void CTerrain::init(void)
{
int i, j, k;
for (i = 0 ; i < BB ; i++) {
p[i] = i;
g1[i] = (float)((myRand() % (BB + BB)) - BB) / BB;
for (j = 0 ; j < 2 ; j++)
g2[i][j] = (float)((myRand() % (BB + BB)) - BB) / BB;
normalize2(g2[i]);
for (j = 0 ; j < 3 ; j++)
g3[i][j] = (float)((myRand() % (BB + BB)) - BB) / BB;
normalize3(g3[i]);
}
while (--i) {
k = p[i];
p[i] = p[j = myRand() % BB];
p[j] = k;
}
for (i = 0 ; i < BB + 2 ; i++) {
p[BB + i] = p[i];
g1[BB + i] = g1[i];
for (j = 0 ; j < 2 ; j++)
g2[BB + i][j] = g2[i][j];
for (j = 0 ; j < 3 ; j++)
g3[BB + i][j] = g3[i][j];
}
}
/*
* Add bits of given value to the signature.
*/
void
signValue(BloomState *state, SignType *sign, Datum value, int attno)
{
uint32 hashVal;
int nBit,
j;
/*
* init generator with "column's" number to get "hashed" seed for new
* value. We don't want to map the same numbers from different columns
* into the same bits!
*/
mySrand(attno);
/*
* Init hash sequence to map our value into bits. the same values in
* different columns will be mapped into different bits because of step
* above
*/
hashVal = DatumGetInt32(FunctionCall1(&state->hashFn[attno], value));
mySrand(hashVal ^ myRand());
for (j = 0; j < state->opts.bitSize[attno]; j++)
{
/* prevent mutiple evaluation */
nBit = myRand() % (state->opts.bloomLength * BITSIGNTYPE);
SETBIT(sign, nBit);
}
}
Node::Node(){
_nodeType = TERM;
_termKind = (TermKind)(myRand() % TERM_KIND_NUM);
_left = NULL;
_right = NULL;
_val = myRand() % SENSOR_NUM;
}
int LinearGenerator::toGenerate() {
setSeed(myRand());
while((getSeed() > getMaxValue()) || (getSeed() < getMinValue()))
setSeed(myRand());
print(std::cout);
return getSeed();
}
void fillTab(int *x, int theSize){
int i,j;
for (i=0;i<theSize;i++){
x[i] = myRand(0, theSize*10);
for(j=0;j<i-1;j++){
if(x[j]==x[i]){
x[j] = myRand(0, theSize*10);
}
}
}
}
void testrand(unsigned cnt)
{
while (cnt--)
{
unsigned v;
v = myRand() & 0x7FFF;
v = (v << 15) | (myRand() & 0x7FFF);
v = (v << 1) | (myRand() & 0x1);
test10(v);
}
}
void Node::addTerm(){
if(_nodeType == OP){
if(myRand()%2) _left->addTerm();
else _right->addTerm();
return;
}
_nodeType = OP;
_opKind = (OpKind)(myRand() % OP_KIND_NUM);
_left = new Node();
_right = new Node();
}
void RS_Engine::new_block()
{
if( block != NULL )
{
BlockFactory::destroyBlock( block );
}
BlockType newType = (BlockType)myRand(7);
int unit_value = myRand(6);
qDebug("type:%d, color:%d", newType, unit_value);
block = BlockFactory::createBlock( newType , unit_value , units );
}
double run_optim_full_calcA2(const genome &g,const std::vector<perChr>&pc,para&p){
toOptim2 *to = new toOptim2(g,pc);
double tsk[4];//tmparray used of saving stackpointers
to->tsk = tsk;
double pars[2]; pars[0]=myRand(0,1);pars[1]=myRand(0,1-pars[0]);
//fix last pars
double lbd[2]={0.000001,0.000001};
double ubd[2]={0.999999,0.999999};
int nbd[2]={2,2};
double opt= -findmax_bfgs(2,pars,(void *)to, bfgs_call_full_calcA2,NULL,lbd, ubd,nbd, -1);
p.k0=pars[0];
p.k1=pars[1];
p.k2=1-pars[0]-pars[1];
p.a=calculateA(p.k0,p.k1,p.k2,PHI);
return opt;
}
void FieldBackStone::init(const int32_t &x, const int32_t &y)
{
FieldBack::init(x, y);
switch (myRand(x ^ (y<<2)) % 6)
{
case 0:
image = load_image("Background/Erze/Steine/Steine01.png");
break;
case 1:
image = load_image("Background/Erze/Steine/Steine02.png");
break;
case 2:
image = load_image("Background/Erze/Steine/Steine03.png");
break;
case 3:
image = load_image("Background/Erze/Steine/Steine04.png");
break;
case 4:
image = load_image("Background/Erze/Steine/Steine05.png");
break;
case 5:
image = load_image("Background/Erze/Steine/Steine06.png");
break;
}
}
void FieldBackSilver::init(const int32_t &x, const int32_t &y)
{
FieldBack::init(x, y);
switch (myRand(x ^ (y<<2)) % 6)
{
case 0:
image = load_image("Background/Erze/Silber/Silber01.png");
break;
case 1:
image = load_image("Background/Erze/Silber/Silber02.png");
break;
case 2:
image = load_image("Background/Erze/Silber/Silber03.png");
break;
case 3:
image = load_image("Background/Erze/Silber/Silber04.png");
break;
case 4:
image = load_image("Background/Erze/Silber/Silber05.png");
break;
case 5:
image = load_image("Background/Erze/Silber/Silber06.png");
break;
}
}
Node* GenLvalExpr(void)
{
Node* n = NewNode();
n->type = 'L';
n->varNum = VarCnt++;
n->varVal = myRand() & 3;
return n;
}
void createRandGridMembers(GridMember** memberList)
{
int i, j;
for(i=0; i<20; i++) {
for(j=0; j<20; j++) {
memberList[i][j].alive = myRand();
memberList[i][j].no_of_neighbours = 0;
}
}
}
double run_optim_full2(const genome &g,const std::vector<perChr>&pc,para&p){
toOptim2 *to = new toOptim2(g,pc);
double tsk[4];//tmparray used of saving stackpointers
to->tsk = tsk;
double pars[3];pars[0]=myRand(alim[0],alim[1]); pars[1]=myRand(0,1);pars[2]=myRand(0,1-pars[1]);
//double pars[3];pars[0]=myRand(alim[0],alim[1]); pars[1]=myRand(0,1);pars[2]=1-pars[1];pars[2]=0;
// double pars[3]={0.045854, 0.823746,0.176254};
//fix last pars
double lbd[3]={alim[0],0.000001,0.000001};
double ubd[3]={alim[1],0.999999,0.999999};
int nbd[3]={2,2,2};
double opt= -findmax_bfgs(3,pars,(void *)to, bfgs_call_full2,NULL,lbd, ubd,nbd, -1);
p.a=pars[0];
p.k0=pars[1];
p.k1=pars[2];
p.k2=1-pars[1]-pars[2];
return opt;
}
string Dictonary::randomItem()
{
srand (time(NULL));
randNum = myRand(0,10);
if((ITEMS.at(randNum)).empty())
this -> randomItem();
return (ITEMS.at(randNum));
}
void pulse() {
const signed char bitesize = 30;
for (unsigned char i=0; i<NUMCH; i++) {
float rnd = myRand();
speed[i] += 20*(rnd - .5);
if (rnd < 0.01) {
speed[i] *= 1.1;
} else {
speed[i] = speed[i] * 0.99;
}
if (rnd < 0.5 && rnd > 0.4993) { //every 10000 or so, add bias of up to 10000
buffA[i] = myRand() * 60000 - 30000;
}
if (rnd < 0.6 && rnd > 0.599) {
speed[i] = -speed[i];
}
if (absFloat(speed[i]) > SCHARMAX) {
speed[i] *= 0.5;
}
signed char dBright = myRound(speed[i]);
if (buffA[i] != 0 && dBright <= SCHARMAX-bitesize && dBright >= -SCHARMAX+bitesize) {
if (buffA[i] < 0) {
dBright-=10;
buffA[i]+=10;
} else {
dBright+=10;
buffA[i]-=10;
}
if (absFloat(buffA[i]) < 10) {
buffA[i] = 0;
}
}
signed char bndRes = boundShort(&brightness[i], &dBright);
if (bndRes != 0) {
speed[i] = -.5*speed[i];
}
}
}
void CNeuron::setNumOfWeights(int n) {
m_numOfInputs = n;
m_w = new real[m_numOfInputs + 1]; /// The +1 part is for the BIAS
if (!m_w) {
std::cerr << "Uh oh, no memory for weights..." << std::endl;
return;
}
real sum = 0;
for (int i = 0; i < m_numOfInputs + 1; ++i)
sum += m_w[i] = myRand(-1.0, 1.0);
//std::cout << "Average = " << sum/m_numOfInputs << std::endl;
}
//Generates a map with random cells.
void buildMap()
{
clearMap();
int i, j;
for ( i = 0; i < 30; i++ )
{
for ( j = 0; j < 30; j++ )
{
currentMap[i][j] = myRand(2);
}
}
}
int play(int _player) {
int rndCol = myRand(0,6);
// Check row if empty
int i;
for (i = 0; i < ROW; i++) {
if (grid[i][rndCol] == 0) {
grid[i][rndCol] = _player;
break;
}
}
return 0;
}
void *producer(void *param)
{
int random;
int r;
while(TRUE)
{
r = rand() % MAX_SLEEP;
sleep(r);
random = myRand();
printf("Producer %lu tries to insert %d at time %d\n", pthread_self(), random, buffer_time);
if(insert_item(random))
fprintf(stderr, "Error");
}
}
double run_optim_k2zero_calcA2(const genome &g,const std::vector<perChr>&pc,para&p){
toOptim2 *to = new toOptim2(g,pc);
double tsk[4];//tmparray used of saving stackpointers
to->tsk = tsk;
double pars[1]={myRand(0,1)};
// fprintf(stderr,"pars=%f\n",pars[0]);
double lbd[1]={0.000001};
double ubd[1]={0.999999};
int nbd[1]={2};
double opt= -findmax_bfgs(1,pars,(void *)to, bfgs_call_k2zero_calcA2,NULL,lbd, ubd,nbd, -1);
p.k0=pars[0];
p.k1=1-p.k0;
p.k2=0;
p.a=calculateA(p.k0,p.k1,p.k2,PHI);
return opt;
}
void ParticleGenerator::initParticles()
{
for(int i=0; i<mMaxParticles; i++) // Boucle sur toutes les particules
{
mParticles[i].active = true; // On rend la particule active
mParticles[i].life = 1.0; // Maximum de vie
mParticles[i].fade = myRand(0.001,0.005); // Vitesse de disparition aléatoire
mParticles[i].r=myRand(0.0,1.0); // Quantité aléatoire de Rouge
mParticles[i].g=myRand(0.0,1.0); // Quantité aléatoire de Vert
mParticles[i].b=myRand(0.0,1.0); // Quantité aléatoire de Bleu
mParticles[i].xi = myRand(-1.0,1.0); // Vitesse aléatoire
mParticles[i].yi = myRand(-1.0,1.0);
mParticles[i].zi = myRand(1.0,2.0);
mParticles[i].size = 0.1;
}
}
int inject_8_low_error( int pid, long pos )
{
int iRet;
long origData;
long newData;
////read
iRet = ptraceGetReg( pid, pos, origData );
if( iRet == RT_FAIL ) { return RT_FAIL; }
//low 8 bits random error
newData = origData ^ ( myRand() & 0x00000000000000ffL );
////write
iRet = ptraceSetReg( pid, pos, newData );
if( iRet == RT_FAIL ) { return RT_FAIL; }
cout << "Fault on " << offset2name( pos ) << "(0X" << hex << origData << " -> 0X" << newData << ")" << dec << endl;
return RT_OK;
}
void pulseSweepInit() {
for (unsigned int i=0; i<NUMCH; i++) {
speed[i] = 2 * myRand() + 0.1;
}
}
void weaponSmg::shoot(double x, double y)
{
double a = atan2(y - (owner->y()+owner->h()/2), x - (owner->x()+owner->w()/2));
if (cooldown == 0)
{
if (ammoLoad > 0)
{
owner->core->createBullet(owner->id(), owner->x() + owner->w()/2, owner->y() + owner->h()/2, a + myRand(-0.05, 0.05), baseDamage);
ammoLoad--;
cooldown = cooldownTime;
} else
reload();
}
}
void weaponShotgun::shoot(double x, double y)
{
double a = atan2(y - (owner->y()+owner->h()/2), x - (owner->x()+owner->w()/2));
if (cooldown == 0)
{
if (ammoLoad > 0)
{
for (int i=0; i<6; i++)
owner->core->createBullet(owner->id(), owner->x() + owner->w()/2, owner->y() + owner->h()/2, a + myRand(-0.1, 0.1), baseDamage);
ammoLoad--;
cooldown = cooldownTime;
} else
reload();
}
}
int randBool(void)
{
return myRand() < (int)RAND_MAX / 2;
}
Node* genSubExpr(int depth, int lvalNeeded)
{
Node *n = newNode(), *left = NULL, *right = NULL, *cond = NULL;
if (lvalNeeded)
{
lval:
n->type = ntVar;
n->base = randBool() ? bsInt : (randBool() ? bsShort : bsChar);
n->sign = randBool() ? sgnSigned : sgnUnsigned;
genVal(n);
n->varNum = varCnt++;
n->struc = randBool() ? strVar : strArrEl;
n->storage = randBool() ? srgAuto : srgStatic;
return n;
}
if (depth <= 1)
{
if (randBool())
goto lval;
n->type = ntVal;
n->base = bsInt;
n->sign = randBool() ? sgnSigned : sgnUnsigned;
genVal(n);
return n;
}
n->type = ntOperator;
if (randBool())
{
n->op = opUnaryFirst + myRand() % (opUnaryLast + 1 - opUnaryFirst);
lvalNeeded = operatorNeedsLvalue(n->op);
left = genSubExpr(depth - 1, lvalNeeded);
}
else
{
int divguard = 0, shiftguard = 0;
n->op = opBinaryFirst + myRand() % (opBinaryLast + 1 - opBinaryFirst);
switch (n->op)
{
case opDiv:
case opMod:
case opAssignDiv:
case opAssignMod:
divguard = 1;
break;
case opShl:
case opShr:
case opAssignShl:
case opAssignShr:
shiftguard = 1;
break;
default:;
}
lvalNeeded = operatorNeedsLvalue(n->op);
if (n->op == opCond)
cond = genSubExpr(depth - 1, 0);
left = genSubExpr(depth - 1, lvalNeeded);
right = genSubExpr(depth - 1, 0);
if (divguard || shiftguard)
{
// Prevent division by 0 and shifts by more than 31 and less than 0
Node *n1 = newNode(), *n2 = newNode();
n1->type = ntOperator;
n1->op = divguard ? opOr : opAnd;
n2->type = ntVal;
n2->val = divguard ? 1 : 31;
n2->base = bsInt;
n2->sign = sgnSigned;
attach2Nodes(n1, right, n2);
right = n1;
}
}
attach2Nodes(n, left, right);
n->child[2] = cond;
return n;
}
void genVal(Node* n)
{
n->val = myRand() % 255 - 127;
truncVal(n);
}
void ParticleGenerator::render()
{
glPushAttrib(GL_ALL_ATTRIB_BITS);
// Right and up direction of camera
float r[3], u[3];
camera_directions(r,u,NULL);
static int iteration = 0;
// mShader.enable();
// mShader.setFloat("nbActiveModifier", mColorModifiers.size());
// mShader.setFloatArray("modifiersDistance", mModifiersDistance);
// mShader.setVec3Array("colorModiers", mColorModifiers);
//
// mShader.setFloat("nbActiveForces", mForces.size());
// mShader.setVec3Array("forces", mForces);
// mShader.setFloat("iteration", iteration++);
glPushMatrix();
int a = 0;
for(int i=0; i<mMaxParticles; i++) // For each particle
{
if(mParticles[i].active) // If it is active
{
float x = mParticles[i].x; // Get its position
float y = mParticles[i].y;
float z = mParticles[i].z;
/* Particle color, transparence is life */
glColor4d(mParticles[i].r, mParticles[i].g, mParticles[i].b, mParticles[i].life);
glBegin(GL_TRIANGLE_STRIP);
float size = mParticles[i].size;
glVertex3f(size*(x+r[0]+u[0]),size*(y+r[1]+u[1]),size*(z+r[2]+u[2]));
glVertex3f(size*(x-r[0]+u[0]),size*(y-r[1]+u[1]),size*(z-r[2]+u[2]));
glVertex3f(size*(x+r[0]-u[0]),size*(y+r[1]-u[1]),size*(z+r[2]-u[2]));
glVertex3f(size*(x-r[0]-u[0]),size*(y-r[1]-u[1]),size*(z-r[2]-u[2]));
glEnd();
/* Move particles */
mParticles[i].x += mParticles[i].xi;
mParticles[i].y += mParticles[i].yi;
mParticles[i].z += mParticles[i].zi;
/* Apply forces */
std::vector<sf::Vector3f>::const_iterator it;
for(it = mForces.begin(); it != mForces.end(); it++) {
mParticles[i].x += (*it).x;
mParticles[i].y += (*it).y;
mParticles[i].z += (*it).z;
}
//std::cerr << "m "<< x << "\t" << y << "\t" << z << std::endl;
mParticles[i].life -= mParticles[i].fade;
/* If particle died, we regenerate it */
if (mParticles[i].life < 0.0)
{ mParticles[i].life = 1.0; // Full life
mParticles[i].fade = myRand(0.01,0.05);
mParticles[i].x = 0.0; // Put particle back to the emitter
mParticles[i].y = 0.0;
mParticles[i].z = 0.0;
mParticles[i].xi = myRand(-10.0,10.0); // Random speed
mParticles[i].yi = myRand(-10.0,10.0);
mParticles[i].zi = myRand(10.0,20.0);
mParticles[i].r=myRand(0.0,1.0);
mParticles[i].g=myRand(0.0,1.0);
mParticles[i].b=myRand(0.0,1.0);
}
}
}
//std::cerr << std::endl;
glPopMatrix();
glPopAttrib();
// mShader.disable();
}