void Enemy::detectCollision()
{
//bounding sphere for follower
BoundingSphere mySphere = BoundingSphere(mPosition, mRadius);
D3DXVECTOR3 movement;
bool wall = false;
//collision with walls or obstacles in level
for (Mesh* M : gCurrentLevel->getWorldGeometry())
{
for (AxisAlignedBoundingBox AABB : M->getBoundsBoxList())
{
if (collides(AABB, mySphere, movement))
{
mPosition += movement;
wall = true;
}
}
}
//collide with other enemies unless there is was wall in the way
if (!wall)
{
for (Enemy* E : gCurrentLevel->getSpawner()->getEnemies())
{
BoundingSphere otherSphere = BoundingSphere(E->getPosition(), E->getRadius());
if (collides(mySphere, otherSphere, movement))
{
mPosition += (movement / 2);
E->move(-(movement / 2));
}
}
}
}
void Follower::detectCollision()
{
//bounding sphere for follower
BoundingSphere followerSphere = BoundingSphere(mPosition, mRadius);
D3DXVECTOR3 movement;
bool wall = false;
//collision with walls or obstacles in level
for (Mesh* M : gCurrentLevel->getWorldGeometry())
{
for (AxisAlignedBoundingBox AABB : M->getBoundsBoxList())
{
if (collides(AABB, followerSphere, movement))
{
mPosition += movement;
wall = true;
}
}
}
//collide with player unless there is a wall in the way
if (!wall)
{
BoundingSphere playerSphere = BoundingSphere(gPlayer->getPosition(), gPlayer->getRadius());
if (collides(followerSphere, playerSphere, movement))
{
mPosition += movement;
}
}
}
bool Collision::Capsule_Capsule(const Capsule& capsule1, const Capsule& capsule2, HitInfo& hitInfo) {
Vector3 a = capsule1.vector;
Vector3 b = capsule2.vector;
Vector3 c = capsule2.p1 - capsule1.p1;
float distance = capsule1.radius + capsule2.radius;
Vector3 n = a.Cross(b).GetNormal();
float L = c.Dot(n);
Vector3 n1 = a.Cross(n).GetNormal();
Vector3 n2 = b.Cross(n).GetNormal();
Vector3 p3Dash = capsule2.p1 - n * L;
Vector3 p4Dash = capsule2.p2 - n * L;
Vector3 v1 = capsule1.p1 - p3Dash;
Vector3 v2 = capsule1.p2 - p3Dash;
Vector3 v3 = p3Dash - capsule1.p1;
Vector3 v4 = p4Dash - capsule1.p1;
float L1 = v1.Dot(n2);
float L2 = v2.Dot(n2);
float L3 = v3.Dot(n1);
float L4 = v4.Dot(n1);
float t1 = L3 / (L3 - L4);
float t2 = L1 / (L1 - L2);
if ((Math::Abs(L) < distance) && (0 < t1 && t1 < 1) && (0 < t2 && t2 < 1)) {
return true;
}
BoundingSphere s = BoundingSphere(capsule1.p1, capsule1.radius);
if ((t1 < 0) && BoundingSphere_Capsule(s, capsule2, hitInfo)) {
return true;
}
s = BoundingSphere(capsule2.p1, capsule2.radius);
if ((t1 > 1) && BoundingSphere_Capsule(s, capsule1, hitInfo)) {
return true;
}
s = BoundingSphere(capsule2.p1, capsule2.radius);
if ((t2 < 0) && BoundingSphere_Capsule(s, capsule1, hitInfo)) {
return true;
}
s = BoundingSphere(capsule2.p2, capsule2.radius);
if ((t2 > 1) && BoundingSphere_Capsule(s, capsule1, hitInfo)) {
return true;
}
return false;
}
//----------------------------------------------------------------------------
// @ BoundingSphere::Transform()
// ---------------------------------------------------------------------------
// Transforms sphere into new space
//-----------------------------------------------------------------------------
BoundingSphere
BoundingSphere::Transform( float scale, const Matrix33& rotate,
const Vector3& translate ) const
{
return BoundingSphere( rotate*mCenter + translate, mRadius*scale );
} // End of BoundingSphere::Transform()
BoundingSphere QuadTreeNode::CalcVolume()
{
// Traverse down until we reach the leaf nodes, then percolate the bounding spheres back up
sphere = BoundingSphere();
if(children[0])
sphere += children[0]->CalcVolume();
if(children[1])
sphere += children[1]->CalcVolume();
if(children[2])
sphere += children[2]->CalcVolume();
if(children[3])
sphere += children[3]->CalcVolume();
if(sphere.empty())
{
// This node doesn't have any children, so sum the bounds of its meshes
for(size_t i = 0; i < meshes.size(); ++i)
sphere += meshes[i]->sphere;
}
return sphere;
}
void BillboardSample::loadBillboards()
{
Mesh* mesh = Mesh::createQuad(-(BILLBOARD_WIDTH / 2.0f), -(BILLBOARD_HEIGHT / 2.0f), BILLBOARD_WIDTH, BILLBOARD_HEIGHT);
mesh->setBoundingSphere(BoundingSphere(Vector3::zero(), BILLBOARD_HEIGHT));
Effect* effect = Effect::createFromFile("res/shaders/textured.vert", "res/shaders/textured.frag", "TEXTURE_DISCARD_ALPHA");
// Create the model and node and bind the material
for ( unsigned int i = 0; i < BILLBOARD_COUNT; i++ )
{
Node* node = Node::create();
Model* model = Model::create(mesh);
node->setDrawable(model);
_scene->addNode(node);
Material* material = Material::create(effect);
material->getStateBlock()->setDepthTest(true);
material->getStateBlock()->setBlend(false);
material->getParameter("u_diffuseTexture")->setValue("res/png/grass.png" , true);
material->setParameterAutoBinding("u_worldViewProjectionMatrix", RenderState::WORLD_VIEW_PROJECTION_MATRIX);
model->setMaterial(material);
SAFE_RELEASE(model);
SAFE_RELEASE(material);
// Randomly postiion within the domain
float tx = MATH_RANDOM_0_1() * GROUND_WIDTH - (GROUND_WIDTH / 2.0f);
float tz = MATH_RANDOM_0_1() * GROUND_HEIGHT - (GROUND_HEIGHT / 2.0f);
node->translate(tx, (BILLBOARD_HEIGHT / 2.0f), tz);
_billboards.push_back(node);
}
SAFE_RELEASE(effect);
SAFE_RELEASE(mesh);
}
//----------------------------------------------------------------------------
// @ BoundingSphere::Transform()
// ---------------------------------------------------------------------------
// Transforms sphere into new space
//-----------------------------------------------------------------------------
BoundingSphere
BoundingSphere::Transform( float scale, const Quat& rotate,
const Vector3& translate ) const
{
return BoundingSphere( rotate.Rotate(mCenter) + translate, mRadius*scale );
} // End of BoundingSphere::Transform()
//takes the corner of the -x/-z corner and int size
//since the map for this is always flat and square
//works best when map size is divisible by GRID_SIZE
//This only works effectively if done after all the addWorldGeometry
void AStar::initPathfinding()
{
D3DXVECTOR3 corner = gCurrentLevel->getNegCorner();
//set up path nodes for enemy path finding
//place path nodes every GRID_SIZE units except
//in places where it would collide
UINT iterationsX = (UINT)gCurrentLevel->getSize().x / GRID_SIZE;
UINT iterationsZ = (UINT)gCurrentLevel->getSize().z / GRID_SIZE;
for (UINT x = 0; x < iterationsX; ++x)
{
for (UINT z = 0; z < iterationsZ; ++z)
{
bool canPlace = true;
//for each mesh in the current map
for (Mesh* M : gCurrentLevel->getWorldGeometry())
{
//for each AABB in that mesh
for (AxisAlignedBoundingBox AABB : M->getBoundsBoxList())
{
//find the center of the node to compare with
D3DXVECTOR3 nodeCenter = D3DXVECTOR3(corner.x + (float)(x * GRID_SIZE),
0.0f, corner.z + (float)(z * GRID_SIZE));
//make a bounding sphere with it
BoundingSphere PS = BoundingSphere(nodeCenter, CLOSE_RADIUS);
//if the AABB collides with that sphere, we can't place one here
if (collides(AABB, PS))
{
canPlace = false;
break;
}
if (!canPlace)
break;
}
if (!canPlace)
break;
}
//if no obstruction was found, place the node
if (canPlace)
{
D3DXVECTOR3 position = D3DXVECTOR3(corner.x, 0.0f/*SAM:50.0f*/, corner.z)
+ D3DXVECTOR3((float)(x * GRID_SIZE), 0.0f, (float)(z * GRID_SIZE));
#ifdef DEBUG_PATHS
//set up the mesh if in debug
PathNode* pn = new PathNode(L"Content/Models/ball.x", position, D3DXVECTOR3(2.0f, 2.0f, 2.0f));
#else
//use no mesh if not in debug, this saves a lot of time loading
PathNode* pn = new PathNode(position);
#endif
//add new node
mPathNodes.push_back(pn);
}
}
}
//connect the nodes to their closest neighbors
connectPathfinding();
}
typename std::enable_if<std::is_same<typename std::iterator_traits<Iterator>::value_type, BoundingSphere>::value, BoundingSphere>::type
static compute_containing_sphere(Iterator begin, Iterator end)
{
if (begin != end)
{
BoundingSphere bounds = *begin++;
return std::accumulate(begin, end, bounds, std::ptr_fun(&compute_containing_sphere));
}
return BoundingSphere();
}
void BVHNode<BoundingVolumeType>::RecalculateBoundingVolume()
{
if (IsLeaf())
return;
m_volume = BoundingSphere(m_children[0]->m_volume, m_children[1]->m_volume);
if (m_parent)
{
m_parent->RecalculateBoundingVolume();
}
}
void RayTracerCuda::loadObjects(Mesh *output)
{
for (int i = 0; i < (int)theScene->objects.size(); i++)
{
PMesh *theObj = theScene->objects.at(i).get();
output[i].boundingSphere = BoundingSphere(Float3D(&theObj->boundingSphere->center), theObj->boundingSphere->radius);
output[i].viewCenter = Float3D(&theObj->viewCenter);
output[i].numMats = theObj->numMats;
output[i].materials = new Material[theObj->numMats];
for (int j = 0; j < theObj->numMats; j++)
{
output[i].materials[j].ka = FloatColor(&theObj->materials[j].ka);
output[i].materials[j].kd = FloatColor(&theObj->materials[j].kd);
output[i].materials[j].ks = FloatColor(&theObj->materials[j].ks);
output[i].materials[j].reflectivity = FloatColor(&theObj->materials[j].reflectivity);
output[i].materials[j].refractivity = FloatColor(&theObj->materials[j].refractivity);
output[i].materials[j].refractiveIndex = theObj->materials[j].refractiveIndex;
output[i].materials[j].shiny = theObj->materials[j].shiny;
}
output[i].numSurfs = theObj->numSurf;
output[i].surfaces = new Surface[theObj->numSurf];
int surfCount = 0, vertCount = 0;
for (PMesh::SurfCell *curSurf = theObj->surfHead.get(); curSurf != nullptr; curSurf = curSurf->next.get(), surfCount++, vertCount = 0)
{
output[i].surfaces[surfCount].material = curSurf->material;
output[i].surfaces[surfCount].numVerts = curSurf->numVerts;
output[i].surfaces[surfCount].vertArray = new Float3D[curSurf->numVerts];
output[i].surfaces[surfCount].viewNormArray = new Float3D[curSurf->numVerts];
for (PMesh::PolyCell *curPoly = curSurf->polyHead.get(); curPoly != nullptr; curPoly = curPoly->next.get())
{
PMesh::VertListCell *curVert = curPoly->vert.get();
Float3D v1 = Float3D(&theObj->vertArray.at(curVert->vert)->viewPos);
Float3D v2 = Float3D(&theObj->vertArray.at(curVert->next.get()->vert)->viewPos);
Float3D v3 = Float3D(&theObj->vertArray.at(curVert->next.get()->next.get()->vert)->viewPos);
Float3D e1 = v2.minus(&v1);
Float3D e2 = v3.minus(&v1);
output[i].surfaces[surfCount].vertArray[vertCount] = v1;
output[i].surfaces[surfCount].viewNormArray[vertCount++] = Float3D(&theObj->viewNormArray.at(curVert->vert));
output[i].surfaces[surfCount].vertArray[vertCount] = e1;
output[i].surfaces[surfCount].viewNormArray[vertCount++] = Float3D(&theObj->viewNormArray.at(curVert->next.get()->vert));
output[i].surfaces[surfCount].vertArray[vertCount] = e2;
output[i].surfaces[surfCount].viewNormArray[vertCount++] = Float3D(&theObj->viewNormArray.at(curVert->next.get()->next.get()->vert));
}
}
}
}
//----------------------------------------------------------------------------------------------
BoundingSphere generateBoundingSphere(const std::vector<glm::vec3>& positions) {
glm::vec3 center(0.0f, 0.0f, 0.0f);
float radius = 0.0f;
for (const glm::vec3& p : positions) {
center += p;
}
center /= positions.size();
for (const glm::vec3& p : positions) {
float d = glm::distance(center, p);
radius = glm::max(radius, d);
}
return BoundingSphere(center, radius);
}
void FLightSceneInfoCompact::Init(FLightSceneInfo* InLightSceneInfo)
{
LightSceneInfo = InLightSceneInfo;
FSphere BoundingSphere(
InLightSceneInfo->Proxy->GetOrigin(),
InLightSceneInfo->Proxy->GetRadius() > 0.0f ?
InLightSceneInfo->Proxy->GetRadius() :
FLT_MAX
);
FMemory::Memcpy(&BoundingSphereVector,&BoundingSphere,sizeof(BoundingSphereVector));
Color = InLightSceneInfo->Proxy->GetColor();
LightType = InLightSceneInfo->Proxy->GetLightType();
bCastDynamicShadow = InLightSceneInfo->Proxy->CastsDynamicShadow();
bCastStaticShadow = InLightSceneInfo->Proxy->CastsStaticShadow();
bStaticLighting = InLightSceneInfo->Proxy->HasStaticLighting();
}
void Asteroid::ResolveCollision(Asteroid& otherAsteroid)
{
std::chrono::high_resolution_clock::time_point now = std::chrono::high_resolution_clock::now();
if (lastCollision == &otherAsteroid)
{
std::chrono::high_resolution_clock::duration diff = now - lastCollisionTime;
if (std::chrono::duration_cast<std::chrono::milliseconds>(diff).count() < 500)
{
return;
}
}
if (otherAsteroid.lastCollision == this)
{
std::chrono::high_resolution_clock::duration diff = now - otherAsteroid.lastCollisionTime;
if (std::chrono::duration_cast<std::chrono::milliseconds>(diff).count() < 500)
{
return;
}
}
Locus::Triangle3D_t intersectingTriangle1, intersectingTriangle2;
if ( GetAsteroidIntersection(otherAsteroid, intersectingTriangle1, intersectingTriangle2) )
{
Locus::FVector3 collisionPoint = Locus::Triangle3D_t::ComputeCentroid(intersectingTriangle1, intersectingTriangle2);
Locus::FVector3 impulseDirection = NormVector(intersectingTriangle1.Normal());
Locus::ResolveCollision(1.0f, BoundingSphere(), otherAsteroid.BoundingSphere(), collisionPoint, impulseDirection,
motionProperties, otherAsteroid.motionProperties);
lastCollision = &otherAsteroid;
otherAsteroid.lastCollision = this;
now = std::chrono::high_resolution_clock::now();
lastCollisionTime = now;
otherAsteroid.lastCollisionTime = now;
}
}
BoundingSphere BoundingSphere::operator+(const BoundingSphere& rh)
{
return BoundingSphere(*this) += rh;
}
TEST(Camera, frustrumCreation)
{
RendererImplementationMock renderer;
Camera camera( "camera", renderer, Camera::PT_PERSPECTIVE );
camera.setNearPlaneDimensions(10, 10);
camera.setClippingPlanes(10, 100);
camera.setFOV(90);
Frustum frustrum;
camera.calculateFrustum( frustrum );
CPPUNIT_ASSERT_EQUAL(false, testCollision(frustrum, BoundingSphere(Vector(0, 0, -2), 1)));
CPPUNIT_ASSERT_EQUAL(false, testCollision(frustrum, BoundingSphere(Vector(0, 0, 8), 1)));
CPPUNIT_ASSERT_EQUAL(false, testCollision(frustrum, BoundingSphere(Vector(0, 0, 102), 1)));
CPPUNIT_ASSERT_EQUAL(false, testCollision(frustrum, BoundingSphere(Vector(0, 0, 0), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(0, 0, 100), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(0, 0, 8), 2)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(0, 0, 10), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(0, 0, 50), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(-20, 0, 50), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(20, 0, 50), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(0, -20, 50), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(0, 20, 50), 1)));
// camera rotated
Quaternion rotY;
rotY.setAxisAngle( Quad_0100, FastFloat::fromFloat( DEG2RAD( 90 ) ) );
camera.accessLocalMtx().setRotation( rotY );
camera.calculateFrustum( frustrum );
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(10, 0, 0), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(100, 0, 0), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(50, 0, 0), 1)));
// camera rotated
rotY.setAxisAngle( Quad_0100, FastFloat::fromFloat( DEG2RAD( -90 ) ) );
camera.accessLocalMtx().setRotation( rotY );
camera.calculateFrustum( frustrum );
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(-10, 0, 0), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(-100, 0, 0), 1)));
CPPUNIT_ASSERT_EQUAL(true, testCollision(frustrum, BoundingSphere(Vector(-50, 0, 0), 1)));
}
BoundingSphere Light::getBoundingSphere(void) {
return BoundingSphere(getPosition(), radius * 4.0f);
}
void SmokeSource::initializeBoundingSphere()
{
glm::vec3 center(0,0,0);
float radius = glm::length(center - glm::vec3(0.5f, 0.5f, 0.5f));
bounding_sphere = BoundingSphere(center, radius);
}
BoundingSphere P0N0T0Builder::CreateBoundingSphere() const {
return BoundingSphere();
}
void Player::update(float _dt)
{
//do nothing if dead
if (bIsDead)
{
gStateMachine->transitionState(STATE_LOSE);
return;
}
Pawn::update(_dt);
//facing controls
if (gDInput->keyDown(DIK_Q))
{
gCameraMain->setAngleOffset(1.0f * _dt);
}
if (gDInput->keyDown(DIK_E))
{
gCameraMain->setAngleOffset(-1.0f * _dt);
}
//face towards mouse position
float a = (float)gWindowWidth / 2.0f - gDInput->mCursorPos2D.x;
float b = (float)gWindowHeight / 2.0f - gDInput->mCursorPos2D.y;
float angle = atan2f(b, a) + D3DX_PI / 2.0f + gCameraMain->getAngleOffset();
mRotation.y = angle;
//direction controls
bIsMoving = false;
mVelocity = D3DXVECTOR3(0.0f, 0.0f, 0.0f);
if (gDInput->keyDown(DIK_W))
{
mVelocity += D3DXVECTOR3(0.0f, 0.0f, mSpeed);
bIsMoving = true;
}
if (gDInput->keyDown(DIK_S))
{
mVelocity += D3DXVECTOR3(0.0f, 0.0f, -mSpeed);
bIsMoving = true;
}
if (gDInput->keyDown(DIK_A))
{
mVelocity += D3DXVECTOR3(-mSpeed, 0.0f, 0.0f);
bIsMoving = true;
}
if (gDInput->keyDown(DIK_D))
{
mVelocity += D3DXVECTOR3(mSpeed, 0.0f, 0.0f);
bIsMoving = true;
}
if (mVelocity != D3DXVECTOR3(0.0f, 0.0f, 0.0f))
{
//face direction that the buttons indicate we're going
D3DXVec3Normalize(&mVelocity, &mVelocity);
float a = (float)gWindowWidth * 0.5f - mVelocity.x;
float b = (float)gWindowHeight * 0.5f - mVelocity.z;
float angle = atan2f(b, a) + /*D3DX_PI * 1.795f + */5.6391588f +
gCameraMain->getAngleOffset();
//build rotation matrix
D3DXMATRIX rot;
D3DXMatrixRotationY(&rot, angle);
//transform direction by rot matrix
D3DXVECTOR4 transform;
D3DXVec3Transform(&transform, &mVelocity, &rot);
mVelocity = D3DXVECTOR3(transform.x, transform.y, transform.z);
D3DXVec3Normalize(&mVelocity, &mVelocity);
mVelocity *= mSpeed;
}
//did we collide with any level geometry?
bool colliding = false;
//for each colliding mesh in level
// SAM: TODO: Hack, this is for testing
// mLastPosition = mPosition;
// mPosition += (mVelocity * _dt);
for (Mesh* M : gCurrentLevel->getWorldGeometry())
{
//for each bounding box in mesh
/* for (AxisAlignedBoundingBox2D* AABB : M->getAABBs())
{
colliding = collides(*AABB, BoundingSphere2D(D3DXVECTOR2(mPosition.x, mPosition.z), mRadius));
if (colliding)
break;
}
if (colliding) break;*/
// SAM
for (UINT i = 0; i < M->getBoundsBoxList().size(); ++i) {
colliding = collides(AxisAlignedBoundingBox(M->getBoundsBoxList()[i]), BoundingSphere(D3DXVECTOR3(mPosition.x, mPosition.y, mPosition.z), mRadius));
if (colliding)
break;
}
if (colliding)
break;
}
//move
if (!colliding)
{//if not colliding, update position and rotation as normal
mLastPosition = mPosition;
mPosition += (mVelocity * _dt);
}
else//if colliding, only update rotation, push position back
{
mPosition = mLastPosition;
}
mMesh->setPosRot(mPosition, mRotation);
//attacks
mAttackTime += _dt;
//if time to attack and if didn't just click the upper right UI buttons this frame
if (mAttackTime > mAttackDelay &&
(
(gDInput->mCursorPos2D.x < (0.9f * (float)gWindowWidth)) ||
(gDInput->mCursorPos2D.y > (0.3f * (float)gWindowHeight))
)
)
{
ePAttack attackType;
//check if button is pressed
if (gDInput->mouseButtonDown(0))
attackType = mLeftAttack;
else if (gDInput->mouseButtonDown(1))
attackType = mRightAttack;
else
attackType = A_NONE;
bool attacked = false;
if (attackType != A_NONE)
{
Attack* attack;
bool canAttack = true;
switch (attackType)
{
case A_MELEE:
attack = new Attack(L"", 20.0f, 400.0f, 0.1f, true);
gSound->getSystem()->playSound(FMOD_CHANNEL_FREE,playerAttackMelee, false, 0);
attacked = true;
break;
case A_SEED:
if (mAmmoSeeds > 0)
{
--mAmmoSeeds;
attack = new Attack(L"Content/Models/ball.x", 15.0f, 600.0f, 8.0f, true, 10.0f,
D3DXVECTOR3(4.0f, 4.0f, 4.0f));
attack->setTextures(L"Content/Textures/tex_seed.dds", L"Content/Textures/tex_seed_n.dds");
gSound->getSystem()->playSound(FMOD_CHANNEL_FREE,playerAttackSeed, false, 0);
attacked = true;
}
break;
case A_FIRE:
if (mAmmoFire > 0)
{
--mAmmoFire;
attack = new Attack(L"Content/Models/ball.x", 30.0f, 500.0f, 8.0f, true, 10.0f,
D3DXVECTOR3(4.0f, 4.0f, 4.0f));
attack->setTextures(L"Content/Textures/tex_fire.dds", L"Content/Textures/tex_fire_n.dds");
gSound->getSystem()->playSound(FMOD_CHANNEL_FREE,playerAttackFire, false, 0);
attacked = true;
}
break;
}
if (attacked)
{
attack->moveFacingDirection();
gCurrentLevel->getAttackManager()->addAttack(attack);
}
mAttackTime = 0.0f;
}
}
}
inline BoundingSphere Transform( Mat4f & trans ) {
Vec4f pos(m_Center.ToVec3(), 1.0f);
const Vec4f & newCenter = trans*pos;
return BoundingSphere( newCenter.ToVec3(), m_Center[3]);
}
void Hair::LoadHair(const char* hairFile) {
ifstream in(hairFile, ios::binary);
if (!in.good())
return;
//Version number
long version;
in.read((char*)&version, sizeof(long));
//Number splines
long numSplines = 0;
in.read((char*)&numSplines, sizeof(long));
//Read splines
for (int i=0; i<numSplines; i++) {
ControlHair* ch = new ControlHair();
//Read points
long numPoints = 0;
in.read((char*)&numPoints, sizeof(long));
for (int p=0; p<numPoints; p++) {
D3DXVECTOR3 point;
in.read((char*)&point, sizeof(D3DXVECTOR3));
ch->AddPoint(point);
}
m_controlHairs.push_back(ch);
}
in.close();
//Patches
CreatePatch(1, 0, 5, 6);
CreatePatch(2, 1, 6, 7);
CreatePatch(3, 2, 7, 8);
CreatePatch(4, 3, 8, 9);
CreatePatch(6, 5, 14, 10);
CreatePatch(7, 6, 10, 11);
CreatePatch(8, 7, 11, 12);
CreatePatch(9, 8, 12, 13);
CreatePatch(15, 16, 21, 20);
CreatePatch(16, 17, 22, 21);
CreatePatch(17, 18, 23, 22);
CreatePatch(18, 29, 24, 23);
CreatePatch(20, 21, 25, 27);
CreatePatch(21, 22, 26, 25);
CreatePatch(22, 23, 19, 26);
CreatePatch(23, 24, 28, 19);
CreatePatch(29, 4, 24, 9);
CreatePatch(24, 9, 13, 28);
//Create head spheres
m_headSpheres.push_back(BoundingSphere(D3DXVECTOR3(0.0f, 0.057f, -0.017f), 0.082f));
m_headSpheres.push_back(BoundingSphere(D3DXVECTOR3(0.0f, 0.071f, 0.017f), 0.082f));
m_headSpheres.push_back(BoundingSphere(D3DXVECTOR3(0.0f, 0.054f, 0.042f), 0.08f));
m_headSpheres.push_back(BoundingSphere(D3DXVECTOR3(0.0f, 0.018f, 0.017f), 0.09f));
}