////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Node load
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Member transverse load
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Primary End Forces in Local Coordinate System of Member
// Member default - no transverse load at member
public void GetEndLoad(CE_1D Element)
{
for (int i = 0; i < 6; i++)
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[i] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[i] = 0f;
}
// Set Primary End Forces of Elemnent in Global Coordinate system
SetGetPEF_GCS(Element);
// Update Element Primary End Forces Vector (1x12) in LCS
UpdateElemPEF_LCS_Vector(Element);
// Update Element Primary End Forces Vector (1x12) in GCS
UpdateElemPEF_GCS_Vector(Element);
}
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// TEMPORARY EXAMPLE DATA
// Consructor - old
public CFEM_CALC()
{
// Geometry
float fGeom_a = 4f,
fGeom_b = 5f,
fGeom_c = 3.5f; // Unit [m]
// Material
CMaterial m_Mat = new CMaterial();
// Cross-section
CCrSc m_CrSc = new CCrSc_3_00(0, 8, 300, 125, 16.2f, 10.8f, 10.8f, 6.5f, 241.6f); // I 300 section // !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
m_CrSc.FI_t = 5.69e-07f;
m_CrSc.FI_y = 9.79e-05f;
m_CrSc.FI_z = 4.49e-06f;
m_CrSc.FA_g = 6.90e-03f;
m_CrSc.FA_vy = 4.01e-03f;
m_CrSc.FA_vz = 2.89e-03f;
// Define Nodes Properties
for (int i = 0; i < iNNoTot; i++)
{
// Create auxiliary Node object
CFemNode CNode_i = new CFemNode(iNodeDOFNo);
// Fill array object item with auxliary Node
m_NodeArray[i] = CNode_i;
}
// Node 1
m_NodeArray[0].ID = 1;
m_NodeArray[0].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUX] = fGeom_a;
m_NodeArray[0].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUY] = 0f;
m_NodeArray[0].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUZ] = 0f;
// Node 2
m_NodeArray[1].ID = 2;
m_NodeArray[1].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUX] = 0f;
m_NodeArray[1].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUY] = 0f;
m_NodeArray[1].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUZ] = 0f;
// Node 3
m_NodeArray[2].ID = 5;
m_NodeArray[2].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUX] = fGeom_a;
m_NodeArray[2].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUY] = 0f;
m_NodeArray[2].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUZ] = -fGeom_c;
// Node 4
m_NodeArray[3].ID = 3;
m_NodeArray[3].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUX] = fGeom_a;
m_NodeArray[3].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUY] = -fGeom_b;
m_NodeArray[3].m_fVNodeCoordinates.FVectorItems[(int) e3D_DOF.eUZ] = 0f;
// Set Nodal Supports (for restraint set 0f)
// Node 1
// Node 2
m_NodeArray[1].m_VDisp.FVectorItems[0] = 0f;
m_NodeArray[1].m_VDisp.FVectorItems[1] = 0f;
m_NodeArray[1].m_VDisp.FVectorItems[2] = 0f;
m_NodeArray[1].m_VDisp.FVectorItems[3] = 0f;
m_NodeArray[1].m_VDisp.FVectorItems[4] = 0f;
m_NodeArray[1].m_VDisp.FVectorItems[5] = 0f;
// Node 3
m_NodeArray[2].m_VDisp.FVectorItems[0] = 0f;
m_NodeArray[2].m_VDisp.FVectorItems[1] = 0f;
m_NodeArray[2].m_VDisp.FVectorItems[2] = 0f;
m_NodeArray[2].m_VDisp.FVectorItems[3] = 0f;
m_NodeArray[2].m_VDisp.FVectorItems[4] = 0f;
m_NodeArray[2].m_VDisp.FVectorItems[5] = 0f;
// Node 4
m_NodeArray[3].m_VDisp.FVectorItems[0] = 0f;
m_NodeArray[3].m_VDisp.FVectorItems[1] = 0f;
m_NodeArray[3].m_VDisp.FVectorItems[2] = 0f;
m_NodeArray[3].m_VDisp.FVectorItems[3] = 0f;
m_NodeArray[3].m_VDisp.FVectorItems[4] = 0f;
m_NodeArray[3].m_VDisp.FVectorItems[5] = 0f;
// Set Global Code Numbers
int m_iCodeNo = 0; // Number of unrestrained degrees of freedom - finally gives size of structure global matrix
foreach (CFemNode i_CNode in m_NodeArray) // Each Node
{
for (int i = 0; i < iNodeDOFNo; i++) // Each DOF
{
if (i_CNode.m_VDisp.FVectorItems[i] != 0) // Perform for not restrained DOF
{
i_CNode.m_ArrNCodeNo[i] = m_iCodeNo; // Set global code number of degree of freedom (DOF)
m_iCodeNo++;
}
}
}
// Fill members of structure global vector of displacement
// Now we know number of not restrained DOF, so we can allocate array size
m_fDisp_Vector_CN = new int[m_iCodeNo,3]; // 1st - global DOF code number, 2nd - Node index, 3rd - local code number of DOF in NODE
FillGlobalDisplCodeNoOld();
////////////////////////////////////////////////////////////////////////////////////
// Set Nodal Loads (acting directly in nodes)
////////////////////////////////////////////////////////////////////////////////////
// !!!!!! No kind of these loads actually
///////////////////////////////////////////////////////////////////////////////////////
// Define FEM 1D elements
///////////////////////////////////////////////////////////////////////////////////////
for (int i = 0; i < iElemNoTot; i++)
{
// Create auxiliary Element object
CE_1D CElement_i = new CE_1D();
// Fill array object item
m_ELemArray[i] = CElement_i;
// Create auxiliary Element Load Object
CLoad CLoad_i = new CLoad();
// Fill array object item
m_ELoadArray[i] = CLoad_i;
}
// Member 1 [0] Nodes 1 - 2 ([0] [1])
m_ELemArray[0].NodeStart = m_NodeArray[0];
m_ELemArray[0].NodeEnd = m_NodeArray[1];
// Element Type
m_ELemArray[0].m_eSuppType3D = EElemSuppType3D.e3DEl_000000_000000;
// Element Material
m_ELemArray[0].m_Mat = m_Mat;
// Element Corss-section
m_ELemArray[0].m_CrSc = m_CrSc;
// Fill Basic Element Data
m_ELemArray[0].FillBasic2();
// Load of Element only due to Element Transversal Forces
m_ELoadArray[0].GetEndLoad_g(m_ELemArray[0], m_fq);
// Output
// kij_0 - local stiffeness matrix 6 x 6
m_ELemArray[0].m_fkLocMatr.Print2DMatrixFormated();
// A Tranformation Rotation Matrixes 6 x 6
m_ELemArray[0].m_fATRMatr3D.Print2DMatrixFormated();
// B Transfer Matrixes 6 x 6
m_ELemArray[0].m_fBTTMatr3D.Print2DMatrixFormated();
// Kij - global matrix of member 12 x 12
m_ELemArray[0].m_fKGlobM.Print2DMatrixFormated();
// Element Load Vector 2 x 6
m_ELemArray[0].m_ArrElemPEF_LCS.Print2DMatrixFormated();
#region MATRIX TEST
/////////////////////////////////////////////////////////////////////////////////////////////////////
// TEST
/*
float[,] farrk11 = new float[6, 6];
float[,] farrk12 = new float[6, 6];
float[,] farrk21 = new float[6, 6];
float[,] farrk22 = new float[6, 6];
// Fill array
for (int i = 0; i < 6; i++)
{
for (int j = 0; j < 6; j++)
{
farrk11[i, j] = ((i+1)*10)+1 + j;
}
}
for (int i = 0; i < 6; i++)
{
for (int j = 0; j < 6; j++)
{
farrk12[i, j] = ((i + 1) * 10) + 1 + j;
}
}
for (int i = 0; i < 6; i++)
{
for (int j = 0; j < 6; j++)
{
farrk21[i, j] = ((i + 1) * 10) + 1 + j;
}
}
for (int i = 0; i < 6; i++)
{
for (int j = 0; j < 6; j++)
{
farrk22[i, j] = ((i + 1) * 10) + 1 + j;
}
}
float[,][,] farrK = new float[2, 2][,]
{{farrk11, farrk12},
{farrk21, farrk22}};
Console.WriteLine(m_ELemArray[0].CM.Print2DMatrix(farrK, 2, 6));
*/
//////////////////////////////////////////////////////////////////////////////////////////////////////////////
#endregion
// Member 2 [1] Nodes 1 - 3 ([0] [2])
m_ELemArray[1].NodeStart = m_NodeArray[0];
m_ELemArray[1].NodeEnd = m_NodeArray[2];
// Element Type
m_ELemArray[1].m_eSuppType3D = EElemSuppType3D.e3DEl_000000_000000;
// Element Material
m_ELemArray[1].m_Mat = m_Mat;
// Element Corss-section
m_ELemArray[1].m_CrSc = m_CrSc;
// Fill Basic Element Data
m_ELemArray[1].FillBasic2();
// Load of Element only due to Element Transversal Forces
m_ELoadArray[1].GetEndLoad_F(m_ELemArray[1], 0f, 0f, m_fF);
// Output
// kij_0 - local stiffeness matrix 6 x 6
m_ELemArray[1].m_fkLocMatr.Print2DMatrixFormated();
// A Tranformation Rotation Matrixes 6 x 6
m_ELemArray[1].m_fATRMatr3D.Print2DMatrixFormated();
// B Transfer Matrixes 6 x 6
m_ELemArray[1].m_fBTTMatr3D.Print2DMatrixFormated();
// Kij - global matrix of member 12 x 12
m_ELemArray[1].m_fKGlobM.Print2DMatrixFormated();
// Element Load Vector 2 x 6
m_ELemArray[1].m_ArrElemPEF_LCS.Print2DMatrixFormated();
// Member 3 [2] Nodes 1 - 4 ([0] [3])
m_ELemArray[2].NodeStart = m_NodeArray[0];
m_ELemArray[2].NodeEnd = m_NodeArray[3];
// Element Type
m_ELemArray[2].m_eSuppType3D = EElemSuppType3D.e3DEl_000000_000___;
// Element Material
m_ELemArray[2].m_Mat = m_Mat;
// Element Corss-section
m_ELemArray[2].m_CrSc = m_CrSc;
// Fill Basic Element Data
m_ELemArray[2].FillBasic2();
// Load of Element only due to Element Transversal Forces
m_ELoadArray[2].GetEndLoad_M(m_ELemArray[2], m_fM, 0f, 0f);
// Output
// kij_0 - local stiffeness matrix 6 x 6
m_ELemArray[2].m_fkLocMatr.Print2DMatrixFormated();
// A Tranformation Rotation Matrixes 6 x 6
m_ELemArray[2].m_fATRMatr3D.Print2DMatrixFormated();
// B Transfer Matrixes 6 x 6
m_ELemArray[2].m_fBTTMatr3D.Print2DMatrixFormated();
// Kij - global matrix of member 12 x 12
m_ELemArray[2].m_fKGlobM.Print2DMatrixFormated();
// Element Load Vector 2 x 6
m_ELemArray[2].m_ArrElemPEF_LCS.Print2DMatrixFormated();
/*
// Nodal loads (sum nodal loads and nodal loads due to element loads)
m_NodeArray[2].m_sLoad.s_fFZ += -55000; // Add local nodal load to element ends loads due to intermediate load
*/
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Set Global Code Number of Nodes / Nastavit globalne kodove cisla uzlov
// Save indexes of nodes and DOF which are free and represent vector of uknown variables in solution
// Save it as array of arrays n x 2 (1st value is index - node index (0 - n-1) , 2nd value is DOF index (0-5)
// n - total number of nodes in model
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
SetNodesGlobCodeNoOld(); // Nastavi DOF v uzlov globalne kodove cisla ???
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Right side of Equation System
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Global Stiffeness Matrix of Structure - Allocate Memory (Matrix Size)
m_M_K_Structure = new CMatrix(m_iCodeNo);
// Fill Global Stiffeness Matrix
FillGlobalMatrixOld();
// Global Stiffeness Matrix m_iCodeNo x m_iCodeNo
m_M_K_Structure.Print2DMatrix();
// Auxialiary temporary transformation from 2D to 1D array / from float do double
// Pomocne prevody medzi jednorozmernym, dvojroymernym polom a triedom Matrix,
// bude nutne zladit a format v akom budeme pracovat s datami a potom zmazat
CArray objArray = new CArray();
// Convert Size
float[] m_M_K_fTemp1D = objArray.ArrTranf2Dto1D(m_M_K_Structure.m_fArrMembers);
// Convert Type
double[] m_M_K_dTemp1D = objArray.ArrConverFloatToDouble1D(m_M_K_fTemp1D);
MatrixF64 objMatrix = new MatrixF64(6, 6, m_M_K_dTemp1D);
// Print Created Matrix of MatrixF64 Class
objMatrix.WriteLine();
// Get Inverse Global Stiffeness Matrix
MatrixF64 objMatrixInv = objMatrix.Inverse();
// Print Inverse Matrix
objMatrixInv.WriteLine();
// Convert Type
float[] m_M_K_Inv_fTemp1D = objArray.ArrConverMatrixF64ToFloat1D(objMatrixInv);
// Inverse Global Stiffeness Matrix of Structure - Allocate Memory (Matrix Size)
CMatrix m_M_K_Structure_Inv = new CMatrix(m_iCodeNo);
m_M_K_Structure_Inv.m_fArrMembers = objArray.ArrTranf1Dto2D(m_M_K_Inv_fTemp1D);
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Left side of Equation System
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Global Load Vector - Allocate Memory (Vector Size)
m_V_Load = new CVector(m_iCodeNo);
// Fill Global Load Vector
FillGlobalLoadVectorOld();
// Display Global Load Vector
m_V_Load.Print1DVector();
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Solution - calculation of unknown displacement of nodes in GCS - system of linear equations
// Start Solver
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Global Displacement Vector - Allocate Memory (Vector Size)
m_V_Displ = new CVector(m_iCodeNo);
// Fill Global Displacement Vector
m_V_Displ = VectorF.fMultiplyMatrVectr(m_M_K_Structure_Inv, m_V_Load);
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// End Solver
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Display Global Displacemnt Vector - solution result
//Console.ForegroundColor = ConsoleColor.Cyan;
m_V_Displ.Print1DVector();
//Console.ForegroundColor = ConsoleColor.Green;
//Console.BackgroundColor = ConsoleColor.White;
// Set displacements and rotations of DOF in GCS to appropriate node DOF acc. to global code numbers
for (int i = 0; i < m_iCodeNo; i++)
{
// Check if DOF is default (free - ) or has some initial value (settlement; soil consolidation etc.)
// See Fill_NDisp_InitStr() for default values - float.PositiveInfinity
if (m_NodeArray[m_fDisp_Vector_CN[i, 1]].m_VDisp.FVectorItems[m_fDisp_Vector_CN[i, 2]] == float.PositiveInfinity)
m_NodeArray[m_fDisp_Vector_CN[i, 1]].m_VDisp.FVectorItems[m_fDisp_Vector_CN[i, 2]] = m_V_Displ.FVectorItems[i]; // set calculated
else // some real initial value exists
m_NodeArray[m_fDisp_Vector_CN[i, 1]].m_VDisp.FVectorItems[m_fDisp_Vector_CN[i, 2]] += m_V_Displ.FVectorItems[i]; // add calculated (to sum)
}
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Get final end forces at element in global coordinate system GCS
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
for (int i = 0; i < iElemNoTot; i++)
{
m_ELemArray[i].GetArrElemEF_GCS_StNode();
Console.WriteLine("Element Index No.: " + i + "; " + "Node No.: " + m_ELemArray[i].NodeStart.ID + "; " + "Start Node End Forces in GCS");
m_ELemArray[i].m_VElemEF_GCS_StNode.Print1DVector();
m_ELemArray[i].GetArrElemEF_GCS_EnNode();
Console.WriteLine("Element Index No.: " + i + "; " + "Node No.: " + m_ELemArray[i].NodeEnd.ID + "; " + "End Node End Forces in GCS");
m_ELemArray[i].m_VElemEF_GCS_EnNode.Print1DVector();
m_ELemArray[i].GetArrElemEF_LCS_StNode();
Console.WriteLine("Element Index No.: " + i + "; " + "Node No.: " + m_ELemArray[i].NodeStart.ID + "; " + "Start Node End Forces in LCS");
m_ELemArray[i].m_VElemEF_LCS_StNode.Print1DVector();
m_ELemArray[i].GetArrElemEF_LCS_EnNode();
Console.WriteLine("Element Index No.: " + i + "; " + "Node No.: " + m_ELemArray[i].NodeEnd.ID + "; " + "End Node End Forces in LCS");
m_ELemArray[i].m_VElemEF_LCS_EnNode.Print1DVector();
m_ELemArray[i].GetArrElemIF_LCS_StNode();
Console.WriteLine("Element Index No.: " + i + "; " + "Node No.: " + m_ELemArray[i].NodeStart.ID + "; " + "Start Node Internal Forces in LCS");
m_ELemArray[i].m_VElemIF_LCS_StNode.Print1DVector();
m_ELemArray[i].GetArrElemIF_LCS_EnNode();
Console.WriteLine("Element Index No.: " + i + "; " + "Node No.: " + m_ELemArray[i].NodeEnd.ID + "; " + "End Node Internal Forces in LCS");
m_ELemArray[i].m_VElemIF_LCS_EnNode.Print1DVector();
}
}
//----------------------------------------------------------------------------
//----------------------------------------------------------------------------
//----------------------------------------------------------------------------
public CMLoadPart(CModel TopoModel,
CE_1D[] arrFemMembers,
int iMLoadIndex,
int kMemberIndex,
out float fTemp_A_UXRX,
out float fTemp_Ma_UXRX,
out float fTemp_A_UYRZ,
out float fTemp_Ma_UYRZ,
out float fTemp_A_UZRY,
out float fTemp_Ma_UZRY,
out float fTemp_B_UXRX,
out float fTemp_Mb_UXRX,
out float fTemp_B_UYRZ,
out float fTemp_Mb_UYRZ,
out float fTemp_B_UZRY,
out float fTemp_Mb_UZRY
)
{
// Default
fTemp_A_UXRX = 0.0f;
fTemp_B_UXRX = 0.0f;
fTemp_A_UYRZ = 0.0f;
fTemp_B_UYRZ = 0.0f;
fTemp_A_UZRY = 0.0f;
fTemp_B_UZRY = 0.0f;
fTemp_Ma_UXRX = 0.0f;
fTemp_Mb_UXRX = 0.0f;
fTemp_Ma_UYRZ = 0.0f;
fTemp_Mb_UYRZ = 0.0f;
fTemp_Ma_UZRY = 0.0f;
fTemp_Mb_UZRY = 0.0f;
if (TopoModel.m_arrMLoads[iMLoadIndex].IMemberCollection.Contains(TopoModel.m_arrMembers[kMemberIndex].ID)) // If member ID is same as collection item
{
// Fill external forces temp values
switch (TopoModel.m_arrMLoads[iMLoadIndex].EDirPPC) // Load direction in principal coordinate system XX / YU / ZV
{
// 0 - Displacement in x-axis and rotation about x-axis in PCS
// 1 - Displacement in y-axis and rotation about z-axis in PCS
// 2 - Displacement in z-axis and rotation about y-axis in PCS
case EMLoadDirPCC1.eMLD_PCC_FXX_MXX: // Axial force or torsional moment
{
// DOF RX can be released at one end only - one side is always supported
switch (arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX])
{
// Type of supports is already defined but I check it once more in body of function !!!
// XX - direction both sides supported displacement
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00_00:
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00_0_:
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_0__00:
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_0__0_:
{
// Type ObjLoadType = typeof(TopoModel.m_arrMLoads[i]);
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Axial Force
{
FEM_CALC_BASE.CMLoadPart_AXIAL_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_AXIAL_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_A_UXRX,
out fTemp_B_UXRX);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Torsional Moment
{
FEM_CALC_BASE.CMLoadPart_TORS objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TORS(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_Ma_UXRX,
out fTemp_Mb_UXRX);
break;
}
default:
{
break;
}
}
break;
}
// XX - direction start supported, end free displacement
//case FEM_CALC_BASE.Enums.EElemSuppType.eEl_00__0:
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00___:
//case FEM_CALC_BASE.Enums.EElemSuppType.eEl_0____:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Axial Force
{
FEM_CALC_BASE.CMLoadPart_AXIAL_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_AXIAL_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_A_UXRX,
out fTemp_B_UXRX);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Torsional Moment
{
FEM_CALC_BASE.CMLoadPart_TORS objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TORS(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_Ma_UXRX,
out fTemp_Mb_UXRX);
break;
}
default:
{
break;
}
}
break;
}
// XX - direction start free displacement, end supported
//case FEM_CALC_BASE.Enums.EElemSuppType.eEl__0_00:
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl____00:
//case FEM_CALC_BASE.Enums.EElemSuppType.eEl____0_:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Axial Force
{
FEM_CALC_BASE.CMLoadPart_AXIAL_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_AXIAL_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_A_UXRX,
out fTemp_B_UXRX);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Torsional Moment
{
FEM_CALC_BASE.CMLoadPart_TORS objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TORS(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_Ma_UXRX,
out fTemp_Mb_UXRX);
break;
}
default:
{
break;
}
}
break;
}
// XX - direction start free displacement, end free displacement
//case FEM_CALC_BASE.Enums.EElemSuppType.eEl__0__0:
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl______:
default:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Axial Force
{
FEM_CALC_BASE.CMLoadPart_AXIAL_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_AXIAL_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_A_UXRX,
out fTemp_B_UXRX);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Torsional Moment
{
FEM_CALC_BASE.CMLoadPart_TORS objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TORS(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUXRX],
out fTemp_Ma_UXRX,
out fTemp_Mb_UXRX);
break;
}
default:
{
break;
}
}
break;
}
}
break;
}
case EMLoadDirPCC1.eMLD_PCC_FYU_MZV: // Transversal load
{
switch (arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ])
{
// Type of supports is already defined but I check it once more in body of function !!!
// UZRY - direction both sides supported displacement
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00_00:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
default:
{
break;
}
}
break;
}
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00_0_:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
default:
{
break;
}
}
break;
}
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_0__00:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
default:
{
break;
}
}
break;
}
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_0__0_:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
default:
{
break;
}
}
break;
}
// UZRY - direction start supported, end free displacement
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00___:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
default:
{
break;
}
}
break;
}
// UZRY - direction start free displacement, end supported
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl____00:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
default:
{
break;
}
}
break;
}
// UZRY - direction start free displacement, end free displacement
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl______:
default:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUYRZ],
out fTemp_A_UYRZ,
out fTemp_B_UYRZ,
out fTemp_Ma_UYRZ,
out fTemp_Mb_UYRZ);
break;
}
default:
{
break;
}
}
break;
}
}
break;
}
case EMLoadDirPCC1.eMLD_PCC_FZV_MYU: // Transversal load
{
switch (arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY])
{
// Type of supports is already defined but I check it once more in body of function !!!
// UZRY - direction both sides supported displacement
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00_00:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
default:
{
break;
}
}
break;
}
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00_0_:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
default:
{
break;
}
}
break;
}
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_0__00:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
default:
{
break;
}
}
break;
}
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_0__0_:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
default:
{
break;
}
}
break;
}
// UZRY - direction start supported, end free displacement
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl_00___:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
default:
{
break;
}
}
break;
}
// UZRY - direction start free displacement, end supported
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl____00:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
default:
{
break;
}
}
break;
}
// UZRY - direction start free displacement, end free displacement
case FEM_CALC_BASE.Enums.EElemSuppType2D.eEl______:
default:
{
switch (TopoModel.m_arrMLoads[iMLoadIndex].MLoadType)
{
case BaseClasses.EMLoadType.eMLT_F: // Transverse Force
{
FEM_CALC_BASE.CMLoadPart_TRANS_F objMLoadPart = new FEM_CALC_BASE.CMLoadPart_TRANS_F(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
case BaseClasses.EMLoadType.eMLT_M: // Bending Moment
{
FEM_CALC_BASE.CMLoadPart_BEND objMLoadPart = new FEM_CALC_BASE.CMLoadPart_BEND(TopoModel.m_arrMLoads[iMLoadIndex],
(CE_1D_BASE)arrFemMembers[kMemberIndex],
arrFemMembers[kMemberIndex].m_eSuppType2D[(int)EM_PCS_DIR1.eUZRY],
out fTemp_A_UZRY,
out fTemp_B_UZRY,
out fTemp_Ma_UZRY,
out fTemp_Mb_UZRY);
break;
}
default:
{
break;
}
}
break;
}
}
break;
}
default: // Exception
{
fTemp_A_UXRX = float.MaxValue;
fTemp_B_UXRX = float.MaxValue;
fTemp_A_UYRZ = float.MaxValue;
fTemp_B_UYRZ = float.MaxValue;
fTemp_A_UZRY = float.MaxValue;
fTemp_B_UZRY = float.MaxValue;
fTemp_Ma_UXRX = float.MaxValue;
fTemp_Mb_UXRX = float.MaxValue;
fTemp_Ma_UYRZ = float.MaxValue;
fTemp_Mb_UYRZ = float.MaxValue;
fTemp_Ma_UZRY = float.MaxValue;
fTemp_Mb_UZRY = float.MaxValue;
break;
}
}
}
}
public void GenerateMesh1D(CModel TopoModel)
{
// Generate FEM nodes
// Nodes
for (int i = 0; i < TopoModel.m_arrNodes.Length; i++)
{
// Create FEM node
CFemNode TempNode = new CFemNode(TopoModel.m_arrNodes[i]);
m_arrFemNodes[i] = TempNode;
// Set FEM node DOF
// Get nodal support
// Search if node is in list of supported nodes for each nodal support
for (int i2 = 0; i2 < TopoModel.m_arrNSupports.Length; i2++) // Check all nodal supports
{
for (int j = 0; j < TopoModel.m_arrNSupports[i2].m_iNodeCollection.Length; j++) // Check list of nodes (Nodes IDs collection)
{
if (m_arrFemNodes[i].ID == TopoModel.m_arrNSupports[i2].m_iNodeCollection[j])
{
// DOF of nodes are free - zero rigidity of restraints false as default
m_arrFemNodes[i].m_ArrNodeDOF[(int)e3D_DOF.eUX] = TopoModel.m_arrNSupports[i2].m_bRestrain[(int)e3D_DOF.eUX]; // !!! 3D Environment enum
m_arrFemNodes[i].m_ArrNodeDOF[(int)e3D_DOF.eUY] = TopoModel.m_arrNSupports[i2].m_bRestrain[(int)e3D_DOF.eUY]; // !!! 3D Environment enum
m_arrFemNodes[i].m_ArrNodeDOF[(int)e3D_DOF.eUZ] = TopoModel.m_arrNSupports[i2].m_bRestrain[(int)e3D_DOF.eUZ]; // !!! 3D Environment enum
m_arrFemNodes[i].m_ArrNodeDOF[(int)e3D_DOF.eRX] = TopoModel.m_arrNSupports[i2].m_bRestrain[(int)e3D_DOF.eRX]; // !!! 3D Environment enum
m_arrFemNodes[i].m_ArrNodeDOF[(int)e3D_DOF.eRY] = TopoModel.m_arrNSupports[i2].m_bRestrain[(int)e3D_DOF.eRY]; // !!! 3D Environment enum
m_arrFemNodes[i].m_ArrNodeDOF[(int)e3D_DOF.eRZ] = TopoModel.m_arrNSupports[i2].m_bRestrain[(int)e3D_DOF.eRZ]; // !!! 3D Environment enum
}
}
}
}
// Generate FEM members
// Members
for (int i = 0; i < TopoModel.m_arrMembers.Length; i++)
{
CE_1D TempMember = new CE_1D(TopoModel.m_arrMembers[i], m_arrFemNodes);
m_arrFemMembers[i] = TempMember;
// Set FEM Member DOF
if (TopoModel.m_arrNReleases != null) // Some releases exist
{
for (int j = 0; j < TopoModel.m_arrNReleases.Length; j++) // Check each release
{
for (int k = 0; k < TopoModel.m_arrNReleases[j].m_iMembCollection.Length; k++) // Check each member in collection
{
if (TopoModel.m_arrNReleases[j].m_iMembCollection[k] == m_arrFemMembers[i].ID) // if release exists on member
{
if (TopoModel.m_arrMembers[i].CnRelease1 != null)
m_arrFemMembers[i].CnRelease1 = TopoModel.m_arrMembers[i].CnRelease1;
if (TopoModel.m_arrMembers[i].CnRelease2 != null)
m_arrFemMembers[i].CnRelease2 = TopoModel.m_arrMembers[i].CnRelease2;
}
}
}
}
}
////////////////////////////////////////////////////////////////////////////////////////////////
// Additional data of nodes depending on generated members
for (int i = 0; i < m_arrFemNodes.Length; i++)
{
m_arrFemNodes[i].m_iMemberCollection = new System.Collections.ArrayList(); // Allocate collection memory
for (int j = 0; j < m_arrFemMembers.Length; j++)
{
if (m_arrFemNodes[i].ID == m_arrFemMembers[j].NodeStart.ID || m_arrFemNodes[i].ID == m_arrFemMembers[j].NodeEnd.ID) // Is node ID same as member start or end node ID
{
m_arrFemNodes[i].m_iMemberCollection.Add(m_arrFemMembers[j].ID); // Add FEMmember ID to the FEM node list
}
}
}
// Releases !!!! - copied from 2D solution, check implementation in 3D !!!
// If only two members are connected in one node and if release exists at that node, copy this release from one member to the another
for (int i = 0; i < m_arrFemNodes.Length; i++)
{
if (m_arrFemNodes[i].m_iMemberCollection != null && m_arrFemNodes[i].m_iMemberCollection.Count == 2) // Node is connected to two members
{
// We know member ID, so we can get index of members in list
int iMember1_index = -1;
int iMember2_index = -1;
for (int j = 0; j < m_arrFemMembers.Length; j++)
{
// 1st member index
if (iMember1_index < 0 && m_arrFemNodes[i].m_iMemberCollection.Contains(m_arrFemMembers[j].ID)) // if Member ID is in the list
{
iMember1_index = j; // Set 1st
}
if (iMember1_index > -1) // Index was defined, we can break cycle
break;
}
// 2nd member index
for (int k = iMember1_index + 1; k < m_arrFemMembers.Length; k++) // Search for second only in interval between first founded member and last member
{
if (iMember2_index < 0 && m_arrFemNodes[i].m_iMemberCollection.Contains(m_arrFemMembers[k].ID)) // if Member ID is in the list interval
{
iMember2_index = k;
}
if (iMember2_index > -1) // Index was defined, we can break cycle
break;
}
// If relases exist, they are neccesary to define DOF of both members, therefore copy release of one member to the another one
if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember1_index].NodeStart.ID && m_arrFemMembers[iMember1_index].CnRelease1 != null)
{
if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember2_index].NodeStart.ID && m_arrFemMembers[iMember2_index].CnRelease1 == null)
m_arrFemMembers[iMember2_index].CnRelease1.m_bRestrain = m_arrFemMembers[iMember1_index].CnRelease1.m_bRestrain;
else if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember2_index].NodeEnd.ID && m_arrFemMembers[iMember2_index].CnRelease2 == null)
m_arrFemMembers[iMember2_index].CnRelease2.m_bRestrain = m_arrFemMembers[iMember1_index].CnRelease1.m_bRestrain;
}
else if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember1_index].NodeEnd.ID && m_arrFemMembers[iMember1_index].CnRelease2 != null)
{
if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember2_index].NodeStart.ID && m_arrFemMembers[iMember2_index].CnRelease1 == null)
m_arrFemMembers[iMember2_index].CnRelease1.m_bRestrain = m_arrFemMembers[iMember1_index].CnRelease2.m_bRestrain;
else if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember2_index].NodeEnd.ID && m_arrFemMembers[iMember2_index].CnRelease2 == null)
m_arrFemMembers[iMember2_index].CnRelease2.m_bRestrain = m_arrFemMembers[iMember1_index].CnRelease2.m_bRestrain;
}
else if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember2_index].NodeStart.ID && m_arrFemMembers[iMember2_index].CnRelease1 != null)
{
if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember1_index].NodeStart.ID && m_arrFemMembers[iMember1_index].CnRelease1 == null)
m_arrFemMembers[iMember1_index].CnRelease1.m_bRestrain = m_arrFemMembers[iMember2_index].CnRelease1.m_bRestrain;
else if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember1_index].NodeEnd.ID && m_arrFemMembers[iMember1_index].CnRelease2 == null)
m_arrFemMembers[iMember1_index].CnRelease2.m_bRestrain = m_arrFemMembers[iMember2_index].CnRelease1.m_bRestrain;
}
else if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember2_index].NodeEnd.ID && m_arrFemMembers[iMember2_index].CnRelease2 != null)
{
if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember1_index].NodeStart.ID && m_arrFemMembers[iMember1_index].CnRelease1 == null)
m_arrFemMembers[iMember1_index].CnRelease1.m_bRestrain = m_arrFemMembers[iMember2_index].CnRelease2.m_bRestrain;
else if (m_arrFemNodes[i].ID == m_arrFemMembers[iMember1_index].NodeEnd.ID && m_arrFemMembers[iMember1_index].CnRelease2 == null)
m_arrFemMembers[iMember1_index].CnRelease2.m_bRestrain = m_arrFemMembers[iMember2_index].CnRelease2.m_bRestrain;
}
}
}
// Additional data of members
// Fill Members stifeness matrices
for (int i = 0; i < m_arrFemMembers.Length; i++)
{
m_arrFemMembers[i].FillBasic3_StiffMatrices();
}
//////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// External Loads
// Fill vectors
// Nodal loads
// Fill vector of external load for each node in list
// Node could be included in all lists only once, more than one nodal load in one node is not allowed
if (!object.ReferenceEquals(null, TopoModel.m_arrNLoads))
{
for (int i = 0; i < TopoModel.m_arrNLoads.Length; i++) // Each load
{
if (TopoModel.m_arrNLoads[i].INodeCollection != null) // Check if some nodes are in list
{
for (int j = 0; j < TopoModel.m_arrNLoads[i].INodeCollection.Length; j++) // Each node in collection
{
// Set load vector values
for (int k = 0; k < m_arrFemNodes.Length; k++) // Neefektivne prechadzat zbytocne vsetky uzly kedze pozname konkretne ID zatazenych
{
if (TopoModel.m_arrNLoads[i].INodeCollection.Contains(TopoModel.m_arrNodes[k].ID)) // If node ID is same as collection item
{
// Check object class
if (TopoModel.m_arrNLoads[i] is BaseClasses.CNLoadAll)
{
CNLoadAll oTemp = new CNLoadAll(); // Create new object of necessary type
oTemp = (CNLoadAll)(TopoModel.m_arrNLoads[i]); // Change object type
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFX] = oTemp.Value_FX;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFY] = oTemp.Value_FY;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFZ] = oTemp.Value_FZ;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMX] = oTemp.Value_MX;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMY] = oTemp.Value_MY;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMZ] = oTemp.Value_MZ;
/*
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFX] = TopoModel.m_arrNLoads[i].Value_FX;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFY] = TopoModel.m_arrNLoads[i].Value_FY;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFZ] = TopoModel.m_arrNLoads[i].Value_FZ;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMX] = TopoModel.m_arrNLoads[i].Value_MX;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMY] = TopoModel.m_arrNLoads[i].Value_MY;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMZ] = TopoModel.m_arrNLoads[i].Value_MZ;
*/
}
else
{
CNLoadSingle oTemp = new CNLoadSingle(); // Create new object of necessary type
oTemp = (CNLoadSingle)(TopoModel.m_arrNLoads[i]); // Change object type
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFX] = oTemp.NLoadType == ENLoadType.eNLT_Fx ? oTemp.Value : 0.0f;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFY] = oTemp.NLoadType == ENLoadType.eNLT_Fy ? oTemp.Value : 0.0f;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eFZ] = oTemp.NLoadType == ENLoadType.eNLT_Fz ? oTemp.Value : 0.0f;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMX] = oTemp.NLoadType == ENLoadType.eNLT_Mx ? oTemp.Value : 0.0f;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMY] = oTemp.NLoadType == ENLoadType.eNLT_My ? oTemp.Value : 0.0f;
m_arrFemNodes[k].m_VDirNodeLoad.FVectorItems[(int)e3D_E_F.eMZ] = oTemp.NLoadType == ENLoadType.eNLT_Mz ? oTemp.Value : 0.0f;
}
}
}
}
}
}
}
// Member loads
// Set primary end forces only due to member loads in local coordinate system LCS
// Summation of loads applied on one member
// There can by more loads on one member, member could be in various loads lists (but only once in one list)
if (!object.ReferenceEquals(null, TopoModel.m_arrMLoads))
{
for (int i = 0; i < TopoModel.m_arrMLoads.Length; i++) // Each load
{
if (TopoModel.m_arrMLoads[i].IMemberCollection != null) // Check if some members are in list
{
for (int j = 0; j < TopoModel.m_arrMLoads[i].IMemberCollection.Length; j++) // Each node in collection
{
// Set end forces due to member load
for (int k = 0; k < m_arrFemMembers.Length; k++) // Neefektivne prechadzat zbytocne vsetky pruty kedze pozname konkretne ID zatazenych
{
// Temporary value of end forces due to particular external force
float fTemp_A_UXRX = 0f, fTemp_B_UXRX = 0f, fTemp_Ma_UXRX = 0f, fTemp_Mb_UXRX = 0f;
float fTemp_A_UYRZ = 0f, fTemp_B_UYRZ = 0f, fTemp_Ma_UYRZ = 0f, fTemp_Mb_UYRZ = 0f;
float fTemp_A_UZRY = 0f, fTemp_B_UZRY = 0f, fTemp_Ma_UZRY = 0f, fTemp_Mb_UZRY = 0f;
// Fill end forces due to external forces vectors for member particular load index i and member index k
// Depends on load dirrection and member support type
// Use member PRINCIPAL coordinate system
CMLoadPart objAux = new CMLoadPart(TopoModel, m_arrFemMembers, i, k,
out fTemp_A_UXRX, out fTemp_Ma_UXRX, out fTemp_A_UYRZ, out fTemp_Ma_UYRZ, out fTemp_A_UZRY, out fTemp_Ma_UZRY,
out fTemp_B_UXRX, out fTemp_Mb_UXRX, out fTemp_B_UYRZ, out fTemp_Mb_UYRZ, out fTemp_B_UZRY, out fTemp_Mb_UZRY
);
// Add values of temporary end forces due to particular load to the end forces items of vector
// Primary end forces due member loading in local coordinate system LCS
// Start Node
m_arrFemMembers[k].m_VElemPEF_LCS_StNode.FVectorItems[(int)e3D_E_F.eFX] += fTemp_A_UXRX;
m_arrFemMembers[k].m_VElemPEF_LCS_StNode.FVectorItems[(int)e3D_E_F.eMX] += fTemp_Ma_UXRX;
m_arrFemMembers[k].m_VElemPEF_LCS_StNode.FVectorItems[(int)e3D_E_F.eFY] += fTemp_A_UYRZ; // !!! Signs - nutne skontrolovat znamienka podla smeru lokalnych osi a orientacie zatazenia
m_arrFemMembers[k].m_VElemPEF_LCS_StNode.FVectorItems[(int)e3D_E_F.eMZ] += fTemp_Ma_UYRZ;
m_arrFemMembers[k].m_VElemPEF_LCS_StNode.FVectorItems[(int)e3D_E_F.eFZ] += fTemp_A_UZRY; // !!! Signs - nutne skontrolovat znamienka podla smeru lokalnych osi a orientacie zatazenia
m_arrFemMembers[k].m_VElemPEF_LCS_StNode.FVectorItems[(int)e3D_E_F.eMY] += fTemp_Ma_UZRY;
// End Node
m_arrFemMembers[k].m_VElemPEF_LCS_EnNode.FVectorItems[(int)e3D_E_F.eFX] += fTemp_B_UXRX;
m_arrFemMembers[k].m_VElemPEF_LCS_EnNode.FVectorItems[(int)e3D_E_F.eMX] += fTemp_Mb_UXRX;
m_arrFemMembers[k].m_VElemPEF_LCS_EnNode.FVectorItems[(int)e3D_E_F.eFY] += fTemp_B_UYRZ; //-fTemp_B_UYRZ; // Zmena znamienka pre silu Vb na konci pruta, znamienko je opacne nez u reakcie, toto su vsak reakcie
m_arrFemMembers[k].m_VElemPEF_LCS_EnNode.FVectorItems[(int)e3D_E_F.eMZ] += fTemp_Mb_UYRZ;
m_arrFemMembers[k].m_VElemPEF_LCS_EnNode.FVectorItems[(int)e3D_E_F.eFZ] += fTemp_B_UZRY; //-fTemp_B_UZRY; // Zmena znamienka pre silu Vb na konci pruta, znamienko je opacne nez u reakcie, toto su vsak reakcie
m_arrFemMembers[k].m_VElemPEF_LCS_EnNode.FVectorItems[(int)e3D_E_F.eMY] += fTemp_Mb_UZRY;
}
}
}
}
}
// Set primary end forces only due to member loads in global coordinate system GCS
foreach (CE_1D Elem in m_arrFemMembers)
{
Elem.SetGetPEF_GCS();
}
}
// Member 1-3
public void GetEndLoad_F(CE_1D Element, float fFx, float fFy, float fFz)
{
switch (Element.m_eSuppType3D)
{
case EElemSuppType3D.e3DEl_000000_000000:
case EElemSuppType3D.e3DEl_000000_0_00_0:
case EElemSuppType3D.e3DEl_0_00_0_000000:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = fFx / 2f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = -0.5f * fFz;
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = fFz * Element.FLength / 8f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = fFx / 2f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = -0.5f * fFz;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = -fFz * Element.FLength / 8f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
case EElemSuppType3D.e3DEl_000____000000:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = fFx / 2f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = 5f / 16f * fFz;
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = fFx / 2f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = 11f / 16f * fFz;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = 3f / 16f * fFz * Element.FLength;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
case EElemSuppType3D.e3DEl_000000_000___:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = fFx / 2f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = 11f / 16f * fFz;
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = 3f / 16f * fFz * Element.FLength;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = fFx / 2f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = 5f / 16f * fFz;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
default:
{
GetEndLoad(Element);
break;
}
}
// Set Primary End Forces of Elemnent in Global Coordinate system
SetGetPEF_GCS(Element);
// Update Element Primary End Forces Vector (1x12) in LCS
UpdateElemPEF_LCS_Vector(Element);
// Update Element Primary End Forces Vector (1x12) in GCS
UpdateElemPEF_GCS_Vector(Element);
}
// Update Element Primary End Forces Vector (1x12) in LCS
void UpdateElemPEF_LCS_Vector(CE_1D Element)
{
for (int i = 0; i < 6; i++)
{
Element.m_ArrElemPEF_LCS.m_fArrMembers[0, i] = Element.m_VElemPEF_LCS_StNode.FVectorItems[i]; // Start Node
Element.m_ArrElemPEF_LCS.m_fArrMembers[1, i] = Element.m_VElemPEF_LCS_EnNode.FVectorItems[i]; // End Node
}
}
// Set vector of ends primary forces in global coordinate system
public void SetGetPEF_GCS(CE_1D Element)
{
// Start Node
// [PEF_GCS i] = [A0T] * [PEF_LCS i]
Element.m_VElemPEF_GCS_StNode = VectorF.fMultiplyMatrVectr(MatrixF.GetTransMatrix(Element.m_fATRMatr3D), Element.m_VElemPEF_LCS_StNode);
// End Node
// [PEF_GCS j] = [A0T] * [PEF_LCS j]
Element.m_VElemPEF_GCS_EnNode = VectorF.fMultiplyMatrVectr(MatrixF.GetTransMatrix(Element.m_fATRMatr3D), Element.m_VElemPEF_LCS_EnNode);
}
// Member 1-4
public void GetEndLoad_M(CE_1D Element, float fMx, float fMy, float fMz)
{
switch (Element.m_eSuppType3D)
{
case EElemSuppType3D.e3DEl_000000_000000:
case EElemSuppType3D.e3DEl_000000_0_00_0:
case EElemSuppType3D.e3DEl_0_00_0_000000:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 9f * fMz / (8f * Element.FLength);
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = 9f * fMy / (8f * Element.FLength);
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = fMx / 2f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = fMy * Element.FLength / 12f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = fMz * Element.FLength / 12f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 9f * fMz / (8f * Element.FLength);
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = 9f * fMy / (8f * Element.FLength);
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = -fMx / 2f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = -fMy * Element.FLength / 12f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = -fMz * Element.FLength / 12f;
break;
}
case EElemSuppType3D.e3DEl_000____000000:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = 9f * fMy / (8f * Element.FLength);
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = 9f * fMy / (8f * Element.FLength);
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = -fMx;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = fMy * Element.FLength / 8f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
case EElemSuppType3D.e3DEl_000000_000___:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = 9f * fMy / (8f * Element.FLength);
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = fMx;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = fMy * Element.FLength / 8f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = 9f * fMy / (8f * Element.FLength);
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
default:
{
GetEndLoad(Element);
break;
}
}
// Set Primary End Forces of Elemnent in Global Coordinate system
SetGetPEF_GCS(Element);
// Update Element Primary End Forces Vector (1x12) in LCS
UpdateElemPEF_LCS_Vector(Element);
// Update Element Primary End Forces Vector (1x12) in GCS
UpdateElemPEF_GCS_Vector(Element);
}
// Member 1-2 - Loaded by uniform load
public void GetEndLoad_g(CE_1D Element, float fg_z)
{
switch (Element.m_eSuppType3D)
{
case EElemSuppType3D.e3DEl_000000_000000:
case EElemSuppType3D.e3DEl_000000_0_00_0:
case EElemSuppType3D.e3DEl_0_00_0_000000:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = fg_z * Element.FLength / 2f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = -fg_z * (float)Math.Pow(Element.FLength, 2f) / 12f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = fg_z * Element.FLength / 2f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = fg_z * (float)Math.Pow(Element.FLength, 2f) / 12f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
case EElemSuppType3D.e3DEl_000____000000:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = -3 * fg_z * Element.FLength / 8f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = 5 * fg_z * Element.FLength / 8f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = fg_z * (float)Math.Pow(Element.FLength, 2f) / 8f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
case EElemSuppType3D.e3DEl_000000_000___:
{
Element.m_VElemPEF_LCS_StNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[2] = 5 * fg_z * Element.FLength / 8f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[4] = fg_z * (float)Math.Pow(Element.FLength, 2f) / 8f;
Element.m_VElemPEF_LCS_StNode.FVectorItems[5] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[0] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[1] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[2] = -3 * fg_z * Element.FLength / 8f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[3] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[4] = 0f;
Element.m_VElemPEF_LCS_EnNode.FVectorItems[5] = 0f;
break;
}
default:
{
GetEndLoad(Element);
break;
}
}
// Set Primary End Forces of Elemnent in Global Coordinate system
SetGetPEF_GCS(Element);
// Update Element Primary End Forces Vector (1x12) in LCS
UpdateElemPEF_LCS_Vector(Element);
// Update Element Primary End Forces Vector (1x12) in GCS
UpdateElemPEF_GCS_Vector(Element);
}
// Function returns list of FEM 1D elements which includes given node
// Do we need to store whole elements object (array of elements indexes should be enough) !!!
public ArrayList GetFoundedMembers(CFemNode Node, CE_1D[] ElemArray, int iElemNo)
{
int j = 0;
ArrayList ElemTempList = new ArrayList();
for (int i = 0; i < iElemNo; i++)
{
if ((ElemArray[i].NodeStart == Node) || (ElemArray[i].NodeEnd == Node))
{
ElemTempList.Add(i); // Add Element to Element List
j++;
}
}
return ElemTempList;
}
public ArrayList GetFoundedMembers_IndexOld(CFemNode Node, CE_1D[] ElemArray, int iElemNo)
{
int j = 0;
ArrayList IndexList = new ArrayList();
for (int i = 0; i < iElemNo; i++)
{
if ((ElemArray[i].NodeStart == Node) || (ElemArray[i].NodeEnd == Node))
{
IndexList.Add(i); // Add Element to Element Index Array
j++;
}
}
return IndexList;
}
// Array of int values
public ArrayList GetFoundedMembers_Index(CFemNode Node, CE_1D[] ElemArray)
{
ArrayList IndexList = new ArrayList();
for (int i = 0; i < ElemArray.Length; i++) // Check for each member in array
{
if ((ElemArray[i].NodeStart == Node) || (ElemArray[i].NodeEnd == Node))
{
IndexList.Add(i); // Add Element to Element Index Array
}
}
return IndexList;
}