void vcvs::initDC (void) {
nr_double_t g = getPropertyDouble ("G");
allocMatrixMNA ();
setC (VSRC_1, NODE_1, +g); setC (VSRC_1, NODE_2, -1.0);
setC (VSRC_1, NODE_3, +1.0); setC (VSRC_1, NODE_4, -g);
setB (NODE_1, VSRC_1, +0); setB (NODE_2, VSRC_1, -1.0);
setB (NODE_3, VSRC_1, +1.0); setB (NODE_4, VSRC_1, +0);
setD (VSRC_1, VSRC_1, 0.0);
setE (VSRC_1, 0.0);
}
void vcvs::initTR (void) {
nr_double_t t = getPropertyDouble ("T");
initDC ();
deleteHistory ();
if (t > 0.0) {
setHistory (true);
initHistory (t);
setC (VSRC_1, NODE_1, 0.0); setC (VSRC_1, NODE_4, 0.0);
}
}
void opamp::calcDC (void) {
nr_double_t g = getPropertyDouble ("G");
nr_double_t uMax = getPropertyDouble ("Umax");
nr_double_t Uin = real (getV (NODE_INP) - getV (NODE_INM));
nr_double_t Uout = uMax * M_2_PI * atan (Uin * g * M_PI_2 / uMax);
gv = g / (1 + sqr (M_PI_2 / uMax * g * Uin)) + GMin;
setC (VSRC_1, NODE_INP, +gv);
setC (VSRC_1, NODE_INM, -gv);
setE (VSRC_1, Uin * gv - Uout);
}
void cccs::initDC (void) {
setISource (false);
allocMatrixMNA ();
nr_double_t g = getPropertyDouble ("G");
setC (VSRC_1, NODE_1, +1.0); setC (VSRC_1, NODE_2, +0.0);
setC (VSRC_1, NODE_3, +0.0); setC (VSRC_1, NODE_4, -1.0);
setB (NODE_1, VSRC_1, +1/g); setB (NODE_2, VSRC_1, +1.0);
setB (NODE_3, VSRC_1, -1.0); setB (NODE_4, VSRC_1, -1/g);
setD (VSRC_1, VSRC_1, 0.0);
setE (VSRC_1, 0.0);
}
void cpwstep::initAC (void) {
setVoltageSources (2);
setInternalVoltageSource (true);
allocMatrixMNA ();
setB (NODE_1, VSRC_1, +1.0); setB (NODE_1, VSRC_2, +0.0);
setB (NODE_2, VSRC_1, +0.0); setB (NODE_2, VSRC_2, +1.0);
setC (VSRC_1, NODE_1, -1.0); setC (VSRC_1, NODE_2, +0.0);
setC (VSRC_2, NODE_1, +0.0); setC (VSRC_2, NODE_2, -1.0);
setE (VSRC_1, +0.0); setE (VSRC_2, +0.0);
checkProperties ();
}
void opamp::initDC (void) {
allocMatrixMNA ();
setB (NODE_INP, VSRC_1, 0);
setB (NODE_OUT, VSRC_1, 1);
setB (NODE_INM, VSRC_1, 0);
setC (VSRC_1, NODE_OUT, -1); setD (VSRC_1, VSRC_1, 0); setE (VSRC_1, 0);
}
void control::event2() {
setA(false);
setC(true);
qDebug() << "Plastic Bottling Size Reached";
qDebug() << "Molding Bottle";
QTimer::singleShot(500, this, SLOT(event3()));
}
void control::event3() {
setB(false);
QTimer::singleShot(4000, this, SLOT(event1()));
setB(true);
setC(false);
qDebug() << "Bottle Ready";
}
// Initialize constant MNA entries for DC analysis.
void digital::initDC (void) {
initDigital ();
allocMatrixMNA ();
delay = false;
setB (NODE_OUT, VSRC_1, +1);
setC (VSRC_1, NODE_OUT, -1);
setE (VSRC_1, 0);
}
/**
* Kopierfunktion von @p ArchivInfo.
*
* @param[in] to Zielposition
* @param[in] from Quellposition
* @param[in] count Anzahl
* @param[in] source Quelle
*
* @author FloSoft
*/
void ArchivInfo::copy(size_t to, size_t from, size_t count, const ArchivInfo& source)
{
if(to + count > size())
data.resize(to + count);
for(size_t f = from; f < from + count; ++to, ++f)
setC(to, *source.get(f));
}
Quaternion::Quaternion() :
Vector(4)
{
setA(1.0f);
setB(0.0f);
setC(0.0f);
setD(0.0f);
}
void tline::initTR (void) {
nr_double_t l = getPropertyDouble ("L");
nr_double_t z = getPropertyDouble ("Z");
deleteHistory ();
if (l > 0.0) {
setVoltageSources (2);
allocMatrixMNA ();
setHistory (true);
initHistory (l / C0);
setB (NODE_1, VSRC_1, +1); setB (NODE_2, VSRC_2, +1);
setC (VSRC_1, NODE_1, +1); setC (VSRC_2, NODE_2, +1);
setD (VSRC_1, VSRC_1, -z); setD (VSRC_2, VSRC_2, -z);
} else {
setVoltageSources (1);
allocMatrixMNA ();
voltageSource (VSRC_1, NODE_1, NODE_2);
}
}
void vam::calcTR (nr_double_t t) {
nr_double_t f = getPropertyDouble ("f");
nr_double_t p = getPropertyDouble ("Phase");
nr_double_t d = getPropertyDouble ("m");
nr_double_t a = getPropertyDouble ("U");
nr_double_t u = a * sin (2 * M_PI * f * t + rad (p));
setE (VSRC_1, u);
setC (VSRC_1, NODE_3, -u * d);
}
TransformationMatrix::TransformationMatrix(const CGAffineTransform& t)
{
setA(t.a);
setB(t.b);
setC(t.c);
setD(t.d);
setE(t.tx);
setF(t.ty);
}
// Computes variable MNA entries during DC analysis.
void digital::calcDC (void) {
calcOutput ();
calcDerivatives ();
for (i = 0, Veq = 0; i < getSize () - 1; i++) {
setC (VSRC_1, NODE_IN1 + i, g[i]);
Veq += g[i] * getVin (i);
}
setE (VSRC_1, Veq - Vout);
}
Quaternion::Quaternion(float a, float b,
float c, float d) :
Vector(4)
{
setA(a);
setB(b);
setC(c);
setD(d);
}
void digisource::initDC (void) {
char * init = getPropertyString ("init");
nr_double_t v = getPropertyDouble ("V");
bool lo = !strcmp (init, "low");
allocMatrixMNA ();
setC (VSRC_1, NODE_1, 1.0);
setB (NODE_1, VSRC_1, 1.0);
setD (VSRC_1, VSRC_1, 0.0);
setE (VSRC_1, lo ? 0 : v);
}
// Initialize transient analysis.
void digital::initTR (void) {
nr_double_t t = getPropertyDouble ("t");
initDC ();
deleteHistory ();
if (t > 0.0) {
delay = true;
setHistory (true);
initHistory (t);
setC (VSRC_1, NODE_OUT, 1);
}
}
Quaternion::Quaternion(const Dcm &dcm) :
Vector(4)
{
setA(0.5f * sqrtf(1 + dcm(0, 0) +
dcm(1, 1) + dcm(2, 2)));
setB((dcm(2, 1) - dcm(1, 2)) /
(4 * getA()));
setC((dcm(0, 2) - dcm(2, 0)) /
(4 * getA()));
setD((dcm(1, 0) - dcm(0, 1)) /
(4 * getA()));
}
// for FEM_ObjectBroker, recvSelf must invoke
PFEMElement2DBubble::PFEMElement2DBubble()
:Element(0, ELE_TAG_PFEMElement2DBubble), ntags(6),
rho(0), mu(0), bx(0), by(0), J(0.0), dJ(6), numDOFs(),thickness(1.0), kappa(-1), parameterID(0)
{
for(int i=0;i<3;i++)
{
nodes[2*i] = 0;
nodes[2*i+1] = 0;
thePCs[i] = 0;
}
setC();
}
void sieve()
{
primes = calloc(LEN, sizeof(unsigned));
base = calloc(MAX/64, sizeof(unsigned));
unsigned register i, j, k;
for(i=3; i<LMT; i+=2)
if(!chkC(base, i))
for(j=i*i, k=i<<1; j<MAX; j+=k)
setC(base, j);
for(i=3, j=0; i<MAX; i+=2)
if(!chkC(base, i))
primes[j++] = i;
}
void circulator::initDC (void) {
nr_double_t z1 = getPropertyDouble ("Z1");
nr_double_t z2 = getPropertyDouble ("Z2");
nr_double_t z3 = getPropertyDouble ("Z3");
nr_double_t r1 = (z0 - z1) / (z0 + z1);
nr_double_t r2 = (z0 - z2) / (z0 + z2);
nr_double_t r3 = (z0 - z3) / (z0 + z3);
nr_double_t d = 1 - r1 * r2 * r3;
nr_double_t s11 = (r2 * r3 - r1) / d;
nr_double_t s22 = (r1 * r3 - r2) / d;
nr_double_t s33 = (r1 * r2 - r3) / d;
nr_double_t s12 = sqrt (z2/z1) * (z1+z0) / (z2+z0) * r3 * (1-r1*r1) / d;
nr_double_t s23 = sqrt (z3/z2) * (z2+z0) / (z3+z0) * r1 * (1-r2*r2) / d;
nr_double_t s31 = sqrt (z1/z3) * (z3+z0) / (z1+z0) * r2 * (1-r3*r3) / d;
nr_double_t s21 = sqrt (z1/z2) * (z2+z0) / (z1+z0) * (1-r2*r2) / d;
nr_double_t s13 = sqrt (z3/z1) * (z1+z0) / (z3+z0) * (1-r1*r1) / d;
nr_double_t s32 = sqrt (z2/z3) * (z3+z0) / (z2+z0) * (1-r3*r3) / d;
allocMatrixMNA ();
setB (NODE_1, VSRC_1, +1.0); setB (NODE_1, VSRC_2, +0.0);
setB (NODE_1, VSRC_3, +0.0);
setB (NODE_2, VSRC_1, +0.0); setB (NODE_2, VSRC_2, +1.0);
setB (NODE_2, VSRC_3, +0.0);
setB (NODE_3, VSRC_1, +0.0); setB (NODE_3, VSRC_2, +0.0);
setB (NODE_3, VSRC_3, +1.0);
setC (VSRC_1, NODE_1, s11 - 1.0); setC (VSRC_1, NODE_2, s12);
setC (VSRC_1, NODE_3, s13);
setC (VSRC_2, NODE_1, s21); setC (VSRC_2, NODE_2, s22 - 1.0);
setC (VSRC_2, NODE_3, s23);
setC (VSRC_3, NODE_1, s31); setC (VSRC_3, NODE_2, s32);
setC (VSRC_3, NODE_3, s33 - 1.0);
setD (VSRC_1, VSRC_1, z0 * (s11 + 1.0)); setD (VSRC_1, VSRC_2, z0 * s12);
setD (VSRC_1, VSRC_3, z0 * s13);
setD (VSRC_2, VSRC_1, z0 * s21); setD (VSRC_2, VSRC_2, z0 * (s22 + 1.0));
setD (VSRC_2, VSRC_3, z0 * s23);
setD (VSRC_3, VSRC_1, z0 * s31); setD (VSRC_3, VSRC_2, z0 * s32);
setD (VSRC_3, VSRC_3, z0 * (s33 + 1.0));
setE (VSRC_1, +0.0); setE (VSRC_2, +0.0); setE (VSRC_3, +0.0);
}
Quaternion::Quaternion(const Dcm &dcm) :
Vector(4)
{
// avoiding singularities by not using
// division equations
setA(0.5 * sqrt(1.0 +
double(dcm(0, 0) + dcm(1, 1) + dcm(2, 2))));
setB(0.5 * sqrt(1.0 +
double(dcm(0, 0) - dcm(1, 1) - dcm(2, 2))));
setC(0.5 * sqrt(1.0 +
double(-dcm(0, 0) + dcm(1, 1) - dcm(2, 2))));
setD(0.5 * sqrt(1.0 +
double(-dcm(0, 0) - dcm(1, 1) + dcm(2, 2))));
}
void Triangle::configure(const std::string& parameters) {
if (parameters.empty()) return;
std::vector<std::string> values = Op::split(parameters, " ");
std::size_t required = 3;
if (values.size() < required) {
std::ostringstream ex;
ex << "[configuration error] term <" << className() << ">"
<< " requires <" << required << "> parameters";
throw fl::Exception(ex.str(), FL_AT);
}
setA(Op::toScalar(values.at(0)));
setB(Op::toScalar(values.at(1)));
setC(Op::toScalar(values.at(2)));
}
void isolator::initDC (void) {
nr_double_t z1 = getPropertyDouble ("Z1");
nr_double_t z2 = getPropertyDouble ("Z2");
#if AUGMENTED
nr_double_t z21 = 2 * sqrt (z1 * z2);
setVoltageSources (2);
allocMatrixMNA ();
setB (NODE_1, VSRC_1, +1.0); setB (NODE_1, VSRC_2, +0.0);
setB (NODE_2, VSRC_1, +0.0); setB (NODE_2, VSRC_2, +1.0);
setC (VSRC_1, NODE_1, -1.0); setC (VSRC_1, NODE_2, +0.0);
setC (VSRC_2, NODE_1, +0.0); setC (VSRC_2, NODE_2, -1.0);
setD (VSRC_1, VSRC_1, +z1); setD (VSRC_2, VSRC_2, +z2);
setD (VSRC_1, VSRC_2, +0.0); setD (VSRC_2, VSRC_1, +z21);
setE (VSRC_1, +0.0); setE (VSRC_2, +0.0);
#else
setVoltageSources (0);
allocMatrixMNA ();
setY (NODE_1, NODE_1, 1 / z1);
setY (NODE_1, NODE_2, 0);
setY (NODE_2, NODE_1, -2 / sqrt (z1 * z2));
setY (NODE_2, NODE_2, 1 / z2);
#endif
}
/**
* lädt die Mapdaten aus einer Datei.
*
* @param[in] file Dateihandle der Datei
* @param[in] only_header Soll nur der Header gelesen werden?
*
* @return liefert Null bei Erfolg, ungleich Null bei Fehler
*
* @author FloSoft
*/
int glArchivItem_Map::load(FILE *file, bool only_header)
{
if(loadHelper(file, only_header) != 0)
return 1;
alloc_inc(2);
header = dynamic_cast<const libsiedler2::ArchivItem_Map_Header*>(get(0));
assert(header);
if(only_header)
return 0;
// Noch nicht am Ende der Datei?
unsigned i = 0,j = 0;
//if(!feof(file))
//{
// // Gucken, wieviel noch danach kommt
// i = ftell(file);
// fseek(file, 0L, SEEK_END);
// j = ftell(file);
// fseek(file, i, SEEK_SET);
//}
if((unsigned int)(j-i) > (unsigned int)(header->getWidth() * header->getHeight() * 2))
{
// Wenn noch Platz ist, restliches Zeug noch auslesen
libsiedler2::ArchivItem_Raw *reservations = dynamic_cast<libsiedler2::ArchivItem_Raw *>(glAllocator(libsiedler2::BOBTYPE_RAW, 0, NULL));
if(reservations->load(file, header->getWidth() * header->getHeight()) != 0)
return 2;
set(MAP_RESERVATIONS, reservations);
libsiedler2::ArchivItem_Raw *owner = dynamic_cast<libsiedler2::ArchivItem_Raw *>(glAllocator(libsiedler2::BOBTYPE_RAW, 0, NULL));
if(owner->load(file, header->getWidth() * header->getHeight()) != 0)
return 3;
set(MAP_OWNER, owner);
}
else
{
libsiedler2::ArchivItem_Raw *item = dynamic_cast<libsiedler2::ArchivItem_Raw *>(glAllocator(libsiedler2::BOBTYPE_RAW, 0, NULL));
item->alloc(header->getWidth() * header->getHeight());
set(MAP_RESERVATIONS, item);
setC(MAP_OWNER, item);
}
return 0;
}
Quaternion::Quaternion(const EulerAngles &euler) :
Vector(4)
{
float cosPhi_2 = cosf(euler.getPhi() / 2.0f);
float cosTheta_2 = cosf(euler.getTheta() / 2.0f);
float cosPsi_2 = cosf(euler.getPsi() / 2.0f);
float sinPhi_2 = sinf(euler.getPhi() / 2.0f);
float sinTheta_2 = sinf(euler.getTheta() / 2.0f);
float sinPsi_2 = sinf(euler.getPsi() / 2.0f);
setA(cosPhi_2 * cosTheta_2 * cosPsi_2 +
sinPhi_2 * sinTheta_2 * sinPsi_2);
setB(sinPhi_2 * cosTheta_2 * cosPsi_2 -
cosPhi_2 * sinTheta_2 * sinPsi_2);
setC(cosPhi_2 * sinTheta_2 * cosPsi_2 +
sinPhi_2 * cosTheta_2 * sinPsi_2);
setD(cosPhi_2 * cosTheta_2 * sinPsi_2 +
sinPhi_2 * sinTheta_2 * cosPsi_2);
}
// for object
PFEMElement2DBubble::PFEMElement2DBubble(int tag, int nd1, int nd2, int nd3,
double r, double m, double b1, double b2,
double thk, double ka)
:Element(tag, ELE_TAG_PFEMElement2DBubble), ntags(6),
rho(r), mu(m), bx(b1), by(b2), J(0.0), dJ(6), numDOFs(),
thickness(thk), kappa(ka), parameterID(0)
{
ntags(0)=nd1; ntags(2)=nd2; ntags(4)=nd3;
for(int i=0;i<3;i++)
{
nodes[2*i] = 0;
nodes[2*i+1] = 0;
ntags(2*i+1) = ntags(2*i);
thePCs[i] = 0;
}
setC();
}
Quaternion::Quaternion(const EulerAngles &euler) :
Vector(4)
{
double cosPhi_2 = cos(double(euler.getPhi()) / 2.0);
double sinPhi_2 = sin(double(euler.getPhi()) / 2.0);
double cosTheta_2 = cos(double(euler.getTheta()) / 2.0);
double sinTheta_2 = sin(double(euler.getTheta()) / 2.0);
double cosPsi_2 = cos(double(euler.getPsi()) / 2.0);
double sinPsi_2 = sin(double(euler.getPsi()) / 2.0);
setA(cosPhi_2 * cosTheta_2 * cosPsi_2 +
sinPhi_2 * sinTheta_2 * sinPsi_2);
setB(sinPhi_2 * cosTheta_2 * cosPsi_2 -
cosPhi_2 * sinTheta_2 * sinPsi_2);
setC(cosPhi_2 * sinTheta_2 * cosPsi_2 +
sinPhi_2 * cosTheta_2 * sinPsi_2);
setD(cosPhi_2 * cosTheta_2 * sinPsi_2 -
sinPhi_2 * sinTheta_2 * cosPsi_2);
}
void vcvs::calcAC (nr_double_t frequency) {
nr_double_t t = getPropertyDouble ("T");
nr_complex_t g = polar (getPropertyDouble ("G"),
- 2.0 * M_PI * frequency * t);
setC (VSRC_1, NODE_1, +g); setC (VSRC_1, NODE_4, -g);
}