Collision CollisionManager::collideWithMapPieceAndMovableObjects( Entity *e )
{
dFloat contacts[16] = {0.0f};
dFloat normals[16] = {0.0f};
dFloat penetration[16] = {0.0f};
Collision col = Collision(false,normals,contacts,penetration);
Vector3 pos = e->getParentSceneNode()->_getFullTransform().getTrans();
Entity* ents[5];
mp->getEntitiesForCollisionFromAPosition( &pos, ents );
for( int i = 0; i < 5; i++ )
{
if( ents[i] != NULL)
{
col = cd->staicAndDynamicCollision( e, ents[i], false );
if( col.isCollided ) return col;
}
}
for(std::vector<Entity*>::const_iterator it=movableObj.begin();it!=movableObj.end(); ++it)
{
col = cd->staicAndDynamicCollision( e, *it, true);
if( col.isCollided ) return col;
}
return col;
}
void CWeaponProjectile::Collision(CFeature* feature)
{
if(gs->randFloat()>weaponDef->fireStarter)
feature->StartFire();
Collision();
}
//only to be used with map pieces where the second element is not transformed
Collision CollisionDetection::staicAndDynamicCollision(Entity *e1, Entity *e2, bool dynamic)
{
dFloat e1Matrix[16];
dFloat e2Matrix[16];
NewtonCollision *e1Collision;
NewtonCollision *e2Collision;
std::map<Entity *,NewtonCollision *>::const_iterator iter =
collisionsMap.find(e1);
if(iter != collisionsMap.end()) {
e1Collision=iter->second;
} else {
cout<<"in mapCollision(e1,e2) the collision mesh for enitiy e1 could not be found in (C++)map"<< endl;
dFloat contacts[16] = {0.0f};
dFloat normals[16] = {0.0f};
dFloat penetration[16] = {0.0f};
return Collision(false,normals,contacts,penetration);
}
iter = collisionsMap.find(e2);
if(iter != collisionsMap.end()) {
e2Collision=iter->second;
} else {
cout<<"in mapCollision(e1,e2) collision mesh for mapEnitiy e2 could not be found in (C++)map"<<endl;
dFloat contacts[16] = {0.0f};
dFloat normals[16] = {0.0f};
dFloat penetration[16] = {0.0f};
return Collision(false,normals,contacts,penetration);;
}
getMatrix(e1,e1Matrix, true); //allwarys transform
getMatrix(e2,e2Matrix, dynamic); //transfrom second entity only if not static
dFloat contacts[16];
dFloat normals[16];
dFloat penetration[16];
int numCollisionPoints = NewtonCollisionCollide (newtonWorld, 1,
e1Collision, &e1Matrix[0],
e2Collision, &e2Matrix[0],
&contacts[0], &normals[0], &penetration[0], 0);
if (numCollisionPoints > 0) {
return Collision(true,normals,contacts,penetration);
} else {
return Collision(false,normals,contacts,penetration);
}
}
void CParticles::Update(float TimePassed)
{
static float FrictionFraction = 0;
FrictionFraction += TimePassed;
if(FrictionFraction > 2.0f) // safty messure
FrictionFraction = 0;
int FrictionCount = 0;
while(FrictionFraction > 0.05f)
{
FrictionCount++;
FrictionFraction -= 0.05f;
}
for(int g = 0; g < NUM_GROUPS; g++)
{
int i = m_aFirstPart[g];
while(i != -1)
{
int Next = m_aParticles[i].m_NextPart;
//m_aParticles[i].vel += flow_get(m_aParticles[i].pos)*time_passed * m_aParticles[i].flow_affected;
m_aParticles[i].m_Vel.y += m_aParticles[i].m_Gravity*TimePassed;
for(int f = 0; f < FrictionCount; f++) // apply friction
m_aParticles[i].m_Vel *= m_aParticles[i].m_Friction;
// move the point
vec2 Vel = m_aParticles[i].m_Vel*TimePassed;
Collision()->MovePoint(&m_aParticles[i].m_Pos, &Vel, 0.1f+0.9f*frandom(), NULL);
m_aParticles[i].m_Vel = Vel* (1.0f/TimePassed);
m_aParticles[i].m_Life += TimePassed;
m_aParticles[i].m_Rot += TimePassed * m_aParticles[i].m_Rotspeed;
// check particle death
if(m_aParticles[i].m_Life > m_aParticles[i].m_LifeSpan)
{
// remove it from the group list
if(m_aParticles[i].m_PrevPart != -1)
m_aParticles[m_aParticles[i].m_PrevPart].m_NextPart = m_aParticles[i].m_NextPart;
else
m_aFirstPart[g] = m_aParticles[i].m_NextPart;
if(m_aParticles[i].m_NextPart != -1)
m_aParticles[m_aParticles[i].m_NextPart].m_PrevPart = m_aParticles[i].m_PrevPart;
// insert to the free list
if(m_FirstFree != -1)
m_aParticles[m_FirstFree].m_PrevPart = i;
m_aParticles[i].m_PrevPart = -1;
m_aParticles[i].m_NextPart = m_FirstFree;
m_FirstFree = i;
}
i = Next;
}
}
}
void CControls::ClampMousePos()
{
if(m_pClient->m_Snap.m_SpecInfo.m_Active && !m_pClient->m_Snap.m_SpecInfo.m_UsePosition)
{
m_MousePos[g_Config.m_ClDummy].x = clamp(m_MousePos[g_Config.m_ClDummy].x, 200.0f, Collision()->GetWidth()*32-200.0f);
m_MousePos[g_Config.m_ClDummy].y = clamp(m_MousePos[g_Config.m_ClDummy].y, 200.0f, Collision()->GetHeight()*32-200.0f);
}
else
{
float CameraMaxDistance = 200.0f;
float FollowFactor = g_Config.m_ClMouseFollowfactor/100.0f;
float MouseMax = min(CameraMaxDistance/FollowFactor + g_Config.m_ClMouseDeadzone, (float)g_Config.m_ClMouseMaxDistance);
if(length(m_MousePos[g_Config.m_ClDummy]) > MouseMax)
m_MousePos[g_Config.m_ClDummy] = normalize(m_MousePos[g_Config.m_ClDummy])*MouseMax;
}
}
void player::update(float time)
{
rect.left +=dx*time;
Collision(0);
rect.top += dy*time;
Collision(1);
Regeneration(time);
frame++;
if(frame > 2) frame -= 2;
if(dx>0) playerSp.setTextureRect(IntRect(32*(int)frame, 96, 32, 48));
if(dx<0) playerSp.setTextureRect(IntRect(32*(int)frame, 48, 32, 48));
if(dy<0) playerSp.setTextureRect(IntRect(32*(int)frame, 146, 32, 48));
if(dy>0) playerSp.setTextureRect(IntRect(32*(int)frame, 2, 32, 48));
playerSp.setPosition(rect.left, rect.top);
dx = 0;
dy = 0;
}
void CollisionPack::load(Core::File& pFile)
{
const int collisionSize = pFile.readInt32();
for(int i = 0; i < collisionSize; ++i)
{
add(Collision(pFile));
}
}
bool ObjectsCollision(SDL_Rect *rect)
{
for (int i = 0; i < object_number; i++)
if (objects[i].solid &&
Collision(objects[i].sprite->rect, rect) != NONE)
return true;
return false;
}
void CExplosiveProjectile::Update()
{
pos+=speed;
speed.y+=gs->gravity;
if(!--ttl)
Collision();
}
void FGame::Process()
{
// 키보드 입력 처리
if(game.m_Input.GetKeyState(VK_LEFT))
{
character.Move(0);
}
if(game.m_Input.GetKeyState(VK_RIGHT))
{
character.Move(2);
}
if(!character.m_use && game.m_Input.GetKeyState(VK_SPACE) == KEY_PRESS)
{
game.StartState(Game::STATE_GAME);
}
// 고구마 생성 처리
static int iRapid = 0;
if(game.GetFrameTime() < Game.FPS * 20)
{
iRapid = 6;
}
else if(game.GetFrameTime() < Game.FPS * 40)
{
iRapid = 10;
}
else if(game.GetFrameTime() < Game.FPS * 60)
{
iRapid = 14;
}
else if(game.GetFrameTime() < Game.FPS * 80)
{
iRapid = 20;
}
else if(game.GetFrameTime() < Game.FPS * 100)
{
iRapid = 30;
}
if(game.GetFrameTime() % (Game::FPS / iRapid) == 0)
{
MakeGogooma();
}
Collision();
character.Process();
int i;
for(i = 0; i < GOGOOMA_COUNT; i++)
{
gogoomas[i].Process();
if(gogoomas[i].m_frame == 1 && character.m_use)
{
iScore++;
}
}
}
CollisionEvents& PhysicsEngine::getCollisionEvents() {
const uint32_t CONTINUE_EVENT_FILTER_FREQUENCY = 10;
_collisionEvents.clear();
// scan known contacts and trigger events
ContactMap::iterator contactItr = _contactMap.begin();
while (contactItr != _contactMap.end()) {
ContactInfo& contact = contactItr->second;
ContactEventType type = contact.computeType(_numContactFrames);
if(type != CONTACT_EVENT_TYPE_CONTINUE || _numSubsteps % CONTINUE_EVENT_FILTER_FREQUENCY == 0) {
ObjectMotionState* motionStateA = static_cast<ObjectMotionState*>(contactItr->first._a);
ObjectMotionState* motionStateB = static_cast<ObjectMotionState*>(contactItr->first._b);
glm::vec3 velocityChange = (motionStateA ? motionStateA->getObjectLinearVelocityChange() : glm::vec3(0.0f)) +
(motionStateB ? motionStateB->getObjectLinearVelocityChange() : glm::vec3(0.0f));
if (motionStateA && motionStateA->getType() == MOTIONSTATE_TYPE_ENTITY) {
QUuid idA = motionStateA->getObjectID();
QUuid idB;
if (motionStateB && motionStateB->getType() == MOTIONSTATE_TYPE_ENTITY) {
idB = motionStateB->getObjectID();
}
glm::vec3 position = bulletToGLM(contact.getPositionWorldOnB()) + _originOffset;
glm::vec3 penetration = bulletToGLM(contact.distance * contact.normalWorldOnB);
_collisionEvents.push_back(Collision(type, idA, idB, position, penetration, velocityChange));
} else if (motionStateB && motionStateB->getType() == MOTIONSTATE_TYPE_ENTITY) {
QUuid idB = motionStateB->getObjectID();
glm::vec3 position = bulletToGLM(contact.getPositionWorldOnA()) + _originOffset;
// NOTE: we're flipping the order of A and B (so that the first objectID is never NULL)
// hence we must negate the penetration.
glm::vec3 penetration = - bulletToGLM(contact.distance * contact.normalWorldOnB);
_collisionEvents.push_back(Collision(type, idB, QUuid(), position, penetration, velocityChange));
}
}
if (type == CONTACT_EVENT_TYPE_END) {
ContactMap::iterator iterToDelete = contactItr;
++contactItr;
_contactMap.erase(iterToDelete);
} else {
++contactItr;
}
}
return _collisionEvents;
}
void Tank::Handle()
{
Update();
CheckFlags();
if (m_iTimeFiring > BULLET_CREATION_TIME && m_bShoot)
{
m_oBulletHandle->New(
m_fPosX + (30 * cos((m_glSurfaceTurret.rotation - 90) * (PI / 180.0f))),
m_fPosY + (30 * sin((m_glSurfaceTurret.rotation - 90) * (PI / 180.0f))),
m_glSurfaceTurret.rotation);
m_iTimeFiring = 0;
}
m_oBulletHandle->Handle();
Collision();
if (m_iTimeTraveled > TREAD_CREATION_TIME)
{
//at some point we will meet a condition where we need
//to spawn a treadmark
//after we spawn a treadmark
//that new object that is created
//will be linked to the tank because it was created by it
//but the object would "turn itself off" given a condition it would
//meet internally
//ie: tank is moving and gains a total distance of 100 units
//the tank then spawns a treadmark
//the tank keeps moving and will continue to spawn a treadmark every 100 units
//the treadmark itself on creation would begin it's own internal "counter/timer/distancetraveled"
//then undraw itself once it meets that condition
//usage example:
//tank.move();
//if(tank.distance > 100)
//for i 10 x
//{
//tank.spawntreadmark(initial + offset);
//}
//do other stuff
//tank.spawntreadmark()
//{ if(this->timer > 0)
//draw(treadmarkTexture)
//}
m_oTreadMarks->New(
m_fPosX + ((m_glSurfaceBase.w - 35) * cos((m_glSurfaceBase.rotation + 45) * (PI / 180.0f))),
m_fPosY + ((m_glSurfaceBase.h - 33) * sin((m_glSurfaceBase.rotation + 45) * (PI / 180.0f))),
m_glSurfaceBase.rotation);
m_oTreadMarks->New(
m_fPosX + ((m_glSurfaceBase.w - 35) * cos((m_glSurfaceBase.rotation - 225) * (PI / 180.0f))),
m_fPosY + ((m_glSurfaceBase.h - 33) * sin((m_glSurfaceBase.rotation - 225) * (PI / 180.0f))),
m_glSurfaceBase.rotation);
m_iTimeTraveled = 0;
}
}
//-----------------------------------------------------------------
// Name: RotateTet()
// Desc: Rotates the tetrad by 90 degrees CCW or CW
//-----------------------------------------------------------------
void CTetris::RotateCurrTet( int angle )
{//Have to take the current position move it to the origan, rotate, then move it back
int i=0, tempX = 0, tempY = 0,
nOrgX = m_CurrentTet.iX, nOrgY = m_CurrentTet.iY;
Tetrad temp(m_CurrentTet);
//x'= xcos(angle) - ysin(angle);
//y'= xsin(angle) + ycos(angle);
if( m_nCurrentTetName == SALLY )
return;
//pre do the rotation then check bounds and if it works store in currentTet
if( angle == CW )//
{
TranslateTet(temp,0,0);
for(i=0; i<BLOCKS_PER_TET; i++)
{
tempX = 0*temp.tet[i].iX + -1*(temp.tet[i].iY);
tempY = 1*temp.tet[i].iX + 0*(temp.tet[i].iY);
temp.tet[i].iX = tempX;
temp.tet[i].iY = tempY;
}
TranslateTet(temp,nOrgX,nOrgY);
for(i=0; i<BLOCKS_PER_TET; i++)
if( !Collision(temp.tet[i].iX, temp.tet[i].iY) )
return;
m_CurrentTet = temp;
}
else if( angle == CCW )
{
TranslateTet(temp,0,0);
for(i=0; i<BLOCKS_PER_TET; i++)
{
tempX = 0*temp.tet[i].iX + 1*temp.tet[i].iY;
tempY = (-1*temp.tet[i].iX + 0*temp.tet[i].iY);
temp.tet[i].iX = tempX;
temp.tet[i].iY = tempY;
}
TranslateTet(temp,nOrgX,nOrgY);
for(i=0; i<BLOCKS_PER_TET; i++)
if( !Collision(temp.tet[i].iX, temp.tet[i].iY) )
return;
m_CurrentTet = temp;
}
}
Collision State::hitBy(Collidable* other) {
if(!collisionsEnabled || !enabled || this == other || !m_map) {
return Collision();
}
// Test collisions with the map
Collision c = m_map->hitBy(other);
return c;
}
void Enemy::Update()
{
Movement();
Collision();
if (m_timer > m_duration)
Destroy();
m_timer += Time::DeltaTime();
}
void CControls::ClampMousePos()
{
if(m_pClient->m_Snap.m_SpecInfo.m_Active && m_pClient->m_Snap.m_SpecInfo.m_SpectatorID < 0)
{
m_MousePos[g_Config.m_ClDummy].x = clamp(m_MousePos[g_Config.m_ClDummy].x, 200.0f, Collision()->GetWidth()*32-200.0f);
m_MousePos[g_Config.m_ClDummy].y = clamp(m_MousePos[g_Config.m_ClDummy].y, 200.0f, Collision()->GetHeight()*32-200.0f);
}
else
{
float CameraMaxDistance = 200.0f;
float FollowFactor = (g_Config.m_ClDyncam ? g_Config.m_ClDyncamFollowFactor : g_Config.m_ClMouseFollowfactor) / 100.0f;
float DeadZone = g_Config.m_ClDyncam ? g_Config.m_ClDyncamDeadzone : g_Config.m_ClMouseDeadzone;
float MaxDistance = g_Config.m_ClDyncam ? g_Config.m_ClDyncamMaxDistance : g_Config.m_ClMouseMaxDistance;
float MouseMax = min(CameraMaxDistance/FollowFactor + DeadZone, MaxDistance);
if(length(m_MousePos[g_Config.m_ClDummy]) > MouseMax)
m_MousePos[g_Config.m_ClDummy] = normalize(m_MousePos[g_Config.m_ClDummy])*MouseMax;
}
}
void CGameMap::draw(CVisibileSqear & playerVisions)
{
//glColor3f(0.0f,0.0f,0.0f);// Предает эффект сумерек
for (size_t indexOfFloor = 0; m_floor.size() > indexOfFloor; ++indexOfFloor)
{
if (Collision(playerVisions, m_floor[indexOfFloor]))
{
m_floor[indexOfFloor].draw();
}
}
for (size_t indexOfWall = 0; m_walls.size() > indexOfWall; ++indexOfWall)
{
if (Collision(playerVisions, m_walls[indexOfWall]))
{
m_walls[indexOfWall].draw();
}
}
}
// TODO: this could be optimized with better algorithm?
bool CLevel::VisibilityCheck(const CCoord<float>& aSrc,const CCoord<float>& aDst,CCoord<float>* aCollisionPoint)
{
int a;
int iterations=int(max(1.0f,max(abs(aDst.X()-aSrc.X()),abs(aDst.Y()-aSrc.Y()))));
int x_sign = sign(aDst.X()-aSrc.X());
int y_sign = sign(aDst.Y()-aSrc.Y());
float xDelta=((float)aDst.X()-aSrc.X())/iterations;
float yDelta=((float)aDst.Y()-aSrc.Y())/iterations;
CCoord<float> oldPos = aSrc;
CCoord<float> newPos;
for (a=0;a<=iterations;a++)
{
newPos = aSrc.Add(xDelta*a,yDelta*a);
DEBUG_ASSERT((a==0) || (newPos != oldPos));
if (Collision(newPos.Div(KBlockSpriteSize)))
{
if (aCollisionPoint)
(*aCollisionPoint) = oldPos;
return false;
}
if (x_sign!=0 && y_sign !=0 && a>0)
{
if (Collision(newPos.Add(-x_sign,0).Div(KBlockSpriteSize)) &&
Collision(newPos.Add(0,-y_sign).Div(KBlockSpriteSize)))
{
if (aCollisionPoint)
(*aCollisionPoint) = oldPos;
return false;
}
}
oldPos = newPos;
}
if (aCollisionPoint)
(*aCollisionPoint) = aDst;
return true;
}
bool ConjAliens::collidedWith(Object* other)
{
if (Collision(position, size, other->position, other->size))
{
int col = (other->position.x - position.x) / SIZE_COLUMNA;
int fil = (other->position.y - position.y) / SIZE_FILA;
return aliens[col][fil].collidedWith(other);
}
return false;
}
bool CControls::OnMouseMove(float x, float y)
{
if(m_pClient->m_Snap.m_pGameobj && m_pClient->m_Snap.m_pGameobj->m_Paused)
return false;
m_MousePos += vec2(x, y); // TODO: ugly
//
float CameraMaxDistance = 200.0f;
float FollowFactor = g_Config.m_ClMouseFollowfactor/100.0f;
float DeadZone = g_Config.m_ClMouseDeadzone;
float MouseMax = min(CameraMaxDistance/FollowFactor + DeadZone, (float)g_Config.m_ClMouseMaxDistance);
//vec2 camera_offset(0, 0);
if(m_pClient->m_Snap.m_Spectate)
{
if(m_MousePos.x < 200.0f) m_MousePos.x = 200.0f;
if(m_MousePos.y < 200.0f) m_MousePos.y = 200.0f;
if(m_MousePos.x > Collision()->GetWidth()*32-200.0f) m_MousePos.x = Collision()->GetWidth()*32-200.0f;
if(m_MousePos.y > Collision()->GetHeight()*32-200.0f) m_MousePos.y = Collision()->GetHeight()*32-200.0f;
m_TargetPos = m_MousePos;
}
else
{
float l = length(m_MousePos);
if(l > MouseMax)
{
m_MousePos = normalize(m_MousePos)*MouseMax;
l = MouseMax;
}
//float offset_amount = max(l-deadzone, 0.0f) * follow_factor;
//if(l > 0.0001f) // make sure that this isn't 0
//camera_offset = normalize(mouse_pos)*offset_amount;
}
return true;
}
int Dodgeall (SDL_Surface *ecran)
{
SDL_ShowCursor(0);
//SDL_WarpMouse(480,320);
int score=0;
int aff=10, affichage=1;
int p[2]={480,320};
int y[50], xdeb[50], xfin[50];
int sens=1; // 1 : bas, -1 : haut, 2 : gauche, -2 : droite
int ecart=100, trou=200; // ecart +-1/4 et trou +-1/2
sens=rand()%4;
if(sens==0) sens=-2;
else if (sens==3) sens=-1;
int i=0;
while(i<50)
{
y[i]=-1;
xdeb[i]=-1;
xfin[i]=-1;
i++;
}
y[0]=0; xdeb[0]=50; xfin[0]= TAILLE_X-50; ///Au cas ou le decor ne démarre pas
while(!Situation.exit && Collision(p[0], p[1], y, xdeb, xfin, sens))
{
if(affichage)SDL_Flip(ecran);
if(affichage)Blit(ecran,0,0,TAILLE_X,TAILLE_Y,0,0,0);
Changer_situation();
Genere_mobile(ecran, sens, y, xdeb, xfin, ecart, trou, affichage);
if(affichage)Bouge_souris(ecran, p);
score++;
if( aff>1 && score%500==0) aff--;
if(aff<2)
{
if(score%((3-aff)*1000)==0) aff--;
affichage=score%(4-aff);
if(affichage) affichage=0;
else affichage=1;
}
else affichage=score%aff;
if(affichage)Affichage_score2(ecran,score,TAILLE_X-67,TAILLE_Y-15);
//SDL_Delay(5);
}
SDL_ShowCursor(1);
return score;
}
void CExplosiveProjectile::Update()
{
pos+=speed;
speed.y+=gs->gravity;
if(!--ttl)
Collision();
if(weaponDef->noExplode) {
if(TraveledRange())
CProjectile::Collision();
}
}
// Restore non collision tiles like water, ladder, etc
void MapContainer::RestoreCollisionTiles()
{
for( int y = 0; y < Base.GetHeight(); y++ )
{
for( int x = 0; x < Base.GetWidth() ; x++ )
{
int Tile = Base(x,y);
if( Tile < BLOCK_COLLIDE ) Collision(x,y) = Tile;
}
}
}
// WARNING: recursive
void
SceneNode::CheckNodeCollision(
SceneNode& node,
std::set<Pair>& collisionPairs
) {
// TODO: put this complex condition into function
if ( this != &node && Collision( *this, node ) && !IsDestroyed() && !node.IsDestroyed() ) {
collisionPairs.insert( std::minmax( this, &node ) );
}
for( Ptr& child : mChildren ) {
child->CheckNodeCollision( node, collisionPairs );
}
}
bool Rocket::Step(){
unsigned int tempCoorX=this->GetCoorX();
unsigned int tempCoorY=this->GetCoorY();
tempCoorX++;
if (tempCoorX>WIDTHOFFIELD){
this->Destroy();
return false;
}
if (this->marvelValue==true) {
bool temp=true;
for (unsigned int i=tempCoorX-2;i<tempCoorX+2;i++){
for (unsigned int q=tempCoorY-2;q<tempCoorY+2;q++){
Unit* collisionUnit=Collision(i,q);
if (collisionUnit!=nullptr) {
collisionUnit->Destroy();
temp=false;
}
}
}
if (temp==false){
this->Destroy();
return false;
}
}
else {
Unit* collisionUnit=Collision(tempCoorX,tempCoorY);
if (collisionUnit!=nullptr) {
collisionUnit->Destroy();
this->Destroy();
return false;
}
}
this->SetCoordinate(tempCoorX,tempCoorY);
return true;
}
// 当たり判定を行う関数
void Screen::RectAndRectCollision(){
for (int i = 0; i < BLOCK_NUM; ++i){
// ブロックに衝突したらやり直し
if (Collision(
player->getPlayer(),
stage->getBlock(i)).Judgment()){
// プレイヤーの位置を最初に戻す
player->PlayerReset();
// ブロックの乱数初期化
stage->BlockReset();
break;
}
}
}
void MUTI_SKILL_MANAGER::CrashMouse(MOUSE *mouse, hgeAnimation *anim, PUBLIC *pub, BALLbase *ball)
{
for (int j = 0; j != arrows.size(); ++j)
{
if (mouse->god == false && arrows[j].alive && arrows[j].foe && Collision(pub->cskill1, arrows[j].angle, arrows[j].x, arrows[j].y, mouse->x, mouse->y))
{
arrows[j].alive = false;
mouse->mouseHP -= damage(arrows[j].damage, mouse->base_m_def);
mouse->god = true;
mouse->godcount = 20;
}
}
}
void
UpdateBallz (ball * ballz)
{
ball *head = ballz;
while (head)
{
UpdateBall (head);
head = head->next;
}
Collision (ballz);
}
bool Water::IsCollide(Object* obj)
{
// TODO
if (obj->type() == OBJ_CHARACTER)
{
Point pt = obj->GetPosition();
return Collision(pos(), 20, pt);
}
else if (obj->type() == OBJ_BOX)
{
Point pt = obj->GetPosition();
return Collision(pos(), 20, pt);
}
else if (obj->type() == OBJ_WATERBOMB)
{
Point pt = obj->GetPosition();
return Collision(pos(), 20, pt);
}
return false;
}
bool Alien::collidedWith(Object* other)
{
if (!dead)
{
if (Collision(position, size, other->position, other->size))
{
dead = true;
game->getPlayer()->donarPunts(position.y * 20);
game->getConjAliens()->restarAlien();
return true;
}
}
return false;
}
