hostGrid()->ijkFromCellIndex(c1.gridLocalCellIndex(), &i1, &j1, &k1);
size_t i2, j2, k2;
c2.hostGrid()->ijkFromCellIndex(c2.gridLocalCellIndex(), &i2, &j2, &k2);
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_I] = ((i1 + 1) == i2);
isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_I] = ((i2 + 1) == i1);
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_J] = ((j1 + 1) == j2);
isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_J] = ((j2 + 1) == j1);
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_K] = ((k1 + 1) == k2);
isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_K] = ((k2 + 1) == k1);
hasNeighbourInAnyDirection =
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_I]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_I]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::POS_J]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_J]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::POS_K]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_K];
// If cell 2 is not adjancent with respect to any of the six ijk directions,
// assume that we have no overlapping area.
if ( !hasNeighbourInAnyDirection )
{
// Add to search map
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c1GlobIdx][cvf::StructGridInterface::NO_FACE].push_back(cnIdx);
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c2GlobIdx][cvf::StructGridInterface::NO_FACE].push_back(cnIdx);
//cvf::Trace::show("NNC: No direct neighbors : C1: " + cvf::String((int)m_connections[cnIdx].m_c1GlobIdx) + " C2: " + cvf::String((int)m_connections[cnIdx].m_c2GlobIdx));
return cvf::StructGridInterface::NO_FACE;
}
}
#if 0
// Possibly do some testing to avoid unneccesary overlap calculations
cvf::Vec3d normal;
for ( char fIdx = 0; fIdx < 6; ++fIdx )
{
if ( isPossibleNeighborInDirection[fIdx] )
{
cvf::Vec3d fc1 = c1.faceCenter((cvf::StructGridInterface::FaceType)(fIdx));
cvf::Vec3d fc2 = c2.faceCenter(cvf::StructGridInterface::oppositeFace((cvf::StructGridInterface::FaceType)(fIdx)));
cvf::Vec3d fc1ToFc2 = fc2 - fc1;
normal = c1.faceNormalWithAreaLenght((cvf::StructGridInterface::FaceType)(fIdx));
normal.normalize();
// Check that face centers are approx in the face plane
if ( normal.dot(fc1ToFc2) < 0.01*fc1ToFc2.length() )
{
}
}
}
#endif
for ( unsigned char fIdx = 0; fIdx < 6; ++fIdx )
{
if ( !isPossibleNeighborInDirection[fIdx] )
{
continue;
}
// Calculate connection polygon
std::vector<size_t> polygon;
std::vector<cvf::Vec3d> intersections;
caf::SizeTArray4 face1;
caf::SizeTArray4 face2;
c1.faceIndices((cvf::StructGridInterface::FaceType)(fIdx), &face1);
c2.faceIndices(cvf::StructGridInterface::oppositeFace((cvf::StructGridInterface::FaceType)(fIdx)), &face2);
bool foundOverlap = cvf::GeometryTools::calculateOverlapPolygonOfTwoQuads(
&polygon,
&intersections,
(cvf::EdgeIntersectStorage<size_t>*)nullptr,
cvf::wrapArrayConst(&mainGrid.nodes()),
face1.data(),
face2.data(),
1e-6);
if ( foundOverlap )
{
if (connectionPolygon)(*connectionPolygon) = polygon;
if (connectionIntersections) (*connectionIntersections) = intersections;
return (cvf::StructGridInterface::FaceType)(fIdx);
}
}
return cvf::StructGridInterface::NO_FACE;
}
bool interpretCommand(RiaSocketServer* server, const QList<QByteArray>& args, QDataStream& socketStream) override
{
RimEclipseCase* rimCase = RiaSocketTools::findCaseFromArgs(server, args);
QString porosityModelName;
porosityModelName = args[2];
RiaDefines::PorosityModelType porosityModelEnum = RiaDefines::MATRIX_MODEL;
if (porosityModelName.toUpper() == "FRACTURE")
{
porosityModelEnum = RiaDefines::FRACTURE_MODEL;
}
if (!rimCase || !rimCase->eclipseCaseData() )
{
// No data available
socketStream << (quint64)0 << (quint64)0 ;
return true;
}
RigActiveCellInfo* actCellInfo = rimCase->eclipseCaseData()->activeCellInfo(porosityModelEnum);
RigMainGrid* mainGrid = rimCase->eclipseCaseData()->mainGrid();
size_t activeCellCount = actCellInfo->reservoirActiveCellCount();
size_t doubleValueCount = activeCellCount * 3 * 8;
socketStream << (quint64)activeCellCount;
quint64 byteCount = doubleValueCount * sizeof(double);
socketStream << byteCount;
// This structure is supposed to be received by Octave using a NDArray. The ordering of this loop is
// defined by the ordering of the receiving NDArray
//
// See riGetCellCorners
//
// dim_vector dv;
// dv.resize(3);
// dv(0) = coordCount;
// dv(1) = 8;
// dv(2) = 3;
cvf::Vec3d cornerVerts[8];
size_t blockByteCount = activeCellCount * sizeof(double);
std::vector<double> doubleValues(blockByteCount);
for (int coordIdx = 0; coordIdx < 3; coordIdx++)
{
for (size_t cornerIdx = 0; cornerIdx < 8; cornerIdx++)
{
size_t cornerIndexMapping = cellCornerMappingEclipse[cornerIdx];
quint64 valueIndex = 0;
for (size_t reservoirCellIndex = 0; reservoirCellIndex < mainGrid->globalCellArray().size(); reservoirCellIndex++)
{
if (!actCellInfo->isActive(reservoirCellIndex)) continue;
mainGrid->cellCornerVertices(reservoirCellIndex, cornerVerts);
doubleValues[valueIndex++] = getCellCornerWithPositiveDepth(cornerVerts, cornerIndexMapping, coordIdx);
}
CVF_ASSERT(valueIndex == activeCellCount);
RiaSocketTools::writeBlockData(server, server->currentClient(), (const char *)doubleValues.data(), blockByteCount);
}
}
return true;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void RivReservoirFaultsPartMgr::appendPartsToModel(cvf::ModelBasicList* model)
{
CVF_ASSERT(model != NULL);
RimFaultCollection* faultCollection = m_reservoirView->faultCollection();
if (!faultCollection) return;
bool isShowingGrid = faultCollection->isGridVisualizationMode();
if (!faultCollection->showFaultCollection() && !isShowingGrid) return;
// Check match between model fault count and fault parts
CVF_ASSERT(faultCollection->faults.size() == m_faultParts.size());
cvf::ModelBasicList parts;
for (size_t i = 0; i < faultCollection->faults.size(); i++)
{
const RimFault* rimFault = faultCollection->faults[i];
cvf::ref<RivFaultPartMgr> rivFaultPart = m_faultParts[i];
CVF_ASSERT(rivFaultPart.notNull());
// Parts that is overridden by the grid settings
bool forceDisplayOfFault = false;
if (!faultCollection->showFaultsOutsideFilters())
{
forceDisplayOfFault = isShowingGrid;
}
if (m_forceVisibility && isShowingGrid)
{
forceDisplayOfFault = true;
}
if ( (faultCollection->showFaultCollection() && rimFault->showFault()) || forceDisplayOfFault)
{
if (faultCollection->showFaultFaces() || forceDisplayOfFault)
{
rivFaultPart->appendNativeFaultFacesToModel(&parts);
}
if (faultCollection->showOppositeFaultFaces() || forceDisplayOfFault)
{
rivFaultPart->appendOppositeFaultFacesToModel(&parts);
}
if (faultCollection->showFaultFaces() || faultCollection->showOppositeFaultFaces() || faultCollection->showNNCs() || forceDisplayOfFault)
{
rivFaultPart->appendMeshLinePartsToModel(&parts);
}
}
// Parts that is not overridden by the grid settings
RimEclipseFaultColors* faultResultColors = m_reservoirView->faultResultSettings();
RimEclipseCellColors* cellResultColors = m_reservoirView->cellResult();
if (rimFault->showFault() && faultCollection->showFaultCollection())
{
if (faultCollection->showNNCs())
{
bool showNncs = true;
if (faultCollection->hideNncsWhenNoResultIsAvailable())
{
size_t scalarResultIndex = cvf::UNDEFINED_SIZE_T;
if (faultResultColors->showCustomFaultResult())
{
scalarResultIndex = faultResultColors->customFaultResult()->scalarResultIndex();
}
else
{
scalarResultIndex = cellResultColors->scalarResultIndex();
}
RigMainGrid* mainGrid = m_reservoirView->eclipseCase()->reservoirData()->mainGrid();
if (!(mainGrid && mainGrid->nncData()->hasScalarValues(scalarResultIndex)))
{
showNncs = false;
}
}
if (showNncs)
{
rivFaultPart->appendNNCFacesToModel(&parts);
}
}
}
}
for (size_t i = 0; i < parts.partCount(); i++)
{
cvf::Part* part = parts.part(i);
part->setTransform(m_scaleTransform.p());
model->addPart(part);
}
}
//--------------------------------------------------------------------------------------------------
/// Read geometry from file given by name into given reservoir object
//--------------------------------------------------------------------------------------------------
bool RifReaderEclipseOutput::transferGeometry(const ecl_grid_type* mainEclGrid, RigReservoir* reservoir)
{
CVF_ASSERT(reservoir);
if (!mainEclGrid)
{
// Some error
return false;
}
RigMainGrid* mainGrid = reservoir->mainGrid();
{
cvf::Vec3st gridPointDim(0,0,0);
gridPointDim.x() = ecl_grid_get_nx(mainEclGrid) + 1;
gridPointDim.y() = ecl_grid_get_ny(mainEclGrid) + 1;
gridPointDim.z() = ecl_grid_get_nz(mainEclGrid) + 1;
mainGrid->setGridPointDimensions(gridPointDim);
}
// Get and set grid and lgr metadata
size_t totalCellCount = static_cast<size_t>(ecl_grid_get_global_size(mainEclGrid));
int numLGRs = ecl_grid_get_num_lgr(mainEclGrid);
int lgrIdx;
for (lgrIdx = 0; lgrIdx < numLGRs; ++lgrIdx)
{
ecl_grid_type* localEclGrid = ecl_grid_iget_lgr(mainEclGrid, lgrIdx);
std::string lgrName = ecl_grid_get_name(localEclGrid);
cvf::Vec3st gridPointDim(0,0,0);
gridPointDim.x() = ecl_grid_get_nx(localEclGrid) + 1;
gridPointDim.y() = ecl_grid_get_ny(localEclGrid) + 1;
gridPointDim.z() = ecl_grid_get_nz(localEclGrid) + 1;
RigLocalGrid* localGrid = new RigLocalGrid(mainGrid);
mainGrid->addLocalGrid(localGrid);
localGrid->setIndexToStartOfCells(totalCellCount);
localGrid->setGridName(lgrName);
localGrid->setGridPointDimensions(gridPointDim);
totalCellCount += ecl_grid_get_global_size(localEclGrid);
}
// Reserve room for the cells and nodes and fill them with data
mainGrid->cells().reserve(totalCellCount);
mainGrid->nodes().reserve(8*totalCellCount);
caf::ProgressInfo progInfo(3 + numLGRs, "");
progInfo.setProgressDescription("Main Grid");
progInfo.setNextProgressIncrement(3);
transferGridCellData(mainGrid, mainGrid, mainEclGrid, 0, 0);
progInfo.setProgress(3);
size_t globalMatrixActiveSize = ecl_grid_get_nactive(mainEclGrid);
size_t globalFractureActiveSize = ecl_grid_get_nactive_fracture(mainEclGrid);
mainGrid->setMatrixModelActiveCellCount(globalMatrixActiveSize);
mainGrid->setFractureModelActiveCellCount(globalFractureActiveSize);
for (lgrIdx = 0; lgrIdx < numLGRs; ++lgrIdx)
{
progInfo.setProgressDescription("LGR number " + QString::number(lgrIdx+1));
ecl_grid_type* localEclGrid = ecl_grid_iget_lgr(mainEclGrid, lgrIdx);
RigLocalGrid* localGrid = static_cast<RigLocalGrid*>(mainGrid->gridByIndex(lgrIdx+1));
transferGridCellData(mainGrid, localGrid, localEclGrid, globalMatrixActiveSize, globalFractureActiveSize);
int activeCellCount = ecl_grid_get_nactive(localEclGrid);
localGrid->setMatrixModelActiveCellCount(activeCellCount);
globalMatrixActiveSize += activeCellCount;
activeCellCount = ecl_grid_get_nactive_fracture(localEclGrid);
localGrid->setFractureModelActiveCellCount(activeCellCount);
globalFractureActiveSize += activeCellCount;
progInfo.setProgress(3 + lgrIdx);
}
mainGrid->setGlobalMatrixModelActiveCellCount(globalMatrixActiveSize);
mainGrid->setGlobalFractureModelActiveCellCount(globalFractureActiveSize);
return true;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
bool RifEclipseInputFileTools::openGridFile(const QString& fileName, RigEclipseCaseData* eclipseCase, bool readFaultData)
{
CVF_ASSERT(eclipseCase);
std::vector< RifKeywordAndFilePos > keywordsAndFilePos;
findKeywordsOnFile(fileName, &keywordsAndFilePos);
qint64 coordPos = -1;
qint64 zcornPos = -1;
qint64 specgridPos = -1;
qint64 actnumPos = -1;
qint64 mapaxesPos = -1;
findGridKeywordPositions(keywordsAndFilePos, &coordPos, &zcornPos, &specgridPos, &actnumPos, &mapaxesPos);
if (coordPos < 0 || zcornPos < 0 || specgridPos < 0)
{
QString errorText = QString("Failed to import grid file '%1'\n").arg(fileName);
if (coordPos < 0)
{
errorText += " Missing required keyword COORD";
}
if (zcornPos < 0)
{
errorText += " Missing required keyword ZCORN";
}
if (specgridPos < 0)
{
errorText += " Missing required keyword SPECGRID";
}
RiaLogging::error(errorText);
return false;
}
FILE* gridFilePointer = util_fopen(fileName.toLatin1().data(), "r");
if (!gridFilePointer) return false;
// Main grid dimensions
// SPECGRID - This is whats normally available, but not really the input to Eclipse.
// DIMENS - Is what Eclipse expects and uses, but is not defined in the GRID section and is not (?) available normally
// ZCORN, COORD, ACTNUM, MAPAXES
//ecl_kw_type * ecl_kw_fscanf_alloc_grdecl_dynamic__( FILE * stream , const char * kw , bool strict , ecl_type_enum ecl_type);
//ecl_grid_type * ecl_grid_alloc_GRDECL_kw( int nx, int ny , int nz , const ecl_kw_type * zcorn_kw , const ecl_kw_type * coord_kw , const ecl_kw_type * actnum_kw , const ecl_kw_type * mapaxes_kw );
ecl_kw_type* specGridKw = nullptr;
ecl_kw_type* zCornKw = nullptr;
ecl_kw_type* coordKw = nullptr;
ecl_kw_type* actNumKw = nullptr;
ecl_kw_type* mapAxesKw = nullptr;
// Try to read all the needed keywords. Early exit if some are not found
caf::ProgressInfo progress(8, "Read Grid from Eclipse Input file");
bool allKwReadOk = true;
fseek(gridFilePointer, specgridPos, SEEK_SET);
allKwReadOk = allKwReadOk && nullptr != (specGridKw = ecl_kw_fscanf_alloc_current_grdecl__(gridFilePointer, false , ecl_type_create_from_type(ECL_INT_TYPE)));
progress.setProgress(1);
fseek(gridFilePointer, zcornPos, SEEK_SET);
allKwReadOk = allKwReadOk && nullptr != (zCornKw = ecl_kw_fscanf_alloc_current_grdecl__(gridFilePointer, false , ecl_type_create_from_type(ECL_FLOAT_TYPE)));
progress.setProgress(2);
fseek(gridFilePointer, coordPos, SEEK_SET);
allKwReadOk = allKwReadOk && nullptr != (coordKw = ecl_kw_fscanf_alloc_current_grdecl__(gridFilePointer, false , ecl_type_create_from_type(ECL_FLOAT_TYPE)));
progress.setProgress(3);
// If ACTNUM is not defined, this pointer will be NULL, which is a valid condition
if (actnumPos >= 0)
{
fseek(gridFilePointer, actnumPos, SEEK_SET);
allKwReadOk = allKwReadOk && nullptr != (actNumKw = ecl_kw_fscanf_alloc_current_grdecl__(gridFilePointer, false , ecl_type_create_from_type(ECL_INT_TYPE)));
progress.setProgress(4);
}
// If MAPAXES is not defined, this pointer will be NULL, which is a valid condition
if (mapaxesPos >= 0)
{
fseek(gridFilePointer, mapaxesPos, SEEK_SET);
mapAxesKw = ecl_kw_fscanf_alloc_current_grdecl__( gridFilePointer, false , ecl_type_create_from_type(ECL_FLOAT_TYPE));
}
if (!allKwReadOk)
{
if(specGridKw) ecl_kw_free(specGridKw);
if(zCornKw) ecl_kw_free(zCornKw);
if(coordKw) ecl_kw_free(coordKw);
if(actNumKw) ecl_kw_free(actNumKw);
if(mapAxesKw) ecl_kw_free(mapAxesKw);
return false;
}
progress.setProgress(5);
int nx = ecl_kw_iget_int(specGridKw, 0);
int ny = ecl_kw_iget_int(specGridKw, 1);
int nz = ecl_kw_iget_int(specGridKw, 2);
ecl_grid_type* inputGrid = ecl_grid_alloc_GRDECL_kw( nx, ny, nz, zCornKw, coordKw, actNumKw, mapAxesKw );
progress.setProgress(6);
RifReaderEclipseOutput::transferGeometry(inputGrid, eclipseCase);
progress.setProgress(7);
progress.setProgressDescription("Read faults ...");
if (readFaultData)
{
cvf::Collection<RigFault> faults;
RifEclipseInputFileTools::readFaults(fileName, keywordsAndFilePos, &faults);
RigMainGrid* mainGrid = eclipseCase->mainGrid();
mainGrid->setFaults(faults);
}
progress.setProgress(8);
progress.setProgressDescription("Cleaning up ...");
ecl_kw_free(specGridKw);
ecl_kw_free(zCornKw);
ecl_kw_free(coordKw);
if (actNumKw) ecl_kw_free(actNumKw);
if (mapAxesKw) ecl_kw_free(mapAxesKw);
ecl_grid_free(inputGrid);
util_fclose(gridFilePointer);
return true;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void RigReservoirBuilderMock::addFaults(RigEclipseCaseData* eclipseCase)
{
if (!eclipseCase) return;
RigMainGrid* grid = eclipseCase->mainGrid();
if (!grid) return;
cvf::Collection<RigFault> faults;
{
cvf::ref<RigFault> fault = new RigFault;
fault->setName("Fault A");
cvf::Vec3st min = cvf::Vec3st::ZERO;
cvf::Vec3st max(0, 0, cellDimension().z() - 2);
if (cellDimension().x() > 5)
{
min.x() = cellDimension().x() / 2;
max.x() = min.x() + 2;
}
if (cellDimension().y() > 5)
{
min.y() = cellDimension().y() / 2;
max.y() = cellDimension().y() / 2;
}
cvf::CellRange cellRange(min, max);
fault->addCellRangeForFace(cvf::StructGridInterface::POS_I, cellRange);
faults.push_back(fault.p());
}
grid->setFaults(faults);
// NNCs
std::vector<RigConnection>& nncConnections = grid->nncData()->connections();
{
size_t i1 = 2;
size_t j1 = 2;
size_t k1 = 3;
size_t i2 = 2;
size_t j2 = 3;
size_t k2 = 4;
addNnc(grid, i1, j1, k1, i2, j2, k2, nncConnections);
}
{
size_t i1 = 2;
size_t j1 = 2;
size_t k1 = 3;
size_t i2 = 2;
size_t j2 = 1;
size_t k2 = 4;
addNnc(grid, i1, j1, k1, i2, j2, k2, nncConnections);
}
std::vector<double>& tranVals = grid->nncData()->makeStaticConnectionScalarResult(RigNNCData::propertyNameCombTrans());
for (size_t cIdx = 0; cIdx < tranVals.size(); ++cIdx)
{
tranVals[cIdx] = 0.2;
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void RigNNCData::processConnections(const RigMainGrid& mainGrid)
{
//cvf::Trace::show("NNC: Total number: " + cvf::String((int)m_connections.size()));
for (size_t cnIdx = 0; cnIdx < m_connections.size(); ++cnIdx)
{
const RigCell& c1 = mainGrid.globalCellArray()[m_connections[cnIdx].m_c1GlobIdx];
const RigCell& c2 = mainGrid.globalCellArray()[m_connections[cnIdx].m_c2GlobIdx];
// Try to find the shared face
char hasNeighbourInAnyDirection = 0;
bool isPossibleNeighborInDirection[6]= {true, true, true, true, true, true};
if (c1.hostGrid() == c2.hostGrid())
{
size_t i1, j1, k1;
c1.hostGrid()->ijkFromCellIndex(c1.gridLocalCellIndex(), &i1, &j1, &k1);
size_t i2, j2, k2;
c2.hostGrid()->ijkFromCellIndex(c2.gridLocalCellIndex(), &i2, &j2, &k2);
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_I] = ((i1 + 1) == i2);
isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_I] = ((i2 + 1) == i1);
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_J] = ((j1 + 1) == j2);
isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_J] = ((j2 + 1) == j1);
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_K] = ((k1 + 1) == k2);
isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_K] = ((k2 + 1) == k1);
hasNeighbourInAnyDirection =
isPossibleNeighborInDirection[cvf::StructGridInterface::POS_I]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_I]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::POS_J]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_J]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::POS_K]
+ isPossibleNeighborInDirection[cvf::StructGridInterface::NEG_K];
// If cell 2 is not adjancent with respect to any of the six ijk directions,
// assume that we have no overlapping area.
if (!hasNeighbourInAnyDirection)
{
// Add to search map
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c1GlobIdx][cvf::StructGridInterface::NO_FACE].push_back(cnIdx);
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c2GlobIdx][cvf::StructGridInterface::NO_FACE].push_back(cnIdx);
//cvf::Trace::show("NNC: No direct neighbors : C1: " + cvf::String((int)m_connections[cnIdx].m_c1GlobIdx) + " C2: " + cvf::String((int)m_connections[cnIdx].m_c2GlobIdx));
continue; // to next connection
}
}
// Possibly do some testing to avoid unneccesary overlap calculations
cvf::Vec3d normal;
for (char fIdx = 0; fIdx < 6; ++fIdx)
{
if (isPossibleNeighborInDirection[fIdx])
{
cvf::Vec3d fc1 = c1.faceCenter((cvf::StructGridInterface::FaceType)(fIdx));
cvf::Vec3d fc2 = c2.faceCenter(cvf::StructGridInterface::oppositeFace((cvf::StructGridInterface::FaceType)(fIdx)));
cvf::Vec3d fc1ToFc2 = fc2 - fc1;
normal = c1.faceNormalWithAreaLenght((cvf::StructGridInterface::FaceType)(fIdx));
normal.normalize();
// Check that face centers are approx in the face plane
if (normal.dot(fc1ToFc2) < 0.01*fc1ToFc2.length())
{
}
}
}
bool foundAnyOverlap = false;
for (char fIdx = 0; fIdx < 6; ++fIdx)
{
if (!isPossibleNeighborInDirection[fIdx])
{
continue;
}
// Calculate connection polygon
std::vector<size_t> polygon;
std::vector<cvf::Vec3d> intersections;
caf::SizeTArray4 face1;
caf::SizeTArray4 face2;
c1.faceIndices((cvf::StructGridInterface::FaceType)(fIdx), &face1);
c2.faceIndices(cvf::StructGridInterface::oppositeFace((cvf::StructGridInterface::FaceType)(fIdx)), &face2);
bool foundOverlap = cvf::GeometryTools::calculateOverlapPolygonOfTwoQuads(
&polygon,
&intersections,
(cvf::EdgeIntersectStorage<size_t>*)NULL,
cvf::wrapArrayConst(&mainGrid.nodes()),
face1.data(),
face2.data(),
1e-6);
if (foundOverlap)
{
foundAnyOverlap = true;
// Found an overlap polygon. Store data about connection
m_connections[cnIdx].m_c1Face = (cvf::StructGridInterface::FaceType)fIdx;
for (size_t pIdx = 0; pIdx < polygon.size(); ++pIdx)
{
if (polygon[pIdx] < mainGrid.nodes().size())
m_connections[cnIdx].m_polygon.push_back(mainGrid.nodes()[polygon[pIdx]]);
else
m_connections[cnIdx].m_polygon.push_back(intersections[polygon[pIdx] - mainGrid.nodes().size()]);
}
// Add to search map, possibly not needed
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c1GlobIdx][fIdx].push_back(cnIdx);
//m_cellIdxToFaceToConnectionIdxMap[m_connections[cnIdx].m_c2GlobIdx][cvf::StructGridInterface::oppositeFace((cvf::StructGridInterface::FaceType)(fIdx))].push_back(cnIdx);
break; // The connection face is found. Stop looping over the cell faces. Jump to next connection
}
}
if (!foundAnyOverlap)
{
//cvf::Trace::show("NNC: No overlap found for : C1: " + cvf::String((int)m_connections[cnIdx].m_c1GlobIdx) + "C2: " + cvf::String((int)m_connections[cnIdx].m_c2GlobIdx));
}
}
}