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修改求解器参数获取

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feature/UI-20260528
lvjunjie 5 days ago
parent eb1ced4988
commit e9cc8313a7
4 changed files with 106 additions and 120 deletions
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20
Include/nmNum/nmData/nmDataAnalyzeManager.h
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@ -50,6 +50,19 @@ struct BackgroundImageInfo {
QImage objImage; // 具体的QImage对象
};
enum NM_SOLVER_MODEL_TYPE {
SMT_Oil_ConstPvt = 1,
SMT_Oil_VariablePvt = 2,
SMT_Water_ConstPvt = 3,
SMT_Water_VariablePvt = 4,
SMT_Gas_VariablePvt = 5,
SMT_Gas_PseudoPressure = 6,
SMT_Oil_Gas_TwoPhase = 7,
SMT_Oil_Water_TwoPhase = 8,
SMT_Gas_Water_TwoPhase = 9,
SMT_Oil_Gas_Water_ThreePhase = 10
};
class nmDataWellBase;
class ZxDataWell;
class nmDataReservoir;
@ -290,6 +303,10 @@ class NM_DATA_EXPORT nmDataAnalyzeManager : public ZxDataObjectBin
NM_Grid_Type getGridType();
void setGridType(NM_Grid_Type newGridType);
// 求解模型类型
NM_SOLVER_MODEL_TYPE getSolverModelType() const;
void setSolverModelType(NM_SOLVER_MODEL_TYPE newSolverModelType);
// 获取Pebi网格求解数据接口
// 获取压力历史数据
QVector<QVector<double >> getPebiSolverHistoryDataByName(const QString& wellName);
@ -578,6 +595,9 @@ class NM_DATA_EXPORT nmDataAnalyzeManager : public ZxDataObjectBin
// 网格类型
NM_Grid_Type m_eGridType;
// 求解模型类型
NM_SOLVER_MODEL_TYPE m_eSolverModelType;
// Pvt数据(Pebi)
nmDataPvtParaForPebi* m_pebiPvtPara;

21
Src/nmNum/nmCalculation/nmCalculationDllPebiSolverTask.cpp
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@ -43,22 +43,6 @@ void assignPvtVectorIfNotEmpty(dVec1& target, const QVector<double>& source)
}
}
// 将内部储层相态转换为求解器T类型
int pebiModelTypeFromPhase(NM_PHASE_TYPE phaseType)
{
switch(phaseType) {
case PHASE_Water:
return 4;
case PHASE_Gas:
return 5;
case PHASE_Oil_Water:
return 8;
case PHASE_Oil:
default:
return 1;
}
}
bool isFiniteSolverNumber(double value)
{
#ifdef _MSC_VER
@ -154,9 +138,8 @@ bool nmCalculationDllPebiSolverTask::execPebiMode()
HX_NWTM_MODEL_OUTPUT p1;
HX_NWTM_MODEL_INPUT p0(pGridInstance->getGridOutput2());
nmDataReservoir* pReservoirData = pDataInstance->getReservoirData();
NM_PHASE_TYPE phaseType = pReservoirData != nullptr ? pReservoirData->getPhaseType() : PHASE_Oil;
// 根据界面相态选择求解器模型类型
p0.T = pebiModelTypeFromPhase(phaseType);
// 根据PVT参数获取结果选择求解器模型类型
p0.T = static_cast<int>(pDataInstance->getSolverModelType());
// 获取PEBI网格存入井的顺序
QVector<QPair<NM_WELL_MODEL, QString>> vecWellsOrder = pDataInstance->getCalculationWells();

183
Src/nmNum/nmData/nmDataAnalyzeManager.cpp
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@ -113,39 +113,7 @@ void setPebiPressureIfEmpty(nmDataPvtParaForPebi* pPvtPara, const QVector<double
pPvtPara->setPressure(vecX);
}
}
// 根据当前PVT相态决定需要访问哪些相态页。
// 这里只控制PVT页面读取范围，后续参数默认值和PEBI赋值逻辑保持不变。
void resolvePvtPhaseReadFlags(PvtFluidType eType, bool& bReadOil, bool& bReadGas, bool& bReadWater)
{
bReadOil = false;
bReadGas = false;
bReadWater = false;
switch(eType) {
case WFT_Oil:
// 单相油：只访问油相页，避免访问不存在的气/水相页
bReadOil = true;
break;
case WFT_Gas:
// 单相气：只访问气相页
bReadGas = true;
break;
case WFT_Water:
// 单相水：只访问水相页
bReadWater = true;
break;
case WFT_Oil_Water:
// 油水：访问油相和水相页，不访问气相页
bReadOil = true;
bReadWater = true;
break;
default:
// 未识别相态不主动读取相态页，避免PVT工具输出缺失子窗口日志
break;
}
}
// 从Diffusion右侧结果表中提取指定列数据
bool extractDiffusionColumn(const VVecDouble& vvec, int nColumn, QVector<double>& vecValues)
{
@ -268,6 +236,7 @@ ZX_DEFINE_DYNAMIC(DataAnalyzeManager, nmDataAnalyzeManager)
// 初始化储层数据
m_pLayerData = new nmDataLayer;
m_eGridType = NM_Grid_Type::NM_Grid_PEBI; //默认网格类型为PEBI
m_eSolverModelType = NM_SOLVER_MODEL_TYPE::SMT_Oil_ConstPvt;
this->initDefaultDisplaySettings();
// 初始化中英文翻译映射
nmTranslationManager::initTranslations();
@ -1144,20 +1113,22 @@ void nmDataAnalyzeManager::createReservoir()
//QString sPftDesc = pSubWndFitting->getBasicPftDesc();
// 只读取当前相态存在的PVT页，避免PVT工具输出PhaseGas/PhaseWater缺失日志
QStringList listParas;
bool bReadOilPvt = false;
bool bReadGasPvt = false;
bool bReadWaterPvt = false;
resolvePvtPhaseReadFlags(eType, bReadOilPvt, bReadGasPvt, bReadWaterPvt);
// 储层基础数据这里只需要体积系数和粘度；不属于当前相态的参数继续走默认值
if(bReadOilPvt) {
switch(eType) {
case WFT_Oil:
listParas << "Bo" << "Miuo";
}
if(bReadGasPvt) {
break;
case WFT_Gas:
listParas << "Bg" << "Miug";
}
if(bReadWaterPvt) {
break;
case WFT_Water:
listParas << "Bw" << "Miuw";
break;
case WFT_Oil_Water:
listParas << "Bo" << "Miuo" << "Bw" << "Miuw";
break;
default:
break;
}
listParas << "Ct";
pContextProvider->getPvtParaValues(pSubWndFitting, listParas, mapParaValues);
@ -1639,29 +1610,16 @@ void nmDataAnalyzeManager::initPvtParaFromSubFit()
PvtFluidType eType = WFT_Null;
pContextProvider->getBasicPft(pSubWndFitting, eType);
bool bReadOilPvt = false;
bool bReadGasPvt = false;
bool bReadWaterPvt = false;
resolvePvtPhaseReadFlags(eType, bReadOilPvt, bReadGasPvt, bReadWaterPvt);
//QVector<double> vecPressure; // 压力, MPa
QVector<double> vecRso; // 溶解气油比, m^3/m^3
QVector<double> vecBo; // 油体积系数, m^3/m^3
QVector<double> vecCo; // 油压缩系数, 1/MPa
QVector<double> vecMiuo; // 油粘度, mPa·s
QVector<double> vecRouo; // 油密度, kg/m^3
QVector<double> vecRv; // 凝析油气比, m^3/m^3
QVector<double> vecBg; // 气体积系数, m^3/m^3
QVector<double> vecCg; // 气压缩系数, 1/MPa
QVector<double> vecMiug; // 气粘度, mPa·s
QVector<double> vecRoug; // 气密度, kg/m^3
QVector<double> vecZ; // 气偏差因子, 1
QVector<double> vecRsw; // 溶解气水比, m^3/m^3
QVector<double> vecBw; // 水体积系数, m^3/m^3
QVector<double> vecCw; // 水压缩系数, 1/MPa
QVector<double> vecMiuw; // 水粘度, mPa·s
QVector<double> vecRouw; // 水密度, kg/m^3
VecDouble vecX;
@ -1672,36 +1630,41 @@ void nmDataAnalyzeManager::initPvtParaFromSubFit()
}
m_pebiPvtPara = new nmDataPvtParaForPebi;
// 气油比不按相态区分，所有情况都尝试读取
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Rs", vecX, vecRso);
m_pebiPvtPara->setRso(vecRso);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 其他PVT结果曲线只读取当前相态已有的页，缺失相态保留PEBI默认数据
if(bReadOilPvt) {
setSolverModelType(SMT_Oil_ConstPvt);
bool bFetchedBo = false;
bool bFetchedCo = false;
bool bFetchedMiuo = false;
bool bFetchedBw = false;
bool bFetchedCw = false;
bool bFetchedMiuw = false;
// PVT结果曲线直接按当前相态分支读取，缺失相态保留PEBI默认数据
switch(eType) {
case WFT_Oil:
// 油体积系数
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Bo", vecX, vecBo);
bFetchedBo = pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Bo", vecX, vecBo);
m_pebiPvtPara->setBo(vecBo);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 油压缩系数
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Co", vecX, vecCo);
bFetchedCo = pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Co", vecX, vecCo);
m_pebiPvtPara->setCo(vecCo);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 油密度
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Rhoo", vecX, vecRouo);
m_pebiPvtPara->setRouo(vecRouo);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 油粘度
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Miuo", vecX, vecMiuo);
bFetchedMiuo = pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil, "Miuo", vecX, vecMiuo);
m_pebiPvtPara->setMiuo(vecMiuo);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
}
if(bReadGasPvt) {
setSolverModelType(
bFetchedBo
&& bFetchedCo
&& bFetchedMiuo
? SMT_Oil_VariablePvt
: SMT_Oil_ConstPvt);
break;
case WFT_Gas:
setSolverModelType(SMT_Gas_VariablePvt);
// 气体积系数
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Gas, "Bg", vecX, vecBg);
@ -1717,52 +1680,62 @@ void nmDataAnalyzeManager::initPvtParaFromSubFit()
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Gas, "Miug", vecX, vecMiug);
m_pebiPvtPara->setMiug(vecMiug);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
break;
case WFT_Water:
// 水体积系数
bFetchedBw = pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Bw", vecX, vecBw);
m_pebiPvtPara->setBw(vecBw);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 气密度
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Gas, "Rhog", vecX, vecRoug);
m_pebiPvtPara->setRoug(vecRoug);
// 水压缩系数
bFetchedCw = pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Cw", vecX, vecCw);
m_pebiPvtPara->setCw(vecCw);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 气偏差因子
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Gas, "Zg", vecX, vecZ);
m_pebiPvtPara->setZ(vecZ);
// 水粘度
bFetchedMiuw = pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Miuw", vecX, vecMiuw);
m_pebiPvtPara->setMiuw(vecMiuw);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
}
setSolverModelType(
bFetchedBw
&& bFetchedCw
&& bFetchedMiuw
? SMT_Water_VariablePvt
: SMT_Water_ConstPvt);
break;
case WFT_Oil_Water: {
setSolverModelType(SMT_Oil_Water_TwoPhase);
if(bReadWaterPvt) {
// 溶解气水比
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Rsw", vecX, vecRsw);
m_pebiPvtPara->setRsw(vecRsw);
// 油体积系数
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil_Water, "Bo", vecX, vecBo);
m_pebiPvtPara->setBo(vecBo);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 水体积系数
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Bw", vecX, vecBw);
m_pebiPvtPara->setBw(vecBw);
// 油粘度
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil_Water, "Miuo", vecX, vecMiuo);
m_pebiPvtPara->setMiuo(vecMiuo);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 水压缩系数
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Cw", vecX, vecCw);
m_pebiPvtPara->setCw(vecCw);
// 水体积系数
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil_Water, "Bw", vecX, vecBw);
m_pebiPvtPara->setBw(vecBw);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 水粘度
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Miuw", vecX, vecMiuw);
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Oil_Water, "Miuw", vecX, vecMiuw);
m_pebiPvtPara->setMiuw(vecMiuw);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
// 水密度
pContextProvider->getPvtRstOf(pSubWndFitting, WellFluidType::WFT_Water, "Rhow", vecX, vecRouw);
m_pebiPvtPara->setRouw(vecRouw);
setPebiPressureIfEmpty(m_pebiPvtPara, vecX);
}
if(eType == WFT_Oil_Water) {
// Diffusion相关数据来自Diffusion页面，只在油水两相时读取
// DSO_KK：相渗结果，主要用于So/Kro/Sw/Krw
VVecDouble vvecDiffusionKK;
if(pContextProvider->getDiffusionRstOf(pSubWndFitting, DSO_KK, vvecDiffusionKK)) {
applyDiffusionKkToPebiPvt(m_pebiPvtPara, vvecDiffusionKK);
}
break;
}
default:
break;
}
}
//// 吸附气量，王老师界面没有，油相暂时不需要
@ -2386,6 +2359,16 @@ void nmDataAnalyzeManager::setGridType(NM_Grid_Type newGridType)
m_eGridType = newGridType;
}
NM_SOLVER_MODEL_TYPE nmDataAnalyzeManager::getSolverModelType() const
{
return m_eSolverModelType;
}
void nmDataAnalyzeManager::setSolverModelType(NM_SOLVER_MODEL_TYPE newSolverModelType)
{
m_eSolverModelType = newSolverModelType;
}
// 获取Pebi网格求解数据接口
// 获取压力历史数据
QVector<QVector<double>> nmDataAnalyzeManager::getPebiSolverHistoryDataByName(const QString & wellName)

2
Src/nmNum/nmData/nmDataReservoir.cpp
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@ -5,7 +5,7 @@ nmDataReservoir::nmDataReservoir() {
m_initialPressure = nmDataAttribute("Initial Pressure",40.0, "MPa", UNIT_TYPE_PRESSURE, QStringList(), QStringList() << "psia" << "Pa" << "kPa" << "atm" << "bara" << "kg/cm^2" << "m" << "psig" << "bar" << "MPa" << "kPag");
m_reservoirType = nmDataAttribute("Reservoir type", "Homogeneous", "", UNIT_TYPE_DIMENSIONLESS, QStringList() << "Homogeneous" << "Dual porosity pseudo steady state", QStringList());
m_Bo = nmDataAttribute("Bo", 1.2, "");
m_permeability = nmDataAttribute("Permeability", 0.025, "Darcy", UNIT_TYPE_PERMEABILITY, QStringList(), QStringList() << "md" << "Darcy" << "m^2" << "cm^2" << "um^2");
m_permeability = nmDataAttribute("Permeability", 0.001, "Darcy", UNIT_TYPE_PERMEABILITY, QStringList(), QStringList() << "md" << "Darcy" << "m^2" << "cm^2" << "um^2");
m_thickness = nmDataAttribute("Thickness", 10.0, "m", UNIT_TYPE_LENGTH, QStringList(), QStringList() << "ft" << "m" << "cm" << "mm" << "in" << "0.1 in" << "mile" << "km");
m_porosity = nmDataAttribute("Porosity", 0.1, "", UNIT_TYPE_DIMENSIONLESS, QStringList(), QStringList());
m_Ct = nmDataAttribute("Ct", 0.001, "", UNIT_TYPE_DIMENSIONLESS, QStringList(), QStringList());

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