LTBOOL ScaleSprite::Update()
{
if (m_bStartOn)
{
g_pCommonLT->SetObjectFlags(m_hObject, OFT_User, USRFLG_VISIBLE, USRFLG_VISIBLE);
g_pCommonLT->SetObjectFlags(m_hObject, OFT_Flags, FLAG_VISIBLE, FLAG_VISIBLE);
}
SetNextUpdate(UPDATE_NEVER);
// BUG - This isn't quite right. Sometimes this works (flipping the sprite)
// other times the sprite shouldn't be flipped...Not sure what the bug is.
// For some reason the sprites are sometimes backwards...Get the rotation
// so we can flip it...
LTRotation rRot;
LTVector vPos, vDir, vU, vR, vF;
g_pLTServer->GetObjectPos(m_hObject, &vPos);
g_pLTServer->GetObjectRotation(m_hObject, &rRot);
vU = rRot.Up();
vR = rRot.Right();
vF = rRot.Forward();
if (m_bFlushWithWorld)
{
// Align the sprite to the surface directly behind the sprite
// (i.e., opposite the forward vector)...
VEC_NORM(vF);
VEC_MULSCALAR(vDir, vF, -1.0f);
// Determine where on the surface to place the sprite...
IntersectInfo iInfo;
IntersectQuery qInfo;
VEC_COPY(qInfo.m_From, vPos);
VEC_COPY(qInfo.m_Direction, vDir);
qInfo.m_Flags = IGNORE_NONSOLID | INTERSECT_OBJECTS | INTERSECT_HPOLY;
qInfo.m_FilterFn = LTNULL;
if (g_pLTServer->CastRay(&qInfo, &iInfo))
{
LTVector vTemp;
VEC_COPY(vPos, iInfo.m_Point);
VEC_COPY(vDir, iInfo.m_Plane.m_Normal);
// Place the sprite just above the surface...
VEC_MULSCALAR(vTemp, vDir, 1.0f);
VEC_ADD(vPos, vPos, vTemp);
g_pLTServer->SetObjectPos(m_hObject, &vPos);
}
}
return LTTRUE;
}
bool CFallingStuffFX::Init(ILTClient *pClientDE, FX_BASEDATA *pBaseData, const CBaseFXProps *pProps)
{
// Perform base class initialisation
if (!CBaseFX::Init(pClientDE, pBaseData, pProps))
return false;
// Store the first position as the last position
m_vLastPos = pBaseData->m_vPos;
// If we have a parent object, get it and apply it's rotation
// to the plane direction
m_vPlaneDir = GetProps()->m_vPlaneDir;
if (m_hParent)
{
LTRotation orient;
m_pLTClient->GetObjectRotation(m_hParent, &orient);
LTMatrix mRot;
Mat_SetBasisVectors(&mRot, &orient.Right(), &orient.Up(), &orient.Forward());
LTVector vTmp = m_vPlaneDir;
MatVMul(&m_vPlaneDir, &mRot, &vTmp);
}
LTVector vUp;
vUp.x = 0.0f;
vUp.y = 1.0f;
vUp.z = 0.0f;
LTVector vTest = m_vPlaneDir;
vTest.x = (float)fabs(vTest.x);
vTest.y = (float)fabs(vTest.y);
vTest.z = (float)fabs(vTest.z);
if (vTest == vUp)
{
// Gotsta use another axis
vUp.x = -1.0f;
vUp.y = 0.0f;
vUp.z = 0.0f;
}
m_vRight = m_vPlaneDir.Cross(vUp);
m_vUp = m_vPlaneDir.Cross(m_vRight);
// Create the base object
CreateDummyObject();
// Success !!
return true;
}
LTBOOL CLaserTriggerFX::CalcBeamCoords()
{
if (!m_hServerObject) return LTFALSE;
// The beam is relative to the server object's dims...
LTVector vPos;
g_pLTClient->GetObjectPos(m_hServerObject, &vPos);
LTRotation rRot;
g_pLTClient->GetObjectRotation(m_hServerObject, &rRot);
LTVector vU, vR, vF;
vU = rRot.Up();
vR = rRot.Right();
vF = rRot.Forward();
// Okay, the beam is always along the object's longest dim...
LTVector vDir = vF;
LTFLOAT fLongestDim = m_cs.vDims.z; // Assume forward first...
m_pls.fMaxWidth = (m_cs.vDims.x + m_cs.vDims.y); // Assume x/y are same...
if (m_cs.vDims.y > fLongestDim)
{
vDir = vU;
fLongestDim = m_cs.vDims.y;
m_pls.fMaxWidth = (m_cs.vDims.x + m_cs.vDims.z);
}
if (m_cs.vDims.x > fLongestDim)
{
vDir = vR;
fLongestDim = m_cs.vDims.x;
m_pls.fMaxWidth = (m_cs.vDims.y + m_cs.vDims.z);
}
m_pls.vStartPos = vPos + (vDir * fLongestDim);
m_pls.vEndPos = vPos - (vDir * fLongestDim);
return LTTRUE;
}
void CFlashLight3rdPerson::GetLightPositions(LTVector& vStartPos, LTVector& vEndPos, LTVector& vUOffset, LTVector& vROffset)
{
if ( !m_hObj ) return;
HMODELSOCKET hSocket;
if ( LT_OK == g_pModelLT->GetSocket(m_hObj, "LeftHand", hSocket) )
{
LTransform tf;
if ( LT_OK == g_pModelLT->GetSocketTransform(m_hObj, hSocket, tf, LTTRUE) )
{
LTVector vPos = tf.m_Pos;
LTRotation rRot = tf.m_Rot;
LTVector vRight, vUp, vForward;
vRight = rRot.Right();
vUp = rRot.Up();
vForward = rRot.Forward();
//vStartPos = vPos - vUp*4.0f + vForward*8.0f;
//vEndPos = vPos + vForward*200.0f;
//vUOffset = vUp;
//vROffset = vRight;
vStartPos = vPos;
vEndPos = vPos + (vForward * g_cvarFLLightOffsetForward.GetFloat());
vROffset = (vRight * g_cvarFLLightOffsetRight.GetFloat());
vUOffset = (vUp * g_cvarFLLightOffsetUp.GetFloat());
// Update the Start/End position to addjust for any offset...
vEndPos += vROffset;
vEndPos += vUOffset;
vStartPos += vROffset;
vStartPos += vUOffset;
}
}
}
void CLaserBeam::Update(LTVector &vBeamStartPos, const LTRotation* pRDirRot,
LTBOOL b3rdPerson, LTBOOL bDetect)
{
if (!m_bOn) return;
// Calculate beam position...
HOBJECT hCamera = g_pPlayerMgr->GetCamera();
if (!hCamera) return;
HLOCALOBJ hPlayerObj = g_pLTClient->GetClientObject();
if (!hPlayerObj) return;
HOBJECT hFilterList[] = {hPlayerObj, g_pPlayerMgr->GetMoveMgr()->GetObject(), LTNULL};
IntersectQuery qInfo;
IntersectInfo iInfo;
LTVector vPos(0, 0, 0);
LTRotation rRot;
LTVector vU, vR, vF;
if (pRDirRot && b3rdPerson)
{
vPos = vBeamStartPos;
vU = pRDirRot->Up();
vR = pRDirRot->Right();
vF = pRDirRot->Forward();
}
else
{
g_pLTClient->GetObjectRotation(hCamera, &rRot);
g_pLTClient->GetObjectPos(hCamera, &vPos);
vU = rRot.Up();
vR = rRot.Right();
vF = rRot.Forward();
if (g_cvarLaserBeamDebug.GetFloat() == 0.0f)
{
vBeamStartPos += vPos;
}
else if (g_cvarLaserBeamDebug.GetFloat() == 1.0f)
{
vBeamStartPos = vPos;
}
else if (pRDirRot)
{
vU = pRDirRot->Up();
vR = pRDirRot->Right();
vF = pRDirRot->Forward();
vBeamStartPos = vBeamStartPos;
}
}
LTVector vEndPos = vPos + (vF * 10000.0f);
qInfo.m_From = vPos;
qInfo.m_To = vEndPos;
qInfo.m_Flags = INTERSECT_OBJECTS | IGNORE_NONSOLID;
qInfo.m_FilterFn = ObjListFilterFn;
qInfo.m_pUserData = hFilterList;
if (g_pLTClient->IntersectSegment(&qInfo, &iInfo))
{
vEndPos = iInfo.m_Point;
}
// Show the light beam...
LTVector vColor = LTVector(GetRandom(235.0f, 255.0f), GetRandom(35.0f, 55.0f), GetRandom(35.0f, 55.0f));;
LTFLOAT fAlpha = g_cvarLaserBeamAlpha.GetFloat();
if (iInfo.m_hObject && bDetect)
{
uint32 dwUsrFlgs = 0;
g_pCommonLT->GetObjectFlags(iInfo.m_hObject, OFT_User, dwUsrFlgs);
if (dwUsrFlgs & USRFLG_CHARACTER)
{
fAlpha = 0.95f;
vColor.Init(GetRandom(35.0f, 55.0f), GetRandom(235.0f, 255.0f), GetRandom(35.0f, 55.0f));;
}
}
LTFLOAT fWidth = g_cvarLaserBeamThickness.GetFloat();
fWidth = b3rdPerson ? fWidth*2.0f : fWidth;
vBeamStartPos += (vF * g_cvarLaserBeamFOffset.GetFloat());
vBeamStartPos += (vR * g_cvarLaserBeamROffset.GetFloat());
vBeamStartPos += (vU * g_cvarLaserBeamUOffset.GetFloat());
PLFXCREATESTRUCT pls;
if (g_cvarLaserBeamDebug.GetFloat() >= 0.0f)
{
// g_pLTClient->CPrint("StartPos = %.2f, %.2f, %.2f", VEC_EXPAND(vBeamStartPos));
// g_pLTClient->CPrint("EndPos = %.2f, %.2f, %.2f", VEC_EXPAND(vEndPos));
}
pls.vStartPos = vBeamStartPos;
pls.vEndPos = vEndPos;
pls.vInnerColorStart = vColor;
pls.vInnerColorEnd = pls.vInnerColorStart;
pls.vOuterColorStart = LTVector(0, 0, 0);
pls.vOuterColorEnd = LTVector(0, 0, 0);
pls.fAlphaStart = fAlpha;
pls.fAlphaEnd = fAlpha;
pls.fMinWidth = 0;
pls.fMaxWidth = fWidth;
pls.fMinDistMult = 1.0f;
pls.fMaxDistMult = 1.0f;
pls.fLifeTime = 1.0f;
pls.fAlphaLifeTime = 1.0f;
pls.fPerturb = 0.0f;
pls.bAdditive = LTTRUE;
pls.bAlignFlat = b3rdPerson ? LTFALSE : LTTRUE;
pls.nWidthStyle = PLWS_CONSTANT;
pls.nNumSegments = (int)g_cvarLaserBeamNumSegments.GetFloat();
if (m_LightBeam.HasBeenDrawn())
{
// Keep the light beam in the vis list...
m_LightBeam.SetPos(vBeamStartPos);
// Hide the beam in portals if 1st person...Also set flag really
// close to true...
uint32 dwFlags2, dwFlags;
dwFlags = m_LightBeam.GetFlags();
dwFlags2 = m_LightBeam.GetFlags2();
if (b3rdPerson)
{
dwFlags &= ~FLAG_REALLYCLOSE;
}
else
{
if (g_cvarLaserBeamDebug.GetFloat() > 1.0f)
{
dwFlags |= FLAG_REALLYCLOSE;
pls.bUseObjectRotation = LTTRUE;
}
}
m_LightBeam.SetFlags(dwFlags);
m_LightBeam.SetFlags2(dwFlags2);
m_LightBeam.ReInit(&pls);
}
else
{
m_LightBeam.Init(&pls);
m_LightBeam.CreateObject(g_pLTClient);
}
m_LightBeam.Update();
}
void CLightningFX::EmitBolts( float tmFrameTime )
{
// Make sure enough time between emissions has passed...
m_tmElapsedEmission += tmFrameTime;
if( m_fDelay < m_tmElapsedEmission )
{
LTransform lTrans;
LTVector vAttractorPos;
ILTModel *pModelLT = m_pLTClient->GetModelLT();
uint32 nActiveBolts = GetRandom( (int)GetProps()->m_nMinNumBolts, (int)GetProps()->m_nMaxNumBolts );
uint32 nBolt;
bool bCanUseAttractors = (m_lstAttractors.size() > 0);
bool bCanUseRadius = (GetProps()->m_fOmniDirectionalRadius >= 1.0f);
CLightningBolt *pBolt = LTNULL;
LightningBolts::iterator iter;
for( nBolt = 0, iter = m_lstBolts.begin(); iter != m_lstBolts.end(), nBolt < nActiveBolts; ++iter, ++nBolt )
{
pBolt = *iter;
pBolt->m_fWidth = GetRandom( GetProps()->m_fMinBoltWidth, GetProps()->m_fMaxBoltWidth );
pBolt->m_fLifetime = GetRandom( GetProps()->m_fMinLifetime, GetProps()->m_fMaxLifetime );
pBolt->m_tmElapsed = 0.0f;
pBolt->m_bActive = true;
// Grab the position of the object to compensate for offset
if( m_hTarget )
{
m_pLTClient->GetObjectPos( m_hTarget, &vAttractorPos );
}
else
{
vAttractorPos = m_vTargetPos;
}
// Decide if we should use an attractor or radius for the end pos...
if( bCanUseAttractors && (!bCanUseRadius || GetRandom(0,1)) )
{
uint8 nIndex = GetRandom( 0, (int)(m_lstAttractors.size()) - 1 );
CAttractor cAttractor = m_lstAttractors[nIndex];
if( cAttractor.GetTransform( lTrans, true ) == LT_OK )
{
vAttractorPos = lTrans.m_Pos;
}
}
else if( bCanUseRadius )
{
LTVector vRandomPos;
vRandomPos.x = GetRandom( -1.0f, 1.0f );
vRandomPos.y = GetRandom( -1.0f, 1.0f );
vRandomPos.z = GetRandom( -1.0f, 1.0f );
vRandomPos.Normalize();
vRandomPos *= GetRandom( -GetProps()->m_fOmniDirectionalRadius, GetProps()->m_fOmniDirectionalRadius );
vAttractorPos = m_vPos + vRandomPos;
IntersectQuery iQuery;
IntersectInfo iInfo;
iQuery.m_From = m_vPos;
iQuery.m_To = vAttractorPos;
if( m_pLTClient->IntersectSegment( &iQuery, &iInfo ))
{
vAttractorPos = iInfo.m_Point;
}
}
LTVector vNew = m_vPos;
LTVector vDir = vAttractorPos - vNew;
float fStep = vDir.Length() / (float)pBolt->m_nNumSegments;
float fPerturb = GetRandom( GetProps()->m_fMinPerturb, GetProps()->m_fMaxPerturb );
vDir.Normalize();
LTRotation rRot = LTRotation( vDir, LTVector( 0.0f, 1.0f, 0.0f ));
CLinkListNode<PT_TRAIL_SECTION> *pNode = pBolt->m_collPathPts.GetHead();
while( pNode )
{
pNode->m_Data.m_vPos = vNew;
pNode->m_Data.m_tmElapsed = 0.0f;
pNode->m_Data.m_vBisector.Init();
// Add in some perturb going in the direction of the attractor pos for the next section...
vNew += (rRot.Forward() * fStep );
vNew += (rRot.Up() * GetRandom( -fPerturb, fPerturb ));
vNew += (rRot.Right() * GetRandom( -fPerturb, fPerturb ));
// Make sure the last section goes to the end pos...
if( !pNode->m_pNext )
pNode->m_Data.m_vPos = vAttractorPos;
pNode = pNode->m_pNext;
}
}
// Decide when the next emission will be...
m_tmElapsedEmission = 0.0f;
m_fDelay = GetRandom( GetProps()->m_fMinDelay, GetProps()->m_fMaxDelay );
}
}
void CFlashLightPlayer::GetLightPositions(LTVector& vStartPos, LTVector& vEndPos, LTVector& vUOffset, LTVector& vROffset)
{
vStartPos.Init();
vEndPos.Init();
vUOffset.Init();
vROffset.Init();
CMoveMgr* pMoveMgr = g_pPlayerMgr->GetMoveMgr();
if (!pMoveMgr) return;
LTRotation rRot;
if (pMoveMgr->GetVehicleMgr()->IsVehiclePhysics())
{
if (g_pPlayerMgr->IsFirstPerson())
{
pMoveMgr->GetVehicleMgr()->GetVehicleLightPosRot(vStartPos, rRot);
}
else // 3rd person vehicle
{
// Get light pos on 3rd-person vehicle...
HLOCALOBJ hPlayerObj = g_pLTClient->GetClientObject();
if (hPlayerObj)
{
g_pLTClient->GetObjectRotation(hPlayerObj, &rRot);
g_pLTClient->GetObjectPos(hPlayerObj, &vStartPos);
}
}
}
else if (g_pPlayerMgr->IsFirstPerson())
{
HOBJECT hCamera = g_pPlayerMgr->GetCamera();
if (!hCamera) return;
g_pLTClient->GetObjectRotation(hCamera, &rRot);
g_pLTClient->GetObjectPos(hCamera, &vStartPos);
}
else // 3rd person
{
// Get light pos from 3rd-person model...
HLOCALOBJ hPlayerObj = g_pLTClient->GetClientObject();
if (hPlayerObj)
{
// g_pLTClient->GetObjectRotation(hPlayerObj, &rRot);
// g_pLTClient->GetObjectPos(hPlayerObj, &vStartPos);
HMODELSOCKET hSocket;
if ( LT_OK == g_pModelLT->GetSocket(hPlayerObj, "LeftHand", hSocket) )
{
LTransform tf;
if ( LT_OK == g_pModelLT->GetSocketTransform(hPlayerObj, hSocket, tf, LTTRUE) )
{
vStartPos = tf.m_Pos;
rRot = tf.m_Rot;
}
}
}
}
vEndPos = vStartPos + (rRot.Forward() * g_cvarFLLightOffsetForward.GetFloat());
if (g_pPlayerMgr->IsFirstPerson())
{
vROffset = (rRot.Right() * g_cvarFLLightOffsetRight.GetFloat());
vUOffset = (rRot.Up() * g_cvarFLLightOffsetUp.GetFloat());
// Update the Start/End position to addjust for any offset...
vEndPos += vROffset;
vEndPos += vUOffset;
vStartPos += vROffset;
vStartPos += vUOffset;
}
}
void DebugLineSystem::AddOrientation( const LTVector& vCenter, const LTRotation& rRot, float fLength, uint8 nAlpha)
{
AddArrow(vCenter, vCenter + rRot.Right() * fLength, Color::Red, nAlpha);
AddArrow(vCenter, vCenter + rRot.Up() * fLength, Color::Green, nAlpha);
AddArrow(vCenter, vCenter + rRot.Forward() * fLength, Color::Blue, nAlpha);
}
//function that handles the custom rendering
void CParticleSystemGroup::RenderParticleSystem(ILTCustomRenderCallback* pInterface, const LTRigidTransform& tCamera)
{
//track our performance
CTimedSystemBlock TimingBlock(g_tsClientFXParticles);
//setup our vertex declaration
if(pInterface->SetVertexDeclaration(g_ClientFXVertexDecl.GetTexTangentSpaceDecl()) != LT_OK)
return;
//bind a quad index stream
if(pInterface->BindQuadIndexStream() != LT_OK)
return;
//set the fact that we were visible
*m_pVisibleFlag = true;
//now determine the largest number of particles that we can render at any time
uint32 nMaxParticlesPerBatch = QUAD_RENDER_INDEX_STREAM_SIZE / 6;
nMaxParticlesPerBatch = LTMIN(nMaxParticlesPerBatch, DYNAMIC_RENDER_VERTEX_STREAM_SIZE / (sizeof(STexTangentSpaceVert) * 4));
//determine the screen orientation
LTRotation rCamera = tCamera.m_rRot;
if (m_pProps->m_bObjectSpace)
{
LTRotation rObjectRotation;
g_pLTClient->GetObjectRotation(m_hCustomRender, &rObjectRotation);
rCamera = rObjectRotation.Conjugate() * rCamera;
}
LTVector vUp = rCamera.Up();
LTVector vRight = rCamera.Right();
//create some vectors to offset to each corner (avoids adding for displacement in the inner loop)
//Each one can just be scaled by the size of the particle to get the final offset
static const float kfHalfRoot2 = 0.5f * MATH_SQRT2;
//premultiplied versions of up and right scaled by half the square root of two
LTVector vUpHalfRoot2 = vUp * kfHalfRoot2;
LTVector vRightHalfRoot2 = vRight * kfHalfRoot2;
//precalculate the diagonals for non-rotating particles since these are constant
LTVector vDiagonals[4];
vDiagonals[0] = vUpHalfRoot2 - vRightHalfRoot2;
vDiagonals[1] = vUpHalfRoot2 + vRightHalfRoot2;
vDiagonals[2] = -vUpHalfRoot2 + vRightHalfRoot2;
vDiagonals[3] = -vUpHalfRoot2 - vRightHalfRoot2;
uint32 nNumParticlesLeft = m_Particles.GetNumParticles();
//precalculate some data for the basis space of the particles
LTVector vNormal = -rCamera.Forward();
LTVector vTangent = vRight;
LTVector vBinormal = -vUp;
//the U scale for particle images
float fUImageWidth = 1.0f / (float)m_pProps->m_nNumImages;
//variables used within the inner loop
float fSize;
uint32 nColor;
//now run through all the particles and render
CParticleIterator itParticles = m_Particles.GetIterator();
while(nNumParticlesLeft > 0)
{
//determine our batch size
uint32 nBatchSize = LTMIN(nNumParticlesLeft, nMaxParticlesPerBatch);
//lock down our buffer for rendering
SDynamicVertexBufferLockRequest LockRequest;
if(pInterface->LockDynamicVertexBuffer(nBatchSize * 4, LockRequest) != LT_OK)
return;
//fill in a batch of particles
STexTangentSpaceVert* pCurrOut = (STexTangentSpaceVert*)LockRequest.m_pData;
if(m_pProps->m_bRotate)
{
//we need to render the particles rotated
for(uint32 nBatchParticle = 0; nBatchParticle < nBatchSize; nBatchParticle++)
{
//sanity check
LTASSERT(!itParticles.IsDone(), "Error: Particle count and iterator mismatch");
//get the particle from the iterator
SParticle* pParticle = (SParticle*)itParticles.GetParticle();
GetParticleSizeAndColor(pParticle, nColor, fSize);
//determine the sin and cosine of this particle angle
float fAngle = pParticle->m_fAngle;
float fSinAngle = LTSin(fAngle);
float fCosAngle = LTCos(fAngle);
LTVector vRotRight = (vRightHalfRoot2 * fCosAngle + vUpHalfRoot2 * fSinAngle) * fSize;
LTVector vRotUp = vNormal.Cross(vRotRight);
LTVector vRotTangent = vTangent * fCosAngle + vBinormal * fSinAngle;
LTVector vRotBinormal = vTangent * fSinAngle + vBinormal * fCosAngle;
SetupParticle( pCurrOut,
pParticle->m_Pos + vRotUp - vRotRight,
pParticle->m_Pos + vRotUp + vRotRight,
pParticle->m_Pos - vRotUp + vRotRight,
pParticle->m_Pos - vRotUp - vRotRight,
nColor, vNormal, vRotTangent, vRotBinormal,
pParticle->m_nUserData & PARTICLE_IMAGE_MASK, fUImageWidth);
//move onto the next set of particles
pCurrOut += 4;
//move onto the next particle for processing
itParticles.Next();
}
}
else if (m_pProps->m_bStreak)
{
//the particles are non-rotated but streaked along their velocity
for(uint32 nBatchParticle = 0; nBatchParticle < nBatchSize; nBatchParticle++)
{
//sanity check
LTASSERT(!itParticles.IsDone(), "Error: Particle count and iterator mismatch");
//get the particle from the iterator
SParticle* pParticle = (SParticle*)itParticles.GetParticle();
GetParticleSizeAndColor(pParticle, nColor, fSize);
//in order to render the streak, we determine a line that passes through
//the particle and runs in the direction of the velocity of the particle
//we need to project the velocity onto the screen
LTVector2 vScreen;
vScreen.x = -(pParticle->m_Velocity.Dot(vRight));
vScreen.y = -(pParticle->m_Velocity.Dot(vUp));
//we know that the up and right vectors are normalized, so we can save some work by
//just doing a 2d normalization
float fMag = vScreen.Mag();
if(fMag == 0.0f)
vScreen.Init(fSize, 0.0f);
else
vScreen *= fSize / fMag;
//determine our actual screen space velocity
LTVector vScreenRight = vUp * vScreen.y + vRight * vScreen.x;
LTVector vScreenUp = vUp * -vScreen.x + vRight * vScreen.y;
//and now compute the endpoint of the streak
LTVector vEndPos = pParticle->m_Pos - pParticle->m_Velocity * m_pProps->m_fStreakScale;
SetupParticle( pCurrOut,
pParticle->m_Pos - vScreenRight - vScreenUp,
vEndPos + vScreenRight - vScreenUp,
vEndPos + vScreenRight + vScreenUp,
pParticle->m_Pos - vScreenRight + vScreenUp,
nColor, vNormal, vScreenRight, vScreenUp,
pParticle->m_nUserData & PARTICLE_IMAGE_MASK, fUImageWidth);
//move onto the next set of particles
pCurrOut += 4;
//move onto the next particle for processing
itParticles.Next();
}
}
else
{
//the particles are non-rotated
for(uint32 nBatchParticle = 0; nBatchParticle < nBatchSize; nBatchParticle++)
{
//sanity check
LTASSERT(!itParticles.IsDone(), "Error: Particle count and iterator mismatch");
//get the particle from the iterator
SParticle* pParticle = (SParticle*)itParticles.GetParticle();
GetParticleSizeAndColor(pParticle, nColor, fSize);
SetupParticle( pCurrOut,
pParticle->m_Pos + vDiagonals[0] * fSize,
pParticle->m_Pos + vDiagonals[1] * fSize,
pParticle->m_Pos + vDiagonals[2] * fSize,
pParticle->m_Pos + vDiagonals[3] * fSize,
nColor, vNormal, vTangent, vBinormal,
pParticle->m_nUserData & PARTICLE_IMAGE_MASK, fUImageWidth);
//move onto the next set of particles
pCurrOut += 4;
//move onto the next particle for processing
itParticles.Next();
}
}
//unlock and render the batch
pInterface->UnlockAndBindDynamicVertexBuffer(LockRequest);
pInterface->RenderIndexed( eCustomRenderPrimType_TriangleList,
0, nBatchSize * 6, LockRequest.m_nStartIndex,
0, nBatchSize * 4);
nNumParticlesLeft -= nBatchSize;
}
}
LTBOOL CShellCasingFX::Update()
{
if (!m_hObject || !m_pClientDE) return LTFALSE;
if (g_pGameClientShell->IsServerPaused())
{
return LTTRUE;
}
m_fElapsedTime += g_pGameClientShell->GetFrameTime();
m_fDieTime -= g_pGameClientShell->GetFrameTime();
if (m_fDieTime <= 0.0f) return LTFALSE;
// Update object scale if necessary...
LTVector vScale;
m_pClientDE->GetObjectScale(m_hObject, &vScale);
if (vScale != m_vFinalScale)
{
if (m_fElapsedTime <= g_vtShellScaleTime.GetFloat())
{
LTVector vScaleRange = (m_vFinalScale - m_vInitialScale);
vScale = m_vInitialScale + (vScaleRange * (m_fElapsedTime/g_vtShellScaleTime.GetFloat()));
if (vScale > m_vFinalScale)
{
vScale = m_vFinalScale;
}
m_pClientDE->SetObjectScale(m_hObject, &vScale);
}
else
{
m_pClientDE->SetObjectScale(m_hObject, &m_vFinalScale);
}
}
if (m_bResting) return LTTRUE;
LTRotation rRot;
g_pLTClient->GetObjectRotation(m_hObject, &rRot);
// If velocity slows enough, and we're on the ground, just stop bouncing and just wait to expire.
if (m_movingObj.m_dwPhysicsFlags & MO_RESTING)
{
m_bResting = LTTRUE;
// Stop the spinning...
rRot.Rotate(rRot.Up(), m_fYaw);
g_pLTClient->SetObjectRotation(m_hObject, &rRot);
// Shell is at rest, we can add a check here to see if we really want
// to keep it around depending on detail settings...
//HLOCALOBJ hObjs[1];
//uint32 nNumFound, nBogus;
//m_pClientDE->FindObjectsInSphere(&m_movingObj.m_vPos, 64.0f, hObjs, 1, &nBogus, &nNumFound);
// Remove thyself...
//if (nNumFound > 15) return LTFALSE;
}
else
{
if (m_fPitchVel != 0 || m_fYawVel != 0)
{
LTFLOAT fDeltaTime = g_pGameClientShell->GetFrameTime();
m_fPitch += m_fPitchVel * fDeltaTime;
m_fYaw += m_fYawVel * fDeltaTime;
rRot.Rotate(rRot.Up(), m_fYaw);
rRot.Rotate(rRot.Right(), m_fPitch);
g_pLTClient->SetObjectRotation(m_hObject, &rRot);
}
}
LTVector vNewPos;
if (UpdateMovingObject(LTNULL, &m_movingObj, vNewPos))
{
ClientIntersectInfo info;
LTBOOL bBouncedOnGround = LTFALSE;
if (BounceMovingObject(LTNULL, &m_movingObj, vNewPos, &info,
INTERSECT_HPOLY, true, bBouncedOnGround))
{
// If we hit the sky/invisible surface we're done...
SurfaceType eType = GetSurfaceType(info);
if (eType == ST_SKY || eType == ST_INVISIBLE)
{
return LTFALSE;
}
if (m_nBounceCount >= MAX_BOUNCE_COUNT)
{
if (!(m_movingObj.m_dwPhysicsFlags & MO_LIQUID))
{
SURFACE* pSurf = g_pSurfaceMgr->GetSurface(eType);
if (pSurf)
{
// Play appropriate sound...
if (pSurf->szShellImpactSnds[0])
{
g_pClientSoundMgr->PlaySoundFromPos(vNewPos, pSurf->szShellImpactSnds[0], pSurf->fShellSndRadius,
SOUNDPRIORITY_MISC_LOW);
}
}
}
}
// Adjust the bouncing..
m_fPitchVel *= 0.75f;
m_fYawVel *= -0.75f;
m_nBounceCount--;
if (m_nBounceCount <= 0)
{
m_movingObj.m_dwPhysicsFlags |= MO_RESTING;
}
}
m_movingObj.m_vPos = vNewPos;
if (g_pCommonLT->GetPointStatus(&vNewPos) == LT_OUTSIDE)
{
return LTFALSE;
}
g_pLTClient->SetObjectPos(m_hObject, &vNewPos);
}
return LTTRUE;
}
void CPolyGridFX::CreateModelWaves(uint32 nKernalSize, uint32 nBuffer, float fFrameTime)
{
//maximum number of objects to find intersecting the grid
static const uint32 knMaxObjToFind = 32;
//find the radius of our polygrid
float fPolyRad = m_vDims.Mag();
//amount to displace for a model
float fDisplaceAmount = m_fModelDisplace * fFrameTime;
//just bail if the models aren't going to displace at all
if(fDisplaceAmount < 0.01f)
return;
HLOCALOBJ hFound[knMaxObjToFind];
uint32 nFound = 0;
LTVector vPGPos;
m_pClientDE->GetObjectPos(m_hObject, &vPGPos);
LTVector vPGDims;
m_pClientDE->Physics()->GetObjectDims(m_hObject, &vPGDims);
//now run through all the characters and see which ones intersect
CSpecialFXList* pCharacterList = g_pGameClientShell->GetSFXMgr()->GetFXList(SFX_CHARACTER_ID);
LTVector vPGMin = vPGPos - vPGDims;
LTVector vPGMax = vPGPos + vPGDims;
for(uint32 nCurrChar = 0; nCurrChar < (uint32)pCharacterList->GetNumItems(); nCurrChar++)
{
if(!(*pCharacterList)[nCurrChar])
continue;
//determine the HOBJECT of this character
HOBJECT hChar = (*pCharacterList)[nCurrChar]->GetServerObj();
if(!hChar)
continue;
//get the object position and dimensions
LTVector vCharPos, vCharDims;
m_pClientDE->GetObjectPos(hChar, &vCharPos);
m_pClientDE->Physics()->GetObjectDims(hChar, &vCharDims);
LTVector vCharMin = vCharPos - vCharDims;
LTVector vCharMax = vCharPos + vCharDims;
//if it overlaps, add it to our list
if( (vPGMin.x < vCharMax.x) && (vPGMax.x > vCharMin.x) &&
(vPGMin.y < vCharMax.y) && (vPGMax.y > vCharMin.y) &&
(vPGMin.z < vCharMax.z) && (vPGMax.z > vCharMin.z))
{
//they intersect, add it to the list
hFound[nFound] = hChar;
nFound++;
//see if we need to stop looking for objects
if(nFound >= knMaxObjToFind)
break;
}
}
//bail if none
if(nFound == 0)
{
//make sure all objects are cleared from the list
for(uint32 nCurrRemove = 0; nCurrRemove < MAX_MODELS_TO_TRACK; nCurrRemove++)
{
m_hTrackedModels[nCurrRemove] = NULL;
}
return;
}
//precalc info
//find the orienation of the polygrid
LTRotation rRot;
m_pClientDE->GetObjectRotation(m_hObject, &rRot);
//now get the basis vectors of the object space
LTVector vRight = rRot.Right();
LTVector vForward = rRot.Forward();
//make sure the polygrid is valid
if((m_dwNumPoliesX == 0) || (m_dwNumPoliesY == 0))
return;
//find the dimensions of the polygons of the polygrid
float fXPolySize = (m_vDims.x * 2.0f) / (float)m_dwNumPoliesX;
float fYPolySize = (m_vDims.z * 2.0f) / (float)m_dwNumPoliesY;
//bail if not a valid size
if((fXPolySize < 0.01f) || (fYPolySize < 0.01f))
return;
//flag indicating which tracked models should be kept around
bool bTouchedTrackedModels[MAX_MODELS_TO_TRACK];
for(uint32 nCurrTrack = 0; nCurrTrack < MAX_MODELS_TO_TRACK; nCurrTrack++)
{
bTouchedTrackedModels[nCurrTrack] = false;
}
//ok, now we run through all the objects we found and update our grid accordingly
for(uint32 nCurrObj = 0; nCurrObj < nFound; nCurrObj++)
{
//the object we are checking
HLOCALOBJ hObj = hFound[nCurrObj];
//now lets see if this is a tracked model, if it is, we know where it was last
//update and we can create a wave line, otherwise we have no clue, and should
//track it for the next update
bool bTracked = false;
LTVector vPrevPos;
LTVector vPos;
m_pClientDE->GetObjectPos(hObj, &vPos);
//if we aren't currently tracking it, this is where to put it
uint32 nInsertPos = MAX_MODELS_TO_TRACK - 1;
for(uint32 nCurrModel = 0; nCurrModel < MAX_MODELS_TO_TRACK; nCurrModel++)
{
if(m_hTrackedModels[nCurrModel] == hObj)
{
//we found a match, we need to save this value, move
//it to the front of the list, and update it
vPrevPos = m_vTrackedModelsPos[nCurrModel];
//move all the items back so that this will be in the first slot
for(uint32 nCurrMove = nCurrModel; nCurrMove > 0; nCurrMove--)
{
m_hTrackedModels[nCurrMove] = m_hTrackedModels[nCurrMove - 1];
m_vTrackedModelsPos[nCurrMove] = m_vTrackedModelsPos[nCurrMove - 1];
bTouchedTrackedModels[nCurrMove] = bTouchedTrackedModels[nCurrMove - 1];
}
//update the first element
m_hTrackedModels[0] = hObj;
m_vTrackedModelsPos[0] = vPos;
bTouchedTrackedModels[0] = true;
//all done
bTracked = true;
break;
}
//also bail if one of the slots is NULL
if(m_hTrackedModels[nCurrModel] == NULL)
{
nInsertPos = nCurrModel;
}
}
//see if this was tracked or not
if(!bTracked)
{
//was not! We need to add it to the list
m_hTrackedModels[nInsertPos] = hObj;
m_vTrackedModelsPos[nInsertPos] = vPos;
bTouchedTrackedModels[nInsertPos] = true;
continue;
}
//make sure that the model is actually moving
if((vPrevPos - vPos).MagSqr() < 0.5f)
continue;
//ok, we have a model that intersects our polygrid, let us create some waves
//find out the endpoints of the line that will displace
float fX1 = vRight.Dot(vPrevPos - vPGPos) + m_vDims.x;
float fY1 = vForward.Dot(vPrevPos - vPGPos) + m_vDims.z;
float fX2 = vRight.Dot(vPos - vPGPos) + m_vDims.x;
float fY2 = vForward.Dot(vPos - vPGPos) + m_vDims.z;
//now find the greater delta in polygon units
float fXDelta = (float)fabs(fX1 - fX2) / fXPolySize;
float fYDelta = (float)fabs(fY1 - fY2) / fYPolySize;
//increments for the X and Y directions
float fXInc, fYInc;
float fCurrX, fCurrY;
//the variable to use for threshold comparisons
float *pfCompare;
//the threshold
float fThreshold;
//now scan convert accordingly
if(fYDelta > fXDelta)
{
//make sure Y1 is smaller
if(fY2 < fY1)
{
Swap(fY1, fY2);
Swap(fX1, fX2);
}
fYInc = fYPolySize;
fXInc = (fX2 - fX1) / (fY2 - fY1) * fYInc;
fThreshold = fY2 / fYPolySize;
pfCompare = &fCurrY;
}
else
{
//make sure Y1 is smaller
if(fX2 < fX1)
{
Swap(fY1, fY2);
Swap(fX1, fX2);
}
fXInc = fXPolySize;
fYInc = (fY2 - fY1) / (fX2 - fX1) * fXInc;
fThreshold = fX2 / fXPolySize;
pfCompare = &fCurrX;
}
//start out at the first point
fCurrY = fY1 / fYPolySize;
fCurrX = fX1 / fXPolySize;
fXInc /= fXPolySize;
fYInc /= fXPolySize;
float fXFrac;
float fYFrac;
uint32 nPrevBuffer = (nBuffer + 1) % 2;
//we need to scale the displacement amount by the speed at which we are moving
fDisplaceAmount *= (vPrevPos - vPos).Mag() / (fFrameTime * g_cvarPGDisplaceMoveScale.GetFloat());
//now scan convert!
while(*pfCompare < fThreshold)
{
//convert this to an integer position
int32 nXPos = (int32)(fCurrX);
int32 nYPos = (int32)(fCurrY);
//handle clipping
if((nXPos >= (int32)nKernalSize) && (nYPos >= (int32)nKernalSize) &&
(nXPos < (int32)m_dwNumPoliesX - (int32)nKernalSize - 1) &&
(nYPos < (int32)m_dwNumPoliesY - (int32)nKernalSize - 1))
{
fXFrac = fCurrX - nXPos;
fYFrac = fCurrY - nYPos;
m_WaveBuffer[nBuffer].Get(nXPos, nYPos) += fDisplaceAmount * (1.0f - fXFrac) * (1.0f - fYFrac);
m_WaveBuffer[nBuffer].Get(nXPos + 1, nYPos) += fDisplaceAmount * fXFrac * (1.0f - fYFrac);
m_WaveBuffer[nBuffer].Get(nXPos, nYPos + 1) += fDisplaceAmount * (1.0f - fXFrac) * fYFrac;
m_WaveBuffer[nBuffer].Get(nXPos + 1, nYPos + 1) += fDisplaceAmount * fXFrac * fYFrac;
m_WaveBuffer[nPrevBuffer].Get(nXPos, nYPos) += fDisplaceAmount * (1.0f - fXFrac) * (1.0f - fYFrac);
m_WaveBuffer[nPrevBuffer].Get(nXPos + 1, nYPos) += fDisplaceAmount * fXFrac * (1.0f - fYFrac);
m_WaveBuffer[nPrevBuffer].Get(nXPos, nYPos + 1) += fDisplaceAmount * (1.0f - fXFrac) * fYFrac;
m_WaveBuffer[nPrevBuffer].Get(nXPos + 1, nYPos + 1) += fDisplaceAmount * fXFrac * fYFrac;
}
//move along
fCurrX += fXInc;
fCurrY += fYInc;
}
}
//now that we are done, clear out any models that were not touched
for(uint32 nCurrRemove = 0; nCurrRemove < MAX_MODELS_TO_TRACK; nCurrRemove++)
{
if(!bTouchedTrackedModels[nCurrRemove])
m_hTrackedModels[nCurrRemove] = NULL;
}
}
bool CPolyTubeFX::Update(float tmFrameTime)
{
// Base class update first
if (!CBaseFX::Update(tmFrameTime))
return false;
if ((!m_hTexture) && (!m_bLoadFailed))
{
m_pLTClient->GetTexInterface()->CreateTextureFromName(m_hTexture, GetProps()->m_sPath);
if (m_hTexture)
{
// Retrieve texture dims
uint32 nHeight;
m_pLTClient->GetTexInterface()->GetTextureDims(m_hTexture, m_dwWidth, nHeight);
}
else
{
m_bLoadFailed = true;
}
}
if ((m_collPathPts.GetSize() < 2) && IsShuttingDown())
{
m_collPathPts.RemoveAll();
return true;
}
float tmAddPtInterval = GetProps()->m_tmAddPtInterval * 2.0f;
LTRotation rRot;
m_pLTClient->GetObjectRotation( m_hObject, &rRot );
//increase the emission time elapse
m_tmElapsedEmission += tmFrameTime;
if (!IsShuttingDown() &&
(m_collPathPts.GetSize() < GetProps()->m_nMaxTrailLength) &&
((m_tmElapsedEmission > GetProps()->m_tmAddPtInterval) || (m_collPathPts.GetSize() == 1)))
{
LTVector vNew = m_vPos;
// Only add the new point if it's not the same as the last one....
// Add a new trail section
PT_TRAIL_SECTION ts;
ts.m_vPos = vNew;
ts.m_tmElapsed = 0.0f;
switch( GetProps()->m_eAllignment )
{
case ePTA_Up:
ts.m_vBisector = rRot.Up();
break;
case ePTA_Right:
ts.m_vBisector = rRot.Right();
break;
case ePTA_Forward:
ts.m_vBisector = rRot.Forward();
break;
case ePTA_Camera:
default:
ts.m_vBisector.Init();
break;
}
// Compute u coordinate
if (m_collPathPts.GetSize())
{
LTVector vPrev = m_collPathPts.GetTail()->m_Data.m_vPos;
float fUPrev = m_collPathPts.GetTail()->m_Data.m_uVal;
float fWidth = (float)m_dwWidth;
float fScalar = fWidth / GetProps()->m_fTrailWidth;
ts.m_uVal = fUPrev + ((((vNew - vPrev).Mag()) / fWidth) * fScalar);
}
else
{
ts.m_uVal = 0.0f;
}
m_collPathPts.AddTail(ts);
m_tmElapsedEmission = 0.0f;
}
// Render the tube....
if (m_collPathPts.GetSize() < 2) return true;
CLinkListNode<PT_TRAIL_SECTION> *pNode = m_collPathPts.GetHead();
// Fudge the last point to be the current one...
if( !IsShuttingDown() )
m_collPathPts.GetTail()->m_Data.m_vPos = m_vPos;
// Transform the path
LTMatrix mCam;
if( m_bReallyClose || (GetProps()->m_eAllignment != ePTA_Camera))
{
mCam.Identity();
}
else
{
mCam = GetCamTransform(m_pLTClient, m_hCamera);
}
while (pNode)
{
MatVMul(&pNode->m_Data.m_vTran, &mCam, &pNode->m_Data.m_vPos);
pNode = pNode->m_pNext;
}
// Do some precalculations
pNode = m_collPathPts.GetHead();
float fCurU = 0.0f;
while (pNode)
{
pNode->m_Data.m_tmElapsed += tmFrameTime;
if( GetProps()->m_eAllignment == ePTA_Camera )
{
LTVector vBisector;
vBisector.z = 0.0f;
// Compute the midpoint vectors
if (pNode == m_collPathPts.GetHead())
{
LTVector vStart = pNode->m_Data.m_vTran;
LTVector vEnd = pNode->m_pNext->m_Data.m_vTran;
vBisector.x = vEnd.y - vStart.y;
vBisector.y = -(vEnd.x - vStart.x);
}
else if (pNode == m_collPathPts.GetTail())
{
LTVector vEnd = pNode->m_Data.m_vTran;
LTVector vStart = pNode->m_pPrev->m_Data.m_vTran;
vBisector.x = vEnd.y - vStart.y;
vBisector.y = -(vEnd.x - vStart.x);
}
else
{
LTVector vPrev = pNode->m_pPrev->m_Data.m_vTran;
LTVector vStart = pNode->m_Data.m_vTran;
LTVector vEnd = pNode->m_pNext->m_Data.m_vTran;
float x1 = vEnd.y - vStart.y;
float y1 = -(vEnd.x - vStart.x);
float z1 = vStart.z - vEnd.z;
float x2 = vStart.y - vPrev.y;
float y2 = -(vStart.x - vPrev.x);
float z2 = vPrev.z - vEnd.z;
vBisector.x = (x1 + x2) / 2.0f;
vBisector.y = (y1 + y2) / 2.0f;
}
pNode->m_Data.m_vBisector = vBisector;
}
LTFLOAT fWidth = CalcCurWidth();
pNode->m_Data.m_vBisector.Norm( fWidth );
// Setup the colour
float r, g, b, a;
CalcColour(pNode->m_Data.m_tmElapsed, GetProps()->m_tmSectionLifespan, &r, &g, &b, &a);
int ir = (int)(r * 255.0f);
int ig = (int)(g * 255.0f);
int ib = (int)(b * 255.0f);
int ia = (int)(a * 255.0f);
pNode->m_Data.m_red = Clamp( ir, 0, 255 );
pNode->m_Data.m_green = Clamp( ig, 0, 255 );
pNode->m_Data.m_blue = Clamp( ib, 0, 255 );
pNode->m_Data.m_alpha = Clamp( ia, 0, 255 );
pNode = pNode->m_pNext;
}
pNode = m_collPathPts.GetHead();
pNode = m_collPathPts.GetHead();
// Delete any dead nodes
while (pNode->m_pNext)
{
CLinkListNode<PT_TRAIL_SECTION> *pDelNode= NULL;
if (pNode->m_Data.m_tmElapsed >= GetProps()->m_tmSectionLifespan)
{
pDelNode = pNode;
}
pNode = pNode->m_pNext;
if (pDelNode) m_collPathPts.Remove(pDelNode);
}
// Increment the offset
m_uOffset += tmFrameTime * GetProps()->m_uAdd;
// Success !!
return true;
}
LTBOOL CParticleExplosionFX::Update()
{
if (!m_hObject || !m_pClientDE) return LTFALSE;
if (!CBaseParticleSystemFX::Update()) return LTFALSE;
LTFLOAT fTime = m_pClientDE->GetTime();
if (m_bFirstUpdate)
{
m_bFirstUpdate = LTFALSE;
m_fStartTime = fTime;
m_fLastTime = fTime;
}
// Check to see if we should start fading the system...
if (fTime > m_fStartTime + m_fFadeTime)
{
LTFLOAT fEndTime = m_fStartTime + m_fLifeTime;
if (fTime > fEndTime)
{
return LTFALSE;
}
LTFLOAT fScale = (fEndTime - fTime) / (m_fLifeTime - m_fFadeTime);
LTFLOAT r, g, b, a;
m_pClientDE->GetObjectColor(m_hObject, &r, &g, &b, &a);
m_pClientDE->SetObjectColor(m_hObject, r, g, b, fScale);
}
// See if it is time to create a new Particle puff...
if (fTime >= m_fLastTime + m_fOffsetTime)
{
// Loop over our list of Emitters, creating new particles...
for (int i=0; i < m_nNumEmitters; i++)
{
if (m_ActiveEmitters[i])
{
AddParticles(&m_Emitters[i]);
}
}
m_fLastTime = fTime;
}
// Loop over our list of Emitters, updating the position of each
for (int i=0; i < m_nNumEmitters; i++)
{
if (m_ActiveEmitters[i])
{
LTBOOL bBounced = LTFALSE;
if (bBounced = UpdateEmitter(&m_Emitters[i]))
{
if (!(m_Emitters[i].m_dwPhysicsFlags & MO_LIQUID) && (m_hDebris[i]))
{
/*
char* pSound = GetDebrisBounceSound(DBT_STONE_BIG);
// Play appropriate sound...
g_pClientSoundMgr->PlaySoundFromPos(m_Emitters[i].m_Pos, pSound,
300.0f, SOUNDPRIORITY_MISC_LOW);
*/
}
m_BounceCount[i]--;
if (m_BounceCount[i] <= 0)
{
m_Emitters[i].m_dwPhysicsFlags |= MO_RESTING;
}
}
if (m_Emitters[i].m_dwPhysicsFlags & MO_RESTING)
{
m_ActiveEmitters[i] = LTFALSE;
if (m_hDebris[i])
{
m_pClientDE->RemoveObject(m_hDebris[i]);
m_hDebris[i] = LTNULL;
}
}
else if (m_hDebris[i])
{
g_pLTClient->SetObjectPos(m_hDebris[i], &(m_Emitters[i].m_vPos));
if (m_bRotateDebris)
{
if (bBounced)
{
// Adjust due to the bounce...
m_fPitchVel = GetRandom(-MATH_CIRCLE, MATH_CIRCLE);
m_fYawVel = GetRandom(-MATH_CIRCLE, MATH_CIRCLE);
}
if (m_fPitchVel != 0 || m_fYawVel != 0)
{
LTFLOAT fDeltaTime = g_pGameClientShell->GetFrameTime();
m_fPitch += m_fPitchVel * fDeltaTime;
m_fYaw += m_fYawVel * fDeltaTime;
LTRotation rRot;
rRot.Rotate(rRot.Up(), m_fYaw);
rRot.Rotate(rRot.Right(), m_fPitch);
g_pLTClient->SetObjectRotation(m_hDebris[i], &rRot);
}
}
}
}
}
return LTTRUE;
}