/************************************************************************************************
* Ball initialization *
************************************************************************************************/
void cBall::Init(vector3f pos, vector3f dir, float vel, float r)
{
this->Pos = vInit(pos);
this->Dir = vInit(dir);
this->Vel = vel;
this->R = r;
}
/************************************************************************************************
* Bouncher initialization *
************************************************************************************************/
void cBouncher::Init(vector3f pos, vector3f dir, float vel, float r, float size, unsigned int texture)
{
this->Pos = vInit(pos);
this->Dir = vInit(dir);
this->Vel = vel;
this->R = r;
this->Size = size;
this->Texture = texture;
}
/* main ===================================================================== */
int
main (void) {
vInit ();
for (;;) {
vMenuLoop ();
}
}
std::shared_ptr<ActorComponent> BaseActorFactory::BaseActorFactoryImpl::___createComponent(const tinyxml2::XMLElement * componentElement) const
{
auto componentType = componentElement->Value();
auto component = m_ComponentFactory.createShared(componentType);
assert(component && "BaseActorFactoryImpl::___createComponent() can't find or create the ActorComponent as the xml indicated, possibly because the component is not registered to the factory.");
if (!component->vInit(componentElement)) {
cocos2d::log("BaseActorFactoryImpl::___createComponent failed to initialize a(n) %s", componentType);
return nullptr;
}
return component;
}
/****************************************************************************
*
* NAME: AppColdStart
*
* DESCRIPTION:
* Entry point for application from boot loader. Initialises system and runs
* main loop.
*
* RETURNS:
* Never returns.
*
****************************************************************************/
PUBLIC void AppColdStart(void)
{
/* Debug hooks: include these regardless of whether debugging or not */
HAL_GDB_INIT();
HAL_BREAKPOINT();
/* Set network information */
JZS_sConfig.u32Channel = WSN_CHANNEL;
JZS_sConfig.u16PanId = WSN_PAN_ID;
/* General initialisation */
vInit();
/* No return from the above function call */
}
Cstress::Cstress(Cimage_header& oHeader)
{
vInit();
// Read number of Z positions
oHeader.nGetValue(Cstring(D_K_StressNumOfZPositions), &m_nNumOfZPositions);
oHeader.nGetValue(Cstring(D_K_StressSlitWidth), &m_nSlitWidth);
oHeader.nGetValue(Cstring(D_K_StressInclinationType), &m_sInclinationType);
oHeader.nGetValue(Cstring(D_K_StressZPositions), m_anZPositions, " ");
oHeader.nGetValue(Cstring(D_K_StressPsiAngles), m_afPsiAngles, " ");
oHeader.nGetValue(Cstring(D_K_StressPeakAngle), &m_fPeakAngle);
oHeader.nGetValue(Cstring(D_K_StressYoungModulus), &m_fYoungModulus);
oHeader.nGetValue(Cstring(D_K_StressPoissonRatio), &m_fPoissonRatio);
oHeader.nGetValue(Cstring(D_K_StressStressConstant), &m_fStressConstant);
}
/*****************************************************************************
* FUNCTION IMPLEMENTATIONS
*****************************************************************************/
int main(void)
{
/* One-time initialization of hardware */
vInit();
SchedulerInit(TICKS_PER_SECOND);
char statusStr[96];
int sounddemo=0; // sound demo
SoundVolumeSet(80); // less obnoxious during testing
while (1)
{
SchedulerRun();
// to get measurements
// currentMeasuredDistance
// to play sound
// soundStart(sounddemo) where soundemo is 0-9
// A DEMO OF SOUNDS
///////////////////////////////////////////////////
if(GamepadButtons.buttonA && bWavPlaying==false)
{
usprintf(statusStr,"sound=%d\r",sounddemo);
Display96x16x1StringDrawCentered(statusStr,0,false);
sounddemo = soundStart(sounddemo); // returns the actual sound index used
sounddemo++;
}
}
/* This should never happen */
return 0;
}
/************************************************************************************************
* Bouncher moving *
************************************************************************************************/
void cBouncher::Move(float mx, float my, float mz)
{
this->Pos = vAdd(this->Pos, vInit(mx, my, mz));
}
CstrategyScan::CstrategyScan()
{
vInit();
}
CstrategyScan::CstrategyScan(Cimage_header* poHeader, int nScanIndex, int nNumAxes, const Cstring& sStrategyPrefix)
{
vInit();
// Get gonio values
// Build scan prefix
Cstring strScanCrystalPrefix = sBuildStrategyScanPrefix(sStrategyPrefix, D_K_CrystalPrefix, nScanIndex);
double* pdGonioValues = new double[nNumAxes];
int nStat = poHeader->nGetValue(strScanCrystalPrefix + D_K_GonioValues, nNumAxes, pdGonioValues);
if( 0 != nStat )
{
delete [] pdGonioValues;
return;
}
// Add axes objects
for(int ii=0; ii < nNumAxes; ii++)
{
m_aoAxes.push_back(CstrategyAxis(ii, pdGonioValues[ii]));
}
delete [] pdGonioValues;
///////////////////////////
Cstring sScanPrefix = sBuildStrategyScanPrefix(sStrategyPrefix, D_K_ScanPrefix, nScanIndex);
Crotation oRotation(*poHeader, sScanPrefix);
m_dRot_Begin[enSingleScan] = m_dRot_Begin[enMultipleScan] = (double)oRotation.fGetRotStart();
m_dRot_End [enSingleScan] = m_dRot_End [enMultipleScan] = (double)oRotation.fGetRotEnd();
m_dMaxRotRange = (double)oRotation.fGetRotRange();
m_segRotLimits.vSet((double)oRotation.fGetRotMin(), (double)oRotation.fGetRotMax());
m_nOriginalScanIndex = nScanIndex;
/////////////////////////////////////////////////////////////////////////////////////////////////
// See if the header uses D_K_ScanDetDatum keyword to specify the detector position. If it does not - no problem,
// the detector position will be read by the container class CstrategyScans using detector D_K_GonioValues keyword.
Cstring sScanDetRelZero(D_K_ScanDetDatum);
double dDetRelZero[3] = {0.0};
if( 0 == poHeader->nGetValue(sScanPrefix + sScanDetRelZero, 3, dDetRelZero) ) // the first value should be equal to 2, then two theta and distance
{
m_dDetRelZero[enStratScanDetRelZero_TwoTheta] = dDetRelZero[1];
m_dDetRelZero[enStratScanDetRelZero_Distance] = dDetRelZero[2];
}
///////////////////////////
//shijie yao : 2008.03.12
//Noticed there was a var m_fImageRotWidth defined, which should server the
//same as m_dIncrementalWidth. But the original code didn't set its value
//properly. It's value was set from the STRATEGY_INPUT_S*_SCAN_ROTATION,
//which only keeps the original copy of the SCAN_ROTATION values, even the
//-rotimage option is provided.
//After adding code in CDTMainMultiStrategy::bGetImageRotationWidth() to
//update the STRATEGY_INPUT_S*_SCAN_ entries together with the SCAN_ROTATION,
//for the new imagewidth value, m_fImageRotWidth and m_dIncrementalWidth are
//sequal now.
//
m_fImageRotWidth = oRotation.fGetIncrement();
m_dCryGonioValMax = oRotation.fGetRotMax();
m_dCryGonioValMin = oRotation.fGetRotMin();
//Crotation oScanRot(*poHeader, D_K_ScanPrefix); // use SCAN_ROTATION values for rotImageWidth
//m_dIncrementalWidth = oScanRot.fGetIncrement();
}
void InitBeam(void)
// initialize beam; produce description string
{
double w0; // beam width
/* TO ADD NEW BEAM
* Add here all intermediate variables, which are used only inside this function.
*/
// initialization of global option index for error messages
opt=opt_beam;
// beam initialization
switch (beamtype) {
case B_PLANE:
if (IFROOT) strcpy(beam_descr,"plane wave");
beam_asym=false;
if (surface) {
if (prop_0[2]==0) PrintError("Ambiguous setting of beam propagating along the surface. Please specify "
"the incident direction to have (arbitrary) small positive or negative z-component");
if (msubInf && prop_0[2]>0) PrintError("Perfectly reflecting surface ('-surf ... inf') is incompatible "
"with incident direction from below (including the default one)");
// Here we set ki,kt,ktVec and propagation directions prIncRefl,prIncTran
if (prop_0[2]>0) { // beam comes from the substrate (below)
// here msub should always be defined
inc_scale=1/creal(msub);
ki=msub*prop_0[2];
/* Special case for msub near 1 to remove discontinuities for near-grazing incidence. The details
* are discussed in CalcFieldSurf() in crosssec.c.
*/
if (cabs(msub-1)<ROUND_ERR && fabs(ki)<SQRT_RND_ERR) kt=ki;
else kt=cSqrtCut(1 - msub*msub*(prop_0[0]*prop_0[0]+prop_0[1]*prop_0[1]));
// determine propagation direction and full wavevector of wave transmitted into substrate
ktVec[0]=msub*prop_0[0];
ktVec[1]=msub*prop_0[1];
ktVec[2]=kt;
}
else if (prop_0[2]<0) { // beam comes from above the substrate
inc_scale=1;
vRefl(prop_0,prIncRefl);
ki=-prop_0[2];
if (!msubInf) {
// same special case as above
if (cabs(msub-1)<ROUND_ERR && fabs(ki)<SQRT_RND_ERR) kt=ki;
else kt=cSqrtCut(msub*msub - (prop_0[0]*prop_0[0]+prop_0[1]*prop_0[1]));
// determine propagation direction of wave transmitted into substrate
ktVec[0]=prop_0[0];
ktVec[1]=prop_0[1];
ktVec[2]=-kt;
}
}
else LogError(ONE_POS,"Ambiguous setting of beam propagating along the surface. Please specify the"
"incident direction to have (arbitrary) small positive or negative z-component");
vRefl(prop_0,prIncRefl);
if (!msubInf) {
vReal(ktVec,prIncTran);
vNormalize(prIncTran);
}
}
return;
case B_DIPOLE:
vCopy(beam_pars,beam_center_0);
if (surface) {
if (beam_center_0[2]<=-hsub)
PrintErrorHelp("External dipole should be placed strictly above the surface");
inc_scale=1; // but scaling of Mueller matrix is weird anyway
}
// in weird scenarios the dipole can be positioned exactly at the origin; reused code from Gaussian beams
beam_asym=(beam_center_0[0]!=0 || beam_center_0[1]!=0 || beam_center_0[2]!=0);
if (!beam_asym) vInit(beam_center);
/* definition of p0 is important for scaling of many scattering quantities (that are normalized to incident
* irradiance). Alternative definition is p0=1, but then the results will scale with unit of length
* (breaking scale invariance)
*/
p0=1/(WaveNum*WaveNum*WaveNum);
if (IFROOT) sprintf(beam_descr,"point dipole at "GFORMDEF3V,COMP3V(beam_center_0));
return;
case B_LMINUS:
case B_DAVIS3:
case B_BARTON5:
if (surface) PrintError("Currently, Gaussian incident beam is not supported for '-surf'");
// initialize parameters
w0=beam_pars[0];
TestPositive(w0,"beam width");
vCopy(beam_pars+1,beam_center_0);
beam_asym=(beam_Npars==4 && (beam_center_0[0]!=0 || beam_center_0[1]!=0 || beam_center_0[2]!=0));
if (!beam_asym) vInit(beam_center);
s=1/(WaveNum*w0);
s2=s*s;
scale_x=1/w0;
scale_z=s*scale_x; // 1/(k*w0^2)
// beam info
if (IFROOT) {
strcpy(beam_descr,"Gaussian beam (");
switch (beamtype) {
case B_LMINUS:
strcat(beam_descr,"L- approximation)\n");
break;
case B_DAVIS3:
strcat(beam_descr,"3rd order approximation, by Davis)\n");
break;
case B_BARTON5:
strcat(beam_descr,"5th order approximation, by Barton)\n");
break;
default: break;
}
sprintf(beam_descr+strlen(beam_descr),"\tWidth="GFORMDEF" (confinement factor s="GFORMDEF")\n"
"\tCenter position: "GFORMDEF3V,w0,s,COMP3V(beam_center_0));
}
return;
case B_READ:
// the safest is to assume cancellation of all symmetries
symX=symY=symZ=symR=false;
if (surface) inc_scale=1; // since we can't know it, we assume the default case
if (IFROOT) {
if (beam_Npars==1) sprintf(beam_descr,"specified by file '%s'",beam_fnameY);
else sprintf(beam_descr,"specified by files '%s' and '%s'",beam_fnameY,beam_fnameX);
}
// we do not define beam_asym here, because beam_center is not defined anyway
return;
}
LogError(ONE_POS,"Unknown type of incident beam (%d)",(int)beamtype);
/* TO ADD NEW BEAM
* add a case above. Identifier ('B_...') should be defined inside 'enum beam' in const.h. The case should
* 1) save all the input parameters from array 'beam_pars' to local variables (defined in the beginning of this
* source files)
* 2) test all input parameters (for that you're encouraged to use functions from param.h since they would
* automatically produce informative output in case of error).
* 3) the symmetry breaking due to prop or beam_center is taken care of in VariablesInterconnect() in param.c.
* But if there are other reasons why beam would break any symmetry, corresponding variable should be set to
* false here. Do not set any of them to true, as they can be set to false by other factors.
* symX, symY, symZ - symmetries of reflection over planes YZ, XZ, XY respectively.
* symR - symmetry of rotation for 90 degrees over the Z axis
* 4) initialize the following:
* beam_descr - descriptive string, which will appear in log file.
* beam_asym - whether beam center does not coincide with the reference frame origin. If it is set to true, then
* set also beam_center_0 - 3D radius-vector of beam center in the laboratory reference frame (it
* will be then automatically transformed to particle reference frame, if required).
* 5) Consider the case of surface (substrate near the particle). If the new beam type is incompatible with it, add
* an explicit exception, like "if (surface) PrintErrorHelp(...);". Otherwise, you also need to define inc_scale.
* All other auxiliary variables, which are used in beam generation (GenerateB(), see below), should be defined in
* the beginning of this file. If you need temporary local variables (which are used only in this part of the code),
* define them in the beginning of this function.
*/
}
Cstress::Cstress()
{
vInit();
}