void AllTextures::Parse_Script(std::ostream &os){
{
std::map<std::string,TextureMap*>*all_maps=maps.get_map();
typename std::map<std::string,TextureMap*>::iterator it = all_maps->begin();
TextureMap* map;
while (it != all_maps->end()) {
map=it->second;
map->Save_script(folder_path+map->path);
os<<"TextureMap:"<<std::endl;
os<<" ScriptPath:"<<std::endl;
os<<" "+map->path<<std::endl;
it++;
}
}
{
std::map<std::string,MapTree<TextureMap, Texture>* >*all_dirs=dirs.get_map();
typename std::map<std::string,MapTree<TextureMap, Texture>* >::iterator it=all_dirs->begin();
AllTextures* dir;
while (it != all_dirs->end()) {
dir=dynamic_cast<AllTextures*>(it->second);
dir->Save_script(folder_path+dir->path);
os<<"TextureDir:"<<std::endl;
os<<" ScriptPath:"<<std::endl;
os<<" "+dir->path<<std::endl;
it++;
}
}
}
void State::initializeZeroTextures(const TextureMap &zeroTextures)
{
for (TextureMap::const_iterator i = zeroTextures.begin(); i != zeroTextures.end(); i++)
{
TextureBindingVector &samplerTextureArray = mSamplerTextures[i->first];
for (size_t textureUnit = 0; textureUnit < samplerTextureArray.size(); ++textureUnit)
{
samplerTextureArray[textureUnit].set(i->second.get());
}
}
}
TextureMap & getTextureMap() {
static TextureMap map;
static bool registeredShutdown = false;
if (!registeredShutdown) {
Platform::addShutdownHook([&]{
map.clear();
});
registeredShutdown = true;
}
return map;
}
Tree::Tree(const std::string& name, double initialLength, double initialThickness,
int initialBranches, int leavesPerBranch, int leafStartLevel,
double thicknessReduction, double lengthReduction, int recursiveDepth, int seed)
: SceneNode(name)
{
totalBranches = 0;
totalLeaves = 0;
::initialLength = initialLength;
::initialThickness = initialThickness;
::initialBranches = initialBranches;
::leavesPerBranch = leavesPerBranch;
::leafStartLevel = leafStartLevel;
::thicknessReduction = thicknessReduction;
::lengthReduction = lengthReduction;
::recursiveDepth = recursiveDepth;
wood.bump("woodbump.png");
srand( seed );
Branch* trunk = new Branch("Trunk", 0, initialThickness, initialLength);
trunk->rotate('x', -90);
add_child(trunk);
//std::cerr << "Total Branches: " << totalBranches
// << " Total Leaves: " << totalLeaves << std::endl;
}
void State::detachTexture(const TextureMap &zeroTextures, GLuint texture)
{
// Textures have a detach method on State rather than a simple
// removeBinding, because the zero/null texture objects are managed
// separately, and don't have to go through the Context's maps or
// the ResourceManager.
// [OpenGL ES 2.0.24] section 3.8 page 84:
// If a texture object is deleted, it is as if all texture units which are bound to that texture object are
// rebound to texture object zero
for (TextureBindingMap::iterator bindingVec = mSamplerTextures.begin(); bindingVec != mSamplerTextures.end(); bindingVec++)
{
GLenum textureType = bindingVec->first;
TextureBindingVector &textureVector = bindingVec->second;
for (size_t textureIdx = 0; textureIdx < textureVector.size(); textureIdx++)
{
BindingPointer<Texture> &binding = textureVector[textureIdx];
if (binding.id() == texture)
{
auto it = zeroTextures.find(textureType);
ASSERT(it != zeroTextures.end());
// Zero textures are the "default" textures instead of NULL
binding.set(it->second.get());
}
}
}
// [OpenGL ES 2.0.24] section 4.4 page 112:
// If a texture object is deleted while its image is attached to the currently bound framebuffer, then it is
// as if Texture2DAttachment had been called, with a texture of 0, for each attachment point to which this
// image was attached in the currently bound framebuffer.
if (mReadFramebuffer)
{
mReadFramebuffer->detachTexture(texture);
}
if (mDrawFramebuffer)
{
mDrawFramebuffer->detachTexture(texture);
}
}
/** Evict textures in order to reduce texture memory usage. Textures
* will be evicted until the total size of textures managed by this
* texture loader is less than or equal to desired memory. Least recently
* used textures are evicted first. No texture with a last used value
* greater than mostRecentAllowed will be evicted, even if it means that
* the desired memory target can't be reached.
*
* Evict textures must be called from a thread in which a GL context
* is current (typically the display thread.) It can take some time to
* process all textures, so it shouldn't be called frequently (i.e.
* once a frame is too often.)
*
* \return the total size of all textures remaining
*/
v_uint64
TextureMapLoader::evictTextures(v_uint64 desiredMemory, v_int64 mostRecentAllowed)
{
#if DEBUG_EVICTION
// Show all textures managed by this loader
for (TextureTable::const_iterator iter = m_textures.begin(); iter != m_textures.end(); ++iter)
{
VESTA_LOG("Texture: %s, mem: %.2f", iter->second.ptr()->name().c_str(), double(iter->second.ptr()->memoryUsage()) / (1024*1024));
}
#endif
v_uint64 textureMemory = textureMemoryUsed();
// Early out if the memory usage target is already met
if (textureMemory < desiredMemory)
{
return textureMemory;
}
// Create a list of textures sorted such that least recently used textures are first.
vector<TextureMap*> sortedTextures;
for (TextureTable::const_iterator iter = m_textures.begin(); iter != m_textures.end(); ++iter)
{
sortedTextures.push_back(iter->second.ptr());
}
sort(sortedTextures.begin(), sortedTextures.end(), TextureAgePredicate());
// Evict textures until we reach the memory target
for (vector<TextureMap*>::const_iterator iter = sortedTextures.begin();
iter != sortedTextures.end() && (*iter)->lastUsed() <= mostRecentAllowed && textureMemory > desiredMemory;
++iter)
{
TextureMap* t = *iter;
if (t->isResident())
{
#if DEBUG_EVICTION
VESTA_LOG("evict %s @ %d", t->name().c_str(), (int) t->lastUsed());
#endif
textureMemory -= t->memoryUsage();
t->evict();
}
}
return textureMemory;
}
Scene::Scene(const std::string &fileName,uint width, uint height ,const int aType ) {
accelType = aType;
extMeshCache = new ExtMeshCache();
texMapCache = new TextureMapCache();
SDL_LOG("Reading scene: " << fileName);
scnProp = new Properties(fileName);
//--------------------------------------------------------------------------
// Read camera position and target
//--------------------------------------------------------------------------
std::vector<float> vf = GetParameters(*scnProp, "scene.camera.lookat", 6, "10.0 0.0 0.0 0.0 0.0 0.0");
Point o(vf.at(0), vf.at(1), vf.at(2));
Point t(vf.at(3), vf.at(4), vf.at(5));
SDL_LOG("Camera postion: " << o);
SDL_LOG("Camera target: " << t);
vf = GetParameters(*scnProp, "scene.camera.up", 3, "0.0 0.0 0.1");
const Vector up(vf.at(0), vf.at(1), vf.at(2));
camera = new PerspectiveCamera(o, t, up);
camera->lensRadius = scnProp->GetFloat("scene.camera.lensradius", 0.f);
camera->focalDistance = scnProp->GetFloat("scene.camera.focaldistance", 10.f);
camera->fieldOfView = scnProp->GetFloat("scene.camera.fieldofview", 45.f);
// Check if camera motion blur is enabled
if (scnProp->GetInt("scene.camera.motionblur.enable", 0)) {
camera->motionBlur = true;
vf = GetParameters(*scnProp, "scene.camera.motionblur.lookat", 6, "10.0 1.0 0.0 0.0 1.0 0.0");
camera->mbOrig = Point(vf.at(0), vf.at(1), vf.at(2));
camera->mbTarget = Point(vf.at(3), vf.at(4), vf.at(5));
vf = GetParameters(*scnProp, "scene.camera.motionblur.up", 3, "0.0 0.0 0.1");
camera->mbUp = Vector(vf.at(0), vf.at(1), vf.at(2));
}
//--------------------------------------------------------------------------
// Read all materials
//--------------------------------------------------------------------------
std::vector<std::string> matKeys = scnProp->GetAllKeys("scene.materials.");
if (matKeys.size() == 0)
throw std::runtime_error("No material definition found");
for (std::vector<std::string>::const_iterator matKey = matKeys.begin(); matKey != matKeys.end(); ++matKey) {
const std::string &key = *matKey;
const std::string matType = Properties::ExtractField(key, 2);
if (matType == "")
throw std::runtime_error("Syntax error in " + key);
const std::string matName = Properties::ExtractField(key, 3);
if (matName == "")
throw std::runtime_error("Syntax error in " + key);
SDL_LOG("Material definition: " << matName << " [" << matType << "]");
Material *mat = CreateMaterial(key, *scnProp);
materialIndices[matName] = materials.size();
materials.push_back(mat);
}
//--------------------------------------------------------------------------
// Read all objects .ply file
//--------------------------------------------------------------------------
std::vector<std::string> objKeys = scnProp->GetAllKeys("scene.objects.");
if (objKeys.size() == 0)
throw std::runtime_error("Unable to find object definitions");
double lastPrint = WallClockTime();
unsigned int objCount = 0;
for (std::vector<std::string>::const_iterator objKey = objKeys.begin(); objKey != objKeys.end(); ++objKey) {
const std::string &key = *objKey;
// Check if it is the root of the definition of an object otherwise skip
const size_t dot1 = key.find(".", std::string("scene.objects.").length());
if (dot1 == std::string::npos)
continue;
const size_t dot2 = key.find(".", dot1 + 1);
if (dot2 != std::string::npos)
continue;
const std::string objName = Properties::ExtractField(key, 3);
if (objName == "")
throw std::runtime_error("Syntax error in " + key);
// Build the object
const std::vector<std::string> args = scnProp->GetStringVector(key, "");
const std::string plyFileName = args.at(0);
const double now = WallClockTime();
if (now - lastPrint > 2.0) {
SDL_LOG("PLY object count: " << objCount);
lastPrint = now;
}
++objCount;
//SDL_LOG("PLY object [" << objName << "] file name: " << plyFileName);
// Check if I have to calculate normal or not
const bool usePlyNormals = (scnProp->GetInt(key + ".useplynormals", 0) != 0);
// Check if I have to use an instance mesh or not
ExtMesh *meshObject;
if (scnProp->IsDefined(key + ".transformation")) {
const std::vector<float> vf = GetParameters(*scnProp, key + ".transformation", 16, "1.0 0.0 0.0 0.0 0.0 1.0 0.0 0.0 0.0 0.0 1.0 0.0 0.0 0.0 0.0 1.0");
const Matrix4x4 mat(
vf.at(0), vf.at(4), vf.at(8), vf.at(12),
vf.at(1), vf.at(5), vf.at(9), vf.at(13),
vf.at(2), vf.at(6), vf.at(10), vf.at(14),
vf.at(3), vf.at(7), vf.at(11), vf.at(15));
const Transform trans(mat);
meshObject = extMeshCache->GetExtMesh(plyFileName, usePlyNormals, trans);
} else
meshObject = extMeshCache->GetExtMesh(plyFileName, usePlyNormals);
objectIndices[objName] = objects.size();
objects.push_back(meshObject);
// Get the material
const std::string matName = Properties::ExtractField(key, 2);
if (matName == "")
throw std::runtime_error("Syntax error in material name: " + matName);
if (materialIndices.count(matName) < 1)
throw std::runtime_error("Unknown material: " + matName);
Material *mat = materials[materialIndices[matName]];
// Check if it is a light sources
if (mat->IsLightSource()) {
SDL_LOG("The " << objName << " object is a light sources with " << meshObject->GetTotalTriangleCount() << " triangles");
AreaLightMaterial *light = (AreaLightMaterial *)mat;
objectMaterials.push_back(mat);
for (unsigned int i = 0; i < meshObject->GetTotalTriangleCount(); ++i) {
TriangleLight *tl = new TriangleLight(light, static_cast<unsigned int>(objects.size()) - 1, i, objects);
lights.push_back(tl);
}
} else {
SurfaceMaterial *surfMat = (SurfaceMaterial *)mat;
objectMaterials.push_back(surfMat);
}
// [old deprecated syntax] Check if there is a texture map associated to the object
if (args.size() > 1) {
// Check if the object has UV coords
if (!meshObject->HasUVs())
throw std::runtime_error("PLY object " + plyFileName + " is missing UV coordinates for texture mapping");
TexMapInstance *tm = texMapCache->GetTexMapInstance(args.at(1), 2.2f);
objectTexMaps.push_back(tm);
objectBumpMaps.push_back(NULL);
objectNormalMaps.push_back(NULL);
} else {
// Check for if there is a texture map associated to the object with the new syntax
const std::string texMap = scnProp->GetString(key + ".texmap", "");
if (texMap != "") {
// Check if the object has UV coords
if (!meshObject->HasUVs())
throw std::runtime_error("PLY object " + plyFileName + " is missing UV coordinates for texture mapping");
const float gamma = scnProp->GetFloat(key + ".texmap.gamma", 2.2f);
TexMapInstance *tm = texMapCache->GetTexMapInstance(texMap, gamma);
objectTexMaps.push_back(tm);
} else
objectTexMaps.push_back(NULL);
/**
* Check if there is an alpha map associated to the object
* If there is, the map is added to a previously added texturemap.
* If no texture map (diffuse map) is detected, a black texture
* is created and the alpha map is added to it. --PC
*/
const std::string alphaMap = scnProp->GetString(key + ".alphamap", "");
if (alphaMap != "") {
// Got an alpha map, retrieve the textureMap and add the alpha channel to it.
const std::string texMap = scnProp->GetString(key + ".texmap", "");
const float gamma = scnProp->GetFloat(key + ".texmap.gamma", 2.2f);
TextureMap *tm;
if (!(tm = texMapCache->FindTextureMap(texMap, gamma))) {
SDL_LOG("Alpha map " << alphaMap << " is for a materials without texture. A black texture has been created for support!");
// We have an alpha map without a diffuse texture. In this case we need to create
// a texture map filled with black
tm = new TextureMap(alphaMap, gamma, 1.0, 1.0, 1.0);
tm->AddAlpha(alphaMap);
TexMapInstance *tmi = texMapCache->AddTextureMap(alphaMap, tm);
// Remove the NULL inserted above, when no texmap was found. Without doing this the whole thing will not work
objectTexMaps.pop_back();
// Add the new texture to the chain
objectTexMaps.push_back(tmi);
} else {
// Add an alpha map to the pre-existing diffuse texture
tm->AddAlpha(alphaMap);
}
}
// Check for if there is a bump map associated to the object
const std::string bumpMap = scnProp->GetString(key + ".bumpmap", "");
if (bumpMap != "") {
// Check if the object has UV coords
if (!meshObject->HasUVs())
throw std::runtime_error("PLY object " + plyFileName + " is missing UV coordinates for bump mapping");
const float scale = scnProp->GetFloat(key + ".bumpmap.scale", 1.f);
BumpMapInstance *bm = texMapCache->GetBumpMapInstance(bumpMap, scale);
objectBumpMaps.push_back(bm);
} else
objectBumpMaps.push_back(NULL);
// Check for if there is a normal map associated to the object
const std::string normalMap = scnProp->GetString(key + ".normalmap", "");
if (normalMap != "") {
// Check if the object has UV coords
if (!meshObject->HasUVs())
throw std::runtime_error("PLY object " + plyFileName + " is missing UV coordinates for normal mapping");
NormalMapInstance *nm = texMapCache->GetNormalMapInstance(normalMap);
objectNormalMaps.push_back(nm);
} else
objectNormalMaps.push_back(NULL);
}
}
SDL_LOG("PLY object count: " << objCount);
//--------------------------------------------------------------------------
// Check if there is an infinitelight source defined
//--------------------------------------------------------------------------
const std::vector<std::string> ilParams = scnProp->GetStringVector("scene.infinitelight.file", "");
if (ilParams.size() > 0) {
const float gamma = scnProp->GetFloat("scene.infinitelight.gamma", 2.2f);
TexMapInstance *tex = texMapCache->GetTexMapInstance(ilParams.at(0), gamma);
// Check if I have to use InfiniteLightBF method
if (scnProp->GetInt("scene.infinitelight.usebruteforce", 0)) {
SDL_LOG("Using brute force infinite light sampling");
infiniteLight = new InfiniteLightBF(tex);
useInfiniteLightBruteForce = true;
} else {
if (ilParams.size() == 2)
infiniteLight = new InfiniteLightPortal(tex, ilParams.at(1));
else
infiniteLight = new InfiniteLightIS(tex);
// Add the infinite light to the list of light sources
lights.push_back(infiniteLight);
useInfiniteLightBruteForce = false;
}
std::vector<float> vf = GetParameters(*scnProp, "scene.infinitelight.gain", 3, "1.0 1.0 1.0");
infiniteLight->SetGain(Spectrum(vf.at(0), vf.at(1), vf.at(2)));
vf = GetParameters(*scnProp, "scene.infinitelight.shift", 2, "0.0 0.0");
infiniteLight->SetShift(vf.at(0), vf.at(1));
infiniteLight->Preprocess();
} else {
infiniteLight = NULL;
useInfiniteLightBruteForce = false;
}
//--------------------------------------------------------------------------
// Check if there is a SkyLight defined
//--------------------------------------------------------------------------
const std::vector<std::string> silParams = scnProp->GetStringVector("scene.skylight.dir", "");
if (silParams.size() > 0) {
if (infiniteLight)
throw std::runtime_error("Can not define a skylight when there is already an infinitelight defined");
std::vector<float> sdir = GetParameters(*scnProp, "scene.skylight.dir", 3, "0.0 0.0 1.0");
const float turb = scnProp->GetFloat("scene.skylight.turbidity", 2.2f);
std::vector<float> gain = GetParameters(*scnProp, "scene.skylight.gain", 3, "1.0 1.0 1.0");
SkyLight *sl = new SkyLight(turb, Vector(sdir.at(0), sdir.at(1), sdir.at(2)));
infiniteLight = sl;
sl->SetGain(Spectrum(gain.at(0), gain.at(1), gain.at(2)));
sl->Init();
useInfiniteLightBruteForce = true;
}
//--------------------------------------------------------------------------
// Check if there is a SunLight defined
//--------------------------------------------------------------------------
const std::vector<std::string> sulParams = scnProp->GetStringVector("scene.sunlight.dir", "");
if (sulParams.size() > 0) {
std::vector<float> sdir = GetParameters(*scnProp, "scene.sunlight.dir", 3, "0.0 0.0 1.0");
const float turb = scnProp->GetFloat("scene.sunlight.turbidity", 2.2f);
const float relSize = scnProp->GetFloat("scene.sunlight.relsize", 1.0f);
std::vector<float> gain = GetParameters(*scnProp, "scene.sunlight.gain", 3, "1.0 1.0 1.0");
SunLight *sunLight = new SunLight(turb, relSize, Vector(sdir.at(0), sdir.at(1), sdir.at(2)));
sunLight->SetGain(Spectrum(gain.at(0), gain.at(1), gain.at(2)));
sunLight->Init();
lights.push_back(sunLight);
}
//--------------------------------------------------------------------------
camera->Update(width, height);
}
// Do recursive ray tracing! You'll want to insert a lot of code here
// (or places called from here) to handle reflection, refraction, etc etc.
Vec3d RayTracer::traceRay(ray& r, int depth)
{
isect i;
Vec3d colorC;
if(scene->intersect(r, i))
{
const Material& m = i.getMaterial();
colorC = m.shade(scene, r, i);
if(depth <= 0)
return colorC;
Vec3d q = r.at(i.t);
Vec3d rayDir = -1 * r.getDirection();
rayDir.normalize();
//REFLECTION
Vec3d reflectionIntensity = m.kr(i);
Vec3d reflectDir = 2 * (rayDir * i.N) * i.N - rayDir;
reflectDir.normalize();
ray reflected(q, reflectDir, ray::REFLECTION);
reflectionIntensity %= traceRay(reflected, depth - 1);
colorC += reflectionIntensity;
//END REFLECTION
//REFRACTION
Vec3d refractionIntensity = m.kt(i);
double indexRatio, flip;
if(refractionIntensity[0] <= 0.0 && refractionIntensity[1] <= 0.0 && refractionIntensity[2] <= 0.0)
{
return colorC;
}
if(i.N * r.getDirection() < 0.0)
{
indexRatio = 1.0 / m.index(i);
flip = -1;
}
else
{
indexRatio = m.index(i) / 1.0;
flip = 1;
}
//Check for TIR
if(i.N * r.getDirection() > 0.0f)
{
double iAngle = i.N * r.getDirection();
if((1 - (indexRatio*indexRatio*(1.0f - iAngle * iAngle))) < 0.0)
return colorC;
}
Vec3d rayNormalPart = (rayDir * i.N) * i.N;
Vec3d rayTangentialPart = rayNormalPart - rayDir;
Vec3d refractTangential = (indexRatio) * rayTangentialPart;
double temp = refractTangential * refractTangential;
if(temp > 1) temp = 0;
Vec3d refractNormal = (flip * i.N) * sqrt( 1.0 - temp);
Vec3d refractDir = refractNormal + refractTangential;
reflectDir.normalize();
ray refracted(q, refractDir, ray::REFRACTION);
refractionIntensity %= traceRay(refracted, depth - 1);
colorC += refractionIntensity;
//END REFRACTION
}
else
{
//do cube mapping?
if(!traceUI->doCubeMap())
return Vec3d(0,0,0);
TextureMap* texture;
double u, v;
Vec3d direction = r.getDirection();
double x = direction.n[0];
double y = direction.n[1];
double z = direction.n[2];
double max = std::abs(x);
if(std::abs(y) > max) max = std::abs(y);
if(std::abs(z) > max) max = std::abs(z);
if(max == std::abs(x))
{
if(x < 0)
{
texture = cubeMap->getXnegMap();
u = ((z/std::abs(x)) + 1)/2;
v = ((y/std::abs(x)) + 1)/2;
}
else
{
texture = cubeMap->getXposMap();
u = ((-z/std::abs(x)) + 1)/2;
v = ((y/std::abs(x)) + 1)/2;
}
}
else if(max == std::abs(y))
{
if(y < 0)
{
texture = cubeMap->getYnegMap();
u = ((x/std::abs(y)) + 1)/2;
v = ((z/std::abs(y)) + 1)/2;
}
else
{
texture = cubeMap->getYposMap();
u = ((x/std::abs(y)) + 1)/2;
v = ((-z/std::abs(y)) + 1)/2;
}
}
else
{
if(z < 0)
{
texture = cubeMap->getZnegMap();
u = ((-x/std::abs(z)) + 1)/2;
v = ((y/std::abs(z)) + 1)/2;
}
else
{
texture = cubeMap->getZposMap();
u = ((x/std::abs(z)) + 1)/2;
v = ((y/std::abs(z)) + 1)/2;
}
}
colorC = texture->getMappedValue(Vec2d(u,v));
}
return colorC;
}
void SlotMachine::Update(Canvas *_canvas) {
Canvas *canvas = _canvas;
if (state == SlotMachineState::sl_inProcess) {
// Все ли барабаны остановлены
bool allStoped = true;
// Обновляем и проверяем состояние барабанов
TypeObjectsMap::iterator wit; // Итератор для карты с барабанами
// Проверяем состояние барабанов
for (wit = wheelsMap.begin(); wit != wheelsMap.end(); ++wit) {
if (wit->second->getState() == WheelState::_running) {
wit->second->Update();
allStoped = false;
}
}
TypeObjectsMap::iterator bit; // Итератор для карты с кнопками
// Все барабаны прекратили вращение
if (allStoped) {
bit = buttonsMap.find(ObjectRole::_start);
if (bit != buttonsMap.end()) {
Object *start = bit->second;
if (start->getState() == ButtonState::_enabled) {
// Закончили вращение. Возвращаемся в исходное состояние и проверяем результат
if (result = CalcResult()) {
showResultStartTime = currentTime = std::time(nullptr);
state = SlotMachineState::sl_show_result;
TextureMap * textureMap = canvas->getTextureMap();
TextureMap::iterator it;
resultTexture = nullptr;
// Обработка результатов костыль
switch (result) {
case r_slash:
it = textureMap->find(TextureRole::_w_slash);
resultTexture = it->second;
break;
case r_center:
it = textureMap->find(TextureRole::_w_center);
resultTexture = it->second;
break;
case r_backslah:
it = textureMap->find(TextureRole::_w_backslash);
resultTexture = it->second;
break;
}
resultTexture->ena = true;
}
else {
state = SlotMachineState::sl_waiting;
start->Update();
}
}
}
}
}
else if (state == SlotMachineState::sl_show_result) {
currentTime = std::time(nullptr);
int elapse = currentTime - showResultStartTime;
if (elapse < SHOW_RESULT_DURATION) {
//resultTexture->ena = true;
}
else {
resultTexture->ena = false;
state = SlotMachineState::sl_waiting;
TypeObjectsMap::iterator bit;
bit = buttonsMap.find(ObjectRole::_start);
bit->second->Update();
}
}
}
