Refactor classes in RigWellResultPoint.h

* Move RigWellResultFrame implementation into separate file
Update/correct includes accordingly

* First step of moving attributes from public to private
- Move public members to private and create interface
- Single public member remains due to strong dependency on usage of reference and reference to its object public members

* Second step of moving attributes from public to privatee
- Remove usage of reference directly to attributes. Interface with copy and set.
- Moving attributes in RigWellResultFrame and RigWellResultBranch

* Move class RigWellResultBranch into separate file
This commit is contained in:
Jørgen Herje
2023-04-14 11:00:45 +02:00
committed by GitHub
parent dc4d4022d2
commit 457dc9080f
36 changed files with 653 additions and 999 deletions

View File

@@ -26,7 +26,7 @@
#include "RigEclipseCaseData.h"
#include "RigMainGrid.h"
#include "RigSimWellData.h"
#include "RigWellResultPoint.h"
#include "RigWellResultFrame.h"
#include "RimEclipseCase.h"
#include "RimEclipseView.h"
@@ -233,8 +233,8 @@ void RigSimulationWellCenterLineCalculator::calculateWellPipeCenterlineForTimeSt
}
#endif
const RigWellResultFrame& wellFrame = *wellFramePtr;
const std::vector<RigWellResultBranch>& resBranches = wellFrame.m_wellResultBranches;
const RigWellResultFrame& wellFrame = *wellFramePtr;
const std::vector<RigWellResultBranch> resBranches = wellFrame.wellResultBranches();
// Well head
// Match this position with well head position in RivWellHeadPartMgr::buildWellHeadParts()
@@ -290,7 +290,7 @@ void RigSimulationWellCenterLineCalculator::calculateWellPipeCenterlineForTimeSt
// Loop over all the resultPoints in the branch
const std::vector<RigWellResultPoint>& resBranchCells = resBranches[brIdx].m_branchResultPoints;
const std::vector<RigWellResultPoint> resBranchCells = resBranches[brIdx].branchResultPoints();
for ( int cIdx = 0; cIdx < static_cast<int>( resBranchCells.size() ); cIdx++ ) // Need int because cIdx can
// temporarily end on
@@ -554,17 +554,11 @@ void RigSimulationWellCenterLineCalculator::addCellCenterPoints( const RigEclips
//--------------------------------------------------------------------------------------------------
bool RigSimulationWellCenterLineCalculator::hasAnyValidDataCells( const RigWellResultBranch& branch )
{
bool hasValidData = false;
for ( size_t cIdx = 0; cIdx < branch.m_branchResultPoints.size(); ++cIdx )
for ( const auto& branchResultPoint : branch.branchResultPoints() )
{
if ( branch.m_branchResultPoints[cIdx].isValid() )
{
hasValidData = true;
break;
}
if ( branchResultPoint.isValid() ) return true;
}
return hasValidData;
return false;
}
//--------------------------------------------------------------------------------------------------
@@ -581,616 +575,3 @@ void RigSimulationWellCenterLineCalculator::finishPipeCenterLine( std::vector<st
pipeBranchesCLCoords.back().push_back( entryPointLastCell + 1.5 * ( lastCellCenter - entryPointLastCell ) );
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
class BranchSplitter
{
public:
BranchSplitter( const RigWellResultFrame& awellResultFrame, const RigEclipseCaseData* eclipseCaseData )
: m_eclipseCaseData( eclipseCaseData )
, m_orgWellResultFrame( awellResultFrame )
{
CVF_ASSERT( m_orgWellResultFrame.m_wellResultBranches.size() <= 1 );
m_branchedWell = m_orgWellResultFrame;
buildCellSearchTree();
buildCellsToNeighborsMap();
buildUnusedCellsSet();
buildBranchLinesOfContinousNeighbourCells();
class DistToEndPoint
{
public:
DistToEndPoint( double adist, std::list<std::pair<bool, std::deque<size_t>>>::iterator aBranchLineIt, bool aToFrontOfBranchLine2 )
: dist( adist )
, branchLineIt( aBranchLineIt )
, toFrontOfBranchLine( aToFrontOfBranchLine2 )
{
}
double dist;
std::list<std::pair<bool, std::deque<size_t>>>::iterator branchLineIt;
bool toFrontOfBranchLine;
bool operator<( const DistToEndPoint& other ) const { return dist < other.dist; }
};
auto cmp = []( std::list<std::pair<bool, std::deque<size_t>>>::iterator a,
std::list<std::pair<bool, std::deque<size_t>>>::iterator b ) { return &( *a ) < &( *b ); };
std::set<std::list<std::pair<bool, std::deque<size_t>>>::iterator, decltype( cmp )> unusedBranchLineIterators( cmp );
std::map<int, std::multiset<DistToEndPoint>> resBranchIdxToBranchLineEndPointsDists;
/// Creating useful lambda functions
auto buildResBranchToBranchLineEndsDistMap =
[&unusedBranchLineIterators, &resBranchIdxToBranchLineEndPointsDists, this]( const cvf::Vec3d& fromPoint, int resultBranchIndex )
{
for ( auto it : unusedBranchLineIterators )
{
{
double dist = calculateFrontToPointDistance( it->second, fromPoint );
resBranchIdxToBranchLineEndPointsDists[resultBranchIndex].insert( DistToEndPoint( dist, it, true ) );
}
{
double dist = calculateEndToPointDistance( it->second, fromPoint );
resBranchIdxToBranchLineEndPointsDists[resultBranchIndex].insert( DistToEndPoint( dist, it, false ) );
}
}
};
auto removeBranchLineFromDistanceMap =
[&resBranchIdxToBranchLineEndPointsDists]( std::list<std::pair<bool, std::deque<size_t>>>::iterator branchLineToMergeIt )
{
for ( auto& brIdx_DistToEndPointSet : resBranchIdxToBranchLineEndPointsDists )
{
std::vector<std::multiset<DistToEndPoint>::iterator> iteratorsToErase;
for ( auto it = brIdx_DistToEndPointSet.second.begin(); it != brIdx_DistToEndPointSet.second.end(); ++it )
{
if ( it->branchLineIt == branchLineToMergeIt )
{
iteratorsToErase.push_back( it );
}
}
for ( auto itToErase : iteratorsToErase )
brIdx_DistToEndPointSet.second.erase( itToErase );
}
};
// Make the result container ready
m_branchedWell.m_wellResultBranches.clear();
m_branchedWell.m_wellResultBranches.push_back( RigWellResultBranch() );
// Build set of unused branch lines
for ( auto brLIt = m_branchLines.begin(); brLIt != m_branchLines.end(); ++brLIt )
{
if ( brLIt->first ) unusedBranchLineIterators.insert( brLIt );
}
// Calculate wellhead to branch line ends distances
{
const RigCell& whCell = m_eclipseCaseData->cellFromWellResultCell( m_orgWellResultFrame.wellHeadOrStartCell() );
cvf::Vec3d whStartPos = whCell.faceCenter( cvf::StructGridInterface::NEG_K );
buildResBranchToBranchLineEndsDistMap( whStartPos, -1 );
}
// Add the branchLine closest to wellhead into the result
{
auto closestEndPointIt = resBranchIdxToBranchLineEndPointsDists[-1].begin();
addBranchLineToLastWellResultBranch( closestEndPointIt->branchLineIt, closestEndPointIt->toFrontOfBranchLine );
unusedBranchLineIterators.erase( closestEndPointIt->branchLineIt );
removeBranchLineFromDistanceMap( closestEndPointIt->branchLineIt );
}
// Add the branchLines that starts directly from another branchLine
{
for ( auto brLIt = m_branchLines.begin(); brLIt != m_branchLines.end(); ++brLIt )
{
if ( !brLIt->first )
{
m_branchedWell.m_wellResultBranches.push_back( RigWellResultBranch() );
addBranchLineToLastWellResultBranch( brLIt, true );
}
}
}
while ( !unusedBranchLineIterators.empty() )
{
// Calculate distance from end of all currently added result branches to all branch lines
for ( size_t resultBranchIndex = 0; resultBranchIndex < m_branchedWell.m_wellResultBranches.size(); ++resultBranchIndex )
{
if ( !resBranchIdxToBranchLineEndPointsDists.count( (int)resultBranchIndex ) &&
m_branchedWell.m_wellResultBranches[resultBranchIndex].m_branchResultPoints.size() &&
m_branchedWell.m_wellResultBranches[resultBranchIndex].m_branchResultPoints.back().isCell() )
{
const RigCell& whCell = eclipseCaseData->cellFromWellResultCell(
m_branchedWell.m_wellResultBranches[resultBranchIndex].m_branchResultPoints.back() );
cvf::Vec3d branchEndPoint = whCell.center();
buildResBranchToBranchLineEndsDistMap( branchEndPoint, (int)resultBranchIndex );
}
}
// Find the result branch to grow, by finding the one with the closest distance to a branchLine
int minDistanceBrIdx = -1;
DistToEndPoint closestEndPoint( HUGE_VAL, m_branchLines.end(), true );
for ( auto& brIdx_DistToEndPointSet : resBranchIdxToBranchLineEndPointsDists )
{
if ( brIdx_DistToEndPointSet.second.begin()->dist < closestEndPoint.dist )
{
minDistanceBrIdx = brIdx_DistToEndPointSet.first;
closestEndPoint = *( brIdx_DistToEndPointSet.second.begin() );
}
}
// Grow the result branch with the branchLine
auto closestEndPointIt = resBranchIdxToBranchLineEndPointsDists[minDistanceBrIdx].begin();
auto branchLineToAddIt = closestEndPointIt->branchLineIt;
addBranchLineToWellResultBranch( minDistanceBrIdx, branchLineToAddIt, closestEndPointIt->toFrontOfBranchLine );
// Remove the branchLine from the control datastructures
unusedBranchLineIterators.erase( branchLineToAddIt );
resBranchIdxToBranchLineEndPointsDists.erase( minDistanceBrIdx );
removeBranchLineFromDistanceMap( branchLineToAddIt );
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
RigWellResultFrame splittedWellResultFrame() { return m_branchedWell; }
private:
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void addBranchLineToLastWellResultBranch( std::list<std::pair<bool, std::deque<size_t>>>::iterator branchLineIt, bool startAtFront )
{
addBranchLineToWellResultBranch( static_cast<int>( m_branchedWell.m_wellResultBranches.size() ) - 1, branchLineIt, startAtFront );
}
//--------------------------------------------------------------------------------------------------
/// branchIdx == -1 creates a new branch
//--------------------------------------------------------------------------------------------------
void addBranchLineToWellResultBranch( int branchIdx, std::list<std::pair<bool, std::deque<size_t>>>::iterator branchLineIt, bool startAtFront )
{
if ( branchIdx < 0 )
{
m_branchedWell.m_wellResultBranches.push_back( RigWellResultBranch() );
branchIdx = static_cast<int>( m_branchedWell.m_wellResultBranches.size() ) - 1;
RigWellResultPoint wellHeadAsPoint;
const RigCell& whCell = m_eclipseCaseData->cellFromWellResultCell( m_orgWellResultFrame.wellHeadOrStartCell() );
cvf::Vec3d whStartPos = whCell.faceCenter( cvf::StructGridInterface::NEG_K );
wellHeadAsPoint.setBottomPosition( whStartPos );
m_branchedWell.m_wellResultBranches[branchIdx].m_branchResultPoints.push_back( wellHeadAsPoint );
}
RigWellResultBranch& currentBranch = m_branchedWell.m_wellResultBranches[branchIdx];
std::deque<size_t> wellCellIndices = branchLineIt->second;
if ( !startAtFront ) std::reverse( wellCellIndices.begin(), wellCellIndices.end() );
const std::vector<RigWellResultPoint>& orgWellResultPoints = m_orgWellResultFrame.m_wellResultBranches[0].m_branchResultPoints;
#if 1
if ( wellCellIndices.size() )
{
if ( !branchLineIt->first ) // Is real branch, with first cell as cell *before* entry point on main branch
{
RigWellResultPoint branchStartAsResultPoint;
const RigCell& branchStartCell = m_eclipseCaseData->cellFromWellResultCell( orgWellResultPoints[wellCellIndices.front()] );
cvf::Vec3d branchStartPos = branchStartCell.center();
if ( wellCellIndices.size() > 1 )
{
// Use the shared face between the cell before, and the branching cell as start point for the
// branch, to make the pipe "whole"
cvf::StructGridInterface::FaceType sharedFace = cvf::StructGridInterface::NO_FACE;
m_eclipseCaseData->findSharedSourceFace( sharedFace,
orgWellResultPoints[wellCellIndices[0]],
orgWellResultPoints[wellCellIndices[1]] );
if ( sharedFace != cvf::StructGridInterface::NO_FACE )
{
branchStartPos = branchStartCell.faceCenter( sharedFace );
}
}
branchStartAsResultPoint.setBottomPosition( branchStartPos );
m_branchedWell.m_wellResultBranches[branchIdx].m_branchResultPoints.push_back( branchStartAsResultPoint );
}
else
{
currentBranch.m_branchResultPoints.push_back( orgWellResultPoints[wellCellIndices.front()] );
}
for ( size_t i = 1; i < wellCellIndices.size(); ++i )
{
size_t wcIdx = wellCellIndices[i];
currentBranch.m_branchResultPoints.push_back( orgWellResultPoints[wcIdx] );
}
}
#else
for ( size_t wcIdx : wellCellIndices )
{
currentBranch.m_branchResultPoints.push_back( orgWellResultPoints[wcIdx] );
}
#endif
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void buildCellSearchTree()
{
const std::vector<RigWellResultPoint>& orgWellResultPoints = m_orgWellResultFrame.m_wellResultBranches[0].m_branchResultPoints;
size_t cellCount = orgWellResultPoints.size();
m_cellBoundingBoxes.resize( cellCount );
const std::vector<cvf::Vec3d>& nodes = m_eclipseCaseData->mainGrid()->nodes();
for ( size_t cIdx = 0; cIdx < cellCount; ++cIdx )
{
if ( !orgWellResultPoints[cIdx].isCell() ) continue;
const RigCell& wellCell = m_eclipseCaseData->cellFromWellResultCell( orgWellResultPoints[cIdx] );
if ( wellCell.isInvalid() ) continue;
const std::array<size_t, 8>& cellIndices = wellCell.cornerIndices();
cvf::BoundingBox& cellBB = m_cellBoundingBoxes[cIdx];
for ( size_t i : cellIndices )
{
cellBB.add( nodes[i] );
}
}
m_cellSearchTree.buildTreeFromBoundingBoxes( m_cellBoundingBoxes, nullptr );
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void buildCellsToNeighborsMap()
{
const std::vector<RigWellResultPoint>& orgWellResultPoints = m_orgWellResultFrame.m_wellResultBranches[0].m_branchResultPoints;
size_t cellCount = orgWellResultPoints.size();
const std::vector<cvf::Vec3d>& nodes = m_eclipseCaseData->mainGrid()->nodes();
double cellSizeI, cellSizeJ, cellSizeK;
m_eclipseCaseData->mainGrid()->characteristicCellSizes( &cellSizeI, &cellSizeJ, &cellSizeK );
double stdArea = cellSizeK * ( cellSizeI + cellSizeJ ) * 0.5;
for ( size_t cIdx = 0; cIdx < cellCount; ++cIdx )
{
std::vector<size_t> closeCells;
m_cellSearchTree.findIntersections( m_cellBoundingBoxes[cIdx], &closeCells );
const RigCell& c1 = m_eclipseCaseData->cellFromWellResultCell( orgWellResultPoints[cIdx] );
m_cellsWithNeighbors[cIdx]; // Add an empty set for this cell, in case we have no neighbors
for ( size_t idxToCloseCell : closeCells )
{
if ( idxToCloseCell != cIdx && m_cellsWithNeighbors[cIdx].count( idxToCloseCell ) == 0 )
{
const RigCell& c2 = m_eclipseCaseData->cellFromWellResultCell( orgWellResultPoints[idxToCloseCell] );
std::vector<size_t> poygonIndices;
std::vector<cvf::Vec3d> intersections;
auto contactFace = RigCellFaceGeometryTools::calculateCellFaceOverlap( c1,
c2,
*( m_eclipseCaseData->mainGrid() ),
&poygonIndices,
&intersections );
if ( contactFace != cvf::StructGridInterface::NO_FACE )
{
std::vector<cvf::Vec3d> realPolygon;
for ( size_t pIdx = 0; pIdx < poygonIndices.size(); ++pIdx )
{
if ( poygonIndices[pIdx] < nodes.size() )
realPolygon.push_back( nodes[poygonIndices[pIdx]] );
else
realPolygon.push_back( intersections[poygonIndices[pIdx] - nodes.size()] );
}
// Polygon area vector
cvf::Vec3d area = cvf::GeometryTools::polygonAreaNormal3D( realPolygon );
if ( area.length() < 1e-3 * stdArea ) continue;
m_cellsWithNeighbors[cIdx].insert( idxToCloseCell );
m_cellsWithNeighbors[idxToCloseCell].insert( cIdx );
}
}
}
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void buildUnusedCellsSet()
{
const std::vector<RigWellResultPoint>& orgWellResultPoints = m_orgWellResultFrame.m_wellResultBranches[0].m_branchResultPoints;
size_t cellCount = orgWellResultPoints.size();
for ( size_t i = 0; i < cellCount; ++i )
{
if ( orgWellResultPoints[i].isCell() ) m_unusedWellCellIndices.insert( i );
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void buildBranchLinesOfContinousNeighbourCells()
{
for ( auto& cellWithNeighborsPair : m_cellsWithNeighbors )
{
auto it = m_unusedWellCellIndices.find( cellWithNeighborsPair.first );
if ( it != m_unusedWellCellIndices.end() )
{
m_unusedWellCellIndices.erase( it );
// Create a new branchline containing the cell itself.
m_branchLines.push_back( std::make_pair( true, std::deque<size_t>() ) );
auto currentBranchLineIt = std::prev( m_branchLines.end() );
auto& branchList = currentBranchLineIt->second;
branchList.push_back( cellWithNeighborsPair.first );
unsigned endToGrow = 0; // 0 end, 1 front, > 1 new branch
size_t neighbour = findBestNeighbor( cellWithNeighborsPair.first, cellWithNeighborsPair.second );
while ( neighbour != cvf::UNDEFINED_SIZE_T )
{
m_unusedWellCellIndices.erase( neighbour );
if ( endToGrow == 0 )
{
branchList.push_back( neighbour );
growBranchListEnd( currentBranchLineIt );
endToGrow++;
}
else if ( endToGrow == 1 )
{
branchList.push_front( neighbour );
growBranchListFront( currentBranchLineIt );
endToGrow++;
}
else // if ( endToGrow > 1 )
{
m_branchLines.push_back(
std::make_pair( false, std::deque<size_t>{ branchList.front(), cellWithNeighborsPair.first, neighbour } ) );
auto newBranchLineIt = std::prev( m_branchLines.end() );
growBranchListEnd( newBranchLineIt );
if ( newBranchLineIt->second.size() == 3 )
{
// No real contribution from the branch.
// Put the cell into main stem
// Todo
}
}
neighbour = findBestNeighbor( cellWithNeighborsPair.first, cellWithNeighborsPair.second );
}
}
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
size_t findBestNeighbor( size_t cell, std::set<size_t> neighbors )
{
size_t posKNeighbor = cvf::UNDEFINED_SIZE_T;
size_t firstUnused = cvf::UNDEFINED_SIZE_T;
const std::vector<RigWellResultPoint>& orgWellResultPoints = m_orgWellResultFrame.m_wellResultBranches[0].m_branchResultPoints;
for ( size_t neighbor : neighbors )
{
if ( m_unusedWellCellIndices.count( neighbor ) )
{
cvf::StructGridInterface::FaceType sharedFace;
m_eclipseCaseData->findSharedSourceFace( sharedFace, orgWellResultPoints[cell], orgWellResultPoints[neighbor] );
if ( sharedFace == cvf::StructGridInterface::NEG_K ) return neighbor;
if ( sharedFace == cvf::StructGridInterface::POS_K )
posKNeighbor = neighbor;
else if ( firstUnused == cvf::UNDEFINED_SIZE_T )
{
firstUnused = neighbor;
}
}
}
if ( posKNeighbor != cvf::UNDEFINED_SIZE_T )
{
return posKNeighbor;
}
else
{
return firstUnused;
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void growBranchListEnd( std::list<std::pair<bool, std::deque<size_t>>>::iterator branchListIt )
{
std::deque<size_t>& branchList = branchListIt->second;
CVF_ASSERT( branchList.size() );
size_t startCell = branchList.back();
size_t prevCell = cvf::UNDEFINED_SIZE_T;
size_t startCellPosInStem = branchList.size() - 1;
if ( branchList.size() > 1 ) prevCell = branchList[branchList.size() - 2];
const auto& neighbors = m_cellsWithNeighbors[startCell];
size_t nb = findBestNeighbor( startCell, neighbors );
if ( nb != cvf::UNDEFINED_SIZE_T )
{
branchList.push_back( nb );
m_unusedWellCellIndices.erase( nb );
growBranchListEnd( branchListIt );
}
startAndGrowSeparateBranchesFromRestOfNeighbors( startCell, prevCell, neighbors, branchList, startCellPosInStem, true );
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void startAndGrowSeparateBranchesFromRestOfNeighbors( size_t startCell,
size_t prevCell,
const std::set<size_t>& neighbors,
std::deque<size_t> mainStem,
size_t branchPosInMainStem,
bool stemEndIsGrowing )
{
size_t nb = findBestNeighbor( startCell, neighbors );
while ( nb != cvf::UNDEFINED_SIZE_T )
{
if ( prevCell == cvf::UNDEFINED_SIZE_T )
{
m_branchLines.push_back( std::make_pair( false, std::deque<size_t>{ startCell, nb } ) );
}
else
{
m_branchLines.push_back( std::make_pair( false, std::deque<size_t>{ prevCell, startCell, nb } ) );
}
m_unusedWellCellIndices.erase( nb );
auto lastBranchIt = std::prev( m_branchLines.end() );
size_t separateBranchStartSize = lastBranchIt->second.size();
growBranchListEnd( lastBranchIt );
if ( lastBranchIt->second.size() == separateBranchStartSize )
{
// No use in this branch.
// put cell into main stem instead
if ( stemEndIsGrowing )
mainStem.insert( mainStem.begin() + branchPosInMainStem, nb );
else
mainStem.insert( mainStem.end() - branchPosInMainStem, nb );
m_branchLines.erase( lastBranchIt );
}
nb = findBestNeighbor( startCell, neighbors );
}
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void growBranchListFront( std::list<std::pair<bool, std::deque<size_t>>>::iterator branchListIt )
{
std::deque<size_t>& branchList = branchListIt->second;
CVF_ASSERT( branchList.size() );
size_t startCell = branchList.front();
size_t prevCell = cvf::UNDEFINED_SIZE_T;
size_t startCellPosInStem = branchList.size() - 1;
if ( branchList.size() > 1 ) prevCell = branchList[1];
const auto& neighbors = m_cellsWithNeighbors[startCell];
size_t nb = findBestNeighbor( startCell, neighbors );
if ( nb != cvf::UNDEFINED_SIZE_T )
{
branchList.push_front( nb );
m_unusedWellCellIndices.erase( nb );
growBranchListFront( branchListIt );
}
startAndGrowSeparateBranchesFromRestOfNeighbors( startCell, prevCell, neighbors, branchList, startCellPosInStem, false );
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
double calculateFrontToPointDistance( const std::deque<size_t>& second, const cvf::Vec3d& point )
{
// Todo, more fancy virtual curvature based distance using an estimated direction from the branch-end
return calculateWellCellToPointDistance( second.front(), point );
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
double calculateEndToPointDistance( const std::deque<size_t>& second, const cvf::Vec3d& point )
{
// Todo, more fancy virtual curvature based distance using an estimated direction from the branch-end
return calculateWellCellToPointDistance( second.back(), point );
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
double calculateWellCellToPointDistance( size_t wellCellIdx, const cvf::Vec3d& point )
{
const std::vector<RigWellResultPoint>& orgWellResultPoints = m_orgWellResultFrame.m_wellResultBranches[0].m_branchResultPoints;
const RigCell& c = m_eclipseCaseData->cellFromWellResultCell( orgWellResultPoints[wellCellIdx] );
cvf::Vec3d cellCenter = c.center();
return ( point - cellCenter ).length();
}
private:
// The bool tells if this can be expanded in the front,
// Set to false when the branchLine starts from a branching cell (cell with more than two neighbors)
std::list<std::pair<bool, std::deque<size_t>>> m_branchLines;
std::vector<cvf::BoundingBox> m_cellBoundingBoxes;
cvf::BoundingBoxTree m_cellSearchTree;
std::map<size_t, std::set<size_t>> m_cellsWithNeighbors;
std::set<size_t> m_unusedWellCellIndices;
RigWellResultFrame m_branchedWell;
const RigEclipseCaseData* m_eclipseCaseData;
const RigWellResultFrame& m_orgWellResultFrame;
};
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
RigWellResultFrame RigSimulationWellCenterLineCalculator::splitIntoBranches( const RigWellResultFrame& wellResultFrame,
const RigEclipseCaseData* eclipseCaseData )
{
BranchSplitter splitter( wellResultFrame, eclipseCaseData );
return splitter.splittedWellResultFrame();
}