bool Configure_ChaseCam_HandlerData::VerifyAndAdjust()
{
float Temp;
float Damping, Spring;
bool IsOK = true;
// First, check the spring-constant factors
if (GetFloat(DampingCtrl,Damping))
{
// Simple damping-factor validation
float NewTemp = PIN(Damping, -1, 1);
if (NewTemp != Damping)
{
Damping = NewTemp;
SetFloat(DampingCtrl,Damping);
IsOK = false;
}
}
else
IsOK = false;
IsOK = IsOK && GetFloat(SpringCtrl,Spring);
if (IsOK)
{
// Do validation: will the chase cam be unstable?
if (Spring >= 0)
{
// Oscillatory case
float DampSq = Damping*Damping;
if ((DampSq + Spring) >= 1)
{
Spring = 1 - DampSq;
SetFloat(SpringCtrl,Spring);
IsOK = false;
}
}
else
{
// Overdamped case
float DampAbs = fabs(Damping);
if ((DampAbs + sqrt(-Spring)) >= 1)
{
float DACmpl = 1 - DampAbs;
Spring = - DACmpl*DACmpl;
SetFloat(SpringCtrl,Spring);
IsOK = false;
}
}
}
// Don't really need these values here
IsOK = IsOK && GetFloat(BehindCtrl,Temp);
IsOK = IsOK && GetFloat(UpwardCtrl,Temp);
IsOK = IsOK && GetFloat(RightwardCtrl,Temp);
// Get the opacity to within a reasonable range
if (GetFloat(CC_OpacityCtrl,Temp))
{
float NewTemp = PIN(Temp, 0, 1);
if (NewTemp != Temp)
{
SetFloat(CC_OpacityCtrl, NewTemp);
IsOK = false;
}
}
else
IsOK = false;
if (!IsOK) SysBeep(30);
return IsOK;
}
void* schedRunFunc(void* arg)
{
pthread_mutex_lock (&gLangMutex);
VMGlobals *g = gMainVMGlobals;
PyrObject* inQueue = slotRawObject(&g->process->sysSchedulerQueue);
//dumpObject(inQueue);
gRunSched = true;
while (true) {
assert(inQueue->size);
//postfl("wait until there is something in scheduler\n");
// wait until there is something in scheduler
while (inQueue->size == 1) {
//postfl("wait until there is something in scheduler\n");
pthread_cond_wait (&gSchedCond, &gLangMutex);
if (!gRunSched) goto leave;
}
//postfl("wait until an event is ready\n");
// wait until an event is ready
double elapsed;
do {
elapsed = elapsedTime();
if (elapsed >= slotRawFloat(inQueue->slots + 1)) break;
struct timespec abstime;
//doubleToTimespec(inQueue->slots->uf, &abstime);
ElapsedTimeToTimespec(slotRawFloat(inQueue->slots + 1), &abstime);
//postfl("wait until an event is ready\n");
pthread_cond_timedwait (&gSchedCond, &gLangMutex, &abstime);
if (!gRunSched) goto leave;
//postfl("time diff %g\n", elapsedTime() - inQueue->slots->uf);
} while (inQueue->size > 1);
//postfl("perform all events that are ready %d %.9f\n", inQueue->size, elapsed);
// perform all events that are ready
//postfl("perform all events that are ready\n");
while ((inQueue->size > 1) && elapsed >= slotRawFloat(inQueue->slots + 1)) {
double schedtime, delta;
PyrSlot task;
//postfl("while %.6f >= %.6f\n", elapsed, inQueue->slots->uf);
getheap(g, inQueue, &schedtime, &task);
if (isKindOfSlot(&task, class_thread)) {
SetNil(&slotRawThread(&task)->nextBeat);
}
slotCopy((++g->sp), &task);
SetFloat(++g->sp, schedtime);
SetFloat(++g->sp, schedtime);
++g->sp; SetObject(g->sp, s_systemclock->u.classobj);
runAwakeMessage(g);
long err = slotDoubleVal(&g->result, &delta);
if (!err) {
// add delta time and reschedule
double time = schedtime + delta;
schedAdd(g, inQueue, time, &task);
}
}
//postfl("loop\n");
}
//postfl("exitloop\n");
leave:
pthread_mutex_unlock (&gLangMutex);
return 0;
}
Colour::Colour(float r, float g, float b, float a)
{
SetFloat(r, g, b, a);
}
void Camera::Run(MOUSEHOOKSTRUCTEX * Mouse, WPARAM wParam)
{
if( pMapNumber == 30 || pMapNumber == 31 )
{
this->IsActive = false;
this->Init();
}
// ----
switch(wParam)
{
case WM_MOUSEWHEEL:
{
if( !this->IsActive || gInterface.CheckWindow(MoveList) )
{
return;
}
// ----
if( (int)Mouse->mouseData > 0 )
{
if( *(float*)oCam_Zoom < ZOOM_MAX )
{
SetFloat((LPVOID)oCam_Zoom, *(float*)oCam_Zoom + ZOOM_INTER);
}
else
{
SetFloat((LPVOID)oCam_Zoom, (float)ZOOM_MAX);
}
}
else if( (int)Mouse->mouseData < 0 )
{
if( *(float*)oCam_Zoom > ZOOM_MIN )
{
SetFloat((LPVOID)oCam_Zoom, *(float*)oCam_Zoom - ZOOM_INTER);
}
else
{
SetFloat((LPVOID)oCam_Zoom, (float)ZOOM_MIN);
}
}
// ----
this->ZoomPercent = *(float*)oCam_Zoom / ((float)ZOOM_MAX / 100.0f);
// ----
SetDouble((LPVOID)oCam_ClipX, PERCF(PERCF(this->Default.ClipX, 500), this->ZoomPercent));
SetFloat((LPVOID)oCam_ClipY, PERCF(PERCF(this->Default.ClipY, 285), this->ZoomPercent));
SetDouble((LPVOID)oCam_ClipZ, PERCF(PERCF(this->Default.ClipZ, -395), this->ZoomPercent));
SetDouble((LPVOID)oCam_ClipX2, PERCF(PERCF(this->Default.ClipX2, 235), this->ZoomPercent));
SetFloat((LPVOID)oCam_ClipY2, PERCF(PERCF(this->Default.ClipY2, 195), this->ZoomPercent));
SetFloat((LPVOID)oCam_ClipZ2, PERCF(PERCF(this->Default.ClipZ2, -4000), this->ZoomPercent));
SetFloat((LPVOID)oCam_ClipGL, PERCF(PERCF(this->Default.ClipGL, 250), this->ZoomPercent));
}
break;
// --
case WM_MBUTTONDOWN:
{
this->InMove = true;
}
break;
// --
case WM_MBUTTONUP:
{
this->InMove = false;
}
break;
}
}
// caution: this is called from a secondary thread!
void callback(int cube,unsigned int event,unsigned int param)
{
const t_symbol *sym = NULL;
AtomListStatic<64> at;
switch(event) {
case CUBE_EVENT_USB_ATTACHED:
sym = sym_attach;
at(1);
SetInt(at[0],cube);
break;
case CUBE_EVENT_USB_DETACHED:
sym = sym_detach;
at(1);
SetInt(at[0],cube);
break;
case CUBE_EVENT_TOPOLOGY_UPDATE: {
int topology_length;
unsigned char topology[CUBE_MAX_TOPOLOGY_TABLE_SIZE];
topology_length = CubeTopology(topology);
sym = sym_topology;
at(topology_length*4);
for(int i = 0; i < topology_length; ++i) {
SetInt(at[0+i*4],topology[i*2+0]/16);
SetInt(at[1+i*4],topology[i*2+0]%16);
SetInt(at[2+i*4],topology[i*2+1]/16);
SetInt(at[3+i*4],topology[i*2+1]%16);
}
if(!init) {
// TODO: do some initialization stuff (attach flag, color, sensors etc.)
init = true;
}
break;
}
case CUBE_EVENT_SENSOR_UPDATE:
sym = sym_sensor;
at(3);
SetInt(at[0],cube);
SetInt(at[1],param);
SetFloat(at[2],CubeSensorValue(cube,param));
break;
case CUBE_EVENT_COLOR_CHANGED: {
sym = sym_color;
at(4);
SetInt(at[0],cube);
CubeColor c = CubeGetColor(cube);
SetFloat(at[1],c.red/255.);
SetFloat(at[2],c.green/255.);
SetFloat(at[3],c.blue/255.);
break;
}
default:
FLEXT_ASSERT(false);
}
if(sym)
// pass over to main thread
ToQueueAnything(0,sym,at.Count(),at.Atoms());
}
bool CScValue::DbgSetVal(double Value) {
SetFloat(Value);
return true;
}
static void write( PyrSlot *slot, const float val )
{
SetFloat(slot, val);
}
void RenderingEngine::Render(const Entity& object)
{
m_renderProfileTimer.StartInvocation();
GetTexture("displayTexture").BindAsRenderTarget();
//m_window->BindAsRenderTarget();
//m_tempTarget->BindAsRenderTarget();
glClearColor(0.0f,0.0f,0.0f,0.0f);
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
object.RenderAll(m_defaultShader, *this, *m_mainCamera);
for(unsigned int i = 0; i < m_lights.size(); i++)
{
m_activeLight = m_lights[i];
ShadowInfo shadowInfo = m_activeLight->GetShadowInfo();
int shadowMapIndex = 0;
if(shadowInfo.GetShadowMapSizeAsPowerOf2() != 0)
shadowMapIndex = shadowInfo.GetShadowMapSizeAsPowerOf2() - 1;
assert(shadowMapIndex >= 0 && shadowMapIndex < NUM_SHADOW_MAPS);
SetTexture("shadowMap", m_shadowMaps[shadowMapIndex]);
m_shadowMaps[shadowMapIndex].BindAsRenderTarget();
glClearColor(1.0f,1.0f,0.0f,0.0f);
glClear(GL_DEPTH_BUFFER_BIT | GL_COLOR_BUFFER_BIT);
if(shadowInfo.GetShadowMapSizeAsPowerOf2() != 0)
{
m_altCamera.SetProjection(shadowInfo.GetProjection());
ShadowCameraTransform shadowCameraTransform = m_activeLight->CalcShadowCameraTransform(m_mainCamera->GetTransform().GetTransformedPos(),
m_mainCamera->GetTransform().GetTransformedRot());
m_altCamera.GetTransform()->SetPos(shadowCameraTransform.GetPos());
m_altCamera.GetTransform()->SetRot(shadowCameraTransform.GetRot());
m_lightMatrix = BIAS_MATRIX * m_altCamera.GetViewProjection();
SetFloat("shadowVarianceMin", shadowInfo.GetMinVariance());
SetFloat("shadowLightBleedingReduction", shadowInfo.GetLightBleedReductionAmount());
bool flipFaces = shadowInfo.GetFlipFaces();
// const Camera* temp = m_mainCamera;
// m_mainCamera = m_altCamera;
if(flipFaces)
{
glCullFace(GL_FRONT);
}
glEnable(GL_DEPTH_CLAMP);
object.RenderAll(m_shadowMapShader, *this, m_altCamera);
glDisable(GL_DEPTH_CLAMP);
if(flipFaces)
{
glCullFace(GL_BACK);
}
// m_mainCamera = temp;
float shadowSoftness = shadowInfo.GetShadowSoftness();
if(shadowSoftness != 0)
{
BlurShadowMap(shadowMapIndex, shadowSoftness);
}
}
else
{
m_lightMatrix = Matrix4f().InitScale(Vector3f(0,0,0));
SetFloat("shadowVarianceMin", 0.00002f);
SetFloat("shadowLightBleedingReduction", 0.0f);
}
GetTexture("displayTexture").BindAsRenderTarget();
//m_window->BindAsRenderTarget();
// glEnable(GL_SCISSOR_TEST);
// TODO: Make use of scissor test to limit light area
// glScissor(0, 0, 100, 100);
glEnable(GL_BLEND);
glBlendFunc(GL_ONE, GL_ONE);
glDepthMask(GL_FALSE);
glDepthFunc(GL_EQUAL);
object.RenderAll(m_activeLight->GetShader(), *this, *m_mainCamera);
glDepthMask(GL_TRUE);
glDepthFunc(GL_LESS);
glDisable(GL_BLEND);
// glDisable(GL_SCISSOR_TEST);
}
float displayTextureAspect = (float)GetTexture("displayTexture").GetWidth()/(float)GetTexture("displayTexture").GetHeight();
float displayTextureHeightAdditive = displayTextureAspect * GetFloat("fxaaAspectDistortion");
SetVector3f("inverseFilterTextureSize", Vector3f(1.0f/(float)GetTexture("displayTexture").GetWidth(),
1.0f/((float)GetTexture("displayTexture").GetHeight() + displayTextureHeightAdditive), 0.0f));
m_renderProfileTimer.StopInvocation();
m_windowSyncProfileTimer.StartInvocation();
ApplyFilter(m_fxaaFilter, GetTexture("displayTexture"), 0);
m_windowSyncProfileTimer.StopInvocation();
}
void flext_base::px_object::px_float(px_object *obj,t_float f)
{
t_atom a; SetFloat(a,f);
Locker lock(obj->base);
obj->base->CbMethodHandler(obj->index,sym_float,1,&a);
}
PyrObject* ConvertOSCMessage(int inSize, char *inData)
{
char *cmdName = inData;
int cmdNameLen = OSCstrlen(cmdName);
sc_msg_iter msg(inSize - cmdNameLen, inData + cmdNameLen);
int numElems;
if (inSize == cmdNameLen) {
numElems = 0;
} else {
if (!msg.tags) {
numElems = 0;
error("OSC messages must have type tags. %s\n", cmdName);
} else {
numElems = strlen(msg.tags);
}
}
//post("tags %s %d\n", msg.tags, numElems);
VMGlobals *g = gMainVMGlobals;
PyrObject *obj = newPyrArray(g->gc, numElems + 1, 0, false);
PyrSlot *slots = obj->slots;
SetSymbol(slots+0, getsym(cmdName));
for (int i=0; i<numElems; ++i) {
char tag = msg.nextTag();
//post("%d %c\n", i, tag);
switch (tag) {
case 'i' :
SetInt(slots+i+1, msg.geti());
break;
case 'f' :
SetFloat(slots+i+1, msg.getf());
break;
case 'd' :
SetFloat(slots+i+1, msg.getd());
break;
case 's' :
SetSymbol(slots+i+1, getsym(msg.gets()));
//post("sym '%s'\n", slots[i+1].us->name);
break;
case 'b' : // fall through
case 'm' :
SetObject(slots+i+1, (PyrObject*)MsgToInt8Array(msg));
break;
case 'c':
SetChar(slots+i+1, (char)msg.geti());
break;
case 't' :
SetFloat(slots+i+1, OSCToElapsedTime(msg.gett()));
break;
// argument tags without any associated value
case 'T' :
SetTrue(slots+i+1);
msg.count ++;
break;
case 'F' :
SetFalse(slots+i+1);
msg.count ++;
break;
case 'I' :
SetFloat(slots+i+1, dInfinity);
msg.count ++;
break;
case 'N' :
SetNil(slots+i+1);
msg.count ++;
break;
// else add the type tag as a char (jrhb 2009)
default:
SetChar(slots+i+1, tag);
msg.gets();
}
}
obj->size = numElems + 1;
return obj;
}
TBValue::TBValue(float value)
: m_packed_init(0)
{
SetFloat(value);
}
bool AnimaMappedValues::ReadObject(const ptree& objectTree, AnimaScene* scene, bool readName)
{
try
{
if(readName)
SetName(objectTree.get<AnimaString>("AnimaMappedValues.Name"));
for (auto& property : objectTree.get_child("AnimaMappedValues.Properties"))
{
if (property.first == "Property")
{
AnimaString name = property.second.get<AnimaString>("Name");
AnimaString type = property.second.get<AnimaString>("Type");
if(type == "bool")
{
bool value = property.second.get<bool>("Value");
SetBoolean(name, value);
}
else if(type == "float")
{
AFloat value = property.second.get<AFloat>("Value");
SetFloat(name, value);
}
else if(type == "integer")
{
AInt value = property.second.get<AInt>("Value");
SetInteger(name, value);
}
else if(type == "matrix")
{
AnimaMatrix value = property.second.get<AnimaMatrix>("Value");
SetMatrix(name, value);
}
else if(type == "vector")
{
for(auto& valueTree : property.second.get_child("Value"))
{
if(valueTree.first == "AnimaVectorGenerator")
{
ptree generatorTree;
generatorTree.add_child("AnimaVectorGenerator", valueTree.second);
AnimaString generatorName = _uniqueName + generatorTree.get<AnimaString>("AnimaVectorGenerator.Name");
AnimaVectorGenerator* generator = _dataGeneratorManager->GetDataGeneratorOfTypeFromName<AnimaVectorGenerator>(generatorName);
if(generator == nullptr)
generator = _dataGeneratorManager->CreateVectorGenerator(generatorName);
if(generator)
{
if(!generator->ReadObject(generatorTree, scene, false))
return false;
generator->SetGeneratedFromMappedValues(true);
SetVector(name, generator);
}
}
}
}
else if(type == "color")
{
for(auto& valueTree : property.second.get_child("Value"))
{
if(valueTree.first == "AnimaColorGenerator")
{
ptree generatorTree;
generatorTree.add_child("AnimaColorGenerator", valueTree.second);
AnimaString generatorName = _uniqueName + generatorTree.get<AnimaString>("AnimaColorGenerator.Name");
AnimaColorGenerator* generator = _dataGeneratorManager->GetDataGeneratorOfTypeFromName<AnimaColorGenerator>(generatorName);
if(generator == nullptr)
generator = _dataGeneratorManager->CreateColorGenerator(generatorName);
if(generator)
{
if(!generator->ReadObject(generatorTree, scene, false))
return false;
generator->SetGeneratedFromMappedValues(true);
SetColor(name, generator);
}
}
}
}
else if(type == "texture")
{
for(auto& valueTree : property.second.get_child("Value"))
{
if(valueTree.first == "AnimaTextureGenerator")
{
ptree generatorTree;
generatorTree.add_child("AnimaTextureGenerator", valueTree.second);
AnimaString generatorName = _uniqueName + generatorTree.get<AnimaString>("AnimaTextureGenerator.Name");
AnimaTextureGenerator* generator = _dataGeneratorManager->GetDataGeneratorOfTypeFromName<AnimaTextureGenerator>(generatorName);
if(generator == nullptr)
generator = _dataGeneratorManager->CreateTextureGenerator(generatorName);
if(generator)
{
if(!generator->ReadObject(generatorTree, scene, false))
return false;
generator->SetGeneratedFromMappedValues(true);
SetTexture(name, generator);
}
}
}
}
}
}
ptree namedObjectTree = objectTree.get_child("AnimaMappedValues.NamedObject");
return AnimaNamedObject::ReadObject(namedObjectTree, scene, false);
}
catch (boost::property_tree::ptree_bad_path& exception)
{
AnimaLogger::LogMessageFormat("ERROR - Error parsing mapped values: %s", exception.what());
return false;
}
catch (boost::property_tree::ptree_bad_data& exception)
{
AnimaLogger::LogMessageFormat("ERROR - Error parsing mapped values: %s", exception.what());
return false;
}
}
// True for OK, false for cancel
bool Configure_ChaseCam(ChaseCamData &Data)
{
short ItemType;
Rect Bounds;
DialogPtr Dialog = myGetNewDialog(ChaseCam_Dialog, NULL, (WindowPtr)(-1), 0);
assert(Dialog);
ControlHandle Behind_CHdl;
GetDialogItem(Dialog, Behind_Item, &ItemType, (Handle *)&Behind_CHdl, &Bounds);
SetFloat(Behind_CHdl,Data.Behind/FLOAT_WORLD_ONE);
ControlHandle Upward_CHdl;
GetDialogItem(Dialog, Upward_Item, &ItemType, (Handle *)&Upward_CHdl, &Bounds);
SetFloat(Upward_CHdl,Data.Upward/FLOAT_WORLD_ONE);
ControlHandle Rightward_CHdl;
GetDialogItem(Dialog, Rightward_Item, &ItemType, (Handle *)&Rightward_CHdl, &Bounds);
SetFloat(Rightward_CHdl,Data.Rightward/FLOAT_WORLD_ONE);
MacCheckbox PassThruWall_CB(Dialog, PassThruWall_Item, TEST_FLAG(Data.Flags,_ChaseCam_ThroughWalls));
MacCheckbox NeverActive_CB(Dialog, NeverActive_Item, TEST_FLAG(Data.Flags,_ChaseCam_NeverActive));
MacCheckbox OnWhenEntering_CB(Dialog, OnWhenEntering_Item, TEST_FLAG(Data.Flags,_ChaseCam_OnWhenEntering));
ControlHandle Damping_CHdl;
GetDialogItem(Dialog, Damping_Item, &ItemType, (Handle *)&Damping_CHdl, &Bounds);
SetFloat(Damping_CHdl,Data.Damping);
ControlHandle Spring_CHdl;
GetDialogItem(Dialog, Spring_Item, &ItemType, (Handle *)&Spring_CHdl, &Bounds);
SetFloat(Spring_CHdl,Data.Spring);
ControlHandle Opacity_CHdl;
GetDialogItem(Dialog, CC_Opacity_Item, &ItemType, (Handle *)&Opacity_CHdl, &Bounds);
SetFloat(Opacity_CHdl,Data.Opacity);
// Where to make the color picker
Point Center = {-1,-1};
RGBColor NewColor;
// Get void color from OpenGL-parameters data
OGL_ConfigureData& OGLData = Get_OGL_ConfigureData();
MacCheckbox VoidColorOnOff_CB(Dialog, VoidColorOnOff_Item, TEST_FLAG(OGLData.Flags,OGL_Flag_VoidColor));
// Reveal it
#if USE_SHEETS
SetThemeWindowBackground(GetDialogWindow(Dialog), kThemeBrushSheetBackgroundTransparent, false);
ShowSheetWindow(GetDialogWindow(Dialog), ActiveNonFloatingWindow());
#else
SelectWindow(GetDialogWindow(Dialog));
ShowWindow(GetDialogWindow(Dialog));
#endif
bool WillQuit = false;
bool IsOK = false;
short New_Behind = 0, New_Upward = 0, New_Rightward = 0;
float FloatTemp = 0;
bool BadValue;
float New_Damping, New_Spring, New_Opacity;
while(!WillQuit)
{
short ItemHit;
ModalDialog(NULL, &ItemHit);
switch(ItemHit)
{
case OK_Item:
// Check before quitting
BadValue = false;
// Now doing roundoff correctly
// Using a modification of AlexJLS's corrected version
if (GetFloat(Behind_CHdl,FloatTemp))
New_Behind = FloatRoundoff(WORLD_ONE * FloatTemp);
else
BadValue = true;
if (GetFloat(Upward_CHdl,FloatTemp))
New_Upward = FloatRoundoff(WORLD_ONE * FloatTemp);
else
BadValue = true;
if (GetFloat(Rightward_CHdl,FloatTemp))
New_Rightward = FloatRoundoff(WORLD_ONE * FloatTemp);
else
BadValue = true;
if (GetFloat(Damping_CHdl,FloatTemp))
{
// Simple validation of the damping factor
New_Damping = PIN(FloatTemp,-1,1);
if (New_Damping != FloatTemp)
{
BadValue = true;
SetFloat(Damping_CHdl,New_Damping);
}
}
else
BadValue = true;
if (GetFloat(Spring_CHdl,FloatTemp))
{
New_Spring = FloatTemp;
}
else
BadValue = true;
if (GetFloat(Opacity_CHdl,FloatTemp))
{
New_Opacity = PIN(FloatTemp,0,1);
if (New_Opacity != FloatTemp)
{
BadValue = true;
SetFloat(Opacity_CHdl,New_Opacity);
}
}
else
BadValue = true;
// Do validation: will the chase cam be unstable?
if (!BadValue)
{
if (New_Spring >= 0)
{
// Oscillatory case
float NewDampSq = New_Damping*New_Damping;
BadValue = ((NewDampSq + New_Spring) >= 1);
if (BadValue)
{
New_Spring = 1 - NewDampSq;
SetFloat(Spring_CHdl,New_Spring);
}
}
else
{
// Overdamped case
float NewDampAbs = fabs(New_Damping);
BadValue = ((NewDampAbs + sqrt(-New_Spring)) >= 1);
if (BadValue)
{
float Temp = 1 - NewDampAbs;
New_Spring = - Temp*Temp;
SetFloat(Spring_CHdl,New_Spring);
}
}
}
if (BadValue)
{
SysBeep(30);
break;
}
IsOK = true;
WillQuit = true;
break;
case Cancel_Item:
IsOK = false;
WillQuit = true;
break;
case VoidColorSelect_Item:
// Need to set color here so the preview can work properly
if (GetColor(Center,"\pWhat color for the void?",&OGLData.VoidColor,&NewColor))
OGLData.VoidColor = NewColor;
break;
default:
if (PassThruWall_CB.ToggleIfHit(ItemHit)) break;
if (NeverActive_CB.ToggleIfHit(ItemHit)) break;
if (OnWhenEntering_CB.ToggleIfHit(ItemHit)) break;
if (VoidColorOnOff_CB.ToggleIfHit(ItemHit)) break;
break;
}
}
if (IsOK)
{
Data.Behind = New_Behind;
Data.Upward = New_Upward;
Data.Rightward = New_Rightward;
SET_FLAG(Data.Flags,_ChaseCam_ThroughWalls,PassThruWall_CB.GetState());
SET_FLAG(Data.Flags,_ChaseCam_NeverActive,NeverActive_CB.GetState());
SET_FLAG(Data.Flags,_ChaseCam_OnWhenEntering,OnWhenEntering_CB.GetState());
SET_FLAG(OGLData.Flags,OGL_Flag_VoidColor,VoidColorOnOff_CB.GetState());
Data.Damping = New_Damping;
Data.Spring = New_Spring;
Data.Opacity = New_Opacity;
}
// Clean up
#if USE_SHEETS
HideSheetWindow(GetDialogWindow(Dialog));
#else
HideWindow(GetDialogWindow(Dialog));
#endif
DisposeDialog(Dialog);
return IsOK;
}
// True for OK, false for cancel
bool Configure_ChaseCam(ChaseCamData &Data)
{
// Get the window
AutoNibReference Nib (Window_Prefs_ChaseCam);
AutoNibWindow Window (Nib.nibReference (), Window_Prefs_ChaseCam);
// Get the controls
Configure_ChaseCam_HandlerData HandlerData;
HandlerData.BehindCtrl = GetCtrlFromWindow(Window(), 0, Behind_Item);
SetFloat(HandlerData.BehindCtrl,Data.Behind/FLOAT_WORLD_ONE);
HandlerData.UpwardCtrl = GetCtrlFromWindow(Window(), 0, Upward_Item);
SetFloat(HandlerData.UpwardCtrl,Data.Upward/FLOAT_WORLD_ONE);
HandlerData.RightwardCtrl = GetCtrlFromWindow(Window(), 0, Rightward_Item);
SetFloat(HandlerData.RightwardCtrl,Data.Rightward/FLOAT_WORLD_ONE);
HandlerData.DampingCtrl = GetCtrlFromWindow(Window(), 0, Damping_Item);
SetFloat(HandlerData.DampingCtrl,Data.Damping);
HandlerData.SpringCtrl = GetCtrlFromWindow(Window(), 0, Spring_Item);
SetFloat(HandlerData.SpringCtrl,Data.Spring);
HandlerData.CC_OpacityCtrl = GetCtrlFromWindow(Window(), 0, CC_Opacity_Item);
SetFloat(HandlerData.CC_OpacityCtrl,Data.Opacity);
ControlRef PassThruWall_Ctrl = GetCtrlFromWindow(Window(), 0, PassThruWall_Item);
SetControl32BitValue(PassThruWall_Ctrl, !!TEST_FLAG(Data.Flags,_ChaseCam_ThroughWalls));
ControlRef NeverActive_Ctrl = GetCtrlFromWindow(Window(), 0, NeverActive_Item);
SetControl32BitValue(NeverActive_Ctrl, !!TEST_FLAG(Data.Flags,_ChaseCam_NeverActive));
ControlRef OnWhenEntering_Ctrl = GetCtrlFromWindow(Window(), 0, OnWhenEntering_Item);
SetControl32BitValue(OnWhenEntering_Ctrl, !!TEST_FLAG(Data.Flags,_ChaseCam_OnWhenEntering));
// Get void color from OpenGL-parameters data
OGL_ConfigureData& OGLData = Get_OGL_ConfigureData();
ControlRef VoidColorOnOff_Ctrl = GetCtrlFromWindow(Window(), 0, VoidColorOnOff_Item);
SetControl32BitValue(VoidColorOnOff_Ctrl, !!TEST_FLAG(OGLData.Flags,OGL_Flag_VoidColor));
HandlerData.VoidColor = OGLData.VoidColor;
// For making the swatch drawable and hittable
AutoDrawability Drawability;
AutoHittability Hittability;
ControlRef VoidSwatchCtrl = GetCtrlFromWindow(Window(), 0, VoidColorSelect_Item);
Drawability(VoidSwatchCtrl, SwatchDrawer, &HandlerData.VoidColor);
Hittability(VoidSwatchCtrl);
bool IsOK = RunModalDialog(Window(), true, Configure_ChaseCam_Handler, &HandlerData);
if (IsOK)
{
HandlerData.VerifyAndAdjust();
float Temp;
if (GetFloat(HandlerData.BehindCtrl,Temp))
Data.Behind = FloatRoundoff(FLOAT_WORLD_ONE*Temp);
if (GetFloat(HandlerData.UpwardCtrl,Temp));
Data.Upward = FloatRoundoff(FLOAT_WORLD_ONE*Temp);
if (GetFloat(HandlerData.RightwardCtrl,Temp));
Data.Rightward = FloatRoundoff(FLOAT_WORLD_ONE*Temp);
GetFloat(HandlerData.DampingCtrl, Data.Damping);
GetFloat(HandlerData.SpringCtrl, Data.Spring);
GetFloat(HandlerData.CC_OpacityCtrl, Data.Opacity);
SET_FLAG(Data.Flags,_ChaseCam_ThroughWalls,GetControl32BitValue(PassThruWall_Ctrl));
SET_FLAG(Data.Flags,_ChaseCam_NeverActive,GetControl32BitValue(NeverActive_Ctrl));
SET_FLAG(Data.Flags,_ChaseCam_OnWhenEntering,GetControl32BitValue(OnWhenEntering_Ctrl));
SET_FLAG(OGLData.Flags,OGL_Flag_VoidColor,GetControl32BitValue(VoidColorOnOff_Ctrl));
OGLData.VoidColor = HandlerData.VoidColor;
}
return IsOK;
}
void CControlUI::SetAttribute(LPCTSTR pstrName, LPCTSTR pstrValue)
{
// ÊÇ·ñÑùʽ±í
if(m_pManager != NULL) {
LPCTSTR pStyle = m_pManager->GetStyle(pstrValue);
if( pStyle != NULL) {
ApplyAttributeList(pStyle);
return;
}
}
if( _tcsicmp(pstrName, _T("pos")) == 0 ) {
RECT rcPos = { 0 };
LPTSTR pstr = NULL;
rcPos.left = _tcstol(pstrValue, &pstr, 10); ASSERT(pstr);
rcPos.top = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
rcPos.right = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
rcPos.bottom = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
SIZE szXY = {rcPos.left >= 0 ? rcPos.left : rcPos.right, rcPos.top >= 0 ? rcPos.top : rcPos.bottom};
SetFixedXY(szXY);
SetFixedWidth(rcPos.right - rcPos.left);
SetFixedHeight(rcPos.bottom - rcPos.top);
}
else if( _tcsicmp(pstrName, _T("float")) == 0 ) {
CDuiString nValue = pstrValue;
// ¶¯Ì¬¼ÆËãÏà¶Ô±ÈÀý
if(nValue.Find(',') < 0) {
SetFloat(_tcsicmp(pstrValue, _T("true")) == 0);
}
else {
TPercentInfo piFloatPercent = { 0 };
LPTSTR pstr = NULL;
piFloatPercent.left = _tcstod(pstrValue, &pstr); ASSERT(pstr);
piFloatPercent.top = _tcstod(pstr + 1, &pstr); ASSERT(pstr);
piFloatPercent.right = _tcstod(pstr + 1, &pstr); ASSERT(pstr);
piFloatPercent.bottom = _tcstod(pstr + 1, &pstr); ASSERT(pstr);
SetFloatPercent(piFloatPercent);
SetFloat(true);
}
}
else if( _tcsicmp(pstrName, _T("padding")) == 0 ) {
RECT rcPadding = { 0 };
LPTSTR pstr = NULL;
rcPadding.left = _tcstol(pstrValue, &pstr, 10); ASSERT(pstr);
rcPadding.top = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
rcPadding.right = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
rcPadding.bottom = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
SetPadding(rcPadding);
}
else if( _tcsicmp(pstrName, _T("bkcolor")) == 0 || _tcsicmp(pstrName, _T("bkcolor1")) == 0 ) {
while( *pstrValue > _T('\0') && *pstrValue <= _T(' ') ) pstrValue = ::CharNext(pstrValue);
if( *pstrValue == _T('#')) pstrValue = ::CharNext(pstrValue);
LPTSTR pstr = NULL;
DWORD clrColor = _tcstoul(pstrValue, &pstr, 16);
SetBkColor(clrColor);
}
else if( _tcsicmp(pstrName, _T("bkcolor2")) == 0 ) {
while( *pstrValue > _T('\0') && *pstrValue <= _T(' ') ) pstrValue = ::CharNext(pstrValue);
if( *pstrValue == _T('#')) pstrValue = ::CharNext(pstrValue);
LPTSTR pstr = NULL;
DWORD clrColor = _tcstoul(pstrValue, &pstr, 16);
SetBkColor2(clrColor);
}
else if( _tcsicmp(pstrName, _T("bkcolor3")) == 0 ) {
while( *pstrValue > _T('\0') && *pstrValue <= _T(' ') ) pstrValue = ::CharNext(pstrValue);
if( *pstrValue == _T('#')) pstrValue = ::CharNext(pstrValue);
LPTSTR pstr = NULL;
DWORD clrColor = _tcstoul(pstrValue, &pstr, 16);
SetBkColor3(clrColor);
}
else if( _tcsicmp(pstrName, _T("forecolor")) == 0 ) {
while( *pstrValue > _T('\0') && *pstrValue <= _T(' ') ) pstrValue = ::CharNext(pstrValue);
if( *pstrValue == _T('#')) pstrValue = ::CharNext(pstrValue);
LPTSTR pstr = NULL;
DWORD clrColor = _tcstoul(pstrValue, &pstr, 16);
SetForeColor(clrColor);
}
else if( _tcsicmp(pstrName, _T("bordercolor")) == 0 ) {
if( *pstrValue == _T('#')) pstrValue = ::CharNext(pstrValue);
LPTSTR pstr = NULL;
DWORD clrColor = _tcstoul(pstrValue, &pstr, 16);
SetBorderColor(clrColor);
}
else if( _tcsicmp(pstrName, _T("focusbordercolor")) == 0 ) {
if( *pstrValue == _T('#')) pstrValue = ::CharNext(pstrValue);
LPTSTR pstr = NULL;
DWORD clrColor = _tcstoul(pstrValue, &pstr, 16);
SetFocusBorderColor(clrColor);
}
else if( _tcsicmp(pstrName, _T("colorhsl")) == 0 ) SetColorHSL(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("bordersize")) == 0 ) {
CDuiString nValue = pstrValue;
if(nValue.Find(',') < 0) {
SetBorderSize(_ttoi(pstrValue));
RECT rcPadding = {0};
SetBorderSize(rcPadding);
}
else {
RECT rcPadding = { 0 };
LPTSTR pstr = NULL;
rcPadding.left = _tcstol(pstrValue, &pstr, 10); ASSERT(pstr);
rcPadding.top = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
rcPadding.right = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
rcPadding.bottom = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
SetBorderSize(rcPadding);
}
}
else if( _tcsicmp(pstrName, _T("leftbordersize")) == 0 ) SetLeftBorderSize(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("topbordersize")) == 0 ) SetTopBorderSize(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("rightbordersize")) == 0 ) SetRightBorderSize(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("bottombordersize")) == 0 ) SetBottomBorderSize(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("borderstyle")) == 0 ) SetBorderStyle(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("borderround")) == 0 ) {
SIZE cxyRound = { 0 };
LPTSTR pstr = NULL;
cxyRound.cx = _tcstol(pstrValue, &pstr, 10); ASSERT(pstr);
cxyRound.cy = _tcstol(pstr + 1, &pstr, 10); ASSERT(pstr);
SetBorderRound(cxyRound);
}
else if( _tcsicmp(pstrName, _T("bkimage")) == 0 ) SetBkImage(pstrValue);
else if( _tcsicmp(pstrName, _T("foreimage")) == 0 ) SetForeImage(pstrValue);
else if( _tcsicmp(pstrName, _T("width")) == 0 ) SetFixedWidth(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("height")) == 0 ) SetFixedHeight(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("minwidth")) == 0 ) SetMinWidth(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("minheight")) == 0 ) SetMinHeight(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("maxwidth")) == 0 ) SetMaxWidth(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("maxheight")) == 0 ) SetMaxHeight(_ttoi(pstrValue));
else if( _tcsicmp(pstrName, _T("name")) == 0 ) SetName(pstrValue);
else if( _tcsicmp(pstrName, _T("drag")) == 0 ) SetDragEnable(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("drop")) == 0 ) SetDropEnable(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("resourcetext")) == 0 ) SetResourceText(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("text")) == 0 ) SetText(pstrValue);
else if( _tcsicmp(pstrName, _T("tooltip")) == 0 ) SetToolTip(pstrValue);
else if( _tcsicmp(pstrName, _T("userdata")) == 0 ) SetUserData(pstrValue);
else if( _tcsicmp(pstrName, _T("enabled")) == 0 ) SetEnabled(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("mouse")) == 0 ) SetMouseEnabled(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("keyboard")) == 0 ) SetKeyboardEnabled(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("visible")) == 0 ) SetVisible(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("float")) == 0 ) SetFloat(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("shortcut")) == 0 ) SetShortcut(pstrValue[0]);
else if( _tcsicmp(pstrName, _T("menu")) == 0 ) SetContextMenuUsed(_tcsicmp(pstrValue, _T("true")) == 0);
else if( _tcsicmp(pstrName, _T("cursor")) == 0 && pstrValue) {
if( _tcsicmp(pstrValue, _T("arrow")) == 0 ) SetCursor(DUI_ARROW);
else if( _tcsicmp(pstrValue, _T("ibeam")) == 0 ) SetCursor(DUI_IBEAM);
else if( _tcsicmp(pstrValue, _T("wait")) == 0 ) SetCursor(DUI_WAIT);
else if( _tcsicmp(pstrValue, _T("cross")) == 0 ) SetCursor(DUI_CROSS);
else if( _tcsicmp(pstrValue, _T("uparrow")) == 0 ) SetCursor(DUI_UPARROW);
else if( _tcsicmp(pstrValue, _T("size")) == 0 ) SetCursor(DUI_SIZE);
else if( _tcsicmp(pstrValue, _T("icon")) == 0 ) SetCursor(DUI_ICON);
else if( _tcsicmp(pstrValue, _T("sizenwse")) == 0 ) SetCursor(DUI_SIZENWSE);
else if( _tcsicmp(pstrValue, _T("sizenesw")) == 0 ) SetCursor(DUI_SIZENESW);
else if( _tcsicmp(pstrValue, _T("sizewe")) == 0 ) SetCursor(DUI_SIZEWE);
else if( _tcsicmp(pstrValue, _T("sizens")) == 0 ) SetCursor(DUI_SIZENS);
else if( _tcsicmp(pstrValue, _T("sizeall")) == 0 ) SetCursor(DUI_SIZEALL);
else if( _tcsicmp(pstrValue, _T("no")) == 0 ) SetCursor(DUI_NO);
else if( _tcsicmp(pstrValue, _T("hand")) == 0 ) SetCursor(DUI_HAND);
}
else if( _tcsicmp(pstrName, _T("virtualwnd")) == 0 ) SetVirtualWnd(pstrValue);
else if( _tcsicmp(pstrName, _T("innerstyle")) == 0 ) {
CDuiString sXmlData = pstrValue;
sXmlData.Replace(_T("""), _T("\""));
LPCTSTR pstrList = sXmlData.GetData();
CDuiString sItem;
CDuiString sValue;
while( *pstrList != _T('\0') ) {
sItem.Empty();
sValue.Empty();
while( *pstrList != _T('\0') && *pstrList != _T('=') ) {
LPTSTR pstrTemp = ::CharNext(pstrList);
while( pstrList < pstrTemp) {
sItem += *pstrList++;
}
}
ASSERT( *pstrList == _T('=') );
if( *pstrList++ != _T('=') ) return;
ASSERT( *pstrList == _T('\"') );
if( *pstrList++ != _T('\"') ) return;
while( *pstrList != _T('\0') && *pstrList != _T('\"') ) {
LPTSTR pstrTemp = ::CharNext(pstrList);
while( pstrList < pstrTemp) {
sValue += *pstrList++;
}
}
ASSERT( *pstrList == _T('\"') );
if( *pstrList++ != _T('\"') ) return;
SetAttribute(sItem, sValue);
if( *pstrList++ != _T(' ') && *pstrList++ != _T(',') ) return;
}
}
}
void flext_base::cb_float(flext_hdr *c,t_float f)
{
t_atom a; SetFloat(a,f);
Locker lock(c);
thisObject(c)->CbMethodHandler(0,sym_float,1,&a);
}
bool ConfVarNumber::Assign(lua_State *L)
{
SetFloat( (float) lua_tonumber(L, -1) );
return true;
}
void AnimaRenderer::SetFloat(const char* propertyName, AFloat value)
{
AnimaString str(propertyName, _allocator);
SetFloat(str, value);
}
bool NFCRecord::SetFloat(const int nRow, const std::string& strColTag, const double value)
{
int nCol = GetCol(strColTag);
return SetFloat(nRow, nCol, value);
}
//-----------------------------------------------------------------------------
// Purpose: Converts the variant to a new type. This function defines which I/O
// types can be automatically converted between. Connections that require
// an unsupported conversion will cause an error message at runtime.
// Input : newType - the type to convert to
// Output : Returns true on success, false if the conversion is not legal
//-----------------------------------------------------------------------------
bool variant_t::Convert( fieldtype_t newType )
{
if ( newType == fieldType )
{
return true;
}
//
// Converting to a null value is easy.
//
if ( newType == FIELD_VOID )
{
Set( FIELD_VOID, NULL );
return true;
}
//
// FIELD_INPUT accepts the variant type directly.
//
if ( newType == FIELD_INPUT )
{
return true;
}
switch ( fieldType )
{
case FIELD_INTEGER:
{
switch ( newType )
{
case FIELD_FLOAT:
{
SetFloat( (float) iVal );
return true;
}
case FIELD_BOOLEAN:
{
SetBool( iVal != 0 );
return true;
}
}
break;
}
case FIELD_FLOAT:
{
switch ( newType )
{
case FIELD_INTEGER:
{
SetInt( (int) flVal );
return true;
}
case FIELD_BOOLEAN:
{
SetBool( flVal != 0 );
return true;
}
}
break;
}
//
// Everyone must convert from FIELD_STRING if possible, since
// parameter overrides are always passed as strings.
//
case FIELD_STRING:
{
switch ( newType )
{
case FIELD_INTEGER:
{
if (iszVal != NULL_STRING)
{
SetInt(atoi(STRING(iszVal)));
}
else
{
SetInt(0);
}
return true;
}
case FIELD_FLOAT:
{
if (iszVal != NULL_STRING)
{
SetFloat(atof(STRING(iszVal)));
}
else
{
SetFloat(0);
}
return true;
}
case FIELD_BOOLEAN:
{
if (iszVal != NULL_STRING)
{
SetBool( atoi(STRING(iszVal)) != 0 );
}
else
{
SetBool(false);
}
return true;
}
case FIELD_VECTOR:
{
Vector tmpVec = vec3_origin;
if (sscanf(STRING(iszVal), "[%f %f %f]", &tmpVec[0], &tmpVec[1], &tmpVec[2]) == 0)
{
// Try sucking out 3 floats with no []s
sscanf(STRING(iszVal), "%f %f %f", &tmpVec[0], &tmpVec[1], &tmpVec[2]);
}
SetVector3D( tmpVec );
return true;
}
case FIELD_COLOR32:
{
int nRed = 0;
int nGreen = 0;
int nBlue = 0;
int nAlpha = 255;
sscanf(STRING(iszVal), "%d %d %d %d", &nRed, &nGreen, &nBlue, &nAlpha);
SetColor32( nRed, nGreen, nBlue, nAlpha );
return true;
}
case FIELD_EHANDLE:
{
// convert the string to an entity by locating it by classname
CBaseEntity *ent = NULL;
if ( iszVal != NULL_STRING )
{
// FIXME: do we need to pass an activator in here?
ent = gEntList.FindEntityByName( NULL, iszVal );
}
SetEntity( ent );
return true;
}
}
break;
}
case FIELD_EHANDLE:
{
switch ( newType )
{
case FIELD_STRING:
{
// take the entities targetname as the string
string_t iszStr = NULL_STRING;
if ( eVal != NULL )
{
SetString( eVal->GetEntityName() );
}
return true;
}
}
break;
}
}
// invalid conversion
return false;
}
static void write( PyrSlot *slot, const double val )
{
// NOTE: the signature actually reads SetFloat(PyrSlot*, double):
SetFloat(slot, val);
}
int prEvent_Delta(struct VMGlobals *g, int numArgsPushed)
{
PyrSlot *a, key, dur, stretch, delta;
double fdur, fstretch;
int err;
PyrClass *restClass = getsym("Rest")->u.classobj;
PyrSlot *slot;
a = g->sp; // dict
SetSymbol(&key, s_delta);
identDict_lookup(slotRawObject(a), &key, calcHash(&key), &delta);
if (NotNil(&delta)) {
if (isKindOfSlot(&delta, restClass)) {
slot = slotRawObject(&delta)->slots;
err = slotDoubleVal(slot, &fdur);
} else {
err = slotDoubleVal(&delta, &fdur);
}
if (err) {
return err;
} else {
SetFloat(a, fdur);
return errNone;
}
} else {
SetSymbol(&key, s_dur);
identDict_lookup(slotRawObject(a), &key, calcHash(&key), &dur);
err = slotDoubleVal(&dur, &fdur);
if (err) {
if (IsNil(&dur)) {
SetNil(g->sp);
return errNone;
} else if (isKindOfSlot(&dur, restClass)) {
slot = slotRawObject(&dur)->slots;
err = slotDoubleVal(slot, &fdur);
if (err)
return err;
} else {
return errWrongType;
}
}
SetSymbol(&key, s_stretch);
identDict_lookup(slotRawObject(a), &key, calcHash(&key), &stretch);
err = slotDoubleVal(&stretch, &fstretch);
if (err) {
if (NotNil(&stretch)) {
if (isKindOfSlot(&stretch, restClass)) {
slot = slotRawObject(&stretch)->slots;
err = slotDoubleVal(slot, &fstretch);
if (err) return err;
} else {
return errWrongType;
}
} else {
SetFloat(a, fdur);
return errNone;
}
}
SetFloat(a, fdur * fstretch);
}
return errNone;
}
int processident(char *token)
{
char c;
PyrSymbol *sym;
PyrSlot slot;
PyrParseNode *node;
c = token[0];
zzval = -1;
#if DEBUGLEX
if (gDebugLexer) postfl("word: '%s'\n",token);
#endif
/*
strcpy(uptoken, token);
for (str = uptoken; *str; ++str) {
if (*str >= 'a' && *str <= 'z') *str += 'A' - 'a';
}*/
if (token[0] == '_') {
if (token[1] == 0) {
node = newPyrCurryArgNode();
zzval = (long)node;
return CURRYARG;
} else {
sym = getsym(token);
SetSymbol(&slot, sym);
node = newPyrSlotNode(&slot);
zzval = (long)node;
return PRIMITIVENAME;
}
}
if (token[0] >= 'A' && token[0] <= 'Z') {
sym = getsym(token);
SetSymbol(&slot, sym);
node = newPyrSlotNode(&slot);
zzval = (long)node;
#if DEBUGLEX
if (gDebugLexer) postfl("CLASSNAME: '%s'\n",token);
#endif
return CLASSNAME;
}
if (strcmp("var",token) ==0) return VAR;
if (strcmp("arg",token) ==0) return ARG;
if (strcmp("classvar",token) ==0) return CLASSVAR;
if (strcmp("const",token) ==0) return SC_CONST;
if (strcmp("while",token) ==0) {
sym = getsym(token);
SetSymbol(&slot, sym);
node = newPyrSlotNode(&slot);
zzval = (long)node;
return WHILE;
}
if (strcmp("pi",token) ==0) {
SetFloat(&slot, pi);
node = newPyrSlotNode(&slot);
zzval = (long)node;
return PIE;
}
if (strcmp("true",token) ==0) {
SetTrue(&slot);
node = newPyrSlotNode(&slot);
zzval = (long)node;
return TRUEOBJ;
}
if (strcmp("false",token) ==0) {
SetFalse(&slot);
node = newPyrSlotNode(&slot);
zzval = (long)node;
return FALSEOBJ;
}
if (strcmp("nil",token) ==0) {
SetNil(&slot);
node = newPyrSlotNode(&slot);
zzval = (long)node;
return NILOBJ;
}
if (strcmp("inf",token) ==0) {
SetFloat(&slot, std::numeric_limits<double>::infinity());
node = newPyrSlotNode(&slot);
zzval = (long)node;
return SC_FLOAT;
}
sym = getsym(token);
SetSymbol(&slot, sym);
node = newPyrSlotNode(&slot);
zzval = (long)node;
return NAME;
}
void mlp::map(int argc, const t_atom *argv)
{
const data_type data_type = get_data_type();
GRT::UINT numSamples = data_type == LABELLED_CLASSIFICATION ? classification_data.getNumSamples() : regression_data.getNumSamples();
if (numSamples == 0)
{
flext::error("no observations added, use 'add' to add training data");
return;
}
if (grt_mlp.getTrained() == false)
{
flext::error("model has not been trained, use 'train' to train the model");
return;
}
GRT::UINT numInputNeurons = grt_mlp.getNumInputNeurons();
GRT::VectorDouble query(numInputNeurons);
if (argc < 0 || (unsigned)argc != numInputNeurons)
{
flext::error("invalid input length, expected %d, got %d", numInputNeurons, argc);
}
for (uint32_t index = 0; index < (uint32_t)argc; ++index)
{
double value = GetAFloat(argv[index]);
query[index] = value;
}
bool success = grt_mlp.predict(query);
if (success == false)
{
flext::error("unable to map input");
return;
}
// TODO: add probs to attributes
if (grt_mlp.getClassificationModeActive())
{
GRT::VectorDouble likelihoods = grt_mlp.getClassLikelihoods();
GRT::vector<GRT::UINT> labels = classification_data.getClassLabels();
GRT::UINT classification = grt_mlp.getPredictedClassLabel();
if (likelihoods.size() != labels.size())
{
flext::error("labels / likelihoods size mismatch");
}
else
{
AtomList probs;
for (uid_t count = 0; count < labels.size(); ++count)
{
t_atom label_a;
t_atom likelihood_a;
// Need to call SetDouble() first or label_a gets corrupted. Bug in Flext?
SetDouble(&likelihood_a, likelihoods[count]);
SetInt(label_a, labels[count]);
probs.Append(label_a);
probs.Append(likelihood_a);
}
ToOutAnything(1, s_probs, probs);
}
ToOutInt(0, classification);
}
else if (grt_mlp.getRegressionModeActive())
{
GRT::VectorDouble regression_data = grt_mlp.getRegressionData();
GRT::VectorDouble::size_type numOutputDimensions = regression_data.size();
if (numOutputDimensions != grt_mlp.getNumOutputNeurons())
{
flext::error("invalid output dimensions: %d", numOutputDimensions);
return;
}
AtomList result;
for (uint32_t index = 0; index < numOutputDimensions; ++index)
{
t_atom value_a;
double value = regression_data[index];
SetFloat(value_a, value);
result.Append(value_a);
}
ToOutList(0, result);
}
}
int prElapsedTime(struct VMGlobals *g, int numArgsPushed)
{
SetFloat(g->sp, elapsedTime());
return errNone;
}
CCharVariable& CCharVariable::operator =(const double Value)
{
SetFloat(Value);
return *this;
}
void* TempoClock::Run()
{
//printf("->TempoClock::Run\n");
pthread_mutex_lock (&gLangMutex);
while (mRun) {
assert(mQueue->size);
//printf("tempo %g dur %g beats %g\n", mTempo, mBeatDur, mBeats);
//printf("wait until there is something in scheduler\n");
// wait until there is something in scheduler
while (mQueue->size == 1) {
//printf("wait until there is something in scheduler\n");
pthread_cond_wait (&mCondition, &gLangMutex);
//printf("mRun a %d\n", mRun);
if (!mRun) goto leave;
}
//printf("wait until an event is ready\n");
// wait until an event is ready
double elapsedBeats;
do {
elapsedBeats = ElapsedBeats();
if (elapsedBeats >= slotRawFloat(mQueue->slots)) break;
struct timespec abstime;
//doubleToTimespec(mQueue->slots->uf, &abstime);
//printf("event ready at %g . elapsed beats %g\n", mQueue->slots->uf, elapsedBeats);
double wakeTime = BeatsToSecs(slotRawFloat(mQueue->slots));
ElapsedTimeToTimespec(wakeTime, &abstime);
//printf("wait until an event is ready. wake %g now %g\n", wakeTime, elapsedTime());
pthread_cond_timedwait (&mCondition, &gLangMutex, &abstime);
//printf("mRun b %d\n", mRun);
if (!mRun) goto leave;
//printf("time diff %g\n", elapsedTime() - mQueue->slots->uf);
} while (mQueue->size > 1);
//printf("perform all events that are ready %d %.9f\n", mQueue->size, elapsedBeats);
// perform all events that are ready
//printf("perform all events that are ready\n");
while (mQueue->size > 1 && elapsedBeats >= slotRawFloat(mQueue->slots)) {
double delta;
PyrSlot task;
//printf("while %.6f >= %.6f\n", elapsedBeats, mQueue->slots->uf);
getheap(g, (PyrObject*)mQueue, &mBeats, &task);
if (isKindOfSlot(&task, class_thread)) {
SetNil(&slotRawThread(&task)->nextBeat);
}
slotCopy((++g->sp), &task);
SetFloat(++g->sp, mBeats);
SetFloat(++g->sp, BeatsToSecs(mBeats));
++g->sp; SetObject(g->sp, mTempoClockObj);
runAwakeMessage(g);
long err = slotDoubleVal(&g->result, &delta);
if (!err) {
// add delta time and reschedule
double beats = mBeats + delta;
Add(beats, &task);
}
}
}
leave:
//printf("<-TempoClock::Run\n");
pthread_mutex_unlock (&gLangMutex);
return 0;
}
optixu::Context Scene::GetContext()
{
// Context is not valid without a model, as we don't know which extension
// specific code to load until
// the model is selected.
if (!m_model) return m_context;
try
{
if (!m_context.get())
{
GLenum err = glewInit();
if (GLEW_OK != err)
{
std::cout << "Error initializing GLEW: " << glewGetErrorString(err)
<< std::endl;
}
unsigned int deviceCount = 0;
rtDeviceGetDeviceCount(&deviceCount);
m_context = optixu::Context::create();
PtxManager::SetupContext(m_model->GetPTXPrefix(), m_context);
unsigned int optixVersion;
rtGetVersion(&optixVersion);
std::cout << "OptiX Version: " << optixVersion << std::endl;
// Ray Type 0 - Primary rays that intersect actual geometry. Closest
// hit programs determine exactly how the geometry is handled.
// Ray Type 1 - Rays that find the current element and evaluate the
// scalar
// value at a point.
// Ray Type 2 - Rays that perform volume rendering.
m_context->setRayTypeCount(3);
// Setup Lighting
// TODO - Move this into the base
// Overall goal will be to have an OptixScene, which handles setting up
// the
// context and the lighting. OptixSceneViews will allow different
// access to the
// same scene.
m_context["ambientColor"]->setFloat(m_ambientLightColor.Red(),
m_ambientLightColor.Green(),
m_ambientLightColor.Blue());
// std::list<boost::shared_ptr<DirectionalLight>> allDirectionalLights;
// std::list<boost::shared_ptr<PointLight>> allPointLights;
// std::cout << "Total Lights: " << m_allLights.size() << std::endl;
// for (std::list<boost::shared_ptr<Light>>::iterator iter =
// m_allLights.begin();
// iter != m_allLights.end(); ++iter)
// {
// auto asDirectional =
// boost::dynamic_pointer_cast<DirectionalLight>(*iter);
// auto asPointLight = boost::dynamic_pointer_cast<PointLight>(*iter);
// if (asDirectional)
// {
// allDirectionalLights.push_back(asDirectional);
// }
// else if (asPointLight)
// {
// allPointLights.push_back(asPointLight);
// }
// }
// Setup Directional Lights.
// Setup Point Lights.
optixu::Buffer lightPositionBuffer = m_context->createBuffer(
RT_BUFFER_INPUT, RT_FORMAT_FLOAT, m_allLights.size() * 3);
m_context["lightPosition"]->set(lightPositionBuffer);
float* positionData = static_cast<float*>(lightPositionBuffer->map());
optixu::Buffer lightColorBuffer = m_context->createBuffer(
RT_BUFFER_INPUT, RT_FORMAT_FLOAT, m_allLights.size() * 3);
m_context["lightColor"]->set(lightColorBuffer);
float* colorData = static_cast<float*>(lightColorBuffer->map());
int i = 0;
for (std::list<boost::shared_ptr<Light>>::const_iterator iter =
m_allLights.begin();
iter != m_allLights.end(); ++iter)
{
positionData[i] = static_cast<float>((*iter)->Position().x());
positionData[i + 1] = static_cast<float>((*iter)->Position().y());
positionData[i + 2] = static_cast<float>((*iter)->Position().z());
colorData[i] = (*iter)->GetColor().Red();
colorData[i + 1] = (*iter)->GetColor().Green();
colorData[i + 2] = (*iter)->GetColor().Blue();
i += 3;
}
lightPositionBuffer->unmap();
lightColorBuffer->unmap();
if (GetModel())
{
GetModel()->CalculateExtents();
SetFloat(m_context["VolumeMinExtent"], GetModel()->MinExtent());
SetFloat(m_context["VolumeMaxExtent"], GetModel()->MaxExtent());
m_context["ModelDimension"]->setInt(GetModel()->GetModelDimension());
// Version 2.0 Interface.
GetModel()->CopyToOptiX(m_context);
}
m_context->setPrintLaunchIndex(-1, -1, -1);
//// Miss program
// m_context->setMissProgram( 0, PtxManager::LoadProgram(m_context,
// "ElVis.cu.ptx", "miss" ) );
// m_context["bg_color"]->setFloat( 1.0f, 1.0f, 1.0f );
m_optixDataDirty = true;
SynchronizeWithOptiXIfNeeded();
OnSceneInitialized(*this);
}
}
catch (optixu::Exception& e)
{
std::cout << "Exception encountered setting up the scene." << std::endl;
std::cerr << e.getErrorString() << std::endl;
std::cout << e.getErrorString().c_str() << std::endl;
}
return m_context;
}
PListValue::PListValue(float value) :
type_(PLVT_NONE)
{
SetFloat(value);
}
inline MsgBundle &Add(flext_base *th,int o,float dt)
{
t_atom at;
SetFloat(at,dt);
return Add(th,o,sym_float,1,&at);
}