TransformObject::TransformObject(void)
{
SetPosition(Vector3f());
SetRotation(Vector3f());
SetScale(1.0f);
}
Matrix4x4::Matrix4x4(const Quaternion& q)
{
SetRotation(q);
}
void
Entity::ScriptSetRotation( const float rotation )
{
SetRotation( Ogre::Degree( rotation ) );
}
/*virtual*/ void Bullet::HandleCollision(const IEntity* other) /*override*/
{
const Character* temp = reinterpret_cast<const Character*>(other);
if (temp && owner && owner->GetOwner() && (temp->GetIsEnemy() != owner->GetOwner()->GetIsEnemy()))
{
// create a hit marker to indicate damage
SGD::Color enemyColor;
if (temp->GetIsEnemy())
enemyColor = SGD::Color::Yellow;
else
enemyColor = SGD::Color::Blue;
// dispatch a hit marker message only if the other object actually has health
if (temp->GetCurrHealth() > 0.f)
{
CreateHitMarkerMsg* msg = new CreateHitMarkerMsg((int)(GetDamage()), m_ptPosition, m_fRotation - Math::to_radians(180.f), enemyColor);
SGD::MessageManager::GetInstance()->QueueMessage(msg);
}
}
// avoid shooting yourself unless its a deflected bullet
if ((owner->GetOwner() != temp && !deflectBullet) || (owner->GetOwner() == temp && deflectBullet))
{
#pragma region Brawler
const Character* testCharacter = reinterpret_cast<const Character*>(other);
Character* testNonConstCharacter = const_cast<Character*>(testCharacter);
// player hit by bullet
if (GameplayState::GetInstance()->player && testCharacter->GetLevel() >= 1)
{
if (testCharacter && testCharacter->GetClass() == ClassType::Brawler && testCharacter == GameplayState::GetInstance()->player->GetCharacter())
{
// damage player Takes
GameplayState::GetInstance()->fBaseDamageTaken = GetDamage();
GameplayState::GetInstance()->fPassiveDamageTaken = testNonConstCharacter->GetWeapon()->GetDamage();
}
}
if (owner->GetGunType() == Weapon::GunType::chainsawLauncher && owner->GetOwner()->GetClass() == ClassType::Brawler)
{
if (reinterpret_cast<BuzzsawLauncher*>(owner)->GetisBrawlActive())
{
if (owner->GetOwner()->GetLevel() >= 21)
owner->GetOwner()->SetCurrCooldown(owner->GetOwner()->GetCurrCoolDown() - 0.5f);
if (owner->GetOwner()->GetLevel() >= 11)
owner->GetOwner()->ModifyHealth(owner->GetOwner()->GetStat(StatType::strength)*0.35f);
}
}
#pragma endregion
if (temp && owner && owner->GetOwner() && owner->GetOwner()->GetClass() == ClassType::Cyborg && owner->GetOwner()->GetLevel() >= 18 && damage >= temp->GetCurrHealth())
{
vector<NPC*> hits = GameplayState::GetInstance()->npcs;
int lightning = 0;
for (unsigned int x = 0; x < hits.size() && lightning <= 2; x++)
{
float length = (hits[x]->getCharacter()->GetPosition() - temp->GetPosition()).ComputeLength();
if (length < 300.0f && hits[x]->getCharacter()->GetIsEnemy() != owner->GetOwner()->GetIsEnemy() && hits[x]->getCharacter() != temp)
{
hits[x]->getCharacter()->ModifyHealth(-owner->GetOwner()->GetStat(StatType::accuracy)*0.5f);
lightning++;
if (owner->GetOwner()->GetLevel() >= 24)
{
Stun* stun = new Stun(hits[x]->getCharacter());
stun->SetDuration(1.0f);
Radiation* rad = new Radiation(hits[x]->getCharacter());
rad->SetStacks(5);
hits[x]->getCharacter()->AddStatusAilment(stun);
hits[x]->getCharacter()->AddStatusAilment(rad);
}
}
}
if (lightning > 0)
SGD::AudioManager::GetInstance()->PlayAudio(GameplayState::GetInstance()->chain_lightnin);
}
const Character* tempEnemy = dynamic_cast<const Character*>(other);
Character* newEnemy = const_cast<Character*>(tempEnemy);
if (tempEnemy && owner && owner->GetOwner() && owner->GetOwner()->GetClass() == ClassType::Gunslinger && owner->GetOwner()->GetLevel() >= 24)
{
int theOdds = rand() % 100 + 1;
// gunslinger passive debug code
GameplayState::GetInstance()->nRiccochetOdds = theOdds;
if (theOdds < 45 && tempEnemy->GetIsEnemy() != owner->GetOwner()->GetIsEnemy())
{
// adjust angle to aim at another enemy (see chain lightning: cyborg lv 18 - line 120)
// instead of destroying, redirect to another (and don't destroy)
// if no other near, destroy this
Weapon* tempWeapon = newEnemy->GetWeapon();
// gunslinger debug code
for (unsigned i = 0; i < GameplayState::GetInstance()->npcs.size(); i++)
{
if (GameplayState::GetInstance()->npcs[i]->getCharacter() != tempEnemy)
{
SGD::Vector tempDiff = GameplayState::GetInstance()->npcs[i]->getCharacter()->GetPosition() - GetPosition();
//tempDiff.Normalize();
float tempDist = tempDiff.ComputeLength();
if (tempDist < 300)
{
// calculate angle to new target
float toTarget = atan2(tempDiff.y, tempDiff.x);
SGD::Vector newVelocity = GetVelocity();
// set the velocity to the newly rotated velocity
SetVelocity(newVelocity.ComputeRotated(toTarget));
SetRotation(toTarget);
SGD::AudioManager::GetInstance()->PlayAudio(GameplayState::GetInstance()->trickShot);
break;
}
}
}
}
}
if (owner && owner->GetOwner() && owner->GetOwner()->GetClass() == ClassType::Medic && owner->GetOwner()->GetLevel() >= 24 && temp && damage >= temp->GetCurrHealth()*1.2f)
{
vector<NPC*> hits = GameplayState::GetInstance()->npcs;
if ((GameplayState::GetInstance()->player->GetCharacter()->GetPosition() - temp->GetPosition()).ComputeLength() < 300.0f)
{
GameplayState::GetInstance()->player->GetCharacter()->ModifyHealth((temp->GetHealth())*0.1f);
Emitter* heals = GameplayState::GetInstance()->CreateEmitter("heals", (temp != nullptr));
heals->lifeTime = 0.25f;
}
for (unsigned int x = 0; x < hits.size(); x++)
{
float length = (hits[x]->getCharacter()->GetPosition() - temp->GetPosition()).ComputeLength();
if (length < 300.0f && !hits[x]->getCharacter()->GetIsEnemy())
{
hits[x]->getCharacter()->ModifyHealth((temp->GetHealth())*0.05f);
Emitter* heals = GameplayState::GetInstance()->CreateEmitter("heals", (temp != nullptr));
heals->lifeTime = 0.25f;
//visual effect
}
}
SGD::AudioManager::GetInstance()->PlayAudio(GameplayState::GetInstance()->tranfusion);
}
if (GetOwner()->bulType.size() == 0)
{
if (tempEnemy && owner && owner->GetOwner() && (tempEnemy->GetIsEnemy() != owner->GetOwner()->GetIsEnemy()))
{
if (critPassive)
SGD::AudioManager::GetInstance()->PlayAudio(GameplayState::GetInstance()->crit_shot);
// allocate a message to destroy this instance
DestroyEntityMsg* msg = new DestroyEntityMsg(this);
// dispatch destroy message
SGD::MessageManager::GetInstance()->QueueMessage(msg);
}
}
// allocate a message to destroy this instance if the bullet is not peircing
for (unsigned int i = 0; i < GetOwner()->bulType.size(); i++)
{
//if its a peircing bullet, don't continue to where you delete the bullet
if (GetOwner()->bulType[i] == BulletType::fmj || GetOwner()->bulType[i] == BulletType::FMJFTW)
{
break;
}
if (owner && owner->GetOwner() && owner->GetOwner()->GetClass() == ClassType::Gunslinger && owner->GetOwner()->GetLevel() >= 24 && GameplayState::GetInstance()->nTheOdds < 45); // do nothing
else if (!deflectBullet && i == GetOwner()->bulType.size() - 1)
{
// allocate a message to destroy this instance if you make it through the entire vector of bullet types and don't find fmj or fmjftw
DestroyEntityMsg* msg = new DestroyEntityMsg(this);
// dispatch destroy message
SGD::MessageManager::GetInstance()->QueueMessage(msg);
}
}
deflectBullet = false;
}
}
void Transform2D::SetRotationRad(const glm::float32& rad)
{
SetRotation(Angle::FromRadians(rad));
}
void UKUIMaterialInterfaceComponent::SetRotationStruct( const FRotator& rRotation )
{
SetRotation( rRotation.Pitch, rRotation.Yaw, rRotation.Yaw );
}
FirstPersonCamera::FirstPersonCamera(float nearClip, float farClip, float fov, float aspect)
: PerspectiveCamera(nearClip, farClip, fov, aspect)
{
SetRotation(XMFLOAT2(0.0f, 0.0f), 0.0f);
UpdateProjection();
}
_Use_decl_annotations_ HRESULT WINAPI
DXGISwapChainProxy::SetRotation(DXGI_MODE_ROTATION rotation)
{
auto const swap_chain = static_cast<IDXGISwapChain1*>(swap_chain_);
return swap_chain->SetRotation(rotation);
}
void RigidBody::HandleTargetRotation(StringHash eventType, VariantMap& eventData)
{
// Copy the smoothing target rotation to the rigid body
if (!physicsWorld_ || !physicsWorld_->IsApplyingTransforms())
SetRotation(static_cast<SmoothedTransform*>(GetEventSender())->GetTargetWorldRotation());
}
void CameraClass::SetRotation(D3DXVECTOR3 dr)
{
SetRotation(dr.x, dr.y, dr.z);
}
/////////////////////////////////////////////////////////////////////////////
// CasteroidIGC
HRESULT CasteroidIGC::Initialize(ImissionIGC* pMission, Time now, const void* data, int dataSize)
{
ZeroMemory(&m_builderseensides, sizeof(bool) * c_cSidesMax); //Imago 8/10
TmodelIGC<IasteroidIGC>::Initialize(pMission, now, data, dataSize);
ZRetailAssert (data && (dataSize == sizeof(DataAsteroidIGC)));
{
DataAsteroidIGC* dataAsteroid = (DataAsteroidIGC*)data;
m_asteroidDef = dataAsteroid->asteroidDef;
IclusterIGC* cluster = pMission->GetCluster(dataAsteroid->clusterID);
ZRetailAssert (cluster);
{
HRESULT rc = Load(0,
m_asteroidDef.modelName,
m_asteroidDef.textureName,
m_asteroidDef.iconName,
c_mtStatic | c_mtHitable | c_mtDamagable | c_mtSeenBySide | c_mtPredictable);
assert (SUCCEEDED(rc));
SetRadius((float)m_asteroidDef.radius);
SetPosition(dataAsteroid->position);
{
Orientation o(dataAsteroid->forward, dataAsteroid->up);
SetOrientation(o);
}
// Turkey 01/2014 AME is bugged, rotation axis should be a normalized vector
Rotation r = dataAsteroid->rotation;
Vector axis = r.axis().Normalize();
r.axis(axis);
SetRotation(r);
SetSignature(dataAsteroid->signature);
m_fraction = dataAsteroid->fraction;
if (m_fraction > 1.0f) m_fraction = 1.0f; // Turkey 01/2014 AME is bugged, gives rocks 100.4% hitpoints (241/240)
if (dataAsteroid->name[0] != '\0')
SetName(dataAsteroid->name);
else
SetSecondaryName(dataAsteroid->name + 1);
SetCluster(cluster);
//Xynth #100 7/2010 Need to initialize oreseenbyside for all sides
for (SideLinkIGC* psl = this->GetMission()->GetSides()->first(); psl != NULL; psl = psl->next())
{
IsideIGC* pside = psl->data();
oreSeenBySide.Set(pside, 0.0);
}
m_lastUpdateOre = 0.0; //Xynth #132 7/2010 Should update first time this is mined
m_inhibitUpdate = false; //Xynth #225 9/10
m_inhibitCounter = -1;
#ifdef DEBUG
{
//Verify that there is no pre-existing asteroid with the same ID
for (AsteroidLinkIGC* pal = pMission->GetAsteroids()->first(); (pal != NULL); pal = pal->next())
{
assert (pal->data()->GetObjectID() != m_asteroidDef.asteroidID);
}
}
#endif
pMission->AddAsteroid(this);
}
}
return S_OK;
}
void World::RunWorld()
{
std::srand(static_cast<unsigned int>(std::time(NULL)));
uint32 flags = 0;
flags += b2Draw::e_shapeBit;
flags += b2Draw::e_jointBit;
flags += b2Draw::e_aabbBit;
flags += b2Draw::e_pairBit;
flags += b2Draw::e_centerOfMassBit;
WindowManager::I().GetDebugDraw().SetFlags(flags);
SetDebugDraw(&WindowManager::I().GetDebugDraw());
// Since the Box2D world is tuned for meters, and works with averagely sized objects,
// we'll zoom in with the view.
sf::View view;
view.setSize(sf::Vector2f(80, 60));
view.setCenter(sf::Vector2f(40, 30));
WindowManager::I().setView(view);
auto obj = std::make_shared<ObjectBase>(OSTCircle, 1.0f, true);
auto obj2 = std::make_shared<ObjectBase>(OSTRectangle, 15.0f, false);
auto obj3 = std::make_shared<ObjectBase>(OSTRectangle, 15.0f, false);
auto obj4 = std::make_shared<ObjectBase>(OSTRectangle, 15.0f, false);
obj->SetPosition(40, 10);
obj2->SetPosition(40, 51.5);
obj3->SetPosition(70, 43);
obj3->SetRotation(b2_pi / 4.0f);
obj4->SetPosition(10, 45);
obj4->SetRotation(b2_pi / 8.0f + b2_pi);
while (WindowManager::I().isOpen())
{
// Handle events
sf::Event event;
while (WindowManager::I().pollEvent(event))
{
// Window closed or escape key pressed: exit
if ((event.type == sf::Event::Closed) ||
((event.type == sf::Event::KeyPressed) && (event.key.code == sf::Keyboard::Escape)))
{
WindowManager::I().close();
break;
}
}
float32 timeStep = 1.0f / 60.0f;
int32 velocityIterations = 6;
int32 positionIterations = 2;
Step(timeStep, velocityIterations, positionIterations);
obj->Move();
WindowManager::I().clear(sf::Color::Black);
DrawDebugData();
WindowManager::I().display();
}
}
TInt CNVGCSIcon::DoDrawL(const TSize aSize)
{
TInt ret = KErrNone;
vgSetPaint(iFillPaint, VG_FILL_PATH);
vgSetPaint(iStrokePaint, VG_STROKE_PATH);
iLastFillPaintColor = 0;
iLastStrkePaintColor = 0;
iLastFillPaintType = 0;
iLastStrokePaintType = 0;
VGfloat lCurrentPathMatrix[9];
vgGetMatrix(lCurrentPathMatrix);
vgSeti(VG_MATRIX_MODE, VG_MATRIX_PATH_USER_TO_SURFACE);
vgLoadMatrix(lCurrentPathMatrix);
SetRotation();
#ifdef __MIRROR_
vgScale(1.0f, -1.0f);
vgTranslate(0, (VGfloat)(-aSize.iHeight) );
#endif
SetViewBoxToViewTransformationL(aSize);
vgSeti(VG_MATRIX_MODE, VG_MATRIX_PATH_USER_TO_SURFACE);
VGfloat currentMatrix[9];
vgGetMatrix(currentMatrix);
iNVGIconData->BeginRead();
while (!iNVGIconData->EOF())
{
switch (iNVGIconData->ReadInt32L())
{
case EPath:
{
VGPath path = (VGPath)iNVGIconData->ReadInt32L();
VGPaintMode paintMode = (VGPaintMode)iNVGIconData->ReadInt32L();
if (path == VG_INVALID_HANDLE)
{
vgDrawPath(iPath, paintMode);
}
else
{
vgDrawPath(path, paintMode);
}
break;
}
case EPathData:
{
if (iPath != VG_INVALID_HANDLE)
{
VGint numSegments;
VGubyte * pathSegments = 0;
VGubyte * pathData = 0;
numSegments = iNVGIconData->ReadInt32L();
pathSegments = new (ELeave) VGubyte[numSegments];
CleanupStack::PushL(TCleanupItem(CleanupArray, pathSegments));
if (pathSegments)
{
iNVGIconData->ReadL(pathSegments, numSegments);
VGint coordinateCount = iNVGIconData->ReadInt32L();
pathData = new (ELeave) VGubyte[coordinateCount * 4];
if (pathData)
{
CleanupStack::PushL(TCleanupItem(CleanupArray, pathData));
iNVGIconData->ReadL(pathData, coordinateCount * 4);
vgClearPath(iPath, VG_PATH_CAPABILITY_APPEND_TO);
vgAppendPathData(iPath, numSegments, pathSegments, pathData);
CleanupStack::PopAndDestroy();
}
}
CleanupStack::PopAndDestroy();
}
break;
}
case EPaint:
{
DrawPaintL(iFillPaint, VG_MATRIX_FILL_PAINT_TO_USER, iLastFillPaintType, iLastFillPaintColor, VG_FILL_PATH);
break;
}
case EColorRamp:
{
iNVGIconData->ReadInt32L();
break;
}
case ETransform:
{
TInt flag;
VGfloat transformMatrix[9];
TPtr8 tmPtr((TUint8 *)transformMatrix, 9 * sizeof(VGfloat));
iNVGIconData->ReadL(tmPtr, 9 * sizeof(VGfloat));
flag = iNVGIconData->ReadInt32L();
vgLoadMatrix(currentMatrix);
if (flag)
{
vgMultMatrix(transformMatrix);
}
}
break;
case EStrokeWidth:
{
VGfloat strokeWidth = iNVGIconData->ReadReal32L();
vgSetf(VG_STROKE_LINE_WIDTH, strokeWidth);
break;
}
case EStrokeMiterLimit:
{
VGfloat miterLimit = iNVGIconData->ReadReal32L();
vgSetf(VG_STROKE_MITER_LIMIT, miterLimit);
break;
}
case EStrokeLineJoinCap:
{
VGint lineJoin = iNVGIconData->ReadInt32L();
VGint cap = iNVGIconData->ReadInt32L();
vgSeti(VG_STROKE_JOIN_STYLE, (VGJoinStyle)lineJoin);
vgSeti(VG_STROKE_CAP_STYLE, (VGCapStyle)cap);
break;
}
case EStrokePaint:
{
DrawPaintL(iStrokePaint, VG_MATRIX_STROKE_PAINT_TO_USER, iLastStrokePaintType, iLastStrkePaintColor, VG_STROKE_PATH);
break;
}
case EStrokeColorRamp:
{
iNVGIconData->ReadInt32L();
break;
}
default:
{
User::Leave(KErrCorrupt);
break;
}
}
}
iNVGIconData->EndRead();
return ret;
}
TransformObject::TransformObject(Vector3f position, Vector3f eulerRotationAngles, Vector3f scale)
{
SetPosition(position);
SetRotation(eulerRotationAngles);
SetScale(scale);
}
void TriggerET::InitializeEntity(
Entity& entity,
const EntityModuleParameters* spawnParams) const
{
auto gameEM = entity.GetModule<GameEM>();
auto physicsEM = entity.GetModule<PhysicsEM>();
auto sceneEM = entity.GetModule<SceneEM>();
const auto params = static_cast<const TriggerEMParams*>(spawnParams);
auto& timeController = params->m_timeController;
auto& comboController = params->m_comboController;
auto& player = params->m_player;
auto triggerType = params->m_triggerType;
auto trigger = std::unique_ptr<Trigger>(
new Trigger(triggerType, player, comboController, timeController));
auto collisionBox = std::unique_ptr<CollisionBox>(new CollisionBox());
switch (triggerType)
{
case TriggerTypeBoost30:
case TriggerTypeBoost45:
case TriggerTypeBoost60:
collisionBox->SetPosition(Vec3f(0.0f, 100.0f, -1.175f));
collisionBox->SetDimensions(Vec3f(0.5f, 100.0f, 0.625f));
break;
case TriggerTypeSlow:
case TriggerTypeAngle:
case TriggerTypeStop:
case TriggerTypeBlock:
collisionBox->SetPosition(Vec3f(0.0f, 100.0f, -0.55f));
collisionBox->SetDimensions(Vec3f(0.5f, 100.0f, 1.25f));
break;
}
physicsEM->AddCollisionShape(std::move(collisionBox));
physicsEM->SetCollisionListener(trigger.get());
physicsEM->SetImmovable(true);
gameEM->SetGameObject(std::move(trigger));
std::string activeTextureFilePath;
std::string inactiveTextureFilePath;
switch(triggerType)
{
case TriggerTypeBoost30:
activeTextureFilePath = "Triggers/Boost30Active.png";
inactiveTextureFilePath = "Triggers/Boost30Inactive.png";
break;
case TriggerTypeBoost45:
activeTextureFilePath = "Triggers/Boost45Active.png";
inactiveTextureFilePath = "Triggers/Boost45Inactive.png";
break;
case TriggerTypeBoost60:
activeTextureFilePath = "Triggers/Boost60Active.png";
inactiveTextureFilePath = "Triggers/Boost60Inactive.png";
break;
case TriggerTypeSlow:
activeTextureFilePath = "Triggers/SlowActive.png";
inactiveTextureFilePath = "Triggers/SlowInactive.png";
break;
case TriggerTypeAngle:
activeTextureFilePath = "Triggers/Angle.png";
inactiveTextureFilePath = activeTextureFilePath;
break;
case TriggerTypeStop:
activeTextureFilePath = "Triggers/StopActive.png";
inactiveTextureFilePath = "Triggers/StopInactive.png";
break;
case TriggerTypeBlock:
activeTextureFilePath = "Triggers/BlockActive.png";
inactiveTextureFilePath = "Triggers/BlockInactive.png";
break;
}
auto activeModel = Model("nanaka/models/billboard.nmdl");
Material activeMaterial(activeModel.GetMaterial());
activeMaterial.SetTexture(Texture(activeTextureFilePath));
activeModel.SetMaterial(activeMaterial);
activeModel.SetPosition(Vec3f(0.0f, 0.0f, 0.0f));
activeModel.SetRotation(Quat::NoRot());
activeModel.SetScale(Vec3f(2.0f, 1.0f, 4.0f));
sceneEM->SetAttachment<Model>(s_gfxIdActive, activeModel);
auto inactiveModel = Model("nanaka/models/billboard.nmdl");
Material inactiveMaterial(inactiveModel.GetMaterial());
inactiveMaterial.SetTexture(Texture(inactiveTextureFilePath));
inactiveModel.SetMaterial(inactiveMaterial);
inactiveModel.SetPosition(Vec3f(0.0f, 0.0f, 0.0f));
inactiveModel.SetRotation(Quat::NoRot());
inactiveModel.SetScale(Vec3f(2.0f, 1.0f, 4.0f));
sceneEM->SetAttachment<Model>(s_gfxIdInactive, inactiveModel);
}
void Graphics_Mesh(bool isOpenGLMode)
{
StartGraphicsTest();
SetGLEnable(isOpenGLMode);
asd::Log* log = asd::Log_Imp::Create(L"graphics.html", L"メッシュ");
auto window = asd::Window_Imp::Create(640, 480, asd::ToAString(L"メッシュ").c_str());
ASSERT_TRUE(window != nullptr);
auto file = asd::File_Imp::Create();
ASSERT_TRUE(file != nullptr);
auto graphics = asd::Graphics_Imp::Create(window, isOpenGLMode ? asd::GraphicsDeviceType::OpenGL : asd::GraphicsDeviceType::DirectX11, log, file, false, false);
ASSERT_TRUE(graphics != nullptr);
auto renderer3d = new asd::Renderer3D(graphics, asd::RenderSettings());
ASSERT_TRUE(renderer3d != nullptr);
renderer3d->SetWindowSize(asd::Vector2DI(640, 480));
auto mesh1 = CreateMesh(graphics);
auto mesh2 = CreateMesh(graphics);
auto deformer = CreateDeformer(graphics);
auto animation = CreateAnimation();
SetMeshBone(mesh2);
mesh1->SendToGPUMemory();
mesh2->SendToGPUMemory();
auto cameraObject = new asd::RenderedCameraObject3D(graphics);
cameraObject->SetPosition(asd::Vector3DF(0, 0, 10));
cameraObject->SetFocus(asd::Vector3DF(0, 0, 0));
cameraObject->SetFieldOfView(20.0f);
cameraObject->SetZNear(1.0f);
cameraObject->SetZFar(20.0f);
cameraObject->SetWindowSize(asd::Vector2DI(800, 600));
auto meshObject1 = new asd::RenderedModelObject3D(graphics);
meshObject1->AddMesh(mesh1);
meshObject1->SetPosition(asd::Vector3DF(1, 0, 0));
meshObject1->SetRotation(asd::Vector3DF(20.0f, 20.0f, 0.0f));
auto meshObject2 = new asd::RenderedModelObject3D(graphics);
meshObject2->AddMesh(mesh2);
meshObject2->SetDeformer(deformer.get());
meshObject2->SetPosition(asd::Vector3DF(-1, 0, 0));
meshObject2->SetRotation(asd::Vector3DF(20.0f, 20.0f, 0.0f));
meshObject2->AddAnimationClip(asd::ToAString("anime1").c_str(), animation.get());
meshObject2->PlayAnimation(0, asd::ToAString("anime1").c_str());
auto lightObject = new asd::RenderedDirectionalLightObject3D(graphics);
lightObject->SetRotation(asd::Vector3DF(30, 160, 0));
renderer3d->AddObject(cameraObject);
renderer3d->AddObject(meshObject1);
renderer3d->AddObject(meshObject2);
renderer3d->AddObject(lightObject);
int32_t time = 0;
while (window->DoEvent())
{
graphics->Begin();
graphics->Clear(true, false, asd::Color(0, 0, 0, 255));
renderer3d->Flip(1);
renderer3d->BeginRendering(1);
asd::Sleep(100);
renderer3d->EndRendering();
graphics->SetRenderTarget(nullptr, nullptr);
graphics->Clear(true, false, asd::Color(0, 0, 0, 255));
renderer3d->RenderResult();
graphics->Present();
graphics->End();
if (time == 10)
{
SAVE_SCREEN_SHOT(graphics, 0);
}
if (time == 11)
{
window->Close();
}
time++;
}
meshObject1->Release();
meshObject2->Release();
cameraObject->Release();
lightObject->Release();
delete renderer3d;
graphics->Release();
file->Release();
window->Release();
delete log;
}
CUmbralMap::CUmbralMap(const MapLayoutPtr& mapLayout)
{
for(const auto& resourceItem : mapLayout->GetResourceItems())
{
if(resourceItem.type == '\0trb' || resourceItem.type == '\0txb')
{
CResourceManager::GetInstance().LoadResource(resourceItem.resourceId, resourceItem.name);
}
}
const auto& layoutNodes = mapLayout->GetLayoutNodes();
//Build bg parts
for(const auto& nodePair : layoutNodes)
{
if(auto bgPartObjectNode = std::dynamic_pointer_cast<CMapLayout::BGPARTS_BASE_OBJECT_NODE>(nodePair.second))
{
auto bgPartObject = CreateBgPartObject(mapLayout, bgPartObjectNode);
assert(bgPartObject);
m_bgPartObjects.insert(std::make_pair(nodePair.first, bgPartObject));
}
}
for(const auto& nodePair : layoutNodes)
{
if(auto instanceNode = std::dynamic_pointer_cast<CMapLayout::INSTANCE_OBJECT_NODE>(nodePair.second))
{
auto refNodeIterator = layoutNodes.find(instanceNode->refNodePtr);
if(refNodeIterator == std::end(layoutNodes)) continue;
CVector3 instancePosition(instanceNode->posX, instanceNode->posY, instanceNode->posZ);
CQuaternion instanceRotY(CVector3(0, -1, 0), instanceNode->rotY);
auto refNode = refNodeIterator->second;
if(auto unitTreeObjectNode = std::dynamic_pointer_cast<CMapLayout::UNIT_TREE_OBJECT_NODE>(refNode))
{
for(const auto& item : unitTreeObjectNode->items)
{
auto refNodeIterator = layoutNodes.find(item.nodePtr);
assert(refNodeIterator != std::end(layoutNodes));
if(refNodeIterator == std::end(layoutNodes)) continue;
auto refNode = refNodeIterator->second;
if(auto bgPartsBaseObjectNode = std::dynamic_pointer_cast<CMapLayout::BGPARTS_BASE_OBJECT_NODE>(refNode))
{
auto bgPartObjectIterator = m_bgPartObjects.find(item.nodePtr);
assert(bgPartObjectIterator != std::end(m_bgPartObjects));
if(bgPartObjectIterator == std::end(m_bgPartObjects)) continue;
auto tempNode = Palleon::CSceneNode::Create();
tempNode->AppendChild(bgPartObjectIterator->second);
tempNode->SetPosition(instancePosition);
tempNode->SetRotation(instanceRotY);
tempNode->UpdateTransformations();
tempNode->TraverseNodes(
[&] (const Palleon::SceneNodePtr& node)
{
if(auto mesh = std::dynamic_pointer_cast<CUmbralMesh>(node))
{
auto instance = mesh->CreateInstance();
m_instances.push_back(instance);
}
return true;
}
);
}
}
}
else if(auto bgPartObjectNode = std::dynamic_pointer_cast<CMapLayout::BGPARTS_BASE_OBJECT_NODE>(refNode))
{
auto bgPartObjectIterator = m_bgPartObjects.find(refNodeIterator->first);
assert(bgPartObjectIterator != std::end(m_bgPartObjects));
if(bgPartObjectIterator == std::end(m_bgPartObjects)) continue;
auto tempNode = Palleon::CSceneNode::Create();
tempNode->AppendChild(bgPartObjectIterator->second);
tempNode->SetPosition(instancePosition);
tempNode->SetRotation(instanceRotY);
tempNode->UpdateTransformations();
tempNode->TraverseNodes(
[&] (const Palleon::SceneNodePtr& node)
{
if(auto mesh = std::dynamic_pointer_cast<CUmbralMesh>(node))
{
auto instance = mesh->CreateInstance();
m_instances.push_back(instance);
}
return true;
}
);
}
}
}
}
void MODEL::DoDryRewet( PROJECT* project, int* dried, int* wetted )
{
DRYREW *dryRew = ®ion->dryRew;
region->Connection( 0L );
int del = 0;
int wel = 0;
if( dryRew->method == 1 )
{
// mark nodes and elements to be rewetted ------------------------------------------------------
wel = region->Rewet( dryRew->rewetLimit, dryRew->rewetPasses, project );
// mark dry nodes and elements -----------------------------------------------------------------
del = region->Dry( dryRew->dryLimit, dryRew->countDown );
}
else if( dryRew->method == 2 )
{
region->DryRewet( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
else if( dryRew->method == 3 )
{
region->RewetDry( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
/*
// future work ...
else if( dryRew->method == 4 )
{
// determine dynamic boundary ------------------------------------------------------------------
region.DynamicBound( np, node, *elem, dryRew->dryLimit, project );
}
*/
//////////////////////////////////////////////////////////////////////////////////////////////////
# ifdef _MPI_
del = project->subdom.Mpi_sum( del );
wel = project->subdom.Mpi_sum( wel );
# endif
char text [200];
sprintf( text, "\n (MODEL::DoDryRewet) %d elements have got dry\n", del );
REPORT::rpt.Output( text, 3 );
sprintf( text, "\n (MODEL::DoDryRewet) %d elements have got wet\n", wel );
REPORT::rpt.Output( text, 3 );
int dryRewFlag = del + wel;
if( dryRewFlag )
{
////////////////////////////////////////////////////////////////////////////////////////////////
// exchange information on dry nodes on interfaces
# ifdef _MPI_
if( project->subdom.npr > 1 )
{
MPI_Comm_Dry( project, true );
//////////////////////////////////////////////////////////////////////////////////////////////
// reset wetted area, in case of dry nodes that are not dry in adjacent subdomains
// added on 20.04.2006, sc
if( dryRew->method == 2 || dryRew->method == 3 )
{
int wetted = 0;
for( int n=0; n<region->Getnp(); n++ )
{
NODE* nd = region->Getnode(n);
nd->mark = false;
double H = nd->v.S - nd->zor;
if( H < dryRew->dryLimit )
{
SF( nd->flag, NODE::kDry );
}
else if( isFS(nd->flag, NODE::kDry) )
{
nd->mark = true;
CF( nd->flag, NODE::kDry );
wetted++;
}
CF( nd->flag, NODE::kMarsh );
nd->z = nd->zor;
}
if( dryRew->method == 2 )
{
region->DryRewet( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
else if( dryRew->method == 3 )
{
region->RewetDry( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
////////////////////////////////////////////////////////////////////////////////////////////
MPI_Comm_Dry( project, false );
wetted = project->subdom.Mpi_sum( wetted );
sprintf( text, "\n (MODEL::DoDryRewet) %d interface nodes have got wet\n", wetted );
REPORT::rpt.Output( text, 3 );
}
}
////////////////////////////////////////////////////////////////////////////////////////////////
// reset interface flags: kInface, kInface_DN and kInface_UP; this is
// necessary for the correct ordering of equations in EQS::ResetEqOrder()
project->subdom.SetInface( region );
# endif // #ifdef _MPI_
////////////////////////////////////////////////////////////////////////////////////////////////
// determine 1D boundary elements and ----------------------------------------------------------
// set up slip velocity boundary conditions
Initialize();
SetNormal();
SetRotation();
region->SetSlipFlow();
REPORT::rpt.PrintTime( 3 );
// ================================================================================================
# ifdef kDebug_1
for( int n=0; n<region->Getnp(); n++ )
{
NODE* ndbg = region->Getnode(n);
switch( ndbg->Getname() )
{
case 3654:
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### NODE %6d: inface = %d\n", ndbg->Getname(), ndbg->flag&NODE::kInface );
REPORT::rpt.Message( "### : inface_dn = %d\n", ndbg->flag&NODE::kInface_DN );
REPORT::rpt.Message( "### : inface_up = %d\n", ndbg->flag&NODE::kInface_UP );
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### : dry = %d\n", ndbg->flag&NODE::kDry );
REPORT::rpt.Message( "### : marsh = %d\n", ndbg->flag&NODE::kMarsh );
REPORT::rpt.Message( "### : H = %f\n", ndbg->v.S - ndbg->zor );
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### : bound = %d\n", ndbg->flag&NODE::kBound );
REPORT::rpt.Message( "### : inflow = %d\n", ndbg->flag&NODE::kInlet );
REPORT::rpt.Message( "### : outflow = %d\n", ndbg->flag&NODE::kOutlet );
REPORT::rpt.Message( "### : rotat = %d\n", ndbg->flag&NODE::kRotat );
REPORT::rpt.Message( "### : noMoment = %d\n", ndbg->flag&NODE::kNoMoment );
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### : countDown = %d\n", ndbg->countDown );
{
SUB* sub = ndbg->sub;
while( sub )
{
REPORT::rpt.Message( "### SUBDOM %4d: dry = %d\n", sub->no+1, sub->dry );
sub = sub->next;
}
}
break;
}
}
# endif
// ================================================================================================
}
else
{
// set up structure for connection of nodes to elements ----------------------------------------
// dry elements are not taken into consideration
region->Connection( ELEM::kDry );
}
if( dried ) *dried = del;
if( wetted ) *wetted = wel;
region->firstDryRew = false;
}
void CScriptMoveType::SetPhysics(const float3& _pos, const float3& _vel, const float3& _rot)
{
SetPosition(_pos);
SetVelocity(_vel);
SetRotation(_rot);
}
extern "C" void Function_GetChainOrientationProbabilityTest(char ** input_string,
int*_ptCount,
double* _separationCutOff,
int* corr_counts_out,
double* _systemSize) {
int ptCount = _ptCount[0];
double separationCutOff = _separationCutOff[0];
double systemSize = _systemSize[0];
std::string input(*input_string);
std::stringstream in_stream;
in_stream << "{\"value0\": \"";
in_stream << input;
in_stream << "\"}";
cereal::JSONInputArchive arch(in_stream);
std::vector<CParticleBase> particles;
for (int i = 0; i < ptCount; ++i) {
particles.push_back(CParticleBase());
}
arch.loadBinaryValue(&particles[0], sizeof(CParticleBase) * ptCount);
particles = std::vector<CParticleBase>();
double displ = 0;
for(int i = 0; i < 10; i++){
auto pt = CParticleBase();
pt.Coordinates = i*0.9 + displ;
particles.push_back(pt);
}
// displ = 12;
// for(int i = 0; i < 10; i++){
// auto pt = CParticleBase();
// pt.Coordinates = i*0.9 + displ;
//
// particles.push_back(pt);
// }
//
// displ = 24;
// for(int i = 0; i < 10; i++){
// auto pt = CParticleBase();
// pt.Coordinates = i*0.9 + displ;
// pt.Rotation = CQuaternion(M_PI, CVector(0, 1, 0));
// particles.push_back(pt);
// }
//
//
displ = 36;
for(int i = 0; i < 10; i++){
auto pt = CParticleBase();
pt.Coordinates = i*0.9 + displ;
pt.SetRotation(CQuaternion(M_PI, CVector(0, 1, 0)));
particles.push_back(pt);
}
displ = 48;
for(int i = 0; i < 10; i++){
auto pt = CParticleBase();
pt.Coordinates = i*0.9 + displ;
pt.SetRotation(CQuaternion(M_PI, CVector(0, 1, 0)));
particles.push_back(pt);
}
bool chain_1 = particles[0].GetOrientation().Z > 0;
bool chain_2 = true;
int chainLength = 0;
for (int i = 0; i < particles.size(); i++) {
auto& pt = particles[i];
auto& pt_next = particles[get_next(i, ptCount)];
auto cosTheta = pt.GetOrientation().Z;
auto cosTheta_next = pt_next.GetOrientation().Z;
chain_2 = cosTheta_next > 0;
if(pt.GetDistanceRight(pt_next, systemSize).GetLength() <= separationCutOff && cosTheta * cosTheta_next >= 0){
chainLength++;
}
else {
// ll, rl, lr, rr
if (chain_1 && chain_2) corr_counts_out[3]++;
if (!chain_1 && chain_2) corr_counts_out[2]++;
if (chain_1 && !chain_2) corr_counts_out[1]++;
if (!chain_1 && !chain_2) corr_counts_out[0]++;
if (chain_1) {
corr_counts_out[4]++;
}
else {
corr_counts_out[5]++;
}
corr_counts_out[6] += chainLength;
chainLength = 0;
chain_1 = chain_2;
}
}
}
FirstPersonCamera::FirstPersonCamera()
: PerspectiveCamera()
{
SetRotation(XMFLOAT2(0.0f, 0.0f), 0.0f);
UpdateProjection();
}
void
Snake::Update(float dt)
{
if(m_isStopped)
{
return;
}
//Update the powerup effects before doing anything
updatePowerups(dt);
Vector2 pos = m_grid->GetIntermediatePosition(this);
Vector2 oldPos = pos;
Vector2 oldGridPos = m_grid->WorldSpaceToGrid(pos);
float rot = 0;
switch(m_direction)
{
case DirectionUp:
pos.Y += m_movespeed * dt;
break;
case DirectionDown:
pos.Y -= m_movespeed * dt;
rot = 180;
break;
case DirectionLeft:
pos.X -= m_movespeed * dt;
rot = 90;
break;
case DirectionRight:
pos.X += m_movespeed * dt;
rot = 270;
break;
}
m_grid->SetIntermediatePosition(this, pos);
Vector2 newGridPos = m_grid->WorldSpaceToGrid(pos);
if(oldGridPos != newGridPos)
{
/** Only update the rotation on positional changes. */
SetRotation(rot);
if(!m_requestedDirections.empty())
{
while(isOppositeDirection(m_requestedDirections.front()))
{
m_requestedDirections.pop();
if(m_requestedDirections.empty())
{
break;
}
}
if(!m_requestedDirections.empty())
{
m_direction = m_requestedDirections.front();
m_requestedDirections.pop();
}
}
if(m_biteTimer > 1)
{
SetSprite(getSnakeHeadPath(false));
}
m_biteTimer++;
/** The snake head has moved a cell. Adjust the tail. */
std::deque<Actor*>::iterator it = m_tail.begin();
Vector2 prior = oldPos;
float priorRot = GetRotation();
/** Insert a tailpiece right after the head. */
if(m_numConsumed != 0)
{
addTailPiece(prior);
m_numConsumed--;
}
else
{
for(; it != m_tail.end(); ++it)
{
/** Shift all tail members to the position of the member prior to itself. */
Vector2 tmp = m_grid->GetIntermediatePosition(*it);
m_grid->SetIntermediatePosition(*it, prior);
float tmpRot = (*it)->GetRotation();
bool isCorner = false;
if(*it != m_tail.back())
{
if(tmpRot != priorRot)
{
chooseCornerOrientation(*it, priorRot, prior);
isCorner = true;
}
else
{
(*it)->SetSprite("Resources/Images/snake/snake_body.png");
}
}
(*it)->SetRotation(priorRot);
priorRot = tmpRot;
prior = tmp;
}
}
}
m_grid->Update(dt);
}
void Transform2D::SetRotationDeg(const glm::float32& deg)
{
SetRotation(Angle::FromDegrees(deg));
}
bool cPlayer::LoadFromDisk()
{
LoadPermissionsFromDisk();
// Log player permissions, cause it's what the cool kids do
LOGINFO("Player %s has permissions:", m_PlayerName.c_str() );
for( PermissionMap::iterator itr = m_ResolvedPermissions.begin(); itr != m_ResolvedPermissions.end(); ++itr )
{
if( itr->second ) LOGINFO("%s", itr->first.c_str() );
}
AString SourceFile;
Printf(SourceFile, "players/%s.json", m_PlayerName.c_str() );
cFile f;
if (!f.Open(SourceFile, cFile::fmRead))
{
// This is a new player whom we haven't seen yet, bail out, let them have the defaults
return false;
}
AString buffer;
if (f.ReadRestOfFile(buffer) != f.GetSize())
{
LOGWARNING("Cannot read player data from file \"%s\"", SourceFile.c_str());
return false;
}
f.Close(); //cool kids play nice
Json::Value root;
Json::Reader reader;
if (!reader.parse(buffer, root, false))
{
LOGWARNING("Cannot parse player data in file \"%s\", player will be reset", SourceFile.c_str());
}
Json::Value & JSON_PlayerPosition = root["position"];
if (JSON_PlayerPosition.size() == 3)
{
SetPosX(JSON_PlayerPosition[(unsigned int)0].asDouble());
SetPosY(JSON_PlayerPosition[(unsigned int)1].asDouble());
SetPosZ(JSON_PlayerPosition[(unsigned int)2].asDouble());
m_LastPosX = GetPosX();
m_LastPosY = GetPosY();
m_LastPosZ = GetPosZ();
m_LastFoodPos = GetPosition();
}
Json::Value & JSON_PlayerRotation = root["rotation"];
if (JSON_PlayerRotation.size() == 3)
{
SetRotation ((float)JSON_PlayerRotation[(unsigned int)0].asDouble());
SetPitch ((float)JSON_PlayerRotation[(unsigned int)1].asDouble());
SetRoll ((float)JSON_PlayerRotation[(unsigned int)2].asDouble());
}
m_Health = root.get("health", 0).asInt();
m_AirLevel = root.get("air", MAX_AIR_LEVEL).asInt();
m_FoodLevel = root.get("food", MAX_FOOD_LEVEL).asInt();
m_FoodSaturationLevel = root.get("foodSaturation", MAX_FOOD_LEVEL).asDouble();
m_FoodTickTimer = root.get("foodTickTimer", 0).asInt();
m_FoodExhaustionLevel = root.get("foodExhaustion", 0).asDouble();
m_LifetimeTotalXp = (short) root.get("xpTotal", 0).asInt();
m_CurrentXp = (short) root.get("xpCurrent", 0).asInt();
//SetExperience(root.get("experience", 0).asInt());
m_GameMode = (eGameMode) root.get("gamemode", eGameMode_NotSet).asInt();
m_Inventory.LoadFromJson(root["inventory"]);
m_LoadedWorldName = root.get("world", "world").asString();
LOGD("Player \"%s\" was read from file, spawning at {%.2f, %.2f, %.2f} in world \"%s\"",
m_PlayerName.c_str(), GetPosX(), GetPosY(), GetPosZ(), m_LoadedWorldName.c_str()
);
return true;
}
//=============================================================================
void CTransformComponent2::UpdateRotation (Radian delta)
{
SetRotation(GetRotation() + delta);
}
void Item::Update()
{
frame++;
auto engine = STGEngine::GetInstance();
auto player = engine->GetPlayer();
auto playerPos = player->GetPosition();
auto difX = position.x - playerPos.x;
auto difY = position.y - playerPos.y;
if (goToPlayer && player->IsDead() == false)
{
if (GetSpeed() > 7.0f)
{
SetSpeed(7.0f);
SetAcSpeed(0.0f);
}
if (difX*difX + difY*difY < 64)
{
OnGot();
return;
}
SetAngle(Math::ToAngle(-difX, -difY));
SetRotation(GetAngle());
}
Sprite::Update();
if (goToPlayer && player->IsDead() == false) //Already disposed
{
return;
}
if (frame > 40)
{
SetAngle(270.0f);
SetAcSpeed(0.05f);
SetRotation(0.0f);
}
if (GetSpeed() > 1.5f)
{
SetSpeed(1.5f);
SetAcSpeed(0.0f);
}
if (player->IsDead())
{
return;
}
float dist;
if (player->IsHiSpeed())
{
dist = hitRange + player->GetHiSpeedItemRange();
if (difX*difX + difY*difY < dist*dist)
{
GoToPlayer();
}
}
else
{
dist = hitRange + player->GetLowSpeedItemRange();
if (difX*difX + difY*difY < dist*dist)
{
GoToPlayer();
}
}
if (playerPos.y > player->GetItemGetHeight())
{
gotFromHigh = true;
GoToPlayer();
}
if (position.y < -32 || position.y > 480)
{
MarkDestroy();
}
}
void GroupNode::CopyAsChildren(Scene* scene, GroupNode* root) {
const std::vector<SceneNode*>& tocopy_children = root->Children();
std::deque<SceneNode*>
to_process(tocopy_children.begin(), tocopy_children.end());
SetTranslation(root->Translation());
SetRotation(root->Rotation());
SetScale(root->Scale());
SetVisible(root->Visible());
while (!to_process.empty()) {
SceneNode* to_copy = to_process.front();
to_process.pop_front();
SceneNode* node_copy = nullptr;
switch (to_copy->NodeType()) {
case SceneNodeType::kGroupNode:
{
GroupNode* child = scene->MakeGroup(this, Scene::kAutoName);
GroupNode* group_to_copy =
dynamic_cast<GroupNode*>(to_copy);
child->CopyAsChildren(scene, group_to_copy);
node_copy = child;
}
break;
case SceneNodeType::kCameraNode:
{
CameraNode* child = scene->MakeCamera(this, Scene::kAutoName);
const CameraNode* camera_to_copy =
dynamic_cast<const CameraNode*>(to_copy);
child->CopyFrom(*camera_to_copy);
node_copy = child;
}
break;
case SceneNodeType::kLightNode:
{
LightNode* child = scene->MakeLight(this, Scene::kAutoName);
const LightNode* light_to_copy =
dynamic_cast<const LightNode*>(to_copy);
// *child = *light_to_copy;
(void)light_to_copy;
node_copy = child;
}
break;
case SceneNodeType::kDrawNode:
{
DrawNode* node_to_copy =
dynamic_cast<DrawNode*>(to_copy);
DrawNode* child = scene->MakeDrawNode(this, Scene::kAutoName);
for (const Drawable::Ptr& item : node_to_copy->Drawables()) {
child->Add(item);
}
node_copy = child;
}
break;
}
node_copy->SetTranslation(to_copy->Translation());
node_copy->SetRotation(to_copy->Rotation());
node_copy->SetScale(to_copy->Scale());
node_copy->SetVisible(to_copy->Visible());
}
}
wrapper.PrepareAccelerometer();
wrapper.WaitForInitialization();
//The example...
CogitareComputing::Pico::Engine picoEngine("LD33", 640, 480, 60, vs, fs, CogitareComputing::Pico::SystemSpecificData(&wrapper));
picoEngine.PlayOggMusic("trudelutt2.ogg", false);
auto sound = picoEngine.GetSound("powerup.wav");
auto msh = picoEngine.LoadMesh("picocube.obj");
auto gob = std::make_shared<CogitareComputing::Pico::SimpleGameObject>(msh);
picoEngine.AddGameObject(gob);
picoEngine.SetCameraPos(CogitareComputing::Pico::Vec3(0.0f, 0.0f, -2.0f));
gob->SetPosition(CogitareComputing::Pico::Vec3(0.0f, 0.0f, 2.0f));
picoEngine.SetLight(CogitareComputing::Pico::Vec3(1.0f, 1.0f, 1.0f));
auto angle = 0.0f;
sound->Play(false);
picoEngine.Run([&picoEngine, &gob, &angle](double elapsed)
{
glClearColor(0.0f, 0.0f, 0.0f, 0.0f);
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
if (picoEngine.IsKeyDown(27))
return false;
gob->SetRotation(CogitareComputing::Pico::Vec3(angle, angle, angle));
angle += 0.1f;
return true;
});
picoEngine.RemoveGameObject(gob->Id());
}
void Camera::SetTarget(const core::vector3df &target)
{
SetRotation( (target - GetAbsolutePosition()).getHorizontalAngle() );
}
void Camera::UpdateRotation(float xTurn, float yTurn, float zTurn)
{
SetRotation(m_rotationX + xTurn, m_rotationY + yTurn, m_rotationZ + zTurn);
}
