//handles updating the properties of the light given the specified unit time value
void CDynaLightFX::UpdateDynamicProperties(float fUnitTime)
{
//update the type of this light
g_pLTClient->SetLightType(m_hLight, GetEngineLightType(GetProps()->m_efcType.GetValue(fUnitTime)));
//the intensity of the light
float fIntensity = GetProps()->m_ffcIntensity.GetValue(fUnitTime);
float fFlickerScale = GetProps()->m_ffcFlickerScale.GetValue(fUnitTime);
g_pLTClient->SetLightIntensityScale(m_hLight, LTMAX(0.0f, fIntensity * GetRandom(fFlickerScale, 1.0f)) );
//get the color of this light
LTVector vColor = ToColor3(GetProps()->m_cfcColor.GetValue(fUnitTime));
g_pLTClient->SetObjectColor(m_hLight, vColor.x, vColor.y, vColor.z, 1.0f);
//and now the radius of the light
float fRadius = GetProps()->m_ffcRadius.GetValue(fUnitTime);
g_pLTClient->SetLightRadius(m_hLight, fRadius);
//the specular color
LTVector4 vSpecular = GetProps()->m_cfcSpecularColor.GetValue(fUnitTime);
g_pLTClient->SetLightSpecularColor(m_hLight, ToColor3(vSpecular));
//the translucent color
LTVector4 vTranslucent = GetProps()->m_cfcTranslucentColor.GetValue(fUnitTime);
g_pLTClient->SetLightTranslucentColor(m_hLight, ToColor3(vTranslucent));
//the spot light information
float fFovX = MATH_DEGREES_TO_RADIANS(GetProps()->m_ffcSpotFovX.GetValue(fUnitTime));
float fFovY = MATH_DEGREES_TO_RADIANS(GetProps()->m_ffcSpotFovY.GetValue(fUnitTime));
g_pLTClient->SetLightSpotInfo(m_hLight, fFovX, fFovY, 0.0f);
}
void LightBase::HandleSpotFOVMsg( HOBJECT /*hSender*/, const CParsedMsg &crParsedMsg )
{
if(crParsedMsg.GetArgCount() == 3)
{
//read in our new dimensions and apply them
m_fSpotFovX = LTCLAMP((float)atof(crParsedMsg.GetArg(1)), 0.0f, 90.0f);
m_fSpotFovY = LTCLAMP((float)atof(crParsedMsg.GetArg(2)), 0.0f, 90.0f);
g_pLTServer->SetLightSpotInfo(m_hObject, MATH_DEGREES_TO_RADIANS(m_fSpotFovX * 0.5f),
MATH_DEGREES_TO_RADIANS(m_fSpotFovY * 0.5f),
m_fSpotNearClip);
}
}
uint32 RotatingDoor::EngineMessageFn(uint32 messageID, void *pData, float fData)
{
switch (messageID)
{
case MID_PRECREATE:
{
// Need to call base class to have the object name read in before
// we call PostPropRead()
uint32 dwRet = Door::EngineMessageFn(messageID, pData, fData);
if (fData == 1.0f)
{
ReadProp((ObjectCreateStruct*)pData);
}
// Convert speeds from degrees to radians
m_fSpeed = MATH_DEGREES_TO_RADIANS(m_fSpeed);
m_fClosingSpeed = MATH_DEGREES_TO_RADIANS(m_fClosingSpeed);
return dwRet;
}
case MID_INITIALUPDATE:
{
if (fData != INITIALUPDATE_SAVEGAME)
{
InitialUpdate();
}
break;
}
case MID_SAVEOBJECT:
{
Save((HMESSAGEWRITE)pData, (uint8)fData);
}
break;
case MID_LOADOBJECT:
{
Load((HMESSAGEREAD)pData, (uint8)fData);
}
break;
default : break;
}
return Door::EngineMessageFn(messageID, pData, fData);
}
bool CCreateRayProps::LoadProperty(ILTInStream* pStream, const char* pszName, const char* pszStringTable, const uint8* pCurveData)
{
if(LTStrIEquals(pszName, "MaxDist"))
{
m_fMaxDist = CFxProp_Float::Load(pStream);
}
else if(LTStrIEquals(pszName, "MinDist"))
{
m_fMinDist = CFxProp_Float::Load(pStream);
}
else if(LTStrIEquals(pszName, "EffectOffset"))
{
m_fOffset = CFxProp_Float::Load(pStream);
}
else if(LTStrIEquals(pszName, "Alignment"))
{
m_eAlignment = (EAlignment)CFxProp_Enum::Load(pStream);
}
else if(LTStrIEquals(pszName, "RandomCone"))
{
m_fRandomCone = MATH_DEGREES_TO_RADIANS(CFxProp_Float::Load(pStream));
}
else if(LTStrIEquals(pszName, "CenterBias"))
{
m_fCenterBias = CFxProp_Float::Load(pStream);
}
else
{
return CBaseCreateProps::LoadProperty(pStream, pszName, pszStringTable, pCurveData);
}
return true;
}
void ReadKLProps(ILTPreLight *pInterface, HPREOBJECT hObject, KLProps *pProps)
{
GenericProp gProp;
LTVector vUp, vRight;
// Get light properties.
pInterface->GetPropGeneric(hObject, "DirLight", &gProp);
pProps->m_bDirLight = gProp.m_Bool;
if(pProps->m_bDirLight)
pInterface->GetPropGeneric(hObject, "DirLightRadius", &gProp);
else
pInterface->GetPropGeneric(hObject, "LightRadius", &gProp);
pProps->m_fRadius = gProp.m_Float;
pInterface->GetPropGeneric(hObject, "FOV", &gProp);
pProps->m_fFOV = MATH_DEGREES_TO_RADIANS(gProp.m_Float);
pInterface->GetPropGeneric(hObject, "InnerColor", &gProp);
pProps->m_vInnerColor = gProp.m_Vec;
pInterface->GetPropGeneric(hObject, "OuterColor", &gProp);
pProps->m_vOuterColor = gProp.m_Vec;
pInterface->GetPropGeneric(hObject, "UseShadowMaps", &gProp);
pProps->m_bUseShadowMaps = gProp.m_Bool;
pInterface->GetPropGeneric(hObject, "Pos", &gProp);
pProps->m_vPos = gProp.m_Vec;
pInterface->GetPropGeneric(hObject, "Rotation", &gProp);
pInterface->GetMathLT()->GetRotationVectors(gProp.m_Rotation, vRight, vUp, pProps->m_vForwardVec);
}
void CNodeTrackerContext::SetDefaultLimits( EnumNodeTrackerGroup eGroup )
{
if( eGroup == kTrackerGroup_None )
return;
ModelsDB::HTRACKERNODEGROUP hModelTrackerGroup = m_NodeTrackerInstances[eGroup].m_hModelTrackerGroup;
CNodeTracker *pNodeTracker = m_NodeTrackerInstances[eGroup].m_pNodeTracker;
if( !hModelTrackerGroup || !pNodeTracker )
return;
// Aimer limits (converted to radians).
LTRect2f rLimits = g_pModelsDB->GetTrackerAimerNodeLimits( hModelTrackerGroup );
rLimits.m_vMin.x = MATH_DEGREES_TO_RADIANS( rLimits.m_vMin.x );
rLimits.m_vMax.x = MATH_DEGREES_TO_RADIANS( rLimits.m_vMax.x );
rLimits.m_vMin.y = MATH_DEGREES_TO_RADIANS( rLimits.m_vMin.y );
rLimits.m_vMax.y = MATH_DEGREES_TO_RADIANS( rLimits.m_vMax.y );
pNodeTracker->SetAimerLimits( rLimits );
}
// ----------------------------------------------------------------------- //
// Preprocessor callback to build a light animation frame.
// ----------------------------------------------------------------------- //
LTRESULT CLightFXPlugin::PreHook_Light(
ILTPreLight *pInterface,
HPREOBJECT hObject)
{
PreLightAnimFrameInfo frame;
PreLightInfo lightInfo;
GenericProp gProp;
char animName[512];
LTBOOL bUseShadowMaps;
LTVector vRight, vUp;
// Only generate an animation if we need to.
if(pInterface->GetPropGeneric(hObject, "UseLightAnims", &gProp) != LT_OK || !gProp.m_Bool)
return LT_OK;
frame.m_bSunLight = LTFALSE;
frame.m_Lights = &lightInfo;
frame.m_nLights = 1;
pInterface->GetPropGeneric(hObject, "Pos", &gProp);
lightInfo.m_vPos = gProp.m_Vec;
pInterface->GetPropGeneric(hObject, "Color", &gProp);
lightInfo.m_vInnerColor = gProp.m_Vec;
lightInfo.m_vOuterColor.Init();
pInterface->GetPropGeneric(hObject, "DirLight", &gProp);
lightInfo.m_bDirectional = gProp.m_Bool;
if(lightInfo.m_bDirectional)
pInterface->GetPropGeneric(hObject, "DirLightRadius", &gProp);
else
pInterface->GetPropGeneric(hObject, "RadiusMax", &gProp);
lightInfo.m_Radius = gProp.m_Float;
pInterface->GetPropGeneric(hObject, "FOV", &gProp);
lightInfo.m_FOV = MATH_DEGREES_TO_RADIANS(gProp.m_Float);
pInterface->GetPropGeneric(hObject, "Rotation", &gProp);
pInterface->GetMathLT()->GetRotationVectors(gProp.m_Rotation, vRight, vUp, lightInfo.m_vDirection);
pInterface->GetPropGeneric(hObject, "Name", &gProp);
GetCLightFXLightAnimName(animName, gProp.m_String);
pInterface->GetPropGeneric(hObject, "UseShadowMaps", &gProp);
bUseShadowMaps = gProp.m_Bool;
pInterface->CreateLightAnim(animName, &frame, 1, bUseShadowMaps);
return LT_OK;
}
//an internal update functionality that must be called at the start of each effect's update
//function. This does not return any value so it does not need to be checked
void CBaseFX::BaseUpdate(float fTimeInterval)
{
LTASSERT(IsActive() && !IsSuspended(), "Error: Updated an effect that was either suspended or inactive");
//update the elapsed time
m_tmElapsed += fTimeInterval;
//handle updating the additional rotation of this object for this frame
if(GetProps()->m_bUpdateRotation)
{
LTVector vAngles = GetProps()->m_vfcRotation.GetValue(GetUnitLifetime());
LTRotation rRotation( MATH_DEGREES_TO_RADIANS(vAngles.x) * fTimeInterval,
MATH_DEGREES_TO_RADIANS(vAngles.y) * fTimeInterval,
MATH_DEGREES_TO_RADIANS(vAngles.z) * fTimeInterval);
m_rAdditional = rRotation * m_rAdditional;
}
//update our parent transformation as long as we aren't fixed, and actually have a parent
if((m_hParentObject || m_hParentRigidBody) && (GetProps()->m_eFollowType != eFXFollowType_Fixed))
{
UpdateParentTransform();
}
}
//called to setup all variables on the engine object once it has been
//created
void LightBase::SetupEngineLight()
{
//don't bother if we don't have a light
if(!m_hObject)
return;
g_pLTServer->Common()->SetObjectFlags(m_hObject, OFT_Flags, FLAG_VISIBLE, FLAG_VISIBLE);
g_pLTServer->SetObjectColor(m_hObject, m_vColor.x, m_vColor.y, m_vColor.z, 1.0f);
g_pLTServer->SetLightTranslucentColor(m_hObject, m_vTranslucentColor);
g_pLTServer->SetLightSpecularColor(m_hObject, m_vSpecularColor);
g_pLTServer->SetLightRadius(m_hObject, m_fLightRadius);
g_pLTServer->SetLightIntensityScale(m_hObject, m_fIntensityScale);
g_pLTServer->SetLightType(m_hObject, m_eLightType);
g_pLTServer->SetLightTexture(m_hObject, m_sLightTexture.c_str());
g_pLTServer->SetLightAttenuationTexture(m_hObject, m_sLightAttenuationTexture.c_str());
g_pLTServer->SetLightDirectionalDims(m_hObject, m_vDirectionalDims * LTVector(0.5f, 0.5f, 1.0f));
g_pLTServer->SetLightSpotInfo(m_hObject, MATH_DEGREES_TO_RADIANS(m_fSpotFovX * 0.5f),
MATH_DEGREES_TO_RADIANS(m_fSpotFovY * 0.5f),
m_fSpotNearClip);
g_pLTServer->SetLightDetailSettings(m_hObject, m_eLightLOD, m_eWorldShadowsLOD, m_eObjectShadowsLOD);
}
bool CParticleSystemProps::LoadProperty(ILTInStream* pStream, const char* pszName, const char* pszStringTable, const uint8* pCurveData)
{
if( LTStrIEquals( pszName, "Material" ) )
{
m_pszMaterial = CFxProp_String::Load(pStream, pszStringTable);
}
else if (LTStrIEquals( pszName, "NumImages" ) )
{
m_nNumImages = (uint32)CFxProp_Int::Load(pStream);
}
else if( LTStrIEquals( pszName, "PlayerView" ) )
{
m_bPlayerView = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "InSky" ))
{
m_eInSky = (EFXSkySetting)CFxProp_Enum::Load(pStream);
}
else if( LTStrIEquals( pszName, "ParticleColor" ) )
{
m_cfcParticleColor.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "ParticleScale" ) )
{
m_ffcParticleScale.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "ParticlesPerEmission" ) )
{
m_nfcParticlesPerEmission.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "MinParticleLifeSpan" ) )
{
m_ffcMinLifetime.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "MaxParticleLifeSpan" ) )
{
m_ffcMaxLifetime.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "AdditionalAcceleration") )
{
m_vfcAcceleration.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "GravityScale") )
{
m_ffcGravityScale.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "EmissionInterval" ) )
{
m_fEmissionInterval = CFxProp_Float::Load(pStream);
//if this is above zero, make sure that it is set to a reasonable limit to prevent
//effects from performing way too many emissions
if(m_fEmissionInterval > 0.0f)
m_fEmissionInterval = LTMAX(m_fEmissionInterval, 0.01f);
}
else if( LTStrIEquals( pszName, "GroupCreationInterval" ) )
{
m_fGroupCreationInterval = CFxProp_Float::Load(pStream);
}
else if( LTStrIEquals( pszName, "EmissionDir" ) )
{
m_vEmissionDir = CFxProp_Vector::Load(pStream);
//handle the case of if an artist cleared it. They aren't supposed to, but happens occasionally
if(m_vEmissionDir.NearlyEquals(LTVector::GetIdentity(), 0.01f))
m_vEmissionDir.Init(0.0f, 1.0f, 0.0f);
m_vEmissionDir.Normalize();
// Get the perpindicular vectors to this plane
FindPerps(m_vEmissionDir, m_vEmissionPerp1, m_vEmissionPerp2);
}
else if( LTStrIEquals( pszName, "EmissionOffset" ) )
{
m_vfcEmissionOffset.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "EmissionDims" ) )
{
m_vfcEmissionDims.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "EmissionMinRadius" ) )
{
m_ffcMinRadius.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "EmissionMaxRadius" ) )
{
m_ffcMaxRadius.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "MinParticleVelocity" ) )
{
m_vfcMinVelocity.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "MaxParticleVelocity" ) )
{
m_vfcMaxVelocity.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "EmissionType" ) )
{
m_eEmissionType = (ePSEmissionType)CFxProp_Enum::Load(pStream);
}
else if( LTStrIEquals( pszName, "PercentToBounce" ) )
{
m_ffcPercentToBounce.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "RotateParticles" ) )
{
m_bRotate = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "MoveParticlesWithSystem" ) )
{
m_bObjectSpace = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "MinAngularVelocity" ) )
{
m_fMinAngularVelocity = MATH_DEGREES_TO_RADIANS(CFxProp_Float::Load(pStream));
}
else if( LTStrIEquals( pszName, "MaxAngularVelocity" ) )
{
m_fMaxAngularVelocity = MATH_DEGREES_TO_RADIANS(CFxProp_Float::Load(pStream));
}
else if( LTStrIEquals( pszName, "Streak") )
{
m_bStreak = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "StreakScale") )
{
m_fStreakScale = CFxProp_Float::Load(pStream);
}
else if( LTStrIEquals( pszName, "Drag" ) )
{
m_ffcDrag.Load(pStream, pCurveData);
}
else if( LTStrIEquals( pszName, "BounceStrength" ) )
{
m_fBounceStrength = LTMAX(CFxProp_Float::Load(pStream), 0.0f);
}
else if( LTStrIEquals( pszName, "Solid" ) )
{
m_bSolid = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "TranslucentLight" ) )
{
m_bTranslucentLight = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "EnableBounceScale" ) )
{
m_bEnableBounceScale = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "VelocityType" ) )
{
m_eVelocityType = (ePSVelocityType)CFxProp_Enum::Load(pStream);
}
else if( LTStrIEquals( pszName, "InfiniteLife" ) )
{
m_bInfiniteLife = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "SplatEffect" ) )
{
m_pszSplatEffect = CFxProp_String::Load(pStream, pszStringTable);
}
else if( LTStrIEquals( pszName, "SplatPercent" ) )
{
m_ffcPercentToSplat.Load(pStream, pCurveData);
}
else
{
return CBaseFXProps::LoadProperty(pStream, pszName, pszStringTable, pCurveData);
}
return true;
}
bool CLTBModelFX::Update(float tmFrameTime)
{
//Ok, what we are going to do is see if we are supposed to be sync'd to the
//animation. If so, we are going to flat out ignore tmCur, and instead generate
//our own. This way we can match the model exactly.
if(GetProps()->m_bSyncToModelAnim)
{
//we need to find out where in the animation the model currently is
ILTModel *pLTModel = m_pLTClient->GetModelLT();
ANIMTRACKERID nTracker;
if(pLTModel->GetMainTracker( m_hObject, nTracker ) == LT_OK)
{
//we have the main tracker, see where in its timeline it is
uint32 nCurrTime;
uint32 nAnimTime;
pLTModel->GetCurAnimTime(m_hObject, nTracker, nCurrTime);
pLTModel->GetCurAnimLength(m_hObject, nTracker, nAnimTime);
if(nAnimTime)
{
//handle wrapping
nCurrTime %= nAnimTime;
//ok, now convert cur time to a valid time
m_tmElapsed = (nCurrTime * GetProps()->m_tmLifespan) / (float)nAnimTime;
}
else
{
//zero length animation?
m_tmElapsed = 0.0f;
}
}
}
else if(GetProps()->m_bSyncToKey)
{
//we need to find out where in the key we currently are
ILTModel *pLTModel = m_pLTClient->GetModelLT();
ANIMTRACKERID nTracker;
if(pLTModel->GetMainTracker( m_hObject, nTracker ) == LT_OK)
{
//we have the main tracker, see where in its timeline it is
uint32 nAnimLength;
m_pLTClient->GetModelLT()->ResetAnim( m_hObject, nTracker );
pLTModel->GetCurAnimLength(m_hObject, nTracker, nAnimLength);
if(nAnimLength > 0)
nAnimLength--;
float tmWrappedTime = fmodf(m_tmElapsed / GetProps()->m_tmLifespan, 1.0f);
uint32 nAnimTime = (uint32)(tmWrappedTime * nAnimLength);
pLTModel->SetCurAnimTime(m_hObject, nTracker, nAnimTime);
}
}
// Base class update first
if (!CBaseFX::Update(tmFrameTime))
return false;
//see if we should reset our model animation
if(!GetProps()->m_bSyncToKey && IsFinishedShuttingDown())
{
//Reset the animation
ANIMTRACKERID nTracker;
m_pLTClient->GetModelLT()->GetMainTracker( m_hObject, nTracker );
m_pLTClient->GetModelLT()->ResetAnim( m_hObject, nTracker );
if(GetProps()->m_bOverrideAniLength)
m_pLTClient->GetModelLT()->SetAnimRate( m_hObject, nTracker, m_fAniRate);
}
// Align if neccessary, to the rotation of our parent
if ((m_hParent) && (GetProps()->m_nFacing == FACE_PARENTALIGN))
{
LTRotation rParentRot;
m_pLTClient->GetObjectRotation(m_hParent, &rParentRot);
rParentRot = (GetProps()->m_bRotate ? rParentRot : rParentRot * m_rNormalRot);
m_pLTClient->SetObjectRotation(m_hObject, &rParentRot);
}
// If we want to add a rotation, make sure we are facing the correct way...
if( GetProps()->m_bRotate )
{
LTFLOAT tmFrame = tmFrameTime;
LTVector vR( m_rRot.Right() );
LTVector vU( m_rRot.Up() );
LTVector vF( m_rRot.Forward() );
LTRotation rRotation;
if( m_hCamera && (GetProps()->m_nFacing == FACE_CAMERAFACING))
{
m_pLTClient->GetObjectRotation( m_hCamera, &rRotation );
}
else
{
m_pLTClient->GetObjectRotation( m_hObject, &rRotation );
}
m_rRot.Rotate( vR, MATH_DEGREES_TO_RADIANS( GetProps()->m_vRotAdd.x * tmFrame ));
m_rRot.Rotate( vU, MATH_DEGREES_TO_RADIANS( GetProps()->m_vRotAdd.y * tmFrame ));
m_rRot.Rotate( vF, MATH_DEGREES_TO_RADIANS( GetProps()->m_vRotAdd.z * tmFrame ));
rRotation = rRotation * m_rRot;
m_pLTClient->SetObjectRotation( m_hObject, &(rRotation * m_rNormalRot));
}
else if( GetProps()->m_nFacing == FACE_CAMERAFACING )
{
LTRotation rCamRot;
m_pLTClient->GetObjectRotation( m_hCamera, &rCamRot );
m_pLTClient->SetObjectRotation( m_hObject, &(rCamRot * m_rNormalRot) );
}
// Success !!
return true;
}
void CNodeController::UpdateLipSyncControl(NCSTRUCT *pNodeControl)
{
// Make sure the sound handle is valid and check to see if the sound is done...
if(!pNodeControl->hLipSyncSound || g_pLTClient->IsDone(pNodeControl->hLipSyncSound))
{
g_pLTClient->KillSound(pNodeControl->hLipSyncSound);
pNodeControl->hLipSyncSound = LTNULL;
if (pNodeControl->bShowingSubtitles)
{
g_pInterfaceMgr->ClearSubtitle();
}
pNodeControl->pSixteenBitBuffer = LTNULL;
pNodeControl->pEightBitBuffer = LTNULL;
pNodeControl->bValid = LTFALSE;
return;
}
//
// Process the current sound data (average over sound amplitude).
//
LTFLOAT fAverage = 0.0f; // this will hold the average, normalized from 0.0f to 1.0f.
// Get the sound buffer.
if( !pNodeControl->pSixteenBitBuffer && !pNodeControl->pEightBitBuffer )
{
uint32 dwChannels = 0;
g_pLTClient->GetSoundData(pNodeControl->hLipSyncSound,
pNodeControl->pSixteenBitBuffer,
pNodeControl->pEightBitBuffer,
&pNodeControl->dwSamplesPerSecond,
&dwChannels);
ASSERT( dwChannels == 1);
// If you want to use multi-channel sounds (why would you?), you'll need to
// to account for the interleaving of channels in the following code.
}
ASSERT( pNodeControl->pSixteenBitBuffer || pNodeControl->pEightBitBuffer );
// Average over the data. We do an average of the data from the current point
// being played to 1/g_vtLipSyncFreq.GetFloat() seconds ahead of that point.
uint32 dwOffset = 0;
uint32 dwSize = 0;
if( LT_OK == g_pLTClient->GetSoundOffset(pNodeControl->hLipSyncSound, &dwOffset, &dwSize) )
{
// Determine the end of the data we wish to average over.
const uint32 dwDivisor = uint32(g_vtLipSyncFreq.GetFloat());
uint32 dwOffsetEnd = dwOffset + pNodeControl->dwSamplesPerSecond/dwDivisor;
if( dwOffsetEnd > dwSize )
dwOffsetEnd = dwSize;
// Accumulate the the amplitudes for the average.
uint32 dwMaxAmplitude = 0;
uint32 dwNumSamples = 0;
uint32 dwAccum = 0;
if( pNodeControl->pSixteenBitBuffer )
{
for( int16 * pIterator = pNodeControl->pSixteenBitBuffer + dwOffset;
pIterator < pNodeControl->pSixteenBitBuffer + dwOffsetEnd;
++pIterator)
{
dwAccum += abs(*pIterator);
++dwNumSamples;
}
dwMaxAmplitude = 65536/2;
#ifdef GRAPH_LIPSYNC_SOUND
g_GraphPoints.RecordData(pNodeControl->pSixteenBitBuffer,dwSize,dwOffset);
#endif
}
else if( pNodeControl->pEightBitBuffer )
{
for( int8 * pIterator = pNodeControl->pEightBitBuffer + dwOffset;
pIterator < pNodeControl->pEightBitBuffer + dwOffsetEnd;
++pIterator)
{
dwAccum += abs(*pIterator);
++dwNumSamples;
}
dwMaxAmplitude = 256/2;
#ifdef GRAPH_LIPSYNC_SOUND
g_GraphPoints.RecordData(pNodeControl->pEightBitBuffer,dwSize,dwOffset);
#endif
}
// And find the average!
if( dwNumSamples > 0 )
fAverage = LTFLOAT(dwAccum) / LTFLOAT(dwNumSamples) / LTFLOAT(dwMaxAmplitude);
} //if( LT_OK == g_pLTClient->GetSoundOffset(pNodeControl->hLipSyncSound, &dwOffset, &dwSize) )
//
// Do the rotation.
//
ILTMath *pMathLT = g_pLTClient->GetMathLT();
LTRotation rRot;
rRot.Init();
LTVector vAxis(0.0f, 0.0f, 1.0f);
LTFLOAT fMaxRot = MATH_DEGREES_TO_RADIANS(g_vtLipSyncMaxRot.GetFloat());
// Calculate the rotation.
m_fCurLipSyncRot = fAverage*fMaxRot;
pMathLT->RotateAroundAxis(rRot, vAxis, -m_fCurLipSyncRot);
// Create a rotation matrix and apply it to the current offset matrix
LTMatrix m1;
pMathLT->SetupRotationMatrix(m1, rRot);
m_aNodes[pNodeControl->eModelNode].matTransform = m_aNodes[pNodeControl->eModelNode].matTransform * m1;
}
void CNodeTrackerContext::_Init( EnumNodeTrackerGroup eGroup )
{
LTASSERT( eGroup != kTrackerGroup_None, "CNodeTrackerContext::_Init: No tracking group specified." );
// Tracking node groups are optional per skeleton in ModelButes.txt.
// A skeleton may not specify all (or any) tracking nodes.
ModelsDB::HTRACKERNODEGROUP hModelTrackerGroup = m_NodeTrackerInstances[eGroup].m_hModelTrackerGroup;
if( !hModelTrackerGroup )
{
return;
}
// Get the number of nodes.
uint32 cNodes = g_pModelsDB->GetNumTrackerControlledNodes( hModelTrackerGroup );
if( cNodes == 0 )
{
LTASSERT( 0, "CNodeTrackerContext::_Init: No tracker nodes in group." );
return;
}
// Allocate a node tracker.
CNodeTracker* pNodeTracker = debug_new( CNodeTracker );
m_NodeTrackerInstances[eGroup].m_pNodeTracker = pNodeTracker;
pNodeTracker->SetObject( m_hModel );
pNodeTracker->SetSystemBlendWeight( 0.f );
//
// Setup the aimer node.
//
// Aimer node.
HMODELNODE hAimerNode;
const char* pszAimerNodeName = g_pModelsDB->GetTrackerAimerNodeName( hModelTrackerGroup );
g_pModelLT->GetNode( m_hModel, pszAimerNodeName, hAimerNode);
pNodeTracker->SetAimerNode( hAimerNode );
// Aimer limits (converted to radians).
LTRect2f rLimits = g_pModelsDB->GetTrackerAimerNodeLimits( hModelTrackerGroup );
rLimits.m_vMin.x = MATH_DEGREES_TO_RADIANS( rLimits.m_vMin.x );
rLimits.m_vMax.x = MATH_DEGREES_TO_RADIANS( rLimits.m_vMax.x );
rLimits.m_vMin.y = MATH_DEGREES_TO_RADIANS( rLimits.m_vMin.y );
rLimits.m_vMax.y = MATH_DEGREES_TO_RADIANS( rLimits.m_vMax.y );
pNodeTracker->SetAimerLimits( rLimits );
// Max speed (converted to radians).
float fMaxSpeed;
fMaxSpeed = g_pModelsDB->GetTrackerAimerNodeMaxSpeed( hModelTrackerGroup );
fMaxSpeed = MATH_DEGREES_TO_RADIANS( fMaxSpeed );
pNodeTracker->SetMaxSpeed( fMaxSpeed );
//
// Setup the controlled nodes.
//
HMODELNODE hControlledNode;
float fControlledNodeWeight;
pNodeTracker->SetNumControlledNodes( cNodes );
for( uint32 iNode=0; iNode < cNodes; ++iNode )
{
// Controlled node.
const char* pszControlledNodeName = g_pModelsDB->GetTrackerControlledNodeName( hModelTrackerGroup, iNode );
g_pModelLT->GetNode( m_hModel, pszControlledNodeName, hControlledNode);
pNodeTracker->SetControlledNode( iNode, hControlledNode );
// Controlled node weight.
fControlledNodeWeight = g_pModelsDB->GetTrackerControlledNodeWeight( hModelTrackerGroup, iNode );
pNodeTracker->SetControlledNodeWeight( iNode, fControlledNodeWeight );
}
}
void Breakable::ReadProp(ObjectCreateStruct *pStruct)
{
GenericProp genProp;
if (g_pLTServer->GetPropGeneric("BreakTime", &genProp) == LT_OK)
{
m_fBreakTime = genProp.m_Float;
}
if (g_pLTServer->GetPropGeneric("BreakSoundRadius", &genProp) == LT_OK)
{
m_fBreakSoundRadius = genProp.m_Float;
}
if (g_pLTServer->GetPropGeneric("ImpactSoundRadius", &genProp) == LT_OK)
{
m_fImpactSoundRadius = genProp.m_Float;
}
if (g_pLTServer->GetPropGeneric("DestroyOnImpact", &genProp) == LT_OK)
{
m_bDestroyOnImpact = genProp.m_Bool;
}
if (g_pLTServer->GetPropGeneric("DestroyAfterBreak", &genProp) == LT_OK)
{
m_bDestroyAfterBreak = genProp.m_Bool;
}
if (g_pLTServer->GetPropGeneric("CrushObjects", &genProp) == LT_OK)
{
m_bCrushObjects = genProp.m_Bool;
}
if (g_pLTServer->GetPropGeneric("TouchActivate", &genProp) == LT_OK)
{
m_bTouchActivate = genProp.m_Bool;
}
if (g_pLTServer->GetPropGeneric("BreakSound", &genProp) == LT_OK)
{
if (genProp.m_String[0])
{
m_hstrBreakSound = g_pLTServer->CreateString(genProp.m_String);
}
}
if (g_pLTServer->GetPropGeneric("ImpactSound", &genProp) == LT_OK)
{
if (genProp.m_String[0])
{
m_hstrImpactSound = g_pLTServer->CreateString(genProp.m_String);
}
}
if (g_pLTServer->GetPropGeneric("ScreenShakeAmount", &genProp ) == LT_OK)
{
m_vShakeAmount = genProp.m_Vec;
}
g_pLTServer->GetPropRotationEuler("Rotation", &m_vStartingPitchYawRoll);
m_vPitchYawRoll = m_vStartingPitchYawRoll;
if (g_pLTServer->GetPropGeneric("AdjustPitch", &genProp) == LT_OK)
{
m_vAdjust.x = genProp.m_Float;
}
if (g_pLTServer->GetPropGeneric("PitchDelta", &genProp) == LT_OK)
{
m_vTotalDelta.x = MATH_DEGREES_TO_RADIANS(genProp.m_Float);
}
if (g_pLTServer->GetPropGeneric("AdjustYaw", &genProp) == LT_OK)
{
m_vAdjust.y = genProp.m_Float;
}
if (g_pLTServer->GetPropGeneric("YawDelta", &genProp) == LT_OK)
{
m_vTotalDelta.y = MATH_DEGREES_TO_RADIANS(genProp.m_Float);
}
if (g_pLTServer->GetPropGeneric("AdjustRoll", &genProp) == LT_OK)
{
m_vAdjust.z = genProp.m_Float;
}
if (g_pLTServer->GetPropGeneric("RollDelta", &genProp) == LT_OK)
{
m_vTotalDelta.z = MATH_DEGREES_TO_RADIANS(genProp.m_Float);
}
if (g_pLTServer->GetPropGeneric("RotationTime", &genProp) == LT_OK)
{
if (genProp.m_Float > 0.0f)
{
m_fRotVel = MATH_CIRCLE / genProp.m_Float;
}
else
{
m_fRotVel = MATH_CIRCLE;
}
}
if (g_pLTServer->GetPropGeneric("FallVelocity", &genProp) == LT_OK)
{
m_vVel.y = genProp.m_Float;
}
}
bool CBaseSpriteProps::LoadProperty(ILTInStream* pStream, const char* pszName, const char* pszStringTable, const uint8* pCurveData)
{
if( LTStrIEquals( pszName, "Material" ))
{
m_pszMaterial = CFxProp_String::Load(pStream, pszStringTable );
}
else if( LTStrIEquals( pszName, "AspectWidth" ))
{
m_fAspectWidth = CFxProp_Float::Load(pStream);
}
else if( LTStrIEquals( pszName, "AspectHeight" ))
{
m_fAspectHeight = CFxProp_Float::Load(pStream);
}
else if( LTStrIEquals( pszName, "AlignToCamera" ))
{
m_bAlignToCamera = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "AlignAroundZ" ))
{
m_bAlignAroundZ = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "InSky" ))
{
m_eInSky = (EFXSkySetting)CFxProp_Enum::Load(pStream);
}
else if( LTStrIEquals( pszName, "Solid" ))
{
m_bSolid = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "TranslucentLight" ) )
{
m_bTranslucentLight = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "TwoSided" ) )
{
m_bTwoSided = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "PlayerView" ) )
{
m_bPlayerView = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "RandomRotation" ) )
{
m_bRandomRotation = CFxProp_EnumBool::Load(pStream);
}
else if( LTStrIEquals( pszName, "RotationalVel" ) )
{
m_fRotationVelRad = MATH_DEGREES_TO_RADIANS(CFxProp_Float::Load(pStream));
}
else if( LTStrIEquals( pszName, "ToCameraOffset" ) )
{
m_fToCameraOffset = CFxProp_Float::Load(pStream);
}
else
{
return CBaseFXProps::LoadProperty(pStream, pszName, pszStringTable, pCurveData);
}
return true;
}
