Surface makeGenCyl(const Curve &profile, const Curve &sweep )
{
Surface surface;
if (!checkFlat(profile))
{
cerr << "genCyl profile curve must be flat on xy plane." << endl;
exit(0);
}
// TODO: Here you should build the surface. See surf.h for details.
Curve c = profile;
Curve sweepL = sweep;
unsigned step = sweep.size();
Matrix4f transform;
Matrix4f transinverse;
Curve newc;
vector<Curve> clist;
for(unsigned i=0;i<step;i++){//sweepL.size();i++){
CurvePoint p = sweepL[i];
transform = getTransform(p);
transinverse = transform.inverse();
transinverse.transpose();
newc.clear();
for(unsigned j=0;j<c.size();j++){
Vector4f tempV = transform*Vector4f(c[j].V,1);
Vector4f tempN = transinverse*Vector4f(c[j].N,1);
Vector3f newV = Vector3f(tempV[0],tempV[1],tempV[2]);
Vector3f newN = Vector3f(-tempN[0],-tempN[1],-tempN[2]);
struct CurvePoint newp = {newV,c[j].T,newN,c[j].B};
newc.push_back(newp);
}
clist.push_back(newc);
}
for(unsigned k=0;k<clist.size()-1;k++){
pushVV(surface,clist[k]);
addTriangle(surface,clist[k],clist[k+1],k);
}
pushVV(surface,clist[clist.size()-1]);
pushVV(surface,clist[0]);
addTriangle(surface,clist[clist.size()-1],clist[0],clist.size()-1);
return surface;
}
Curve *
Volume::getMA (Entity *settings)
{
QVariant *type = settings->get(QString("maType"));
if (! type)
return 0;
QVariant *period = settings->get(QString("maPeriod"));
if (! period)
return 0;
QVariant *var = settings->get(QString("maColor"));
if (! var)
return 0;
QColor color(var->toString());
QVariant *label = settings->get(QString("maLabel"));
if (! label)
return 0;
QVariant *style = settings->get(QString("maStyle"));
if (! style)
return 0;
QVariant *width = settings->get(QString("maWidth"));
if (! width)
return 0;
BarType bt;
if (! getMA(bt.indexToString(BarType::_VOLUME), label->toString(), type->toInt(), period->toInt()))
return 0;
Curve *curve = new Curve(QString("CurveLine"));
curve->setLabel(label->toString());
CurveLineType clt;
curve->setStyle(clt.stringToIndex(style->toString()));
curve->setPen(width->toInt());
curve->setColor(color);
curve->fill(label->toString(), QString(), QString(), QString(), color);
return curve;
}
Curve *
OHLC::getOHLC (QString tstyle, QString key, QString tuc, QString tdc, QString tnc)
{
if (! g_symbol)
return 0;
Curve *ohlc = new Curve(QString("CurveOHLC"));
ohlc->setLabel(key);
CurveOHLCType ohlcType;
ohlc->setStyle(ohlcType.stringToIndex(tstyle));
QColor uc(tuc);
QColor dc(tdc);
QColor nc(tnc);
BarType bt;
ohlc->fill(bt.indexToString(BarType::_OPEN),
bt.indexToString(BarType::_HIGH),
bt.indexToString(BarType::_LOW),
bt.indexToString(BarType::_CLOSE),
nc);
QList<int> keys = g_symbol->keys();
for (int pos = 1; pos < keys.size(); pos++)
{
Bar *pbar = ohlc->bar(keys.at(pos - 1));
Bar *bar = ohlc->bar(keys.at(pos));
if (bar->close() > pbar->close())
bar->setColor(uc);
else
{
if (bar->close() < pbar->close())
bar->setColor(dc);
}
}
return ohlc;
}
/**
* This uses the local bounds functions of curves to generically intersect two.
* It passes in the curves, time intervals, and keeps track of depth, while
* returning the results through the Crossings parameter.
*/
void pair_intersect(Curve const & A, double Al, double Ah,
Curve const & B, double Bl, double Bh,
Crossings &ret, unsigned depth=0) {
// std::cout << depth << "(" << Al << ", " << Ah << ")\n";
OptRect Ar = A.boundsLocal(Interval(Al, Ah));
if (!Ar) return;
OptRect Br = B.boundsLocal(Interval(Bl, Bh));
if (!Br) return;
if(! Ar->intersects(*Br)) return;
//Checks the general linearity of the function
if((depth > 12)) { // || (A.boundsLocal(Interval(Al, Ah), 1).maxExtent() < 0.1
//&& B.boundsLocal(Interval(Bl, Bh), 1).maxExtent() < 0.1)) {
double tA, tB, c;
if(linear_intersect(A.pointAt(Al), A.pointAt(Ah),
B.pointAt(Bl), B.pointAt(Bh),
tA, tB, c)) {
tA = tA * (Ah - Al) + Al;
tB = tB * (Bh - Bl) + Bl;
intersect_polish_root(A, tA,
B, tB);
if(depth % 2)
ret.push_back(Crossing(tB, tA, c < 0));
else
ret.push_back(Crossing(tA, tB, c > 0));
return;
}
}
if(depth > 12) return;
double mid = (Bl + Bh)/2;
pair_intersect(B, Bl, mid,
A, Al, Ah,
ret, depth+1);
pair_intersect(B, mid, Bh,
A, Al, Ah,
ret, depth+1);
}
int lua_Curve_setPoint(lua_State* state)
{
// Get the number of parameters.
int paramCount = lua_gettop(state);
// Attempt to match the parameters to a valid binding.
switch (paramCount)
{
case 5:
{
do
{
if ((lua_type(state, 1) == LUA_TUSERDATA) &&
lua_type(state, 2) == LUA_TNUMBER &&
lua_type(state, 3) == LUA_TNUMBER &&
(lua_type(state, 4) == LUA_TTABLE || lua_type(state, 4) == LUA_TLIGHTUSERDATA) &&
(lua_type(state, 5) == LUA_TSTRING || lua_type(state, 5) == LUA_TNIL))
{
// Get parameter 1 off the stack.
unsigned int param1 = (unsigned int)luaL_checkunsigned(state, 2);
// Get parameter 2 off the stack.
float param2 = (float)luaL_checknumber(state, 3);
// Get parameter 3 off the stack.
gameplay::ScriptUtil::LuaArray<float> param3 = gameplay::ScriptUtil::getFloatPointer(4);
// Get parameter 4 off the stack.
Curve::InterpolationType param4 = (Curve::InterpolationType)lua_enumFromString_CurveInterpolationType(luaL_checkstring(state, 5));
Curve* instance = getInstance(state);
instance->setPoint(param1, param2, param3, param4);
return 0;
}
} while (0);
lua_pushstring(state, "lua_Curve_setPoint - Failed to match the given parameters to a valid function signature.");
lua_error(state);
break;
}
case 7:
{
do
{
if ((lua_type(state, 1) == LUA_TUSERDATA) &&
lua_type(state, 2) == LUA_TNUMBER &&
lua_type(state, 3) == LUA_TNUMBER &&
(lua_type(state, 4) == LUA_TTABLE || lua_type(state, 4) == LUA_TLIGHTUSERDATA) &&
(lua_type(state, 5) == LUA_TSTRING || lua_type(state, 5) == LUA_TNIL) &&
(lua_type(state, 6) == LUA_TTABLE || lua_type(state, 6) == LUA_TLIGHTUSERDATA) &&
(lua_type(state, 7) == LUA_TTABLE || lua_type(state, 7) == LUA_TLIGHTUSERDATA))
{
// Get parameter 1 off the stack.
unsigned int param1 = (unsigned int)luaL_checkunsigned(state, 2);
// Get parameter 2 off the stack.
float param2 = (float)luaL_checknumber(state, 3);
// Get parameter 3 off the stack.
gameplay::ScriptUtil::LuaArray<float> param3 = gameplay::ScriptUtil::getFloatPointer(4);
// Get parameter 4 off the stack.
Curve::InterpolationType param4 = (Curve::InterpolationType)lua_enumFromString_CurveInterpolationType(luaL_checkstring(state, 5));
// Get parameter 5 off the stack.
gameplay::ScriptUtil::LuaArray<float> param5 = gameplay::ScriptUtil::getFloatPointer(6);
// Get parameter 6 off the stack.
gameplay::ScriptUtil::LuaArray<float> param6 = gameplay::ScriptUtil::getFloatPointer(7);
Curve* instance = getInstance(state);
instance->setPoint(param1, param2, param3, param4, param5, param6);
return 0;
}
} while (0);
lua_pushstring(state, "lua_Curve_setPoint - Failed to match the given parameters to a valid function signature.");
lua_error(state);
break;
}
default:
{
lua_pushstring(state, "Invalid number of parameters (expected 5 or 7).");
lua_error(state);
break;
}
}
return 0;
}
int main(int argc, char ** argv)
{
const char *prefix = "";
int num = -1, syncsteps = 0, bignum = 0;
long maxsteps = 5000;
bool debug = false, parsed = false, lazy = false;
enum { BRUTEFORCE, RANDOMWALK, MONTECARLO, STUNEL, GDMIN } alg = STUNEL;
char *fmeasured = 0;
const char *tprefix = ".";
MinChi *min = 0;
float alpha = 0.1,beta = 5e-3,gamma = 500;
long gdmin_set_size = -1;
MPI_Init(&argc,&argv);
cout << "# ";
for (int i=0; i<argc; i++) cout << argv[i] << " ";
cout << endl;
int opt;
while ((opt = getopt(argc,argv,"n:m:b:da:l:g:s:qy:t:Lp:z:N")) != EOF) switch (opt) {
case 'n': num = atoi(optarg); break;
case 'N': bignum = 1; break;
case 'm': fmeasured = optarg; break;
case 'l': alpha = atof(optarg); break;
case 'b': beta = atof(optarg); break;
case 'g': gamma = atof(optarg); break;
case 's': maxsteps = atol(optarg); break;
case 'd': debug = true; break;
case 'a': if (strcasecmp(optarg,"bruteforce") == 0) alg = BRUTEFORCE;
else if (strcasecmp(optarg,"random_walk")==0) alg = RANDOMWALK;
else if (strcasecmp(optarg,"montecarlo")==0) alg = MONTECARLO;
else if (strcasecmp(optarg,"stunnel")==0) alg = STUNEL;
else if (strcasecmp(optarg, "gdmin") == 0) alg = GDMIN;
else { usage(argv[0]); return 1; }
break;
case 'q': parsed = true; break;
case 'y': syncsteps = atoi(optarg); break;
case 't': tprefix = optarg; break;
case 'L': lazy = true; break;
case 'p': prefix = optarg; break;
case 'z': gdmin_set_size = atol(optarg); break;
default: usage(argv[0]); return 1;
}
if (num<=0 || !fmeasured) { usage(argv[0]); return 1; }
/* not anymore: assert(num < 100); /* XXX: hardcoded %02d elsewhere */
/* maximal step length (alltogether, not per dimension) */
alpha /= sqrt(2. + num);
/* MC scaling, 5e-3 step up accepted with 10% */
beta = - log(.1)/beta;
assert(gdmin_set_size<0 || (gdmin_set_size > 0 && alg == GDMIN));
Curve measured;
vector<C12Map> maps;
maps.resize(num);
if (measured.load(fmeasured)) return 1;
for (int i=0; i<num; i++) {
char buf[PATH_MAX];
/* used to align generated curves */
maps[i].setMeasured(measured);
if (lazy) {
if (num < 100 && !bignum)
snprintf(buf,sizeof buf,"%s%02d.pdb",prefix,i+1);
else
snprintf(buf,sizeof buf,"%s%02d/%04d.pdb",prefix,(i+1)/100,i+1);
maps[i].setQMax(measured.getQMax());
maps[i].setSize(measured.getSize());
if (maps[i].setLazy(buf,fmeasured)) return 1;
}
else if (parsed) {
snprintf(buf, sizeof buf, "%s%02d.c12",prefix,i+1);
if (maps[i].restore(buf)) return 1;
maps[i].alignScale(measured);
}
else {
snprintf(buf,sizeof buf,"%s%02d/%02d_%%.2f_%%.3f.dat",prefix,i+1,i+1);
if (maps[i].load(buf)) return 1;
maps[i].alignScale(measured);
}
}
switch (alg) {
case BRUTEFORCE: {
BruteForce *b = new BruteForce(measured,maps);
b->setStep(.01);
min = b;
break;
}
case RANDOMWALK: {
RandomWalk *r = new RandomWalk(measured,maps);
r->setParam(alpha);
r->setMaxSteps(maxsteps);
min = r;
break;
}
case MONTECARLO: {
MonteCarlo *m = new MonteCarlo(measured,maps);
m->setParam(alpha,beta);
m->setMaxSteps(maxsteps);
min = m;
break;
}
case STUNEL: {
STunel *t = new STunel(measured,maps);
t->setParam(alpha,beta,gamma);
t->setMaxSteps(maxsteps);
min = t;
break;
}
case GDMIN: {
GdMin *g = new GdMin(measured, maps);
g->setParam(alpha);
g->setMaxSteps(maxsteps);
g->setSetSize(gdmin_set_size);
min = g;
break;
}
default:
cerr << "algorithm " << alg << " not implemented" << endl;
return 1;
}
min->setSyncSteps(syncsteps);
int rank;
MPI_Comm_rank(MPI_COMM_WORLD,&rank);
if (debug) {
char buf[PATH_MAX];
mkdir(tprefix,0755);
snprintf(buf,PATH_MAX,"%s/ensamble-fit_%d.trc",tprefix,rank);
if (min->openTrace(buf) == NULL) return 1;
}
min->minimize(debug);
MPI_Finalize();
}
int main( int argc, char** argv )
{
trace.beginBlock ( "Example FrechetShortcut" );
trace.info() << "Args:";
for ( int i = 0; i < argc; ++i )
trace.info() << " " << argv[ i ];
trace.info() << endl;
std::string filename;
double error;
if(argc == 1)
{
trace.info() << "Use default file and error value\n";
filename = examplesPath + "samples/plant-frechet.dat";
error = 3;
}
else
if(argc != 3)
{
trace.info() << "Please enter a filename and error value.\n";
return 0;
}
else
{
filename = argv[1];
error = atof(argv[2]);
}
ifstream instream; // input stream
instream.open (filename.c_str(), ifstream::in);
Curve c; //grid curve
c.initFromVectorStream(instream);
Board2D board;
// Display the pixels as arrows range to show the way the curve is scanned
board << c.getArrowsRange();
trace.beginBlock("Simple example");
//! [FrechetShortcutUsage]
Curve::PointsRange r = c.getPointsRange();
typedef FrechetShortcut<Curve::PointsRange::ConstIterator,int> Shortcut;
// Computation of one shortcut
Shortcut s(error);
s.init( r.begin() );
while ( ( s.end() != r.end() )
&&( s.extendFront() ) ) {}
// Computation of a greedy segmentation
typedef GreedySegmentation<Shortcut> Segmentation;
Segmentation theSegmentation( r.begin(), r.end(), Shortcut(error) );
// the segmentation is computed here
Segmentation::SegmentComputerIterator it = theSegmentation.begin();
Segmentation::SegmentComputerIterator itEnd = theSegmentation.end();
for ( ; it != itEnd; ++it) {
s=Shortcut(*it);
trace.info() << s << std::endl;
board << s;
}
board.saveEPS("FrechetShortcutExample.eps", Board2D::BoundingBox, 5000 );
//! [FrechetShortcutUsage]
#ifdef WITH_CAIRO
board.saveCairo("FrechetShortcutExample.png");
#endif
trace.endBlock();
return 0;
}
bool CoilCoolingDXVariableRefrigerantFlow_Impl::setCoolingCapacityModifierCurveFunctionofFlowFraction(const Curve& curve) {
bool result = setPointer(OS_Coil_Cooling_DX_VariableRefrigerantFlowFields::CoolingCapacityModifierCurveFunctionofFlowFraction, curve.handle());
return result;
}
void Plot::setHighLow ()
{
_plotSettings.high = 0;
_plotSettings.low = 0;
bool flag = FALSE;
QHashIterator<QString, Curve *> it(_plotSettings.curves);
while (it.hasNext())
{
it.next();
Curve *curve = it.value();
double h, l;
if (! curve->highLowRange(_plotSettings.startPos, _plotSettings.endPos, h, l))
continue;
if (! flag)
{
_plotSettings.high = h;
_plotSettings.low = l;
flag = TRUE;
}
else
{
if (h > _plotSettings.high)
_plotSettings.high = h;
if (l < _plotSettings.low)
_plotSettings.low = l;
}
}
QHashIterator<QString, Marker *> it2(_plotSettings.markers);
while (it2.hasNext())
{
it2.next();
Marker *co = it2.value();
double h, l;
if (! co->highLow(_plotSettings.startPos, _plotSettings.endPos, h, l))
continue;
if (! flag)
{
_plotSettings.high = h;
_plotSettings.low = l;
flag = TRUE;
}
else
{
if (h > _plotSettings.high)
_plotSettings.high = h;
if (l < _plotSettings.low)
_plotSettings.low = l;
}
}
if(high){
setAxisScale(QwtPlot::yRight, low, high);
}else{
setAxisScale(QwtPlot::yRight, _plotSettings.low, _plotSettings.high);
}
//TODO
// setAxisScale(QwtPlot::yRight, 0, 100);
}
bool EvaporativeCoolerDirectResearchSpecial_Impl::setEffectivenessFlowRatioModifierCurve(const Curve& curve) {
return setPointer(OS_EvaporativeCooler_Direct_ResearchSpecialFields::EffectivenessFlowRatioModifierCurveName, curve.handle());
}
bool CurveNode::setValue (const String& strMemberName, const String* pstrValue)
{
bool bValueSet = false;
Curve* pObject = dynamic_cast<Curve*>(m_pObject);
if (strMemberName == L"Rot")
{
if (!pstrValue)
{
pObject->resetValue_Rot();
}
else
{
pObject->setRot(EnumClockwiseImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Chord")
{
if (!pstrValue)
{
pObject->resetValue_Chord();
}
else
{
pObject->setChord(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"CrvType")
{
if (!pstrValue)
{
pObject->resetValue_CrvType();
}
else
{
pObject->setCrvType(EnumCurveTypeImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Delta")
{
if (!pstrValue)
{
pObject->resetValue_Delta();
}
else
{
pObject->setDelta(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Desc")
{
if (!pstrValue)
{
pObject->resetValue_Desc();
}
else
{
pObject->setDesc(StringObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"DirEnd")
{
if (!pstrValue)
{
pObject->resetValue_DirEnd();
}
else
{
pObject->setDirEnd(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"DirStart")
{
if (!pstrValue)
{
pObject->resetValue_DirStart();
}
else
{
pObject->setDirStart(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"External")
{
if (!pstrValue)
{
pObject->resetValue_External();
}
else
{
pObject->setExternal(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Length")
{
if (!pstrValue)
{
pObject->resetValue_Length();
}
else
{
pObject->setLength(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"MidOrd")
{
if (!pstrValue)
{
pObject->resetValue_MidOrd();
}
else
{
pObject->setMidOrd(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Name")
{
if (!pstrValue)
{
pObject->resetValue_Name();
}
else
{
pObject->setName(StringObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Radius")
{
if (!pstrValue)
{
pObject->resetValue_Radius();
}
else
{
pObject->setRadius(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"StaStart")
{
if (!pstrValue)
{
pObject->resetValue_StaStart();
}
else
{
pObject->setStaStart(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"State")
{
if (!pstrValue)
{
pObject->resetValue_State();
}
else
{
pObject->setState(EnumStateTypeImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Tangent")
{
if (!pstrValue)
{
pObject->resetValue_Tangent();
}
else
{
pObject->setTangent(DoubleObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"OID")
{
if (!pstrValue)
{
pObject->resetValue_OID();
}
else
{
pObject->setOID(StringObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
if (strMemberName == L"Note")
{
if (!pstrValue)
{
pObject->resetValue_Note();
}
else
{
pObject->setNote(StringObjectImpl::parseString(pstrValue->c_str(), pstrValue->length()));
bValueSet = true;
}
}
return bValueSet;
}
void Plot::createGraph()
{
insertLegend(new QwtLegend(), QwtPlot::BottomLegend);
setAxisTitle(xBottom, "x -->");
setAxisTitle(yLeft, "y -->");
// Inicializa as variaveis pela primeira curva
Curve* curve = cCurves[0]->getCurve();
std::vector<double> matrix_x = curve->getElementsX();
std::vector<double> matrix_y = curve->getElementsY();
double minX = matrix_x[0];
double maxX = matrix_x[0];
double minY = matrix_y[0];
double maxY = matrix_y[0];
for (unsigned int i = 0; i < cCurves.size(); i++)
{
Curve* curve = cCurves[i]->getCurve();
std::vector<double> matrix_x = curve->getElementsX();
std::vector<double> matrix_y = curve->getElementsY();
for (unsigned int j = 0; j < matrix_x.size(); j++)
{
if (minX > matrix_x[j])
minX = matrix_x[j];
if (maxX < matrix_x[j])
maxX = matrix_x[j];
if (minY > matrix_y[j])
minY = matrix_y[j];
if (maxY < matrix_y[j])
maxY = matrix_y[j];
}
cCurves[i]->attach(this);
cCurves[i]->plotGraph();
cPoints[i]->attach(this);
cPoints[i]->plotExperimentalPoints();
}
int py = (maxY - minY) / 10;
int px = (maxX - minX) / 10;
minX -= px;
maxX += px;
minY -= py;
maxY += py;
int stepY = (maxY - minY)/10;
int stepX = (maxX - minX)/10;
// QwtLog10ScaleEngine* logScale = new QwtLog10ScaleEngine();
// setAxisScaleEngine(QwtPlot::xBottom, logScale);
// setAxisScaleEngine(QwtPlot::yLeft, logScale);
setAxisScale(QwtPlot::xBottom, minX, maxX, stepX);
setAxisScale(QwtPlot::yLeft, minY, maxY, stepY);
replot();
}
bool CurveEditTool::MouseDown( const MouseButtonInput& e )
{
bool success = true;
if ( GetEditMode() == CurveEditModes::Modify )
{
success = m_ControlPointManipulator->MouseDown( e );
}
else
{
Curve* curve = NULL;
{
FrustumLinePickVisitor pick (m_Scene->GetViewport()->GetCamera(), e.GetPosition().x, e.GetPosition().y);
m_Scene->Pick( &pick );
V_PickHitSmartPtr sorted;
PickHit::Sort(m_Scene->GetViewport()->GetCamera(), pick.GetHits(), sorted, PickSortTypes::Intersection);
for ( V_PickHitSmartPtr::const_iterator itr = sorted.begin(), end = sorted.end(); itr != end; ++itr )
{
if ( curve = Reflect::SafeCast<Curve>( (*itr)->GetHitObject() ) )
{
break;
}
}
}
if ( !curve || !m_Scene->IsEditable() )
{
return false;
}
LinePickVisitor pick (m_Scene->GetViewport()->GetCamera(), e.GetPosition().x, e.GetPosition().y);
switch ( GetEditMode() )
{
case CurveEditModes::Insert:
{
std::pair<uint32_t, uint32_t> points;
if ( !curve->ClosestControlPoints( &pick, points ) )
{
return false;
}
CurveControlPoint* p0 = curve->GetControlPointByIndex( points.first );
CurveControlPoint* p1 = curve->GetControlPointByIndex( points.second );
Vector3 a( p0->GetPosition() );
Vector3 b( p1->GetPosition() );
Vector3 p;
if ( curve->GetCurveType() == CurveType::Linear )
{
float mu;
if ( !pick.GetPickSpaceLine().IntersectsSegment( a, b, -1.0f, &mu ) )
{
return false;
}
p = a * ( 1.0f - mu ) + b * mu;
}
else
{
p = ( a + b ) * 0.5f;
}
uint32_t index = points.first > points.second ? points.first : points.second;
CurveControlPointPtr point = new CurveControlPoint();
point->SetOwner( curve->GetOwner() );
point->Initialize();
curve->GetOwner()->Push( curve->InsertControlPointAtIndex( index, point ) );
break;
}
case CurveEditModes::Remove:
{
int32_t index = curve->ClosestControlPoint( &pick );
if ( index < 0 )
{
return false;
}
curve->GetOwner()->Push( curve->RemoveControlPointAtIndex( index ) );
break;
}
}
curve->Dirty();
m_Scene->Execute( false );
}
return success || Base::MouseDown( e );
}
void CurveEditTool::KeyPress( const KeyboardInput& e )
{
if ( !m_Scene->IsEditable() )
{
return;
}
int32_t keyCode = e.GetKeyCode();
if ( keyCode == KeyCodes::Left || keyCode == KeyCodes::Up || keyCode == KeyCodes::Right || keyCode == KeyCodes::Down )
{
OS_SceneNodeDumbPtr selection = m_Scene->GetSelection().GetItems();
if ( selection.Empty() )
{
return;
}
CurveControlPoint* point = Reflect::SafeCast<CurveControlPoint>( selection.Front() );
if ( !point )
{
return;
}
Curve* curve = Reflect::SafeCast<Curve>( point->GetParent() );
if ( !curve )
{
return;
}
int32_t index = curve->GetIndexForControlPoint( point );
if ( index == -1 )
{
return;
}
uint32_t countControlPoints = curve->GetNumberControlPoints();
if ( keyCode == KeyCodes::Left || keyCode == KeyCodes::Down )
{
index--;
index += countControlPoints;
index %= countControlPoints;
}
else if ( keyCode == KeyCodes::Right || keyCode == KeyCodes::Up )
{
index++;
index %= countControlPoints;
}
point = curve->GetControlPointByIndex( index );
selection.Clear();
selection.Append( point );
m_Scene->GetSelection().SetItems( selection );
}
Base::KeyPress( e );
}
boost::optional<IdfObject> ForwardTranslator::translateCoilCoolingDXSingleSpeedWithoutUnitary( model::CoilCoolingDXSingleSpeed & modelObject )
{
OptionalString s;
IdfObject idfObject(IddObjectType::Coil_Cooling_DX_SingleSpeed);
s = modelObject.name();
if( s )
{
idfObject.setName(*s);
}
// hook up required objects
try {
Schedule sched = modelObject.getAvailabilitySchedule();
translateAndMapModelObject(sched);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::AvailabilityScheduleName,
sched.name().get() );
Curve cb = modelObject.getTotalCoolingCapacityFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::TotalCoolingCapacityFunctionofTemperatureCurveName,
cb.name().get());
Curve cq = modelObject.getTotalCoolingCapacityFunctionOfFlowFractionCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::TotalCoolingCapacityFunctionofFlowFractionCurveName,
cq.name().get());
cb =modelObject.getEnergyInputRatioFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::EnergyInputRatioFunctionofTemperatureCurveName,
cb.name().get());
cq=modelObject.getEnergyInputRatioFunctionOfFlowFractionCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::EnergyInputRatioFunctionofFlowFractionCurveName,
cq.name().get());
cq=modelObject.getPartLoadFractionCorrelationCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::PartLoadFractionCorrelationCurveName,
cq.name().get());
}
catch (std::exception& e) {
LOG(Error,"Could not translate " << modelObject.briefDescription() << ", because "
<< e.what() << ".");
return boost::none;
}
OptionalDouble d = modelObject.ratedTotalCoolingCapacity();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::GrossRatedTotalCoolingCapacity,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::GrossRatedTotalCoolingCapacity,"Autosize");
}
d = modelObject.ratedSensibleHeatRatio();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::GrossRatedSensibleHeatRatio,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::GrossRatedSensibleHeatRatio,"Autosize");
}
d = modelObject.getRatedCOP();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::GrossRatedCoolingCOP,*d);
}
d = modelObject.ratedAirFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::RatedAirFlowRate,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::RatedAirFlowRate,"Autosize");
}
d = modelObject.getRatedEvaporatorFanPowerPerVolumeFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::RatedEvaporatorFanPowerPerVolumeFlowRate,*d);
}
OptionalModelObject omo = modelObject.inletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::AirInletNodeName,*s );
}
}
omo= modelObject.outletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::AirOutletNodeName,*s);
}
}
d=modelObject.getNominalTimeForCondensateRemovalToBegin();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::NominalTimeforCondensateRemovaltoBegin,*d);
}
d=modelObject.getRatioOfInitialMoistureEvaporationRateAndSteadyStateLatentCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::RatioofInitialMoistureEvaporationRateandSteadyStateLatentCapacity,*d);
}
d=modelObject.getMaximumCyclingRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::MaximumCyclingRate,*d);
}
d=modelObject.getLatentCapacityTimeConstant();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::LatentCapacityTimeConstant,*d);
}
s=modelObject.getCondenserAirInletNodeName();
if(s)
{
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::CondenserAirInletNodeName,*s);
}
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::CondenserType,modelObject.getCondenserType());
d=modelObject.getEvaporativeCondenserEffectiveness();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::EvaporativeCondenserEffectiveness,*d);
}
d=modelObject.getEvaporativeCondenserAirFlowRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::EvaporativeCondenserAirFlowRate,*d);
}
d=modelObject.getEvaporativeCondenserPumpRatedPowerConsumption();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::EvaporativeCondenserPumpRatedPowerConsumption,*d);
}
d=modelObject.getCrankcaseHeaterCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::CrankcaseHeaterCapacity,*d);
}
d=modelObject.getMaximumOutdoorDryBulbTemperatureForCrankcaseHeaterOperation();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::MaximumOutdoorDryBulbTemperatureforCrankcaseHeaterOperation,*d);
}
//TODO
//getSupplyWaterStorageTankName
//getCondensateCollectionWaterStorageTankName
d=modelObject.getBasinHeaterCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::BasinHeaterCapacity,*d);
}
d=modelObject.getBasinHeaterSetpointTemperature();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_SingleSpeedFields::BasinHeaterSetpointTemperature,*d);
}
OptionalSchedule os = modelObject.getBasinHeaterOperatingSchedule();
if( os )
{
translateAndMapModelObject(*os);
idfObject.setString(Coil_Cooling_DX_SingleSpeedFields::BasinHeaterOperatingScheduleName,
os->name().get() );
}
m_idfObjects.push_back(idfObject);
return idfObject;
}
void step_learn( int key )
{
// one input
// Eigen::VectorXd i1 = Eigen::VectorXd::Random(1);
// i1 = (i1.array() - -1.0) / (1.0 - -1.0);
Eigen::VectorXd i1(1);
i1 << (double) (_nb_iter % 3) / 4.0 + 0.1;
_rdsom->forward( i1 );
_rdsom->deltaW( i1, 0.1, 0.2, true );
_c_weights.clear();
_c_sim_input.clear();
_c_sim_rec.clear();
_c_sim_merged.clear();
_c_sim_convol.clear();
_c_sim_hn_dist.clear();
_c_sim_hn_rec.clear();
for( unsigned int i = 0; i < _rdsom->v_neur.size(); ++i) {
_c_weights.add_sample( {(double)i, _rdsom->v_neur[i]->weights(0), 0.0} );
_c_sim_input.add_sample( {(double)i, _rdsom->_sim_w[i], 0.0} );
_c_sim_rec.add_sample( {(double)i, _rdsom->_sim_rec[i], 0.0} );
_c_sim_merged.add_sample( {(double)i, _rdsom->_sim_merged[i], 0.0} );
_c_sim_convol.add_sample( {(double)i, _rdsom->_sim_convol[i], 0.0} );
_c_sim_hn_dist.add_sample( {(double)i, _rdsom->_sim_hn_dist[i], 0.0} );
_c_sim_hn_rec.add_sample( {(double)i, _rdsom->_sim_hn_rec[i], 0.0} );
}
_nb_iter++;
}
void MeshSkin::computeBounds()
{
// Find the offset of the blend indices and blend weights within the mesh vertices
int blendIndexOffset = -1;
int blendWeightOffset = -1;
for (unsigned int i = 0, count = _mesh->getVertexElementCount(); i < count; ++i)
{
const VertexElement& e = _mesh->getVertexElement(i);
switch (e.usage)
{
case BLENDINDICES:
blendIndexOffset = i;
break;
case BLENDWEIGHTS:
blendWeightOffset = i;
break;
}
}
if (blendIndexOffset == -1 || blendWeightOffset == -1)
{
// Need blend indices and blend weights to calculate skinned bounding volume
return;
}
LOG(2, "Computing bounds for skin of mesh: %s\n", _mesh->getId().c_str());
// Get the root joint
if (_joints.size() == 0)
return;
Node* rootJoint = _joints[0];
Node* parent = rootJoint->getParent();
while (parent)
{
// Is this parent in the list of joints that form the skeleton?
// If not, then it's simply a parent node to the root joint
if (find(_joints.begin(), _joints.end(), parent) != _joints.end())
{
rootJoint = parent;
}
parent = parent->getParent();
}
// If the root joint has a parent node, temporarily detach it so that its transform is
// not included in the bounding volume calculation below
Node* rootJointParent = rootJoint->getParent();
if (rootJointParent)
{
rootJointParent->removeChild(rootJoint);
}
unsigned int jointCount = _joints.size();
unsigned int vertexCount = _mesh->getVertexCount();
LOG(3, " %u joints found.\n", jointCount);
std::vector<AnimationChannel*> channels;
std::vector<Node*> channelTargets;
std::vector<Curve*> curves;
std::vector<Vector3> vertices;
_jointBounds.resize(jointCount);
// Construct a list of all animation channels that target the joints affecting this mesh skin
LOG(3, " Collecting animations...\n");
LOG(3, " 0%%\r");
for (unsigned int i = 0; i < jointCount; ++i)
{
Node* joint = _joints[i];
// Find all animations that target this joint
Animations* animations = GPBFile::getInstance()->getAnimations();
for (unsigned int j = 0, animationCount = animations->getAnimationCount(); j < animationCount; ++j)
{
Animation* animation = animations->getAnimation(j);
for (unsigned int k = 0, channelCount = animation->getAnimationChannelCount(); k < channelCount; ++k)
{
AnimationChannel* channel = animation->getAnimationChannel(k);
if (channel->getTargetId() == joint->getId())
{
if (find(channels.begin(), channels.end(), channel) == channels.end())
{
channels.push_back(channel);
channelTargets.push_back(joint);
}
}
}
}
// Calculate the local bounding volume for this joint
vertices.clear();
BoundingVolume jointBounds;
jointBounds.min.set(FLT_MAX, FLT_MAX, FLT_MAX);
jointBounds.max.set(-FLT_MAX, -FLT_MAX, -FLT_MAX);
for (unsigned int j = 0; j < vertexCount; ++j)
{
const Vertex& v = _mesh->getVertex(j);
if ((v.blendIndices.x == i && !ISZERO(v.blendWeights.x)) ||
(v.blendIndices.y == i && !ISZERO(v.blendWeights.y)) ||
(v.blendIndices.z == i && !ISZERO(v.blendWeights.z)) ||
(v.blendIndices.w == i && !ISZERO(v.blendWeights.w)))
{
vertices.push_back(v.position);
// Update box min/max
if (v.position.x < jointBounds.min.x)
jointBounds.min.x = v.position.x;
if (v.position.y < jointBounds.min.y)
jointBounds.min.y = v.position.y;
if (v.position.z < jointBounds.min.z)
jointBounds.min.z = v.position.z;
if (v.position.x > jointBounds.max.x)
jointBounds.max.x = v.position.x;
if (v.position.y > jointBounds.max.y)
jointBounds.max.y = v.position.y;
if (v.position.z > jointBounds.max.z)
jointBounds.max.z = v.position.z;
}
}
if (vertices.size() > 0)
{
// Compute center point
Vector3::add(jointBounds.min, jointBounds.max, &jointBounds.center);
jointBounds.center.scale(0.5f);
// Compute radius
for (unsigned int j = 0, jointVertexCount = vertices.size(); j < jointVertexCount; ++j)
{
float d = jointBounds.center.distanceSquared(vertices[j]);
if (d > jointBounds.radius)
jointBounds.radius = d;
}
jointBounds.radius = sqrt(jointBounds.radius);
}
_jointBounds[i] = jointBounds;
LOG(3, " %d%%\r", (int)((float)(i+1) / (float)jointCount * 100.0f));
}
LOG(3, "\n");
unsigned int channelCount = channels.size();
// Create a Curve for each animation channel
float maxDuration = 0.0f;
LOG(3, " Building animation curves...\n");
LOG(3, " 0%%\r");
for (unsigned int i = 0; i < channelCount; ++i)
{
AnimationChannel* channel = channels[i];
const std::vector<float>& keyTimes = channel->getKeyTimes();
unsigned int keyCount = keyTimes.size();
if (keyCount == 0)
continue;
// Create a curve for this animation channel
Curve* curve = NULL;
switch (channel->getTargetAttribute())
{
case Transform::ANIMATE_SCALE_ROTATE_TRANSLATE:
curve = new Curve(keyCount, 10);
curve->setQuaternionOffset(3);
break;
}
if (curve == NULL)
{
// Unsupported/not implemented curve type
continue;
}
// Copy key values into a temporary array
unsigned int keyValuesCount = channel->getKeyValues().size();
float* keyValues = new float[keyValuesCount];
for (unsigned int j = 0; j < keyValuesCount; ++j)
keyValues[j] = channel->getKeyValues()[j];
// Determine animation duration
float startTime = keyTimes[0];
float duration = keyTimes[keyCount-1] - startTime;
if (duration > maxDuration)
maxDuration = duration;
if (duration > 0.0f)
{
// Set curve points
float* keyValuesPtr = keyValues;
for (unsigned int j = 0; j < keyCount; ++j)
{
// Store time normalized, between 0-1
float t = (keyTimes[j] - startTime) / duration;
// Set the curve point
// TODO: Handle other interpolation types
curve->setPoint(j, t, keyValuesPtr, gameplay::Curve::LINEAR);
// Move to the next point on the curve
keyValuesPtr += curve->getComponentCount();
}
curves.push_back(curve);
}
delete[] keyValues;
keyValues = NULL;
LOG(3, " %d%%\r", (int)((float)(i+1) / (float)channelCount * 100.0f));
}
LOG(3, "\n");
// Compute a total combined bounding volume for the MeshSkin that contains all possible
// vertex positions for all animations targeting the skin. This rough approximation allows
// us to store a volume that can be used for rough intersection tests (such as for visibility
// determination) efficiently at runtime.
// Backup existing node transforms so we can restore them when we are finished
Matrix* oldTransforms = new Matrix[jointCount];
for (unsigned int i = 0; i < jointCount; ++i)
{
memcpy(oldTransforms[i].m, _joints[i]->getTransformMatrix().m, 16 * sizeof(float));
}
float time = 0.0f;
float srt[10];
Matrix temp;
Matrix* jointTransforms = new Matrix[jointCount];
_mesh->bounds.min.set(FLT_MAX, FLT_MAX, FLT_MAX);
_mesh->bounds.max.set(-FLT_MAX, -FLT_MAX, -FLT_MAX);
_mesh->bounds.center.set(0, 0, 0);
_mesh->bounds.radius = 0;
Vector3 skinnedPos;
Vector3 tempPos;
LOG(3, " Evaluating joints...\n");
LOG(3, " 0%%\r");
BoundingVolume finalBounds;
while (time <= maxDuration)
{
// Evaluate joint transforms at this time interval
for (unsigned int i = 0, curveCount = curves.size(); i < curveCount; ++i)
{
Node* joint = channelTargets[i];
Curve* curve = curves[i];
// Evalulate the curve at this time to get the new value
float tn = time / maxDuration;
if (tn > 1.0f)
tn = 1.0f;
curve->evaluate(tn, srt);
// Update the joint's local transform
Matrix::createTranslation(srt[7], srt[8], srt[9], temp.m);
temp.rotate(*((Quaternion*)&srt[3]));
temp.scale(srt[0], srt[1], srt[2]);
joint->setTransformMatrix(temp.m);
}
// Store the final matrix pallette of resovled world space joint matrices
std::vector<Matrix>::const_iterator bindPoseItr = _bindPoses.begin();
for (unsigned int i = 0; i < jointCount; ++i, bindPoseItr++)
{
BoundingVolume bounds = _jointBounds[i];
if (ISZERO(bounds.radius))
continue;
Matrix& m = jointTransforms[i];
Matrix::multiply(_joints[i]->getWorldMatrix().m, bindPoseItr->m, m.m);
Matrix::multiply(m.m, _bindShape, m.m);
// Get a world-space bounding volume for this joint
bounds.transform(m);
if (ISZERO(finalBounds.radius))
finalBounds = bounds;
else
finalBounds.merge(bounds);
}
// Increment time by 1/30th of second (~ 33 ms)
if (time < maxDuration && (time + 33.0f) > maxDuration)
time = maxDuration;
else
time += 33.0f;
LOG(3, " %d%%\r", (int)(time / maxDuration * 100.0f));
}
LOG(3, "\n");
// Update the bounding sphere for the mesh
_mesh->bounds = finalBounds;
// Restore original joint transforms
for (unsigned int i = 0; i < jointCount; ++i)
{
_joints[i]->setTransformMatrix(oldTransforms[i].m);
}
// Cleanup
for (unsigned int i = 0, curveCount = curves.size(); i < curveCount; ++i)
{
delete curves[i];
}
delete[] oldTransforms;
delete[] jointTransforms;
// Restore removed joints
if (rootJointParent)
{
rootJointParent->addChild(rootJoint);
}
}
bool CurveNode::getValue (const String& strMemberName, String& strValue)
{
bool bValueSet = false;
Curve* pObject = dynamic_cast<Curve*>(m_pObject);
if (strMemberName == L"value")
{
ValueObject* pValueObj = dynamic_cast<ValueObject*>(m_pObject);
if (pValueObj)
{
if (!pValueObj->isNothing())
{
strValue = pValueObj->toString();
bValueSet = true;
}
}
}
else if (strMemberName == L"Rot")
{
if (pObject->hasValue_Rot())
{
strValue = (EnumClockwiseImpl(pObject->getRot())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Chord")
{
if (pObject->hasValue_Chord())
{
strValue = (DoubleObjectImpl(pObject->getChord())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"CrvType")
{
if (pObject->hasValue_CrvType())
{
strValue = (EnumCurveTypeImpl(pObject->getCrvType())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Delta")
{
if (pObject->hasValue_Delta())
{
strValue = (DoubleObjectImpl(pObject->getDelta())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Desc")
{
if (pObject->hasValue_Desc())
{
strValue = (StringObjectImpl(pObject->getDesc())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"DirEnd")
{
if (pObject->hasValue_DirEnd())
{
strValue = (DoubleObjectImpl(pObject->getDirEnd())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"DirStart")
{
if (pObject->hasValue_DirStart())
{
strValue = (DoubleObjectImpl(pObject->getDirStart())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"External")
{
if (pObject->hasValue_External())
{
strValue = (DoubleObjectImpl(pObject->getExternal())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Length")
{
if (pObject->hasValue_Length())
{
strValue = (DoubleObjectImpl(pObject->getLength())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"MidOrd")
{
if (pObject->hasValue_MidOrd())
{
strValue = (DoubleObjectImpl(pObject->getMidOrd())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Name")
{
if (pObject->hasValue_Name())
{
strValue = (StringObjectImpl(pObject->getName())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Radius")
{
if (pObject->hasValue_Radius())
{
strValue = (DoubleObjectImpl(pObject->getRadius())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"StaStart")
{
if (pObject->hasValue_StaStart())
{
strValue = (DoubleObjectImpl(pObject->getStaStart())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"State")
{
if (pObject->hasValue_State())
{
strValue = (EnumStateTypeImpl(pObject->getState())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Tangent")
{
if (pObject->hasValue_Tangent())
{
strValue = (DoubleObjectImpl(pObject->getTangent())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"OID")
{
if (pObject->hasValue_OID())
{
strValue = (StringObjectImpl(pObject->getOID())).toString();
bValueSet = true;
}
}
else if (strMemberName == L"Note")
{
if (pObject->hasValue_Note())
{
strValue = (StringObjectImpl(pObject->getNote())).toString();
bValueSet = true;
}
}
return bValueSet;
}
bool EvaporativeCoolerDirectResearchSpecial_Impl::setWaterPumpPowerModifierCurve(const Curve& curve) {
return setPointer(OS_EvaporativeCooler_Direct_ResearchSpecialFields::WaterPumpPowerModifierCurveName, curve.handle());
}
bool CoilHeatingFourPipeBeam_Impl::setBeamHeatingCapacityHotWaterFlowModificationFactorCurve(const Curve& curve) {
bool result = setPointer(OS_Coil_Heating_FourPipeBeamFields::BeamHeatingCapacityHotWaterFlowModificationFactorCurveName, curve.handle());
return result;
}
bool CoilCoolingDXVariableRefrigerantFlow_Impl::setCoolingCapacityRatioModifierFunctionofTemperatureCurve(const Curve& curve) {
bool result = setPointer(OS_Coil_Cooling_DX_VariableRefrigerantFlowFields::CoolingCapacityRatioModifierFunctionofTemperatureCurve, curve.handle());
return result;
}
void GrapheinClient::RemoteClientState::processMessages(void)
{
Threads::Mutex::Lock messageBufferLock(messageBufferMutex);
/* Handle all state tracking messages: */
for(std::vector<IncomingMessage*>::iterator mIt=messages.begin(); mIt!=messages.end(); ++mIt)
{
/* Process all messages in this buffer: */
IO::File& msg=**mIt;
while(!msg.eof())
{
/* Read the next message: */
MessageIdType message=GrapheinProtocol::readMessage(msg);
switch(message)
{
case ADD_CURVE:
{
unsigned int newCurveId=msg.read<Card>();
/* Check if a curve of the given ID already exists: */
if(curves.isEntry(newCurveId))
{
/* Skip the curve definition: */
Curve dummy;
dummy.read(msg);
}
else
{
/* Create a new curve and add it to the curve map: */
Curve* newCurve=new Curve;
curves.setEntry(CurveMap::Entry(newCurveId,newCurve));
newCurve->read(msg);
}
break;
}
case APPEND_POINT:
{
/* Read the curve ID and index of the new vertex: */
unsigned int curveId=msg.read<Card>();
unsigned int vertexIndex=msg.read<Card>();
/* Read the vertex: */
Point newVertex=GrapheinProtocol::read<Point>(msg);
/* Get a handle on the curve: */
CurveMap::Iterator cIt=curves.findEntry(curveId);
if(!cIt.isFinished())
{
/* Check that the curve doesn't already contains the vertex: */
if(vertexIndex>=cIt->getDest()->vertices.size())
{
/* Append the vertex: */
cIt->getDest()->vertices.push_back(newVertex);
}
}
break;
}
case DELETE_CURVE:
{
/* Read the curve ID: */
unsigned int curveId=msg.read<Card>();
/* Get a handle on the curve: */
CurveMap::Iterator cIt=curves.findEntry(curveId);
if(!cIt.isFinished())
{
/* Delete the curve: */
delete cIt->getDest();
curves.removeEntry(cIt);
}
break;
}
case DELETE_ALL_CURVES:
{
/* Delete all curves: */
for(CurveMap::Iterator cIt=curves.begin(); !cIt.isFinished(); ++cIt)
delete cIt->getDest();
curves.clear();
break;
}
}
}
/* Destroy the just-read message buffer: */
delete *mIt;
}
/* Clear the message buffer list: */
messages.clear();
}
Curve Curve::operator+(const Curve& curve)
{
Curve copy = *this;
return copy.add(curve);
}
vector<ColorCalibrator::Curve> ColorCalibrator::computeProjectorFunctionInverse(vector<Curve> rgbCurves)
{
gsl_set_error_handler(gslErrorHandler);
vector<Curve> projInvCurves;
// Work on each curve independently
unsigned int c = 0; // index of the current channel
for (auto& curve : rgbCurves)
{
// Make sure the points are correctly ordered
std::sort(curve.begin(), curve.end(), [&](Point a, Point b) {
return a.second[c] < b.second[c];
});
double yOffset = curve[0].second[c];
double yRange = curve[curve.size() - 1].second[c] - curve[0].second[c];
if (yRange <= 0.f)
{
Log::get() << Log::WARNING << "ColorCalibrator::" << __FUNCTION__ << " - Unable to compute projector inverse function curve on a channel" << Log::endl;
projInvCurves.push_back(Curve());
continue;
}
vector<double> rawX;
vector<double> rawY;
double epsilon = 0.001;
double previousAbscissa = -1.0;
for (auto& point : curve)
{
double abscissa = (point.second[c] - yOffset) / yRange;
if (std::abs(abscissa - previousAbscissa) < epsilon)
{
Log::get() << Log::WARNING << "ColorCalibrator::" << __FUNCTION__ << " - Abscissa not strictly increasing: discarding value " << abscissa << " from channel " << c << Log::endl;
}
else
{
previousAbscissa = abscissa;
rawX.push_back((point.second[c] - yOffset) / yRange);
rawY.push_back(point.first);
}
}
// Check that first and last points abscissas are 0 and 1, respectively, and shift them slightly
// to prevent floating point imprecision to cause an interpolation error
rawX[0] = std::max(0.0, rawX[0]) - 0.001;
rawX[rawX.size() - 1] = std::min(1.0, rawX[rawX.size() - 1]) + 0.001;
gsl_interp_accel* acc = gsl_interp_accel_alloc();
gsl_spline* spline = nullptr;
if (rawX.size() > 4)
spline = gsl_spline_alloc(gsl_interp_akima, rawX.size());
else
spline = gsl_spline_alloc(gsl_interp_linear, rawX.size());
gsl_spline_init(spline, rawX.data(), rawY.data(), rawX.size());
Curve projInvCurve;
for (double x = 0.0; x <= 255.0; x += 1.0)
{
double realX = std::min(1.0, x / 255.0); // Make sure we don't try to go past 1.0
Point point;
point.first = realX;
point.second[c] = gsl_spline_eval(spline, realX, acc);
projInvCurve.push_back(point);
}
projInvCurves.push_back(projInvCurve);
gsl_spline_free(spline);
gsl_interp_accel_free(acc);
c++; // increment the current channel
}
gsl_set_error_handler_off();
return projInvCurves;
}
void
TrackerNodePrivate::computeCornerParamsFromTracksEnd(double refTime,
double maxFittingError,
const QList<CornerPinData>& results)
{
// Make sure we get only valid results
QList<CornerPinData> validResults;
for (QList<CornerPinData>::const_iterator it = results.begin(); it != results.end(); ++it) {
if (it->valid) {
validResults.push_back(*it);
}
}
// Get all knobs that we are going to write to and block any value changes on them
KnobIntPtr smoothCornerPinKnob = smoothCornerPin.lock();
int smoothJitter = smoothCornerPinKnob->getValue();
int halfJitter = smoothJitter / 2;
KnobDoublePtr fittingErrorKnob = fittingError.lock();
KnobDoublePtr fromPointsKnob[4];
KnobDoublePtr toPointsKnob[4];
KnobBoolPtr enabledPointsKnob[4];
KnobStringPtr fittingWarningKnob = fittingErrorWarning.lock();
for (int i = 0; i < 4; ++i) {
fromPointsKnob[i] = fromPoints[i].lock();
toPointsKnob[i] = toPoints[i].lock();
enabledPointsKnob[i] = enableToPoint[i].lock();
}
std::list<KnobIPtr> animatedKnobsChanged;
fittingErrorKnob->blockValueChanges();
animatedKnobsChanged.push_back(fittingErrorKnob);
for (int i = 0; i < 4; ++i) {
toPointsKnob[i]->blockValueChanges();
animatedKnobsChanged.push_back(toPointsKnob[i]);
}
// Get reference corner pin
CornerPinPoints refFrom;
for (int c = 0; c < 4; ++c) {
refFrom.pts[c].x = fromPointsKnob[c]->getValueAtTime(TimeValue(refTime));
refFrom.pts[c].y = fromPointsKnob[c]->getValueAtTime(TimeValue(refTime), DimIdx(1));
}
// Create temporary curves and clone the toPoint internal curves at once because setValueAtTime will be slow since it emits
// signals to create keyframes in keyframeSet
Curve tmpToPointsCurveX[4], tmpToPointsCurveY[4];
Curve tmpFittingErrorCurve;
bool mustShowFittingWarn = false;
for (QList<CornerPinData>::const_iterator itResults = validResults.begin(); itResults != validResults.end(); ++itResults) {
const CornerPinData& dataAtTime = *itResults;
// Add the error to the curve and check if we need to turn on the RMS warning
{
KeyFrame kf(dataAtTime.time, dataAtTime.rms);
if (dataAtTime.rms >= maxFittingError) {
mustShowFittingWarn = true;
}
tmpFittingErrorCurve.setOrAddKeyframe(kf);
}
if (smoothJitter <= 1) {
for (int c = 0; c < 4; ++c) {
Point toPoint;
toPoint = TrackerHelper::applyHomography(refFrom.pts[c], dataAtTime.h);
KeyFrame kx(dataAtTime.time, toPoint.x);
KeyFrame ky(dataAtTime.time, toPoint.y);
tmpToPointsCurveX[c].setOrAddKeyframe(kx);
tmpToPointsCurveY[c].setOrAddKeyframe(ky);
//toPoints[c]->setValuesAtTime(dataAtTime[i].time, toPoint.x, toPoint.y, ViewSpec::all(), eValueChangedReasonUserEdited);
}
} else {
// Average to points before and after if using jitter
CornerPinPoints avgTos;
averageDataFunctor<QList<CornerPinData>::const_iterator, CornerPinPoints, CornerPinPoints>(validResults.begin(), validResults.end(), itResults, halfJitter, &refFrom, &avgTos, 0);
for (int c = 0; c < 4; ++c) {
KeyFrame kx(dataAtTime.time, avgTos.pts[c].x);
KeyFrame ky(dataAtTime.time, avgTos.pts[c].y);
tmpToPointsCurveX[c].setOrAddKeyframe(kx);
tmpToPointsCurveY[c].setOrAddKeyframe(ky);
}
} // use jitter
} // for each result
// If user wants a post-smooth, apply it
if (smoothJitter > 1) {
int halfSmoothJitter = smoothJitter / 2;
KeyFrameSet xSet[4], ySet[4];
KeyFrameSet newXSet[4], newYSet[4];
for (int c = 0; c < 4; ++c) {
xSet[c] = tmpToPointsCurveX[c].getKeyFrames_mt_safe();
ySet[c] = tmpToPointsCurveY[c].getKeyFrames_mt_safe();
}
for (int c = 0; c < 4; ++c) {
for (KeyFrameSet::const_iterator it = xSet[c].begin(); it != xSet[c].end(); ++it) {
double avg;
averageDataFunctor<KeyFrameSet::const_iterator, void, double>(xSet[c].begin(), xSet[c].end(), it, halfSmoothJitter, 0, &avg, 0);
KeyFrame k(*it);
k.setValue(avg);
newXSet[c].insert(k);
}
for (KeyFrameSet::const_iterator it = ySet[c].begin(); it != ySet[c].end(); ++it) {
double avg;
averageDataFunctor<KeyFrameSet::const_iterator, void, double>(ySet[c].begin(), ySet[c].end(), it, halfSmoothJitter, 0, &avg, 0);
KeyFrame k(*it);
k.setValue(avg);
newYSet[c].insert(k);
}
}
for (int c = 0; c < 4; ++c) {
tmpToPointsCurveX[c].setKeyframes(newXSet[c], true);
tmpToPointsCurveY[c].setKeyframes(newYSet[c], true);
}
}
fittingWarningKnob->setSecret(!mustShowFittingWarn);
fittingErrorKnob->cloneCurve(ViewIdx(0), DimIdx(0), tmpFittingErrorCurve, 0 /*offset*/, 0 /*range*/);
for (int c = 0; c < 4; ++c) {
toPointsKnob[c]->cloneCurve(ViewIdx(0), DimIdx(0), tmpToPointsCurveX[c], 0 /*offset*/, 0 /*range*/);
toPointsKnob[c]->cloneCurve(ViewIdx(0), DimIdx(1), tmpToPointsCurveY[c], 0 /*offset*/, 0 /*range*/);
}
for (std::list<KnobIPtr>::iterator it = animatedKnobsChanged.begin(); it != animatedKnobsChanged.end(); ++it) {
(*it)->unblockValueChanges();
(*it)->evaluateValueChange(DimSpec::all(), TimeValue(refTime), ViewSetSpec::all(), eValueChangedReasonUserEdited);
}
endSolve();
} // TrackerNodePrivate::computeCornerParamsFromTracksEnd
int
AROON::run (PluginData *pd)
{
if (! g_symbol)
return 0;
QVariant *period = pd->settings->get(QString("period"));
if (! period)
return 0;
QVariant *ulabel = pd->settings->get(QString("upLabel"));
if (! ulabel)
return 0;
QVariant *dlabel = pd->settings->get(QString("downLabel"));
if (! dlabel)
return 0;
if (! getAROON(period->toInt(), ulabel->toString(), dlabel->toString()))
return 0;
// up
QVariant *show = pd->settings->get(QString("upShow"));
if (! show)
return 0;
if (show->toBool())
{
QVariant *var = pd->settings->get(QString("upColor"));
if (! var)
return 0;
QColor color(var->toString());
QVariant *style = pd->settings->get(QString("upStyle"));
if (! style)
return 0;
QVariant *width = pd->settings->get(QString("upWidth"));
if (! width)
return 0;
// up
CurveLineType clt;
Curve *c = new Curve(QString("CurveLine"));
c->setColor(color);
c->setLabel(ulabel->toString());
c->setStyle(clt.stringToIndex(style->toString()));
c->fill(ulabel->toString(), QString(), QString(), QString(), QColor());
c->setPen(width->toInt());
pd->curves << c;
}
// down
show = pd->settings->get(QString("downShow"));
if (! show)
return 0;
if (show->toBool())
{
QVariant *var = pd->settings->get(QString("downColor"));
if (! var)
return 0;
QColor color(var->toString());
QVariant *style = pd->settings->get(QString("downStyle"));
if (! style)
return 0;
QVariant *width = pd->settings->get(QString("downWidth"));
if (! width)
return 0;
CurveLineType clt;
Curve *c = new Curve(QString("CurveLine"));
c->setColor(color);
c->setLabel(dlabel->toString());
c->setStyle(clt.stringToIndex(style->toString()));
c->fill(dlabel->toString(), QString(), QString(), QString(), QColor());
c->setPen(width->toInt());
pd->curves << c;
}
return 1;
}
int lua_Curve_evaluate(lua_State* state)
{
// Get the number of parameters.
int paramCount = lua_gettop(state);
// Attempt to match the parameters to a valid binding.
switch (paramCount)
{
case 3:
{
do
{
if ((lua_type(state, 1) == LUA_TUSERDATA) &&
lua_type(state, 2) == LUA_TNUMBER &&
(lua_type(state, 3) == LUA_TTABLE || lua_type(state, 3) == LUA_TLIGHTUSERDATA))
{
// Get parameter 1 off the stack.
float param1 = (float)luaL_checknumber(state, 2);
// Get parameter 2 off the stack.
gameplay::ScriptUtil::LuaArray<float> param2 = gameplay::ScriptUtil::getFloatPointer(3);
Curve* instance = getInstance(state);
instance->evaluate(param1, param2);
return 0;
}
} while (0);
lua_pushstring(state, "lua_Curve_evaluate - Failed to match the given parameters to a valid function signature.");
lua_error(state);
break;
}
case 6:
{
do
{
if ((lua_type(state, 1) == LUA_TUSERDATA) &&
lua_type(state, 2) == LUA_TNUMBER &&
lua_type(state, 3) == LUA_TNUMBER &&
lua_type(state, 4) == LUA_TNUMBER &&
lua_type(state, 5) == LUA_TNUMBER &&
(lua_type(state, 6) == LUA_TTABLE || lua_type(state, 6) == LUA_TLIGHTUSERDATA))
{
// Get parameter 1 off the stack.
float param1 = (float)luaL_checknumber(state, 2);
// Get parameter 2 off the stack.
float param2 = (float)luaL_checknumber(state, 3);
// Get parameter 3 off the stack.
float param3 = (float)luaL_checknumber(state, 4);
// Get parameter 4 off the stack.
float param4 = (float)luaL_checknumber(state, 5);
// Get parameter 5 off the stack.
gameplay::ScriptUtil::LuaArray<float> param5 = gameplay::ScriptUtil::getFloatPointer(6);
Curve* instance = getInstance(state);
instance->evaluate(param1, param2, param3, param4, param5);
return 0;
}
} while (0);
lua_pushstring(state, "lua_Curve_evaluate - Failed to match the given parameters to a valid function signature.");
lua_error(state);
break;
}
default:
{
lua_pushstring(state, "Invalid number of parameters (expected 3 or 6).");
lua_error(state);
break;
}
}
return 0;
}
int
RSI::run (PluginData *pd)
{
if (! g_symbol)
return 0;
QVariant *input = pd->settings->get(QString("input"));
if (! input)
return 0;
QVariant *period = pd->settings->get(QString("period"));
if (! period)
return 0;
QVariant *label = pd->settings->get(QString("label"));
if (! label)
return 0;
if (! getRSI(input->toString(), period->toInt(), label->toString()))
return 0;
// rsi
QVariant *show = pd->settings->get(QString("rsiShow"));
if (! show)
return 0;
if (show->toBool())
{
QVariant *style = pd->settings->get(QString("style"));
if (! style)
return 0;
QVariant *width = pd->settings->get(QString("width"));
if (! width)
return 0;
QVariant *var = pd->settings->get(QString("color"));
if (! var)
return 0;
QColor color(var->toString());
CurveLineType clt;
Curve *rsi = new Curve(QString("CurveLine"));
rsi->setColor(color);
rsi->setLabel(label->toString());
rsi->setStyle(clt.stringToIndex(style->toString()));
rsi->fill(label->toString(), QString(), QString(), QString(), color);
rsi->setPen(width->toInt());
pd->curves << rsi;
}
// ma
show = pd->settings->get(QString("maShow"));
if (! show)
return 0;
if (show->toBool())
{
Curve *ma = getMA(pd->settings);
if (ma)
pd->curves << ma;
}
// buy marker
show = pd->settings->get(QString("buyMarkerShow"));
if (! show)
return 0;
if (show->toBool())
{
QVariant *var = pd->settings->get(QString("buyMarkerColor"));
if (! var)
return 0;
QColor color(var->toString());
QVariant *price = pd->settings->get(QString("buyMarkerPrice"));
if (! price)
return 0;
Marker *m = newMarker(color, price->toDouble());
if (! m)
return 0;
pd->markers << m;
}
// sell marker
show = pd->settings->get(QString("sellMarkerShow"));
if (! show)
return 0;
if (show->toBool())
{
QVariant *var = pd->settings->get(QString("sellMarkerColor"));
if (! var)
return 0;
QColor color(var->toString());
QVariant *price = pd->settings->get(QString("sellMarkerPrice"));
if (! price)
return 0;
Marker *m = newMarker(color, price->toDouble());
if (! m)
return 0;
pd->markers << m;
}
return 1;
}
bool testSegmentation()
{
unsigned int nbok = 0;
unsigned int nb = 0;
typedef PointVector<2,int> Point;
//typedef std::vector<Point>::iterator Iterator;
//typedef FrechetShortcut<Iterator,int> SegmentComputer;
std::vector<Point> contour;
contour.push_back(Point(0,0));
contour.push_back(Point(1,0));
contour.push_back(Point(2,0));
contour.push_back(Point(3,0));
contour.push_back(Point(4,0));
contour.push_back(Point(5,0));
contour.push_back(Point(6,0));
contour.push_back(Point(7,0));
contour.push_back(Point(7,1));
contour.push_back(Point(6,1));
contour.push_back(Point(5,1));
contour.push_back(Point(4,1));
contour.push_back(Point(3,1));
contour.push_back(Point(2,1));
contour.push_back(Point(2,2));
contour.push_back(Point(3,2));
contour.push_back(Point(4,2));
contour.push_back(Point(5,2));
contour.push_back(Point(6,2));
contour.push_back(Point(7,2));
contour.push_back(Point(8,2));
contour.push_back(Point(9,2));
trace.beginBlock ( "Testing block ..." );
typedef Curve::PointsRange::ConstIterator Iterator;
typedef FrechetShortcut<Iterator,int> SegmentComputer;
Curve aCurve; //grid curve
aCurve.initFromVector(contour);
typedef Curve::PointsRange Range; //range
Range r = aCurve.getPointsRange(); //range
Board2D board;
board << r;
board << aCurve.getArrowsRange();
double error = 3;
nbok =3;
trace.beginBlock ( "Greedy segmentation" );
{
typedef GreedySegmentation<SegmentComputer> Segmentation;
Segmentation theSegmentation( r.begin(), r.end(), SegmentComputer(error) );
Segmentation::SegmentComputerIterator it = theSegmentation.begin();
Segmentation::SegmentComputerIterator itEnd = theSegmentation.end();
for ( ; it != itEnd; ++it) {
SegmentComputer s(*it);
trace.info() << s << std::endl;
board << (*it);
nb++;
}
//board << aCurve;
trace.info() << theSegmentation << std::endl;
board.saveEPS("FrechetShortcutGreedySegmentationTest.eps", Board2D::BoundingBox, 5000 );
}
/* Saturated segmentation does not work for FrechetShortcut
computer. Indeed, given two maximal Frechet shortcuts s1(begin, end) et
s2(begin, end), we can have s1.begin < s2.begin < s2.end <
s1.end. */
trace.endBlock();
return nbok == nb;
}
boost::optional<IdfObject> ForwardTranslator::translateCoilCoolingDXTwoSpeedWithoutUnitary( model::CoilCoolingDXTwoSpeed & modelObject )
{
//setup two boost optionals to use to store get method returns
boost::optional<std::string> s;
boost::optional<double> d;
//create the IdfObject that will be the coil
IdfObject idfObject(IddObjectType::Coil_Cooling_DX_TwoSpeed);
//Name
m_idfObjects.push_back(idfObject);
s = modelObject.name();
if( s )
{
idfObject.setName(*s);
}
// A2 , \field Availability Schedule Name
Schedule sched = modelObject.getAvailabilitySchedule();
translateAndMapModelObject(sched);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::AvailabilityScheduleName,
sched.name().get() );
// N1 , \field Rated High Speed Total Cooling Capacity
d = modelObject.getRatedHighSpeedTotalCoolingCapacity();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedTotalCoolingCapacity,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedTotalCoolingCapacity,"Autosize");
}
// N2 , \field Rated High Speed Sensible Heat Ratio
d = modelObject.getRatedHighSpeedSensibleHeatRatio();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedSensibleHeatRatio,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedSensibleHeatRatio,"Autosize");
}
// N3 , \field Rated High Speed COP
d = modelObject.getRatedHighSpeedCOP();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedCOP,*d);
}
// N4 , \field Rated High Speed Air Flow Rate
d = modelObject.getRatedHighSpeedAirFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedAirFlowRate,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedHighSpeedAirFlowRate,"Autosize");
}
//A3 , \field Air Inlet Node Name
OptionalModelObject omo = modelObject.inletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::AirInletNodeName,*s );
}
}
//A4 , \field Air Outlet Node Name
omo= modelObject.outletModelObject();
if( omo )
{
translateAndMapModelObject(*omo);
s = omo->name();
if(s)
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::AirOutletNodeName,*s);
}
}
// A5 , \field Total Cooling Capacity Function of Temperature Curve Name
Curve cb = modelObject.getTotalCoolingCapacityFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::TotalCoolingCapacityFunctionofTemperatureCurveName,
cb.name().get());
// A6 , \field Total Cooling Capacity Function of Flow Fraction Curve Name
cb = modelObject.getTotalCoolingCapacityFunctionOfFlowFractionCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::TotalCoolingCapacityFunctionofFlowFractionCurveName,
cb.name().get());
// A7 , \field Energy Input Ratio Function of Temperature Curve Name
cb =modelObject.getEnergyInputRatioFunctionOfTemperatureCurve();
translateAndMapModelObject(cb);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::EnergyInputRatioFunctionofTemperatureCurveName,
cb.name().get());
// A8 , \field Energy Input Ratio Function of Flow Fraction Curve Name
Curve cq = modelObject.getEnergyInputRatioFunctionOfFlowFractionCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::EnergyInputRatioFunctionofFlowFractionCurveName,
cq.name().get());
// A9 , \field Part Load Fraction Correlation Curve Name
cq = modelObject.getPartLoadFractionCorrelationCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::PartLoadFractionCorrelationCurveName,
cq.name().get());
// N5 , \field Rated Low Speed Total Cooling Capacity
d = modelObject.getRatedLowSpeedTotalCoolingCapacity();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedTotalCoolingCapacity,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedTotalCoolingCapacity,"Autosize");
}
// N6 , \field Rated Low Speed Sensible Heat Ratio
d = modelObject.getRatedLowSpeedSensibleHeatRatio();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedSensibleHeatRatio,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedSensibleHeatRatio,"Autosize");
}
// N7 , \field Rated Low Speed COP
d = modelObject.getRatedLowSpeedCOP();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedCOP,*d);
}
// N8 , \field Rated Low Speed Air Flow Rate
d = modelObject.getRatedLowSpeedAirFlowRate();
if( d )
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedAirFlowRate,*d);
}
else
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::RatedLowSpeedAirFlowRate,"Autosize");
}
// A10, \field Low Speed Total Cooling Capacity Function of Temperature Curve Name
cq = modelObject.getLowSpeedTotalCoolingCapacityFunctionOfTemperatureCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::LowSpeedTotalCoolingCapacityFunctionofTemperatureCurveName,
cq.name().get());
// A11, \field Low Speed Energy Input Ratio Function of Temperature Curve Name
cq = modelObject.getLowSpeedEnergyInputRatioFunctionOfTemperatureCurve();
translateAndMapModelObject(cq);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEnergyInputRatioFunctionofTemperatureCurveName,
cq.name().get());
// A12, \field Condenser Air Inlet Node Name
s=modelObject.getCondenserAirInletNodeName();
if(s)
{
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::CondenserAirInletNodeName,*s);
}
// A13, \field Condenser Type
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::CondenserType,modelObject.getCondenserType());
// N9, \field High Speed Evaporative Condenser Effectiveness
d=modelObject.getHighSpeedEvaporativeCondenserEffectiveness();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::HighSpeedEvaporativeCondenserEffectiveness,*d);
}
// N10, \field High Speed Evaporative Condenser Air Flow Rate
d=modelObject.getHighSpeedEvaporativeCondenserAirFlowRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::HighSpeedEvaporativeCondenserAirFlowRate,*d);
}
// N11, \field High Speed Evaporative Condenser Pump Rated Power Consumption
d=modelObject.getHighSpeedEvaporativeCondenserPumpRatedPowerConsumption();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::HighSpeedEvaporativeCondenserPumpRatedPowerConsumption,*d);
}
// N12, \field Low Speed Evaporative Condenser Effectiveness
d=modelObject.getLowSpeedEvaporativeCondenserEffectiveness();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEvaporativeCondenserEffectiveness,*d);
}
// N13, \field Low Speed Evaporative Condenser Air Flow Rate
d=modelObject.getLowSpeedEvaporativeCondenserAirFlowRate();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEvaporativeCondenserAirFlowRate,*d);
}
// N14, \field Low Speed Evaporative Condenser Pump Rated Power Consumption
d=modelObject.getLowSpeedEvaporativeCondenserPumpRatedPowerConsumption();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::LowSpeedEvaporativeCondenserPumpRatedPowerConsumption,*d);
}
//TODO
// A14, \field Supply Water Storage Tank Name
//getSupplyWaterStorageTankName
//TODO
// A15, \field Condensate Collection Water Storage Tank Name
//getCondensateCollectionWaterStorageTankName
// N15, \field Basin Heater Capacity
d=modelObject.getBasinHeaterCapacity();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::BasinHeaterCapacity,*d);
}
// N16, \field Basin Heater Setpoint Temperature
d=modelObject.getBasinHeaterSetpointTemperature();
if(d)
{
idfObject.setDouble(Coil_Cooling_DX_TwoSpeedFields::BasinHeaterSetpointTemperature,*d);
}
// A16; \field Basin Heater Operating Schedule Name
OptionalSchedule os = modelObject.getBasinHeaterOperatingSchedule();
if( os )
{
translateAndMapModelObject(*os);
idfObject.setString(Coil_Cooling_DX_TwoSpeedFields::BasinHeaterOperatingScheduleName,
os->name().get() );
}
return idfObject;
}