// Copyright (C) Stichting Deltares 2025. All rights reserved.
// 
// This file is part of the Dam Engine.
// 
// The Dam Engine is free software: you can redistribute it and/or modify
// it under the terms of the GNU Affero General Public License as published by
// the Free Software Foundation, either version 3 of the License, or
// (at your option) any later version.
// 
// This program is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
// GNU Affero General Public License for more details.
// 
// You should have received a copy of the GNU Affero General Public License
// along with this program. If not, see <http://www.gnu.org/licenses/>.
// 
// All names, logos, and references to "Deltares" are registered trademarks of
// Stichting Deltares and remain full property of Stichting Deltares at all times.
// All rights reserved.

using System;
using System.Collections.Generic;
using System.Linq;
using System.Reflection;
using Deltares.DamEngine.Calculators.KernelWrappers.Common;
using Deltares.DamEngine.Data.General;
using Deltares.DamEngine.Data.Geometry;
using Deltares.DamEngine.Data.Geotechnics;
using Deltares.DamEngine.Data.Standard;
using Deltares.MacroStability.Io;
using Deltares.MacroStability.Io.XmlInput;
using CharacteristicPoint = Deltares.DamEngine.Data.Geotechnics.CharacteristicPoint;
using CharacteristicPointSet = Deltares.DamEngine.Data.Geotechnics.CharacteristicPointSet;
using CharacteristicPointType = Deltares.DamEngine.Data.Geotechnics.CharacteristicPointType;
using GeometryCurve = Deltares.DamEngine.Data.Geometry.GeometryCurve;
using GeometryLoop = Deltares.DamEngine.Data.Geometry.GeometryLoop;
using GeometrySurface = Deltares.DamEngine.Data.Geometry.GeometrySurface;
using Point2D = Deltares.DamEngine.Data.Geometry.Point2D;
using PreConsolidationStress = Deltares.DamEngine.Data.Geotechnics.PreConsolidationStress;
using SoilLayer2D = Deltares.DamEngine.Data.Geotechnics.SoilLayer2D;
using SoilProfile2D = Deltares.DamEngine.Data.Geotechnics.SoilProfile2D;
using SoilProfileType = Deltares.MacroStability.Io.XmlInput.SoilProfileType;
using SoilType = Deltares.MacroStability.Io.XmlInput.SoilType;
using SurfaceLine2 = Deltares.DamEngine.Data.Geotechnics.SurfaceLine2;
using Waternet = Deltares.DamEngine.Data.Geometry.Waternet;

namespace Deltares.DamEngine.Calculators.KernelWrappers.MacroStabilityCommon.MacroStabilityIo;

/// <summary>
/// Class to create macro stability kernel input from dam engine data.
/// </summary>
public static class FillMacroStabilityKernelInputFromEngine
{
    /// <summary>
    /// Creates a full input model data object for Macro stability kernel based on DamEngineData.
    /// </summary>
    /// <param name="damKernelInput"></param>
    /// <param name="mStabParameters"></param>
    /// <param name="damWaterNet"></param>
    /// <param name="xCoordinateLowestUpliftFactorPoint"></param>
    /// <returns>FullInputModelType</returns>
    public static FullInputModelType CreateFullInputModel(DamKernelInput damKernelInput, MStabParameters mStabParameters, 
                                                   Waternet damWaterNet, double xCoordinateLowestUpliftFactorPoint)
    {
        // The objectRegistry is to be used to keep track of all keys of some of the referenced objects
        var objectRegistry = new ObjectRegistry();
        BishopCalculationGrid bishopCalculationGrid = null;
        UpliftVanCalculationGrid upliftVanCalculationGrid = null;
        if (mStabParameters.Model == StabilityModelType.Bishop)
        {
            bishopCalculationGrid = MacroStabilityCommonHelper.FillBishopCalculationGrid(damKernelInput);
        }
        if (mStabParameters.Model == StabilityModelType.UpliftVan)
        {
            upliftVanCalculationGrid = MacroStabilityCommonHelper.FillUpliftVanCalculationGrid(damKernelInput, xCoordinateLowestUpliftFactorPoint);
        }
        var fullInputModelType = new FullInputModelType
        {
            PreprocessingInput = TransferPreprocessingInput(damKernelInput, mStabParameters, bishopCalculationGrid, upliftVanCalculationGrid),
            StabilityModel = TransferStabilityModel(damKernelInput, mStabParameters, damWaterNet, objectRegistry, bishopCalculationGrid, upliftVanCalculationGrid),
            VersionInfo = TransferVersionInfo()
        };
        return fullInputModelType;
    }

    private static PreprocessingInputType TransferPreprocessingInput(DamKernelInput damKernelInput, MStabParameters mStabParameters, 
                                                              BishopCalculationGrid bishopCalculationGrid,
                                                              UpliftVanCalculationGrid upliftVanCalculationGrid)
    {
        if (damKernelInput == null)
        {
            return null;
        }

        var preprocessingInputType = new PreprocessingInputType
        {
            PreConstructionStages = new PreConstructionStageType[1]
        };
        preprocessingInputType.PreConstructionStages[0] = new PreConstructionStageType();
        PreConstructionStageType preConstructionLastStage = preprocessingInputType.PreConstructionStages[0];
        preConstructionLastStage.Surfaceline = new SurfaceLineType();
        preConstructionLastStage.CreateWaternet = false;
        TransferSurfaceLine(damKernelInput.Location.SurfaceLine, preConstructionLastStage.Surfaceline);

        preprocessingInputType.SearchAreaConditions = TransferSearchAreaCondition(mStabParameters, bishopCalculationGrid, upliftVanCalculationGrid);

        return preprocessingInputType;
    }

    private static SearchAreaConditionsType TransferSearchAreaCondition(MStabParameters mStabParameters, 
                                                                 BishopCalculationGrid bishopCalculationGrid,
                                                                 UpliftVanCalculationGrid upliftVanCalculationGrid)
    {
        var preprocessingSearchAreaConditions = new SearchAreaConditionsType
        {
            AutoGeneticAlgorithmOptions = false,
            AutoGeneticAlgorithmOptionsSpecified = true,
            AutoLevenbergMarquardtOptions = false,
            AutoLevenbergMarquardtOptionsSpecified = true,
            AutoSearchAreaSpecified = true,
            AutoTangentLinesSpecified = true,
            AutomaticForbiddenZones = false,
            AutomaticForbiddenZonesSpecified = true,
            MaxSpacingBetweenBoundariesSpecified = true,
            OnlyAbovePleistoceenSpecified = true,
            SlipPlanePosition = SearchAreaConditionsTypeSlipPlanePosition.High,
            SlipPlanePositionSpecified = true,
            TangentLineNumberSpecified = true,
            TangentLineZBottomSpecified = true,
            TangentLineZTopSpecified = true
        };

        switch (mStabParameters.Model)
        {
            case StabilityModelType.Bishop:
                TransferBishopSearchAreaSettings(preprocessingSearchAreaConditions, bishopCalculationGrid);
                break;
            case StabilityModelType.UpliftVan:
                TransferUpliftVanSearchAreaSettings(preprocessingSearchAreaConditions, upliftVanCalculationGrid);
                break;
            default:
                throw new NotImplementedException(nameof(mStabParameters.Model));
        }

        return preprocessingSearchAreaConditions;
    }

    private static void TransferBishopSearchAreaSettings(SearchAreaConditionsType kernelSearchAreaConditions, BishopCalculationGrid bishopCalculationGrid)
    {
        // In the Macrostability kernel, for Bishop, the automatic tangent lines are set by AutoSearchArea = True.
        // Setting AutoTangentLines to true will create the automatic tangent lines of Uplift-Van which is not desired.
        kernelSearchAreaConditions.AutoTangentLines = false;
        kernelSearchAreaConditions.AutoSearchArea = bishopCalculationGrid.IsSearchAreaAutomatic;
        kernelSearchAreaConditions.TangentLineNumber = bishopCalculationGrid.TangentLineCount;
        kernelSearchAreaConditions.TangentLineZTop = bishopCalculationGrid.TangentLineZTop;
        kernelSearchAreaConditions.TangentLineZBottom = bishopCalculationGrid.TangentLineZBottom;
        kernelSearchAreaConditions.MaxSpacingBetweenBoundaries = 10.0;
    }

    private static void TransferUpliftVanSearchAreaSettings(SearchAreaConditionsType kernelSearchAreaConditions, UpliftVanCalculationGrid upliftVanCalculationGrid)
    {
        kernelSearchAreaConditions.AutoTangentLines = upliftVanCalculationGrid.TangentLinesCreationMethod is TangentLinesDefinition.Automatic or TangentLinesDefinition.OnBoundaryLines;
        kernelSearchAreaConditions.AutoSearchArea = upliftVanCalculationGrid.IsGridsAutomatic;
        kernelSearchAreaConditions.OnlyAbovePleistoceen = upliftVanCalculationGrid.TangentLinesCreationMethod == TangentLinesDefinition.Automatic;
        kernelSearchAreaConditions.TangentLineNumber = upliftVanCalculationGrid.TangentLineCount;
        kernelSearchAreaConditions.TangentLineZTop = upliftVanCalculationGrid.TangentLineZTop;
        kernelSearchAreaConditions.TangentLineZBottom = upliftVanCalculationGrid.TangentLineZBottom;
        kernelSearchAreaConditions.MaxSpacingBetweenBoundaries = 0.8;
    }

    private static BishopCalculationCircle TransferBishopCalculationGrid(BishopCalculationGrid bishopCalculationGrid)
    {
        if (bishopCalculationGrid == null)
        {
            throw new ArgumentNullException(nameof(bishopCalculationGrid));
        }

        var kernelBishopCalculationCircle = new BishopCalculationCircle
        {
            Grid = new CalculationGridType
            {
                GridXNumber = bishopCalculationGrid.GridXCount,
                GridXLeft = bishopCalculationGrid.GridXLeft,
                GridXRight = bishopCalculationGrid.GridXRight,
                GridZNumber = bishopCalculationGrid.GridZCount,
                GridZTop = bishopCalculationGrid.GridZTop,
                GridZBottom = bishopCalculationGrid.GridZBottom
            }
        };

        if (!bishopCalculationGrid.IsSearchAreaAutomatic)
        {
            kernelBishopCalculationCircle.TangentLines = new double[bishopCalculationGrid.TangentLineLevels.Count];
            kernelBishopCalculationCircle.TangentLines = bishopCalculationGrid.TangentLineLevels.ToArray();
        }
        else
        {
            kernelBishopCalculationCircle.TangentLines = [];
        }

        return kernelBishopCalculationCircle;
    }

    private static UpliftVanCalculationGridType TransferUpliftVanCalculationGrid(UpliftVanCalculationGrid upliftVanCalculationGrid)
    {
        if (upliftVanCalculationGrid == null)
        {
            throw new ArgumentNullException(nameof(upliftVanCalculationGrid));
        }

        var kernelUpliftVanCalculationGrid = new UpliftVanCalculationGridType
        {
            LeftGrid = new CalculationGridType
            {
                GridXNumber = upliftVanCalculationGrid.LeftGridXCount,
                GridXLeft = upliftVanCalculationGrid.LeftGridXLeft,
                GridXRight = upliftVanCalculationGrid.LeftGridXRight,
                GridZNumber = upliftVanCalculationGrid.LeftGridZCount,
                GridZTop = upliftVanCalculationGrid.LeftGridZTop,
                GridZBottom = upliftVanCalculationGrid.LeftGridZBottom
            },
            RightGrid = new CalculationGridType
            {
                GridXNumber = upliftVanCalculationGrid.RightGridXCount,
                GridXLeft = upliftVanCalculationGrid.RightGridXLeft,
                GridXRight = upliftVanCalculationGrid.RightGridXRight,
                GridZNumber = upliftVanCalculationGrid.RightGridZCount,
                GridZTop = upliftVanCalculationGrid.RightGridZTop,
                GridZBottom = upliftVanCalculationGrid.RightGridZBottom
            }
        };

        if (upliftVanCalculationGrid.TangentLinesCreationMethod == TangentLinesDefinition.Specified)
        {
            kernelUpliftVanCalculationGrid.TangentLines = new double[upliftVanCalculationGrid.TangentLineLevels.Count];
            kernelUpliftVanCalculationGrid.TangentLines = upliftVanCalculationGrid.TangentLineLevels.ToArray();
        }
        else
        {
            kernelUpliftVanCalculationGrid.TangentLines = [];
        }

        return kernelUpliftVanCalculationGrid;
    }

    private static void TransferSurfaceLine(SurfaceLine2 damSurfaceLine, SurfaceLineType kernelSurfaceLine)
    {
        kernelSurfaceLine.CharacteristicPoints = new SurfaceLineTypeCharacteristicPoint[damSurfaceLine.CharacteristicPoints.Count];
        var i = 0;
        foreach (CharacteristicPoint damCharPoint in damSurfaceLine.CharacteristicPoints)
        {
            var kernelCharPoint = new SurfaceLineTypeCharacteristicPoint
            {
                CharacteristicPointType = InputConversionHelper.ConvertToMacroStabilityCharacteristicPointType(damCharPoint.CharacteristicPointType),
                GeometryPoint = new Point2DType
                {
                    X = damCharPoint.Point.X,
                    Z = damCharPoint.Point.Z
                }
            };
            kernelSurfaceLine.CharacteristicPoints[i] = kernelCharPoint;
            i++;
        }
    }

    private static StabilityInputType TransferStabilityModel(DamKernelInput damKernelInput, MStabParameters mStabParameters,
                                                      Waternet damWaterNet, ObjectRegistry registry, 
                                                      BishopCalculationGrid bishopCalculationGrid,
                                                      UpliftVanCalculationGrid upliftVanCalculationGrid)
    {
        if (damKernelInput == null || mStabParameters == null)
        {
            return null;
        }
        TrafficLoad trafficLoad = MacroStabilityCommonHelper.FillTrafficLoad(damKernelInput);
        var kernelStabilityInput = new StabilityInputType
        {
            ConstructionStages = new ConstructionStageInputType[1],
            SlipPlaneConstraints = new SlipPlaneConstraintsType()
        };
        switch (mStabParameters.Model)
        {
            case StabilityModelType.Bishop:
                kernelStabilityInput.BishopCalculationCircle = TransferBishopCalculationGrid(bishopCalculationGrid);
                break;
            case StabilityModelType.UpliftVan:
                kernelStabilityInput.UpliftVanCalculationGrid = TransferUpliftVanCalculationGrid(upliftVanCalculationGrid);
                break;
            default:
                throw new NotImplementedException(nameof(mStabParameters.Model));
        }

        DetermineSlipPlaneConstraints(damKernelInput.Location, kernelStabilityInput.SlipPlaneConstraints);
        TransferStabilityModelProperties(mStabParameters, kernelStabilityInput);

        kernelStabilityInput.ConstructionStages[0] = new ConstructionStageInputType();
        ConstructionStageInputType lastStage = kernelStabilityInput.ConstructionStages[0];

        kernelStabilityInput.Soils = new SoilType[damKernelInput.Location.SoilList.Soils.Count];
        lastStage.FixedSoilStresses = new FixedSoilStressType[damKernelInput.Location.SoilList.Soils.Count];
        TransferSoils(damKernelInput.Location.SoilList, kernelStabilityInput.Soils, lastStage.FixedSoilStresses, registry);

        lastStage.SoilProfile = new SoilProfileType();
        lastStage.PreconsolidationStresses = new PreconsolidationStressType[damKernelInput.SubSoilScenario.SoilProfile2D.PreconsolidationStresses.Count];
        lastStage.WaterDefinition = WaterDefinitionType.WaterNet;
        TransferSoilProfile(damKernelInput.SubSoilScenario.SoilProfile2D, damKernelInput.Location.SoilList, lastStage.SoilProfile, 
                            lastStage.PreconsolidationStresses, registry);

        lastStage.UniformLoads = TransferUniformLoads(trafficLoad, registry);
        TransferTrafficLoadDegreeOfConsolidation(trafficLoad, damKernelInput.SubSoilScenario.SoilProfile2D,
                                                 damKernelInput.Location.TrafficLoadDegreeOfConsolidations, lastStage, registry);

        lastStage.Waternet = new WaternetType();
        TransferWaternet(damWaterNet, lastStage.Waternet, registry);
        // Unused options
        lastStage.Earthquake = null;
        lastStage.ForbiddenLines = null;
        lastStage.Geotextiles = null;
        lastStage.LineLoads = null;
        lastStage.MultiplicationFactorsCPhiForUplift = null;
        lastStage.Nails = null;
        lastStage.TreesOnSlope = null;
        lastStage.WaterMesh = null;
        lastStage.YieldStressField = null;

        return kernelStabilityInput;
    }

    private static VersionInfoType TransferVersionInfo()
    {
        var versionInfoType = new VersionInfoType
        {
            FileVersion = MacroStabilityXmlSerialization.fileVersion,
            AssemblyName = Assembly.GetExecutingAssembly().GetName().Name,
            AssemblyVersion = Assembly.GetExecutingAssembly().GetName().Version!.ToString()
        };
        return versionInfoType;
    }

    private static void TransferStabilityModelProperties(MStabParameters mStabParameters, StabilityInputType kernelStabilityInput)
    {
        kernelStabilityInput.Orientation = InputConversionHelper.ConvertToMacroStabilityGridOrientation(mStabParameters.GridPosition);
        kernelStabilityInput.ModelOption = InputConversionHelper.ConvertToMacroStabilityModelOption(mStabParameters.Model);
        // For Bishop, only Grid is possible however if Bishop/UpliftVan was selected, then the SearchAlgorithm concerns only Uplift-Van
        kernelStabilityInput.SearchAlgorithm = mStabParameters.Model == StabilityModelType.Bishop ? SearchAlgorithmType.Grid : InputConversionHelper.ConvertToMacroStabilitySearchMethod(mStabParameters.SearchMethod);
        if (kernelStabilityInput.SearchAlgorithm == SearchAlgorithmType.BeeswarmAndLevenbergMarquardt)
        {
            CreateDefaultBeeSwarmOptions(kernelStabilityInput);
        }

        kernelStabilityInput.GeneticAlgorithmOptions = null;
        kernelStabilityInput.LevenbergMarquardtOptions = null;
        
        kernelStabilityInput.MaximumSliceWidthSpecified = true;
        kernelStabilityInput.MaximumSliceWidth = 1.0;
        kernelStabilityInput.MoveGridSpecified = true;
        kernelStabilityInput.MoveGrid = true; // Is not in DamEngine but MUST be true as we use the brute force approach.
        kernelStabilityInput.MaxAllowedAngleBetweenSlicesSpecified = true;
        kernelStabilityInput.MaxAllowedAngleBetweenSlices = 0;
        kernelStabilityInput.RequiredForcePointsInSlicesSpecified = true;
        kernelStabilityInput.RequiredForcePointsInSlices = 0;
        kernelStabilityInput.TraversalGridPointsSpecified = true;
        kernelStabilityInput.TraversalGridPoints = 2;
        kernelStabilityInput.TraversalRefinementsSpecified = true;
        kernelStabilityInput.TraversalRefinements = 0;
        kernelStabilityInput.MaxGridMovesSpecified = true;
        kernelStabilityInput.MaxGridMoves = 50;
        kernelStabilityInput.NumberOfRefinementsGridSpecified = true;
        kernelStabilityInput.NumberOfRefinementsGrid = 2;
        kernelStabilityInput.NumberOfRefinementsTangentLinesSpecified = true;
        kernelStabilityInput.NumberOfRefinementsTangentLines = 2;
    }

    internal static void DetermineSlipPlaneConstraints(Location damLocation, SlipPlaneConstraintsType kernelSlipPlaneConstraints)
    {
        if (damLocation.StabilityOptions == null)
        {
            return;
        }

        kernelSlipPlaneConstraints.SlipPlaneMinDepth = damLocation.StabilityOptions.MinimalCircleDepth ?? 0.0;
        if ((damLocation.StabilityOptions.StabilityZoneType == StabilityZoneType.ForbiddenZone) &&
            damLocation.StabilityOptions.ForbiddenZoneFactor.HasValue)
        {
            CharacteristicPointSet characteristicPoints = damLocation.SurfaceLine.CharacteristicPoints;
            kernelSlipPlaneConstraints.XEntryMin = characteristicPoints.GetPoint2D(CharacteristicPointType.DikeTopAtRiver).X;
            double xDikeTopAtPolder = characteristicPoints.GetPoint2D(CharacteristicPointType.DikeTopAtPolder).X;
            double xDikeToeAtPolder = characteristicPoints.GetPoint2D(CharacteristicPointType.DikeToeAtPolder).X;
            double factor = damLocation.StabilityOptions.ForbiddenZoneFactor.Value;
            kernelSlipPlaneConstraints.XEntryMax = (xDikeToeAtPolder * factor) + ((1 - factor) * xDikeTopAtPolder);
        }
    }

    private static void CreateDefaultBeeSwarmOptions(StabilityInputType kernelStabilityInput)
    {
        kernelStabilityInput.BeeswarmAlgorithmOptions = new BeeSwarmAlgorithmOptionsType
        {
            EliteCount = 2,
            Seed = 1,
            CrossOver = 0.3,
            Beta = 0.4,
            Delta = 0.7,
            DifferentialWeight = 0.3,
            MaximumNonImprovingGenerations = 10,
            PopulationCount = 200,
            GenerationCount = 40
        };
    }

    private static void TransferSoils(SoilList damSoilList, SoilType[] kernelSoils, FixedSoilStressType[] kernelFixedSoilStresses,
                               ObjectRegistry registry)
    {
        if (damSoilList != null)
        {
            var i = 0;
            foreach (Soil damSoil in damSoilList.Soils)
            {
                SoilType kernelSoil = CreateSoil(damSoil, registry);
                kernelSoils[i] = kernelSoil;
                var kernelFixedSoilStressType = new FixedSoilStressType
                {
                    POP = damSoil.PoP,
                    Soil = kernelSoil.Key
                };
                kernelFixedSoilStresses[i] = kernelFixedSoilStressType;
                i++;
            }
        }
    }

    private static SoilType CreateSoil(Soil damSoil, ObjectRegistry registry)
    {
        SoilType kernelSoil = InputConversionHelper.ConvertToMacroStabilitySoil(damSoil);
        kernelSoil.Key = registry.GetId(damSoil);
        return kernelSoil;
    }

    private static void TransferSoilProfile(SoilProfile2D damSoilProfile2D, SoilList soilList, SoilProfileType kernelSoilProfile,
                                     PreconsolidationStressType[] kernelPreConsolidationStresses, ObjectRegistry registry)
    {
        // Add points
        kernelSoilProfile.Geometry = new GeometryType
        {
            Bottom = damSoilProfile2D.Geometry.Bottom,
            Left = damSoilProfile2D.Geometry.Left,
            Right = damSoilProfile2D.Geometry.Right,
            Points = new PointType[damSoilProfile2D.Geometry.Points.Count],
            Curves = new CurveType[damSoilProfile2D.Geometry.Curves.Count],
            Loops = new LoopType[damSoilProfile2D.Geometry.Loops.Count],
            GeometrySurfaces = new GeometrySurfaceType[damSoilProfile2D.Geometry.Surfaces.Count]
        };
        kernelSoilProfile.SoilSurfaces = new SoilSurfaceType[damSoilProfile2D.Surfaces.Count];

        TransferSoilProfileGeometryPoints(damSoilProfile2D, kernelSoilProfile, registry);
        TransferSoilProfileGeometryCurves(damSoilProfile2D, kernelSoilProfile, registry);
        TransferSoilProfileGeometryLoops(damSoilProfile2D, kernelSoilProfile, registry);
        TransferSoilProfileGeometrySurfaces(damSoilProfile2D, kernelSoilProfile, registry);

        TransferSoilProfileSoilLayers2D(damSoilProfile2D, soilList, kernelSoilProfile, registry);

        TransferSoilProfilePreConsolidationStresses(damSoilProfile2D, kernelPreConsolidationStresses);
    }

    private static void TransferSoilProfilePreConsolidationStresses(SoilProfile2D damSoilProfile2D,
                                                                    PreconsolidationStressType[] kernelPreConsolidationStresses)
    {
        var i = 0;
        foreach (PreConsolidationStress preConsolidationStress in damSoilProfile2D.PreconsolidationStresses)
        {
            var kernelPreConsolidationStressType = new PreconsolidationStressType
            {
                Point = new Point2DType
                {
                    X = preConsolidationStress.X,
                    Z = preConsolidationStress.Z
                },
                StressValue = preConsolidationStress.StressValue
            };
            kernelPreConsolidationStresses[i] = kernelPreConsolidationStressType;
            i++;
        }
    }

    private static void TransferSoilProfileSoilLayers2D(SoilProfile2D damSoilProfile2D, SoilList soilList, 
                                                        SoilProfileType kernelSoilProfile, ObjectRegistry registry)
    {
        var i = 0;
        foreach (SoilLayer2D damSoilLayer2D in damSoilProfile2D.Surfaces)
        {
            var soil = soilList.GetSoilByName(damSoilLayer2D.Name);
            var kernelSoilLayer2D = new SoilSurfaceType
            {
                Key = registry.GetId(damSoilLayer2D),
                Name = damSoilLayer2D.Name,
                IsAquifer = damSoilLayer2D.IsAquifer,
                GeometrySurface = registry.GetId(damSoilLayer2D.GeometrySurface),
                Soil = registry.GetId(soil),
                WaterPressureInterpolationModelSpecified = true,
                WaterPressureInterpolationModel = InputConversionHelper.ConvertToMacroStabilityWaterPressureInterpolationModel(
                    damSoilLayer2D.WaterpressureInterpolationModel)
            };
            kernelSoilProfile.SoilSurfaces[i] = kernelSoilLayer2D;
            i++;
        }
    }

    private static void TransferSoilProfileGeometrySurfaces(SoilProfile2D damSoilProfile2D, SoilProfileType kernelSoilProfile,
                                                            ObjectRegistry registry)
    {
        var i = 0;
        foreach (GeometrySurface geometrySurface in damSoilProfile2D.Geometry.Surfaces)
        {
            var kernelGeometrySurface = new GeometrySurfaceType
            {
                Key = registry.GetId(geometrySurface)
            };
            kernelGeometrySurface.OuterLoop = registry.GetId(geometrySurface.OuterLoop);
            kernelGeometrySurface.InnerLoops = new GeometrySurfaceTypeInnerLoop[geometrySurface.InnerLoops.Count];
            var j = 0;
            foreach (GeometryLoop damSurfaceInnerLoop in geometrySurface.InnerLoops)
            {
                kernelGeometrySurface.InnerLoops[j] = new GeometrySurfaceTypeInnerLoop
                {
                    Loop = registry.GetId(damSurfaceInnerLoop)
                };
                j++;
            }

            kernelSoilProfile.Geometry.GeometrySurfaces[i] = kernelGeometrySurface;
            i++;
        }
    }

    private static void TransferSoilProfileGeometryLoops(SoilProfile2D damSoilProfile2D, SoilProfileType kernelSoilProfile,
                                                         ObjectRegistry registry)
    {
        var i = 0;
        foreach (GeometryLoop damLoop in damSoilProfile2D.Geometry.Loops)
        {
            var kernelLoop = new LoopType
            {
                Key = registry.GetId(damLoop),
                Curves = new LoopTypeCurve[damLoop.CurveList.Count]
            };
            var j = 0;
            foreach (GeometryCurve damCurve in damLoop.CurveList)
            {
                var kernelCurve = new LoopTypeCurve
                {
                    Curve = registry.GetId(damCurve)
                };
                kernelLoop.Curves[j] = kernelCurve;
                j++;
            }

            kernelSoilProfile.Geometry.Loops[i] = kernelLoop;
            i++;
        }
    }

    private static void TransferSoilProfileGeometryCurves(SoilProfile2D damSoilProfile2D, SoilProfileType kernelSoilProfile,
                                                          ObjectRegistry registry)
    {
        var i = 0;
        foreach (GeometryCurve damCurve in damSoilProfile2D.Geometry.Curves)
        {
            var kernelCurve = new CurveType
            {
                HeadPoint = registry.GetId(damCurve.HeadPoint),
                EndPoint = registry.GetId(damCurve.EndPoint),
                Key = registry.GetId(damCurve)
            };
            kernelSoilProfile.Geometry.Curves[i] = kernelCurve;
            i++;
        }
    }

    private static void TransferSoilProfileGeometryPoints(SoilProfile2D damSoilProfile2D, SoilProfileType kernelSoilProfile,
                                                          ObjectRegistry registry)
    {
        var i = 0;
        foreach (Point2D damPoint in damSoilProfile2D.Geometry.Points)
        {
            var kernelPoint = new PointType
            {
                X = damPoint.X,
                Z = damPoint.Z,
                Key = registry.GetId(damPoint)
            };
            kernelSoilProfile.Geometry.Points[i] = kernelPoint;
            i++;
        }
    }

    private static UniformLoadType[] TransferUniformLoads(TrafficLoad damTrafficLoad, ObjectRegistry registry)
    {
        if (damTrafficLoad != null)
        {
            var kernelUniformLoads = new UniformLoadType[1];
            var kernelUniformLoad = new UniformLoadType
            {
                XStart = damTrafficLoad.XStart,
                XEnd = damTrafficLoad.XEnd,
                Pressure = damTrafficLoad.Pressure,
                DistributionAngle = 0.0,
                Key = registry.GetId(damTrafficLoad)
            };
            kernelUniformLoads[0] = kernelUniformLoad;
            return kernelUniformLoads;
        }

        return [];
    }

    private static void TransferTrafficLoadDegreeOfConsolidation(TrafficLoad damTrafficLoad, SoilProfile2D damSoilProfile,
                                                                 IList<TrafficLoadDegreeOfConsolidation> damDegreeOfConsolidations,
                                                                 ConstructionStageInputType kernelStage, ObjectRegistry registry)
    {
        if (damTrafficLoad != null && damDegreeOfConsolidations != null && kernelStage.UniformLoads.Length == 1)
        {
            var i = 0;
            kernelStage.ConsolidationValues = new ConsolidationValuesTypeConsolidationValue[damSoilProfile.Surfaces.Count];
            foreach (SoilLayer2D damSurface in damSoilProfile.Surfaces)
            {
                kernelStage.ConsolidationValues[i] = new ConsolidationValuesTypeConsolidationValue
                {
                    Consolidator = registry.GetId(damTrafficLoad),
                    Consolidated = registry.GetId(damSurface),
                    Value = damDegreeOfConsolidations.Find(t => t.SoilName == damSurface.Soil.Name).DegreeOfConsolidation
                };
                i++;
            }
        }
    }

    private static void TransferWaternet(Waternet damWaternet, WaternetType kernelWaternet, ObjectRegistry registry)
    {
        kernelWaternet.Name = damWaternet.Name;
        kernelWaternet.UnitWeightWater = damWaternet.UnitWeight;
        kernelWaternet.UnitWeightWaterSpecified = true;

        // Phreatic Line
        kernelWaternet.PhreaticLine = CreatePhreaticLine(damWaternet.PhreaticLine, registry);
        
        // Head Lines
        kernelWaternet.HeadLines = new HeadLineType[damWaternet.HeadLineList.Count];
        var i = 0;
        foreach (HeadLine damHeadLine in damWaternet.HeadLineList)
        {
            HeadLineType kernelHeadLine = CreateHeadLine(damHeadLine, registry);
            kernelWaternet.HeadLines[i] = kernelHeadLine;
            i++;
        }

        // Waternet Lines
        kernelWaternet.WaternetLines = new WaternetTypeWaternetLine[damWaternet.WaternetLineList.Count];
        i = 0;
        foreach (WaternetLine damWaternetLine in damWaternet.WaternetLineList)
        {
            WaternetTypeWaternetLine waternetTypeWaternetLine = CreateWaternetTypeWaternetLine(damWaternetLine, registry);
            kernelWaternet.WaternetLines[i] = waternetTypeWaternetLine;
            i++;
        }
    }
    
    private static HeadLineType CreatePhreaticLine(PhreaticLine damPhreaticLine, ObjectRegistry registry)
    {
        return new HeadLineType
        {
            Key = registry.GetId(damPhreaticLine),
            WaternetLine = CreateWaternetLineType(damPhreaticLine)
        };
    }
    
    private static HeadLineType CreateHeadLine(HeadLine damHeadLine, ObjectRegistry registry)
    {
        return new HeadLineType
        {
            Key = registry.GetId(damHeadLine),
            WaternetLine = CreateWaternetLineType(damHeadLine)
        };
    }

    private static WaternetTypeWaternetLine CreateWaternetTypeWaternetLine(WaternetLine damWaternetLine, ObjectRegistry registry)
    {
        var waternetTypeWaternetLine = new WaternetTypeWaternetLine
        {
            Name = damWaternetLine.Name,
            AssociatedHeadLineSpecified = true,
            AssociatedHeadLine = registry.GetId(damWaternetLine.HeadLine),
            Points = new Point2DType[damWaternetLine.Points.Count]
        };
        for (var i = 0; i < damWaternetLine.Points.Count; i++)
        {
            waternetTypeWaternetLine.Points[i] = CreateWaternetLinePoint(damWaternetLine.Points[i]);
        }

        return waternetTypeWaternetLine;
    }

    private static WaternetLineType CreateWaternetLineType(GeometryPointString damWaternetLine)
    {
        var waternetLineType = new WaternetLineType
        {
            Name = damWaternetLine.Name,
            Points = new Point2DType[damWaternetLine.Points.Count]
        };
        for (var i = 0; i < damWaternetLine.Points.Count; i++)
        {
            waternetLineType.Points[i] = CreateWaternetLinePoint(damWaternetLine.Points[i]);
        }

        return waternetLineType;
    }

    private static Point2DType CreateWaternetLinePoint(Point2D damPoint)
    {
        if (damPoint == null)
        {
            return null;
        }

        return new Point2DType
        {
            X = damPoint.X,
            Z = damPoint.Z
        };
    }
}