XC::BJtensor XC::DPPotentialSurface::d2Qods2(const XC::EPState *EPS) const {
BJtensor d2Qods2(4, def_dim_4, 0.0);
BJtensor KroneckerI("I", 2, def_dim_2);
BJtensor T1 = KroneckerI("ij")*KroneckerI("mn");
T1.null_indices();
BJtensor T2 = (T1.transpose0110()+T1.transpose0111())*0.5;
BJtensor T3 = T2 - T1*(1.0/3.0);
//double temp1 = EPS->getScalarVar(1);
//double temp1 = getalfa2();
BJtensor T4;
XC::stresstensor alpha;
XC::stresstensor s_bar;
BJtensor temp9(4, def_dim_4, 0.0);
XC::stresstensor sigma = EPS->getStress();
double p = sigma.p_hydrostatic();
XC::stresstensor sdev = sigma.deviator();
double halfRt2 = 0.5 * sqrt(2.0);
int nod = EPS->getNTensorVar();
if ( nod >=1 ) { //May not have kinematic hardening
alpha = EPS->getTensorVar(1);
temp9 = KroneckerI("ij") * alpha("mn");
temp9.null_indices();
T4 = T2 + temp9*(1.0/3.0);
s_bar = sdev - (alpha*p);
}
else {
s_bar = sdev;
T4 = T2;
}
T4 = T2 - temp9;
BJtensor temp3 = s_bar("ij") * s_bar("ij");
temp3.null_indices();
double temp4 = temp3.trace();
temp4 = sqrt(temp4);
BJtensor temp5 = s_bar("ij")*s_bar("mn");
double eps = pow( d_macheps(), 0.5 );
if ( fabs(temp4) > eps ) {
d2Qods2 = T3 * (halfRt2/temp4) - temp5*(halfRt2/(temp4*temp4*temp4));
d2Qods2 = T4("ijkl") * d2Qods2("klmn");
d2Qods2.null_indices();
}
return d2Qods2;
}
void Board::Initialise()
{
float zbase = 400; // Variable to store how deep in the z axis the object is based.
Vector4 temp1(-600, 800, 1200 + zbase, 1);
Vector4 temp2(600, 800, 1200 + zbase, 1);
Vector4 temp3(600, 800, 0 + zbase, 1);
Vector4 temp4(-600,800,0 + zbase,1);
top.Initialise(temp1, temp2, temp3, temp4); // Set individual vertex locations for the top face of the board
Vector4 col1(70,50,4,1);
Vector4 col2(92,67,5,1);
Vector4 col3(102,75,6,1);
Vector4 col4(119,77,0,1);
Vector4 col5(69, 25, 18, 1);
top.SetColours(col1, col2, col2, col3); // Set individual colour values of each of those vertices
Vector4 temp5(-600, 800, 0 + zbase, 1);
Vector4 temp6(600, 800, 0 + zbase, 1);
Vector4 temp7(600, 1000, 0 + zbase, 1);
Vector4 temp8(-600,1000, 0 + zbase,1); // Individual vertices for the front face
Vector4 temp9(-800, 1000, 1200 + zbase + 300, 1);
Vector4 temp10(800, 1000, 1200 + zbase + 300, 1);
Vector4 temp11(800, 1000, 100, 1);
Vector4 temp12(-800, 1000, 100,1); // Individual vertices for the base face
table.Initialise(temp9, temp10, temp11, temp12);
table.SetColours(col5, col5, col5, col5); // Set to one mat colour, no shading.
Vector4 temp13(-600, 800, 1200 + zbase, 1);
Vector4 temp14(-600, 800, 0 + zbase, 1);
Vector4 temp15(-600, 1000, 0 + zbase, 1);
Vector4 temp16(-600, 1000, 1200 + zbase, 1); // Set individual vertices for the left face
Vector4 temp17(600, 800, 0 + zbase, 1);
Vector4 temp18(600, 800, 1200 + zbase, 1);
Vector4 temp19(600, 1000, 1200 + zbase, 1);
Vector4 temp20(600, 1000, 0 + zbase, 1); // Set individual vertices for the right face
sides[0].Initialise(temp5, temp6, temp7, temp8);
sides[1].Initialise(temp13, temp14, temp15, temp16);
sides[2].Initialise(temp17, temp18, temp19, temp20);
sides[3].Initialise(temp2, temp1, temp16, temp19); // Use known vertices to initialise the side faces
sides[0].SetColours(col3, col4, col4, col2);
sides[1].SetColours(col1, col2, col2, col1);
sides[2].SetColours(col2, col1, col1, col2);
sides[3].SetColours(col4, col4, col4, col4); // Then set the colours
float positionLocations[24][2] = {{-450, 1050 + zbase}, //1 An array holding the centre locations
{-300, 900 + zbase}, //2 of each of the positions where pieces
{-150, 750 + zbase}, //3 can be placed.
{ 0 , 750 + zbase}, //4
{ 150, 750 + zbase}, //5
{ 300, 900 + zbase}, //6
{ 450, 1050 + zbase}, //7
{ 0 , 900 + zbase}, //8
{ 0 , 1050 + zbase}, //9
{-450, 600 + zbase}, //10
{-300, 600 + zbase}, //11
{-150, 600 + zbase}, //12
{-450, 150 + zbase}, //13
{-300, 300 + zbase}, //14
{-150, 450 + zbase}, //15
{ 0 , 150 + zbase}, //16
{ 0 , 300 + zbase}, //17
{ 0 , 450 + zbase}, //18
{ 450, 150 + zbase}, //19
{ 300, 300 + zbase}, //20
{ 150, 450 + zbase}, //21
{ 450, 600 + zbase}, //22
{ 300, 600 + zbase}, //23
{ 150, 600 + zbase}}; //24
for (int i = 0; i < 24; i++) {
boardpositions[i].Initialise(positionLocations[i][0], positionLocations[i][1]); // Create the individual graphical representations
} // (class Position) and put in array for easy drawing.
InitialiseLines(); // Ugly function to draw each and every line on the
// board with individual hand-placed vertices.
SetupMills(); // Set up the mills (groups of three) with pointers to the positions
// as alternate referencing option
}
//write relation
TEST(ParserAttList, ParAttList)
{
//CREATE TABLE species (kind VARCHAR(10)) PRIMARY KEY (kind);
Token temp(Token::KEYWORD);
temp.content = "CREATE";
tokens.push_back(temp);
Token temp1(Token::KEYWORD);
temp.content = "TABLE";
tokens.push_back(temp1);
Token temp2(Token::VARIABLE);
temp.content = "species";
tokens.push_back(temp2);
Token temp3(Token::OPENPAREN);
temp.content = "(";
tokens.push_back(temp3);
Token temp4(Token::VARIABLE);
temp.content = "kind";
tokens.push_back(temp4);
Token temp5(Token::KEYWORD);
temp.content = "VARCHAR";
tokens.push_back(temp5);
Token temp6(Token::OPENPAREN);
temp.content = "(";
tokens.push_back(temp6);
Token temp7(Token::LITERAL);
temp.content = "10";
tokens.push_back(temp7);
Token temp8(Token::CLOSEPAREN);
temp.content = ")";
tokens.push_back(temp8);
Token temp9(Token::CLOSEPAREN);
temp.content = ")";
tokens.push_back(temp9);
Token temp10(Token::KEYWORD);
temp.content = "PRIMARY";
tokens.push_back(temp10);
Token temp11(Token::KEYWORD);
temp.content = "KEY";
tokens.push_back(temp11);
Token temp12(Token::OPENPAREN);
temp.content = "(";
tokens.push_back(temp12);
Token temp13(Token::VARIABLE);
temp.content = "kind";
tokens.push_back(temp13);
Token temp14(Token::CLOSEPAREN);
temp.content = ")";
tokens.push_back(temp14);
pars.command(tokens);
}