void TerrCell::_updatePrimitiveBuffer()
{
PROFILE_SCOPE( TerrCell_UpdatePrimitiveBuffer );
if ( !mHasEmpty )
{
if ( mPrimBuffer.isValid() )
{
// There are no more empty squares for this cell, so
// get rid of the primitive buffer to use the standard one.
mPrimBuffer = NULL;
}
return;
}
// Build our custom primitive buffer. We're setting it to the maximum allowed
// size, but should be just shy of it depending on the number of empty squares
// in this cell. We could calculate it, but note that it would be different
// from mEmptyVertexList.size() as that can include vertices on the edges that
// are really considered part of another cell's squares. So we take a slightly
// larger buffer over running through the calculation.
mPrimBuffer.set( GFX, smPBSize, 1, GFXBufferTypeStatic, "TerrCell" );
GFXPrimitive *prim = mPrimBuffer.getPointer()->mPrimitiveArray;
prim->type = GFXTriangleList;
prim->numVertices = smVBSize;
mTriCount = 0;
// Lock and fill it up!
U16 *idxBuff;
mPrimBuffer.lock( &idxBuff );
U32 counter = 0;
U32 maxIndex = 0;
for ( U32 y = 0; y < smMinCellSize; y++ )
{
const U32 yTess = y % 2;
for ( U32 x = 0; x < smMinCellSize; x++ )
{
U32 index = ( y * smVBStride ) + x;
// Should this square be skipped?
if ( _isVertIndexEmpty(index) )
continue;
const U32 xTess = x % 2;
if ( ( xTess == 0 && yTess == 0 ) ||
( xTess != 0 && yTess != 0 ) )
{
idxBuff[0] = index + 0;
idxBuff[1] = index + smVBStride;
idxBuff[2] = index + smVBStride + 1;
idxBuff[3] = index + 0;
idxBuff[4] = index + smVBStride + 1;
idxBuff[5] = index + 1;
}
else
{
idxBuff[0] = index + 1;
idxBuff[1] = index;
idxBuff[2] = index + smVBStride;
idxBuff[3] = index + 1;
idxBuff[4] = index + smVBStride;
idxBuff[5] = index + smVBStride + 1;
}
idxBuff += 6;
maxIndex = index + 1 + smVBStride;
counter += 6;
mTriCount += 2;
}
}
// Now add indices for the 'skirts'.
// These could probably be reduced to a loop.
// Temporaries that hold triangle indices.
// Top/Bottom - 0,1
U32 t0, t1, b0, b1;
// Top edge skirt...
// Index to the first vert of the top row.
U32 startIndex = 0;
// Index to the first vert of the skirt under the top row.
U32 skirtStartIdx = smVBStride * smVBStride;
// Step to go one vert to the right.
U32 step = 1;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + i * step;
// Should this square be skipped?
if ( _isVertIndexEmpty(t0) )
continue;
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = b0;
idxBuff[1] = t0;
idxBuff[2] = t1;
idxBuff[3] = b1;
idxBuff[4] = b0;
idxBuff[5] = t1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
mTriCount += 2;
}
// Bottom edge skirt...
// Index to the first vert of the bottom row.
startIndex = smVBStride * smVBStride - smVBStride;
// Index to the first vert of the skirt under the bottom row.
skirtStartIdx = startIndex + smVBStride * 2;
// Step to go one vert to the right.
step = 1;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + ( i * step );
// Should this square be skipped? We actually need to test
// the vertex one row down as it defines the empty state
// for this square.
if ( _isVertIndexEmpty( t0 - smVBStride ) )
continue;
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = t1;
idxBuff[1] = t0;
idxBuff[2] = b0;
idxBuff[3] = t1;
idxBuff[4] = b0;
idxBuff[5] = b1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
mTriCount += 2;
}
// Left edge skirt...
// Index to the first vert of the left column.
startIndex = 0;
// Index to the first vert of the skirt under the left column.
skirtStartIdx = smVBStride * smVBStride + smVBStride * 2;
// Step to go one vert down.
step = smVBStride;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + ( i * step );
// Should this square be skipped?
if ( _isVertIndexEmpty(t0) )
continue;
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = t1;
idxBuff[1] = t0;
idxBuff[2] = b0;
idxBuff[3] = t1;
idxBuff[4] = b0;
idxBuff[5] = b1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
mTriCount += 2;
}
// Right edge skirt...
// Index to the first vert of the right column.
startIndex = smVBStride - 1;
// Index to the first vert of the skirt under the right column.
skirtStartIdx = smVBStride * smVBStride + smVBStride * 3;
// Step to go one vert down.
step = smVBStride;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + ( i * step );
// Should this square be skipped? We actually need to test
// the vertex one column to the left as it defines the empty
// state for this square.
if ( _isVertIndexEmpty( t0 - 1 ) )
continue;
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = b0;
idxBuff[1] = t0;
idxBuff[2] = t1;
idxBuff[3] = b1;
idxBuff[4] = b0;
idxBuff[5] = t1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
mTriCount += 2;
}
mPrimBuffer.unlock();
prim->numPrimitives = mTriCount;
}
bool ProcessedShaderMaterial::stepInstance()
{
PROFILE_SCOPE(ProcessedShaderMaterial_stepInstance);
AssertFatal( mInstancingState, "ProcessedShaderMaterial::stepInstance - This material isn't instanced!" );
return mInstancingState->step( &_getShaderConstBuffer( 0 )->mInstPtr );
}
void ProcessedShaderMaterial::setTextureStages( SceneRenderState *state, const SceneData &sgData, U32 pass )
{
PROFILE_SCOPE( ProcessedShaderMaterial_SetTextureStages );
ShaderConstHandles *handles = _getShaderConstHandles(pass);
// Set all of the textures we need to render the give pass.
#ifdef TORQUE_DEBUG
AssertFatal( pass<mPasses.size(), "Pass out of bounds" );
#endif
RenderPassData *rpd = mPasses[pass];
GFXShaderConstBuffer* shaderConsts = _getShaderConstBuffer(pass);
NamedTexTarget *texTarget;
GFXTextureObject *texObject;
for( U32 i=0; i<rpd->mNumTex; i++ )
{
U32 currTexFlag = rpd->mTexType[i];
if (!LIGHTMGR || !LIGHTMGR->setTextureStage(sgData, currTexFlag, i, shaderConsts, handles))
{
switch( currTexFlag )
{
// If the flag is unset then assume its just
// a regular texture to set... nothing special.
case 0:
default:
GFX->setTexture(i, rpd->mTexSlot[i].texObject);
break;
case Material::NormalizeCube:
GFX->setCubeTexture(i, Material::GetNormalizeCube());
break;
case Material::Lightmap:
GFX->setTexture( i, sgData.lightmap );
break;
case Material::ToneMapTex:
shaderConsts->setSafe(handles->mToneMapTexSC, (S32)i);
GFX->setTexture(i, rpd->mTexSlot[i].texObject);
break;
case Material::Cube:
GFX->setCubeTexture( i, rpd->mCubeMap );
break;
case Material::SGCube:
GFX->setCubeTexture( i, sgData.cubemap );
break;
case Material::BackBuff:
GFX->setTexture( i, sgData.backBuffTex );
break;
case Material::TexTarget:
{
texTarget = rpd->mTexSlot[i].texTarget;
if ( !texTarget )
{
GFX->setTexture( i, NULL );
break;
}
texObject = texTarget->getTexture();
// If no texture is available then map the default 2x2
// black texture to it. This at least will ensure that
// we get consistant behavior across GPUs and platforms.
if ( !texObject )
texObject = GFXTexHandle::ZERO;
if ( handles->mRTParamsSC[i]->isValid() && texObject )
{
const Point3I &targetSz = texObject->getSize();
const RectI &targetVp = texTarget->getViewport();
Point4F rtParams;
ScreenSpace::RenderTargetParameters(targetSz, targetVp, rtParams);
shaderConsts->set(handles->mRTParamsSC[i], rtParams);
}
GFX->setTexture( i, texObject );
break;
}
}
}
}
}
void TSShapeInstance::animateVisibility(S32 ss)
{
PROFILE_SCOPE( TSShapeInstance_animateVisibility );
S32 i;
if (!mMeshObjects.size())
return;
// find out who needs default values set
TSIntegerSet beenSet;
beenSet.setAll(mMeshObjects.size());
for (i=0; i<mThreadList.size(); i++)
beenSet.takeAway(mThreadList[i]->getSequence()->visMatters);
// set defaults
S32 a = mShape->subShapeFirstObject[ss];
S32 b = a + mShape->subShapeNumObjects[ss];
for (i=a; i<b; i++)
{
if (beenSet.test(i))
mMeshObjects[i].visible = mShape->objectStates[i].vis;
}
// go through each thread and set visibility on those objects that
// are not set yet and are controlled by that thread
for (i=0; i<mThreadList.size(); i++)
{
TSThread * th = mThreadList[i];
// For better or worse, object states are stored together (frame,
// matFrame, visibility all in one structure). Thus, indexing into
// object state array for animation for any of these attributes needs to
// take into account whether or not the other attributes are also animated.
// The object states should eventually be separated (like the node states were)
// in order to save memory and save the following step.
TSIntegerSet objectMatters = th->getSequence()->frameMatters;
objectMatters.overlap(th->getSequence()->matFrameMatters);
objectMatters.overlap(th->getSequence()->visMatters);
// skip to beginning of this sub-shape
S32 j=0;
S32 start = objectMatters.start();
S32 end = b;
for (S32 objectIndex = start; objectIndex<end; objectMatters.next(objectIndex), j++)
{
if (!beenSet.test(objectIndex) && th->getSequence()->visMatters.test(objectIndex))
{
F32 state1 = mShape->getObjectState(*th->getSequence(),th->keyNum1,j).vis;
F32 state2 = mShape->getObjectState(*th->getSequence(),th->keyNum2,j).vis;
if ((state1-state2) * (state1-state2) > 0.99f)
// goes from 0 to 1 -- discreet jump
mMeshObjects[objectIndex].visible = th->keyPos<0.5f ? state1 : state2;
else
// interpolate between keyframes when visibility change is gradual
mMeshObjects[objectIndex].visible = (1.0f-th->keyPos) * state1 + th->keyPos * state2;
// record change so that later threads don't over-write us...
beenSet.set(objectIndex);
}
}
}
}
void SceneManager::_renderScene( SceneRenderState* state, U32 objectMask, SceneZoneSpace* baseObject, U32 baseZone )
{
AssertFatal( this == gClientSceneGraph, "SceneManager::_buildSceneGraph - Only the client scenegraph can support this call!" );
PROFILE_SCOPE( SceneGraph_batchRenderImages );
// In the editor, override the type mask for diffuse passes.
if( gEditingMission && state->isDiffusePass() )
objectMask = EDITOR_RENDER_TYPEMASK;
// Update the zoning state and traverse zones.
if( getZoneManager() )
{
// Update.
getZoneManager()->updateZoningState();
// If zone culling isn't disabled, traverse the
// zones now.
if( !state->getCullingState().disableZoneCulling() )
{
// Find the start zone if we haven't already.
if( !baseObject )
{
getZoneManager()->findZone( state->getCameraPosition(), baseObject, baseZone );
AssertFatal( baseObject != NULL, "SceneManager::_renderScene - findZone() did not return an object" );
}
// Traverse zones starting in base object.
SceneTraversalState traversalState( &state->getCullingState() );
PROFILE_START( Scene_traverseZones );
baseObject->traverseZones( &traversalState, baseZone );
PROFILE_END();
// Set the scene render box to the area we have traversed.
state->setRenderArea( traversalState.getTraversedArea() );
}
}
// Set the query box for the container query. Never
// make it larger than the frustum's AABB. In the editor,
// always query the full frustum as that gives objects
// the opportunity to render editor visualizations even if
// they are otherwise not in view.
if( !state->getFrustum().getBounds().isOverlapped( state->getRenderArea() ) )
{
// This handles fringe cases like flying backwards into a zone where you
// end up pretty much standing on a zone border and looking directly into
// its "walls". In that case the traversal area will be behind the frustum
// (remember that the camera isn't where visibility starts, it's the near
// distance).
return;
}
Box3F queryBox = state->getFrustum().getBounds();
if( !gEditingMission )
{
queryBox.minExtents.setMax( state->getRenderArea().minExtents );
queryBox.maxExtents.setMin( state->getRenderArea().maxExtents );
}
PROFILE_START( Scene_cullObjects );
//TODO: We should split the codepaths here based on whether the outdoor zone has visible space.
// If it has, we should use the container query-based path.
// If it hasn't, we should fill the object list directly from the zone lists which will usually
// include way fewer objects.
// Gather all objects that intersect the scene render box.
mBatchQueryList.clear();
getContainer()->findObjectList( queryBox, objectMask, &mBatchQueryList );
// Cull the list.
U32 numRenderObjects = state->getCullingState().cullObjects(
mBatchQueryList.address(),
mBatchQueryList.size(),
!state->isDiffusePass() ? SceneCullingState::CullEditorOverrides : 0 // Keep forced editor stuff out of non-diffuse passes.
);
//HACK: If the control object is a Player and it is not in the render list, force
// it into it. This really should be solved by collision bounds being separate from
// object bounds; only because the Player class is using bounds not encompassing
// the actual player object is it that we have this problem in the first place.
// Note that we are forcing the player object into ALL passes here but such
// is the power of proliferation of things done wrong.
GameConnection* connection = GameConnection::getConnectionToServer();
if( connection )
{
Player* player = dynamic_cast< Player* >( connection->getControlObject() );
if( player )
{
mBatchQueryList.setSize( numRenderObjects );
if( !mBatchQueryList.contains( player ) )
{
mBatchQueryList.push_back( player );
numRenderObjects ++;
}
}
}
PROFILE_END();
// Render the remaining objects.
PROFILE_START( Scene_renderObjects );
state->renderObjects( mBatchQueryList.address(), numRenderObjects );
PROFILE_END();
// Render bounding boxes, if enabled.
if( smRenderBoundingBoxes && state->isDiffusePass() )
{
GFXDEBUGEVENT_SCOPE( Scene_renderBoundingBoxes, ColorI::WHITE );
GameBase* cameraObject = 0;
if( connection )
cameraObject = connection->getCameraObject();
GFXStateBlockDesc desc;
desc.setFillModeWireframe();
desc.setZReadWrite( true, false );
for( U32 i = 0; i < numRenderObjects; ++ i )
{
SceneObject* object = mBatchQueryList[ i ];
// Skip global bounds object.
if( object->isGlobalBounds() )
continue;
// Skip camera object as we're viewing the scene from it.
if( object == cameraObject )
continue;
const Box3F& worldBox = object->getWorldBox();
GFX->getDrawUtil()->drawObjectBox(
desc,
Point3F( worldBox.len_x(), worldBox.len_y(), worldBox.len_z() ),
worldBox.getCenter(),
MatrixF::Identity,
ColorI::WHITE
);
}
}
}
bool ProjectedShadow::_updateDecal( const SceneRenderState *state )
{
PROFILE_SCOPE( ProjectedShadow_UpdateDecal );
if ( !LIGHTMGR )
return false;
// Get the position of the decal first.
const Box3F &objBox = mParentObject->getObjBox();
const Point3F boxCenter = objBox.getCenter();
Point3F decalPos = boxCenter;
const MatrixF &renderTransform = mParentObject->getRenderTransform();
{
// Set up the decal position.
// We use the object space box center
// multiplied by the render transform
// of the object to ensure we benefit
// from interpolation.
MatrixF t( renderTransform );
t.setColumn(2,Point3F::UnitZ);
t.mulP( decalPos );
}
if ( mDecalInstance )
{
mDecalInstance->mPosition = decalPos;
if ( !shouldRender( state ) )
return false;
}
// Get the sunlight for the shadow projection.
// We want the LightManager to return NULL if it can't
// get the "real" sun, so we specify false for the useDefault parameter.
LightInfo *lights[4] = {0};
LightQuery query;
query.init( mParentObject->getWorldSphere() );
query.getLights( lights, 4 );
Point3F pos = renderTransform.getPosition();
Point3F lightDir( 0, 0, 0 );
Point3F tmp( 0, 0, 0 );
F32 weight = 0;
F32 range = 0;
U32 lightCount = 0;
F32 dist = 0;
F32 fade = 0;
for ( U32 i = 0; i < 4; i++ )
{
// If we got a NULL light,
// we're at the end of the list.
if ( !lights[i] )
break;
if ( !lights[i]->getCastShadows() )
continue;
if ( lights[i]->getType() != LightInfo::Point )
tmp = lights[i]->getDirection();
else
tmp = pos - lights[i]->getPosition();
range = lights[i]->getRange().x;
dist = ( (tmp.lenSquared()) / ((range * range) * 0.5f));
weight = mClampF( 1.0f - ( tmp.lenSquared() / (range * range)), 0.00001f, 1.0f );
if ( lights[i]->getType() == LightInfo::Vector )
fade = getMax( fade, 1.0f );
else
fade = getMax( fade, mClampF( 1.0f - dist, 0.00001f, 1.0f ) );
lightDir += tmp * weight;
lightCount++;
}
lightDir.normalize();
// No light... no shadow.
if ( !lights[0] )
return false;
// Has the light direction
// changed since last update?
bool lightDirChanged = !mLastLightDir.equal( lightDir );
// Has the parent object moved
// or scaled since the last update?
bool hasMoved = !mLastObjectPosition.equal( mParentObject->getRenderPosition() );
bool hasScaled = !mLastObjectScale.equal( mParentObject->getScale() );
// Set the last light direction
// to the current light direction.
mLastLightDir = lightDir;
mLastObjectPosition = mParentObject->getRenderPosition();
mLastObjectScale = mParentObject->getScale();
// Temps used to generate
// tangent vector for DecalInstance below.
VectorF right( 0, 0, 0 );
VectorF fwd( 0, 0, 0 );
VectorF tmpFwd( 0, 0, 0 );
U32 idx = lightDir.getLeastComponentIndex();
tmpFwd[idx] = 1.0f;
right = mCross( tmpFwd, lightDir );
fwd = mCross( lightDir, right );
right = mCross( fwd, lightDir );
right.normalize();
// Set up the world to light space
// matrix, along with proper position
// and rotation to be used as the world
// matrix for the render to texture later on.
static MatrixF sRotMat(EulerF( 0.0f, -(M_PI_F/2.0f), 0.0f));
mWorldToLight.identity();
MathUtils::getMatrixFromForwardVector( lightDir, &mWorldToLight );
mWorldToLight.setPosition( ( pos + boxCenter ) - ( ( (mRadius * smDepthAdjust) + 0.001f ) * lightDir ) );
mWorldToLight.mul( sRotMat );
mWorldToLight.inverse();
// Get the shapebase datablock if we have one.
ShapeBaseData *data = NULL;
if ( mShapeBase )
data = static_cast<ShapeBaseData*>( mShapeBase->getDataBlock() );
// We use the object box's extents multiplied
// by the object's scale divided by 2 for the radius
// because the object's worldsphere radius is not
// rotationally invariant.
mRadius = (objBox.getExtents() * mParentObject->getScale()).len() * 0.5f;
if ( data )
mRadius *= data->shadowSphereAdjust;
// Create the decal if we don't have one yet.
if ( !mDecalInstance )
mDecalInstance = gDecalManager->addDecal( decalPos,
lightDir,
right,
mDecalData,
1.0f,
0,
PermanentDecal | ClipDecal | CustomDecal );
if ( !mDecalInstance )
return false;
mDecalInstance->mVisibility = fade;
// Setup decal parameters.
mDecalInstance->mSize = mRadius * 2.0f;
mDecalInstance->mNormal = -lightDir;
mDecalInstance->mTangent = -right;
mDecalInstance->mRotAroundNormal = 0;
mDecalInstance->mPosition = decalPos;
mDecalInstance->mDataBlock = mDecalData;
// If the position of the world
// space box center is the same
// as the decal's position, and
// the light direction has not
// changed, we don't need to clip.
bool shouldClip = lightDirChanged || hasMoved || hasScaled;
// Now, check and see if the object is visible.
const Frustum &frust = state->getCullingFrustum();
if ( frust.isCulled( SphereF( mDecalInstance->mPosition, mDecalInstance->mSize * mDecalInstance->mSize ) ) && !shouldClip )
return false;
F32 shadowLen = 10.0f;
if ( data )
shadowLen = data->shadowProjectionDistance;
const Point3F &boxExtents = objBox.getExtents();
mShadowLength = shadowLen * mParentObject->getScale().z;
// Set up clip depth, and box half
// offset for decal clipping.
Point2F clipParams( mShadowLength, (boxExtents.x + boxExtents.y) * 0.25f );
bool render = false;
bool clipSucceeded = true;
// Clip!
if ( shouldClip )
{
clipSucceeded = gDecalManager->clipDecal( mDecalInstance,
NULL,
&clipParams );
}
// If the clip failed,
// we'll return false in
// order to keep from
// unnecessarily rendering
// into the texture. If
// there was no reason to clip
// on this update, we'll assume we
// should update the texture.
render = clipSucceeded;
// Tell the DecalManager we've changed this decal.
gDecalManager->notifyDecalModified( mDecalInstance );
return render;
}
void TSShapeInstance::sortThreads()
{
PROFILE_SCOPE( TSShapeInstance_sortThreads );
dQsort(mThreadList.address(),mThreadList.size(),sizeof(TSThread*),compareThreads);
dQsort(mTransitionThreads.address(),mTransitionThreads.size(),sizeof(TSThread*),compareThreads);
}
void LightManager::registerGlobalLights( const Frustum *frustum, bool staticLighting )
{
PROFILE_SCOPE( LightManager_RegisterGlobalLights );
// TODO: We need to work this out...
//
// 1. Why do we register and unregister lights on every
// render when they don't often change... shouldn't we
// just register once and keep them?
//
// 2. If we do culling of lights should this happen as part
// of registration or somewhere else?
//
// Grab the lights to process.
Vector<SceneObject*> activeLights;
const U32 lightMask = LightObjectType;
if ( staticLighting || !frustum )
{
// We're processing static lighting or want all the lights
// in the container registerd... so no culling.
getSceneManager()->getContainer()->findObjectList( lightMask, &activeLights );
}
else
{
// Cull the lights using the frustum.
getSceneManager()->getContainer()->findObjectList( *frustum, lightMask, &activeLights );
for (U32 i = 0; i < activeLights.size(); ++i)
{
if (!getSceneManager()->mRenderedObjectsList.contains(activeLights[i]))
{
activeLights.erase(i);
--i;
}
}
// Store the culling position for sun placement
// later... see setSpecialLight.
mCullPos = frustum->getPosition();
// HACK: Make sure the control object always gets
// processed as lights mounted to it don't change
// the shape bounds and can often get culled.
GameConnection *conn = GameConnection::getConnectionToServer();
if ( conn->getControlObject() )
{
GameBase *conObject = conn->getControlObject();
activeLights.push_back_unique( conObject );
}
}
// Let the lights register themselves.
for ( U32 i = 0; i < activeLights.size(); i++ )
{
ISceneLight *lightInterface = dynamic_cast<ISceneLight*>( activeLights[i] );
if ( lightInterface )
lightInterface->submitLights( this, staticLighting );
}
}
void LightManager::_update4LightConsts( const SceneData &sgData,
GFXShaderConstHandle *lightPositionSC,
GFXShaderConstHandle *lightDiffuseSC,
GFXShaderConstHandle *lightAmbientSC,
GFXShaderConstHandle *lightInvRadiusSqSC,
GFXShaderConstHandle *lightSpotDirSC,
GFXShaderConstHandle *lightSpotAngleSC,
GFXShaderConstHandle *lightSpotFalloffSC,
GFXShaderConstBuffer *shaderConsts )
{
PROFILE_SCOPE( LightManager_Update4LightConsts );
// Skip over gathering lights if we don't have to!
if ( lightPositionSC->isValid() ||
lightDiffuseSC->isValid() ||
lightInvRadiusSqSC->isValid() ||
lightSpotDirSC->isValid() ||
lightSpotAngleSC->isValid() ||
lightSpotFalloffSC->isValid() )
{
PROFILE_SCOPE( LightManager_Update4LightConsts_setLights );
static AlignedArray<Point4F> lightPositions( 3, sizeof( Point4F ) );
static AlignedArray<Point4F> lightSpotDirs( 3, sizeof( Point4F ) );
static AlignedArray<Point4F> lightColors( 4, sizeof( Point4F ) );
static Point4F lightInvRadiusSq;
static Point4F lightSpotAngle;
static Point4F lightSpotFalloff;
F32 range;
// Need to clear the buffers so that we don't leak
// lights from previous passes or have NaNs.
dMemset( lightPositions.getBuffer(), 0, lightPositions.getBufferSize() );
dMemset( lightSpotDirs.getBuffer(), 0, lightSpotDirs.getBufferSize() );
dMemset( lightColors.getBuffer(), 0, lightColors.getBufferSize() );
lightInvRadiusSq = Point4F::Zero;
lightSpotAngle.set( -1.0f, -1.0f, -1.0f, -1.0f );
lightSpotFalloff.set( F32_MAX, F32_MAX, F32_MAX, F32_MAX );
// Gather the data for the first 4 lights.
const LightInfo *light;
for ( U32 i=0; i < 4; i++ )
{
light = sgData.lights[i];
if ( !light )
break;
// The light positions and spot directions are
// in SoA order to make optimal use of the GPU.
const Point3F &lightPos = light->getPosition();
lightPositions[0][i] = lightPos.x;
lightPositions[1][i] = lightPos.y;
lightPositions[2][i] = lightPos.z;
const VectorF &lightDir = light->getDirection();
lightSpotDirs[0][i] = lightDir.x;
lightSpotDirs[1][i] = lightDir.y;
lightSpotDirs[2][i] = lightDir.z;
if ( light->getType() == LightInfo::Spot )
{
lightSpotAngle[i] = mCos( mDegToRad( light->getOuterConeAngle() / 2.0f ) );
lightSpotFalloff[i] = 1.0f / getMax( F32_MIN, mCos( mDegToRad( light->getInnerConeAngle() / 2.0f ) ) - lightSpotAngle[i] );
}
// Prescale the light color by the brightness to
// avoid doing this in the shader.
lightColors[i] = Point4F(light->getColor()) * light->getBrightness();
// We need 1 over range^2 here.
range = light->getRange().x;
lightInvRadiusSq[i] = 1.0f / ( range * range );
}
shaderConsts->setSafe( lightPositionSC, lightPositions );
shaderConsts->setSafe( lightDiffuseSC, lightColors );
shaderConsts->setSafe( lightInvRadiusSqSC, lightInvRadiusSq );
shaderConsts->setSafe( lightSpotDirSC, lightSpotDirs );
shaderConsts->setSafe( lightSpotAngleSC, lightSpotAngle );
shaderConsts->setSafe( lightSpotFalloffSC, lightSpotFalloff );
}
// Setup the ambient lighting from the first
// light which is the directional light if
// one exists at all in the scene.
if ( lightAmbientSC->isValid() )
shaderConsts->set( lightAmbientSC, sgData.ambientLightColor );
}
//-----------------------------------------------------------------------------
// render
//-----------------------------------------------------------------------------
void RenderMeshMgr::render(SceneRenderState * state)
{
PROFILE_SCOPE(RenderMeshMgr_render);
// Early out if nothing to draw.
if(!mElementList.size())
return;
GFXDEBUGEVENT_SCOPE( RenderMeshMgr_Render, ColorI::GREEN );
// Automagically save & restore our viewport and transforms.
GFXTransformSaver saver;
// Restore transforms
MatrixSet &matrixSet = getRenderPass()->getMatrixSet();
matrixSet.restoreSceneViewProjection();
// init loop data
GFXTextureObject *lastLM = NULL;
GFXCubemap *lastCubemap = NULL;
GFXTextureObject *lastReflectTex = NULL;
GFXTextureObject *lastMiscTex = NULL;
GFXTextureObject *lastAccuTex = NULL;
SceneData sgData;
sgData.init( state );
U32 binSize = mElementList.size();
for( U32 j=0; j<binSize; )
{
MeshRenderInst *ri = static_cast<MeshRenderInst*>(mElementList[j].inst);
setupSGData( ri, sgData );
BaseMatInstance *mat = ri->matInst;
// If we have an override delegate then give it a
// chance to swap the material with another.
if ( mMatOverrideDelegate )
{
mat = mMatOverrideDelegate( mat );
if ( !mat )
{
j++;
continue;
}
}
if( !mat )
mat = MATMGR->getWarningMatInstance();
U32 matListEnd = j;
lastMiscTex = sgData.miscTex;
U32 a;
while(mat && mat->setupPass(state, sgData ))
{
for( a=j; a<binSize; a++ )
{
MeshRenderInst *passRI = static_cast<MeshRenderInst*>(mElementList[a].inst);
// Check to see if we need to break this batch.
if ( newPassNeeded( ri, passRI ) ||
lastMiscTex != passRI->miscTex )
{
lastLM = NULL;
break;
}
matrixSet.setWorld(*passRI->objectToWorld);
matrixSet.setView(*passRI->worldToCamera);
matrixSet.setProjection(*passRI->projection);
mat->setTransforms(matrixSet, state);
setupSGData( passRI, sgData );
sgData.palette = passRI->palette;
mat->setSceneInfo( state, sgData );
// If we're instanced then don't render yet.
if ( mat->isInstanced() )
{
// Let the material increment the instance buffer, but
// break the batch if it runs out of room for more.
if ( !mat->stepInstance() )
{
a++;
break;
}
continue;
}
// TODO: This could proably be done in a cleaner way.
//
// This section of code is dangerous, it overwrites the
// lightmap values in sgData. This could be a problem when multiple
// render instances use the same multi-pass material. When
// the first pass is done, setupPass() is called again on
// the material, but the lightmap data has been changed in
// sgData to the lightmaps in the last renderInstance rendered.
// This section sets the lightmap data for the current batch.
// For the first iteration, it sets the same lightmap data,
// however the redundancy will be caught by GFXDevice and not
// actually sent to the card. This is done for simplicity given
// the possible condition mentioned above. Better to set always
// than to get bogged down into special case detection.
//-------------------------------------
bool dirty = false;
// set the lightmaps if different
if( passRI->lightmap && passRI->lightmap != lastLM )
{
sgData.lightmap = passRI->lightmap;
lastLM = passRI->lightmap;
dirty = true;
}
// set the cubemap if different.
if ( passRI->cubemap != lastCubemap )
{
sgData.cubemap = passRI->cubemap;
lastCubemap = passRI->cubemap;
dirty = true;
}
if ( passRI->reflectTex != lastReflectTex )
{
sgData.reflectTex = passRI->reflectTex;
lastReflectTex = passRI->reflectTex;
dirty = true;
}
// Update accumulation texture if it changed.
// Note: accumulation texture can be NULL, and must be updated.
if ( passRI->accuTex != lastAccuTex )
{
sgData.accuTex = passRI->accuTex;
lastAccuTex = lastAccuTex;
dirty = true;
}
if ( dirty )
mat->setTextureStages( state, sgData );
// Setup the vertex and index buffers.
mat->setBuffers( passRI->vertBuff, passRI->primBuff );
// Render this sucker.
if ( passRI->prim )
GFX->drawPrimitive( *passRI->prim );
else
GFX->drawPrimitive( passRI->primBuffIndex );
}
// Draw the instanced batch.
if ( mat->isInstanced() )
{
// Sets the buffers including the instancing stream.
mat->setBuffers( ri->vertBuff, ri->primBuff );
// Render the instanced stream.
if ( ri->prim )
GFX->drawPrimitive( *ri->prim );
else
GFX->drawPrimitive( ri->primBuffIndex );
}
matListEnd = a;
}
// force increment if none happened, otherwise go to end of batch
j = ( j == matListEnd ) ? j+1 : matListEnd;
}
}
void Portal::_traverseConnectedZoneSpaces( SceneTraversalState* state )
{
PROFILE_SCOPE( Portal_traverseConnectedZoneSpaces );
// Don't traverse out from the portal if it is invalid.
if( mClassification == InvalidPortal )
return;
AssertFatal( !mIsGeometryDirty, "Portal::_traverseConnectedZoneSpaces - Geometry not up-to-date!" );
// When starting traversal within a portal zone, we cannot really use the portal
// plane itself to direct our visibility queries. For example, the camera might
// actually be located in front of the portal plane and thus cannot actually look
// through the portal, though it will still see what lies on front of where the
// portal leads.
//
// So if we're the start of the traversal chain, i.e. the traversal has started
// out in the portal zone, then just put the traversal through to SceneZoneSpace
// so it can hand it over to all connected zone managers.
//
// Otherwise, just do a normal traversal by stepping through the portal.
if( state->getTraversalDepth() == 1 )
{
Parent::_traverseConnectedZoneSpaces( state );
return;
}
SceneCullingState* cullingState = state->getCullingState();
const SceneCameraState& cameraState = cullingState->getCameraState();
// Get the data of the zone we're coming from. Note that at this point
// the portal zone itself is already on top of the traversal stack, so
// we skip over the bottom-most entry.
const U32 sourceZoneId = state->getZoneIdFromStack( 1 );
const SceneZoneSpace* sourceZoneSpace = state->getZoneFromStack( 1 );
// Find out which side of the portal we are on given the
// source zone.
const Portal::Side currentZoneSide =
sourceZoneId == SceneZoneSpaceManager::RootZoneId
? ( getInteriorSideOfExteriorPortal() == FrontSide ? BackSide : FrontSide )
: getSideRelativeToPortalPlane( sourceZoneSpace->getPosition() );
// Don't step through portal if the side we're interested in isn't passable.
if( !isSidePassable( currentZoneSide ) )
return;
// If the viewpoint isn't on the same side of the portal as the source zone,
// then stepping through the portal would mean we are stepping back towards
// the viewpoint which doesn't make sense; so, skip the portal.
const Point3F& viewPos = cameraState.getViewPosition();
const F32 viewPosDistToPortal = mFabs( getPortalPlane().distToPlane( viewPos ) );
if( !mIsZero( viewPosDistToPortal ) && getSideRelativeToPortalPlane( viewPos ) != currentZoneSide )
return;
// Before we go ahead and do the real work, try to find out whether
// the portal is at a perpendicular or near-perpendicular angle to the view
// direction. If so, there's no point in going further since we can't really
// see much through the portal anyway. It also prevents us from stepping
// over front/back side ambiguities.
Point3F viewDirection = cameraState.getViewDirection();
const F32 dotProduct = mDot( viewDirection, getPortalPlane() );
if( mIsZero( dotProduct ) )
return;
// Finally, if we have come through a portal to the current zone, check if the target
// portal we are trying to step through now completely lies on the "backside"--i.e.
// the side of portal on which our current zone lies--of the source portal. If so,
// we can be sure this portal leads us in the wrong direction. This prevents the
// outdoor zone from having just arrived through a window on one side of a house just
// to go round the house and re-enter it from the other side.
Portal* sourcePortal = state->getTraversalDepth() > 2 ? dynamic_cast< Portal* >( state->getZoneFromStack( 2 ) ) : NULL;
if( sourcePortal != NULL )
{
const Side sourcePortalFrontSide =
sourceZoneId == SceneZoneSpaceManager::RootZoneId
? sourcePortal->getInteriorSideOfExteriorPortal()
: sourcePortal->getSideRelativeToPortalPlane( sourceZoneSpace->getPosition() );
const PlaneF::Side sourcePortalPlaneFrontSide =
sourcePortalFrontSide == FrontSide ? PlaneF::Front : PlaneF::Back;
bool allPortalVerticesOnBackside = true;
const U32 numVertices = mPortalPolygonWS.size();
for( U32 i = 0; i < numVertices; ++ i )
{
// Not using getSideRelativeToPortalPlane here since we want PlaneF::On to be
// counted as backside here.
if( sourcePortal->mPortalPlane.whichSide( mPortalPolygonWS[ i ] ) == sourcePortalPlaneFrontSide )
{
allPortalVerticesOnBackside = false;
break;
}
}
if( allPortalVerticesOnBackside )
return;
}
// If we come from the outdoor zone, then we don't want to step through any portal
// where the interior zones are actually on the same side as our camera since that
// would mean we are stepping into an interior through the backside of a portal.
if( sourceZoneId == SceneZoneSpaceManager::RootZoneId )
{
const Portal::Side cameraSide = getSideRelativeToPortalPlane( viewPos );
if( cameraSide == getInteriorSideOfExteriorPortal() )
return;
}
// Clip the current culling volume against the portal's polygon. If the polygon
// lies completely outside the volume or for some other reason there's no good resulting
// volume, _generateCullingVolume() will return false and we terminate this portal sequence
// here.
//
// However, don't attempt to clip the portal if we are standing really close to or
// even below the near distance away from the portal plane. In that case, trying to
// clip the portal will only result in trouble so we stick to the original culling volume
// in that case.
bool haveClipped = false;
if( viewPosDistToPortal > ( cameraState.getFrustum().getNearDist() + 0.1f ) )
{
SceneCullingVolume volume;
if( !_generateCullingVolume( state, volume ) )
return;
state->pushCullingVolume( volume );
haveClipped = true;
}
// Short-circuit things if we are stepping from an interior zone outside. In this
// case we know that the only zone we care about is the outdoor zone so head straight
// into it.
if( isExteriorPortal() && sourceZoneId != SceneZoneSpaceManager::RootZoneId )
getSceneManager()->getZoneManager()->getRootZone()->traverseZones( state );
else
{
// Go through the zones that the portal connects to and
// traverse into them.
for( ZoneSpaceRef* ref = mConnectedZoneSpaces; ref != NULL; ref = ref->mNext )
{
SceneZoneSpace* targetSpace = ref->mZoneSpace;
if( targetSpace == sourceZoneSpace )
continue; // Skip space we originated from.
// We have handled the case of stepping into the outdoor zone above and
// by skipping the zone we originated from, we have implicitly handled the
// case of stepping out of the outdoor zone. Thus, we should not see the
// outdoor zone here. Important as getPosition() is meaningless for it.
AssertFatal( targetSpace->getZoneRangeStart() != SceneZoneSpaceManager::RootZoneId,
"Portal::_traverseConnectedZoneSpaces - Outdoor zone must have been handled already" );
// Skip zones that lie on the same side as the zone
// we originated from.
if( getSideRelativeToPortalPlane( targetSpace->getPosition() ) == currentZoneSide )
continue;
// Traverse into the space.
targetSpace->traverseZones( state );
}
}
// If we have pushed our own clipping volume,
// remove that from the stack now.
if( haveClipped )
state->popCullingVolume();
}
void ConvexShape::Geometry::generate( const Vector< PlaneF > &planes, const Vector< Point3F > &tangents )
{
PROFILE_SCOPE( Geometry_generate );
points.clear();
faces.clear();
AssertFatal( planes.size() == tangents.size(), "ConvexShape - incorrect plane/tangent count." );
#ifdef TORQUE_ENABLE_ASSERTS
for ( S32 i = 0; i < planes.size(); i++ )
{
F32 dt = mDot( planes[i], tangents[i] );
AssertFatal( mIsZero( dt, 0.0001f ), "ConvexShape - non perpendicular input vectors." );
AssertFatal( planes[i].isUnitLength() && tangents[i].isUnitLength(), "ConvexShape - non unit length input vector." );
}
#endif
const U32 planeCount = planes.size();
Point3F linePt, lineDir;
for ( S32 i = 0; i < planeCount; i++ )
{
Vector< MathUtils::Line > collideLines;
// Find the lines defined by the intersection of this plane with all others.
for ( S32 j = 0; j < planeCount; j++ )
{
if ( i == j )
continue;
if ( planes[i].intersect( planes[j], linePt, lineDir ) )
{
collideLines.increment();
MathUtils::Line &line = collideLines.last();
line.origin = linePt;
line.direction = lineDir;
}
}
if ( collideLines.empty() )
continue;
// Find edges and points defined by the intersection of these lines.
// As we find them we fill them into our working ConvexShape::Face
// structure.
Face newFace;
for ( S32 j = 0; j < collideLines.size(); j++ )
{
Vector< Point3F > collidePoints;
for ( S32 k = 0; k < collideLines.size(); k++ )
{
if ( j == k )
continue;
MathUtils::LineSegment segment;
MathUtils::mShortestSegmentBetweenLines( collideLines[j], collideLines[k], &segment );
F32 dist = ( segment.p0 - segment.p1 ).len();
if ( dist < 0.0005f )
{
S32 l = 0;
for ( ; l < planeCount; l++ )
{
if ( planes[l].whichSide( segment.p0 ) == PlaneF::Front )
break;
}
if ( l == planeCount )
collidePoints.push_back( segment.p0 );
}
}
//AssertFatal( collidePoints.size() <= 2, "A line can't collide with more than 2 other lines in a convex shape..." );
if ( collidePoints.size() != 2 )
continue;
// Push back collision points into our points vector
// if they are not duplicates and determine the id
// index for those points to be used by Edge(s).
const Point3F &pnt0 = collidePoints[0];
const Point3F &pnt1 = collidePoints[1];
S32 idx0 = -1;
S32 idx1 = -1;
for ( S32 k = 0; k < points.size(); k++ )
{
if ( pnt0.equal( points[k] ) )
{
idx0 = k;
break;
}
}
for ( S32 k = 0; k < points.size(); k++ )
{
if ( pnt1.equal( points[k] ) )
{
idx1 = k;
break;
}
}
if ( idx0 == -1 )
{
points.push_back( pnt0 );
idx0 = points.size() - 1;
}
if ( idx1 == -1 )
{
points.push_back( pnt1 );
idx1 = points.size() - 1;
}
// Construct the Face::Edge defined by this collision.
S32 localIdx0 = newFace.points.push_back_unique( idx0 );
S32 localIdx1 = newFace.points.push_back_unique( idx1 );
newFace.edges.increment();
ConvexShape::Edge &newEdge = newFace.edges.last();
newEdge.p0 = localIdx0;
newEdge.p1 = localIdx1;
}
if ( newFace.points.size() < 3 )
continue;
//AssertFatal( newFace.points.size() == newFace.edges.size(), "ConvexShape - face point count does not equal edge count." );
// Fill in some basic Face information.
newFace.id = i;
newFace.normal = planes[i];
newFace.tangent = tangents[i];
// Make a working array of Point3Fs on this face.
U32 pntCount = newFace.points.size();
Point3F *workPoints = new Point3F[ pntCount ];
for ( S32 j = 0; j < pntCount; j++ )
workPoints[j] = points[ newFace.points[j] ];
// Calculate the average point for calculating winding order.
Point3F averagePnt = Point3F::Zero;
for ( S32 j = 0; j < pntCount; j++ )
averagePnt += workPoints[j];
averagePnt /= pntCount;
// Sort points in correct winding order.
U32 *vertMap = new U32[pntCount];
MatrixF quadMat( true );
quadMat.setPosition( averagePnt );
quadMat.setColumn( 0, newFace.tangent );
quadMat.setColumn( 1, mCross( newFace.normal, newFace.tangent ) );
quadMat.setColumn( 2, newFace.normal );
quadMat.inverse();
// Transform working points into quad space
// so we can work with them as 2D points.
for ( S32 j = 0; j < pntCount; j++ )
quadMat.mulP( workPoints[j] );
MathUtils::sortQuadWindingOrder( true, workPoints, vertMap, pntCount );
// Save points in winding order.
for ( S32 j = 0; j < pntCount; j++ )
newFace.winding.push_back( vertMap[j] );
// Calculate the area and centroid of the face.
newFace.area = 0.0f;
for ( S32 j = 0; j < pntCount; j++ )
{
S32 k = ( j + 1 ) % pntCount;
const Point3F &p0 = workPoints[ vertMap[j] ];
const Point3F &p1 = workPoints[ vertMap[k] ];
// Note that this calculation returns positive area for clockwise winding
// and negative area for counterclockwise winding.
newFace.area += p0.y * p1.x;
newFace.area -= p0.x * p1.y;
}
//AssertFatal( newFace.area > 0.0f, "ConvexShape - face area was not positive." );
if ( newFace.area > 0.0f )
newFace.area /= 2.0f;
F32 factor;
F32 cx = 0.0f, cy = 0.0f;
for ( S32 j = 0; j < pntCount; j++ )
{
S32 k = ( j + 1 ) % pntCount;
const Point3F &p0 = workPoints[ vertMap[j] ];
const Point3F &p1 = workPoints[ vertMap[k] ];
factor = p0.x * p1.y - p1.x * p0.y;
cx += ( p0.x + p1.x ) * factor;
cy += ( p0.y + p1.y ) * factor;
}
factor = 1.0f / ( newFace.area * 6.0f );
newFace.centroid.set( cx * factor, cy * factor, 0.0f );
quadMat.inverse();
quadMat.mulP( newFace.centroid );
delete [] workPoints;
workPoints = NULL;
// Make polygons / triangles for this face.
const U32 polyCount = pntCount - 2;
newFace.triangles.setSize( polyCount );
for ( S32 j = 0; j < polyCount; j++ )
{
ConvexShape::Triangle &poly = newFace.triangles[j];
poly.p0 = vertMap[0];
if ( j == 0 )
{
poly.p1 = vertMap[ 1 ];
poly.p2 = vertMap[ 2 ];
}
else
{
poly.p1 = vertMap[ 1 + j ];
poly.p2 = vertMap[ 2 + j ];
}
}
delete [] vertMap;
// Calculate texture coordinates for each point in this face.
const Point3F binormal = mCross( newFace.normal, newFace.tangent );
PlaneF planey( newFace.centroid - 0.5f * binormal, binormal );
PlaneF planex( newFace.centroid - 0.5f * newFace.tangent, newFace.tangent );
newFace.texcoords.setSize( newFace.points.size() );
for ( S32 j = 0; j < newFace.points.size(); j++ )
{
F32 x = planex.distToPlane( points[ newFace.points[ j ] ] );
F32 y = planey.distToPlane( points[ newFace.points[ j ] ] );
newFace.texcoords[j].set( -x, -y );
}
// Data verification tests.
#ifdef TORQUE_ENABLE_ASSERTS
//S32 triCount = newFace.triangles.size();
//S32 edgeCount = newFace.edges.size();
//AssertFatal( triCount == edgeCount - 2, "ConvexShape - triangle/edge count do not match." );
/*
for ( S32 j = 0; j < triCount; j++ )
{
F32 area = MathUtils::mTriangleArea( points[ newFace.points[ newFace.triangles[j][0] ] ],
points[ newFace.points[ newFace.triangles[j][1] ] ],
points[ newFace.points[ newFace.triangles[j][2] ] ] );
AssertFatal( area > 0.0f, "ConvexShape - triangle winding bad." );
}*/
#endif
// Done with this Face.
faces.push_back( newFace );
}
}
bool TerrainCellMaterial::setupPass( const SceneRenderState *state,
const SceneData &sceneData )
{
PROFILE_SCOPE( TerrainCellMaterial_SetupPass );
if ( mCurrPass >= mPasses.size() )
{
mCurrPass = 0;
return false;
}
Pass &pass = mPasses[mCurrPass];
_updateMaterialConsts( &pass );
if ( pass.baseTexMapConst->isValid() )
GFX->setTexture( pass.baseTexMapConst->getSamplerRegister(), mTerrain->mBaseTex.getPointer() );
if ( pass.layerTexConst->isValid() )
GFX->setTexture( pass.layerTexConst->getSamplerRegister(), mTerrain->mLayerTex.getPointer() );
if ( pass.lightMapTexConst->isValid() )
GFX->setTexture( pass.lightMapTexConst->getSamplerRegister(), mTerrain->getLightMapTex() );
if ( sceneData.wireframe )
GFX->setStateBlock( pass.wireframeStateBlock );
else
GFX->setStateBlock( pass.stateBlock );
GFX->setShader( pass.shader );
GFX->setShaderConstBuffer( pass.consts );
// Let the light manager prepare any light stuff it needs.
LIGHTMGR->setLightInfo( NULL,
NULL,
sceneData,
state,
mCurrPass,
pass.consts );
for ( U32 i=0; i < pass.materials.size(); i++ )
{
MaterialInfo *matInfo = pass.materials[i];
if ( matInfo->detailTexConst->isValid() )
GFX->setTexture( matInfo->detailTexConst->getSamplerRegister(), matInfo->detailTex );
if ( matInfo->macroTexConst->isValid() )
GFX->setTexture( matInfo->macroTexConst->getSamplerRegister(), matInfo->macroTex );
if ( matInfo->normalTexConst->isValid() )
GFX->setTexture( matInfo->normalTexConst->getSamplerRegister(), matInfo->normalTex );
}
pass.consts->setSafe( pass.layerSizeConst, (F32)mTerrain->mLayerTex.getWidth() );
if ( pass.oneOverTerrainSize->isValid() )
{
F32 oneOverTerrainSize = 1.0f / mTerrain->getWorldBlockSize();
pass.consts->set( pass.oneOverTerrainSize, oneOverTerrainSize );
}
pass.consts->setSafe( pass.squareSize, mTerrain->getSquareSize() );
if ( pass.fogDataConst->isValid() )
{
Point3F fogData;
fogData.x = sceneData.fogDensity;
fogData.y = sceneData.fogDensityOffset;
fogData.z = sceneData.fogHeightFalloff;
pass.consts->set( pass.fogDataConst, fogData );
}
pass.consts->setSafe( pass.fogColorConst, sceneData.fogColor );
if ( pass.lightInfoBufferConst->isValid() &&
pass.lightParamsConst->isValid() )
{
if ( !mLightInfoTarget )
mLightInfoTarget = NamedTexTarget::find( "lightinfo" );
GFXTextureObject *texObject = mLightInfoTarget->getTexture();
// TODO: Sometimes during reset of the light manager we get a
// NULL texture here. This is corrected on the next frame, but
// we should still investigate why that happens.
if ( texObject )
{
GFX->setTexture( pass.lightInfoBufferConst->getSamplerRegister(), texObject );
const Point3I &targetSz = texObject->getSize();
const RectI &targetVp = mLightInfoTarget->getViewport();
Point4F rtParams;
ScreenSpace::RenderTargetParameters(targetSz, targetVp, rtParams);
pass.consts->setSafe( pass.lightParamsConst, rtParams );
}
}
++mCurrPass;
return true;
}
void TerrainCellMaterial::_updateMaterialConsts( Pass *pass )
{
PROFILE_SCOPE( TerrainCellMaterial_UpdateMaterialConsts );
for ( U32 j=0; j < pass->materials.size(); j++ )
{
MaterialInfo *matInfo = pass->materials[j];
F32 detailSize = matInfo->mat->getDetailSize();
F32 detailScale = 1.0f;
if ( !mIsZero( detailSize ) )
detailScale = mTerrain->getWorldBlockSize() / detailSize;
// Scale the distance by the global scalar.
const F32 distance = mTerrain->smDetailScale * matInfo->mat->getDetailDistance();
// NOTE: The negation of the y scale is to make up for
// my mistake early in development and passing the wrong
// y texture coord into the system.
//
// This negation fixes detail, normal, and parallax mapping
// without harming the layer id blending code.
//
// Eventually we should rework this to correct this little
// mistake, but there isn't really a hurry to.
//
Point4F detailScaleAndFade( detailScale,
-detailScale,
distance,
0 );
if ( !mIsZero( distance ) )
detailScaleAndFade.w = 1.0f / distance;
Point3F detailIdStrengthParallax( matInfo->layerId,
matInfo->mat->getDetailStrength(),
matInfo->mat->getParallaxScale() );
pass->consts->setSafe( matInfo->detailInfoVConst, detailScaleAndFade );
pass->consts->setSafe( matInfo->detailInfoPConst, detailIdStrengthParallax );
// macro texture info
F32 macroSize = matInfo->mat->getMacroSize();
F32 macroScale = 1.0f;
if ( !mIsZero( macroSize ) )
macroScale = mTerrain->getWorldBlockSize() / macroSize;
// Scale the distance by the global scalar.
const F32 macroDistance = mTerrain->smDetailScale * matInfo->mat->getMacroDistance();
Point4F macroScaleAndFade( macroScale,
-macroScale,
macroDistance,
0 );
if ( !mIsZero( macroDistance ) )
macroScaleAndFade.w = 1.0f / macroDistance;
Point3F macroIdStrengthParallax( matInfo->layerId,
matInfo->mat->getMacroStrength(),
0 );
pass->consts->setSafe( matInfo->macroInfoVConst, macroScaleAndFade );
pass->consts->setSafe( matInfo->macroInfoPConst, macroIdStrengthParallax );
}
}
bool Etherform::updatePos(const F32 travelTime)
{
PROFILE_SCOPE(Etherform_UpdatePos);
getTransform().getColumn(3, &delta.posVec);
// When mounted to another object, only Z rotation used.
if(isMounted())
{
mVelocity = mMount.object->getVelocity();
setPosition(Point3F(0.0f, 0.0f, 0.0f), mRot);
setMaskBits(MoveMask);
return true;
}
Point3F newPos;
Collision col;
dMemset(&col, 0, sizeof(col));
// DEBUG:
//Point3F savedVelocity = mVelocity;
if(mVelocity.isZero())
newPos = delta.posVec;
else
newPos = _move(travelTime, &col);
_handleCollision(col);
// DEBUG:
//if ( isClientObject() )
// Con::printf( "(client) vel: %g %g %g", mVelocity.x, mVelocity.y, mVelocity.z );
//else
// Con::printf( "(server) vel: %g %g %g", mVelocity.x, mVelocity.y, mVelocity.z );
// Set new position
// If on the client, calc delta for backstepping
if(isClientObject())
{
delta.pos = newPos;
delta.rot = mRot;
delta.posVec = delta.posVec - delta.pos;
delta.rotVec = delta.rotVec - delta.rot;
delta.dt = 1.0f;
}
this->setPosition(newPos, mRot);
this->setMaskBits(MoveMask);
this->updateContainer();
if (!isGhost())
{
// Collisions are only queued on the server and can be
// generated by either updateMove or updatePos
notifyCollision();
// Do mission area callbacks on the server as well
//checkMissionArea();
}
// Check the total distance moved. If it is more than 1000th of the velocity, then
// we moved a fair amount...
//if (totalMotion >= (0.001f * initialSpeed))
return true;
//else
//return false;
}
void FrustumData::_update() const
{
if( !mDirty )
return;
PROFILE_SCOPE( Frustum_update );
const Point3F& cameraPos = mPosition;
// Build the frustum points in camera space first.
if( mIsOrtho )
{
mPoints[ NearTopLeft ].set( mNearLeft, mNearDist, mNearTop );
mPoints[ NearTopRight ].set( mNearRight, mNearDist, mNearTop );
mPoints[ NearBottomLeft ].set( mNearLeft, mNearDist, mNearBottom );
mPoints[ NearBottomRight ].set( mNearRight, mNearDist, mNearBottom );
mPoints[ FarTopLeft ].set( mNearLeft, mFarDist, mNearTop );
mPoints[ FarTopRight ].set( mNearRight, mFarDist, mNearTop );
mPoints[ FarBottomLeft ].set( mNearLeft, mFarDist, mNearBottom );
mPoints[ FarBottomRight ].set( mNearRight, mFarDist, mNearBottom );
}
else
{
const F32 farOverNear = mFarDist / mNearDist;
mPoints[ NearTopLeft ].set( mNearLeft, mNearDist, mNearTop );
mPoints[ NearTopRight ].set( mNearRight, mNearDist, mNearTop );
mPoints[ NearBottomLeft ].set( mNearLeft, mNearDist, mNearBottom );
mPoints[ NearBottomRight ].set( mNearRight, mNearDist, mNearBottom );
mPoints[ FarTopLeft ].set( mNearLeft * farOverNear, mFarDist, mNearTop * farOverNear );
mPoints[ FarTopRight ].set( mNearRight * farOverNear, mFarDist, mNearTop * farOverNear );
mPoints[ FarBottomLeft ].set( mNearLeft * farOverNear, mFarDist, mNearBottom * farOverNear );
mPoints[ FarBottomRight ].set( mNearRight * farOverNear, mFarDist, mNearBottom * farOverNear );
}
// Transform the points into the desired culling space.
for( U32 i = 0; i < mPoints.size(); ++ i )
mTransform.mulP( mPoints[ i ] );
// Update the axis aligned bounding box from
// the newly transformed points.
mBounds = Box3F::aroundPoints( mPoints.address(), mPoints.size() );
// Finally build the planes.
if( mIsOrtho )
{
mPlanes[ PlaneLeft ].set( mPoints[ NearBottomLeft ],
mPoints[ FarTopLeft ],
mPoints[ FarBottomLeft ] );
mPlanes[ PlaneRight ].set( mPoints[ NearTopRight ],
mPoints[ FarBottomRight ],
mPoints[ FarTopRight ] );
mPlanes[ PlaneTop ].set( mPoints[ FarTopRight ],
mPoints[ NearTopLeft ],
mPoints[ NearTopRight ] );
mPlanes[ PlaneBottom ].set( mPoints[ NearBottomRight ],
mPoints[ FarBottomLeft ],
mPoints[ FarBottomRight ] );
mPlanes[ PlaneNear ].set( mPoints[ NearTopLeft ],
mPoints[ NearBottomLeft ],
mPoints[ NearTopRight ] );
mPlanes[ PlaneFar ].set( mPoints[ FarTopLeft ],
mPoints[ FarTopRight ],
mPoints[ FarBottomLeft ] );
}
else
{
mPlanes[ PlaneLeft ].set( cameraPos,
mPoints[ NearTopLeft ],
mPoints[ NearBottomLeft ] );
mPlanes[ PlaneRight ].set( cameraPos,
mPoints[ NearBottomRight ],
mPoints[ NearTopRight ] );
mPlanes[ PlaneTop ].set( cameraPos,
mPoints[ NearTopRight ],
mPoints[ NearTopLeft ] );
mPlanes[ PlaneBottom ].set( cameraPos,
mPoints[ NearBottomLeft ],
mPoints[ NearBottomRight ] );
mPlanes[ PlaneNear ].set( mPoints[ NearTopLeft ],
mPoints[ NearBottomLeft ],
mPoints[ NearTopRight ] );
mPlanes[ PlaneFar ].set( mPoints[ FarTopLeft ],
mPoints[ FarTopRight ],
mPoints[ FarBottomLeft ] );
}
// If the frustum plane orientation doesn't match mIsInverted
// now, invert all the plane normals.
//
// Note that if we have a transform matrix with a negative scale,
// then the initial planes we have computed will always be inverted.
const bool inverted = mPlanes[ PlaneNear ].whichSide( cameraPos ) == PlaneF::Front;
if( inverted != mIsInverted )
{
for( U32 i = 0; i < mPlanes.size(); ++ i )
mPlanes[ i ].invert();
}
AssertFatal( mPlanes[ PlaneNear ].whichSide( cameraPos ) != PlaneF::Front,
"Frustum::_update - Viewpoint lies on front side of near plane!" );
// And now the center points which are mostly just used in debug rendering.
mPlaneCenters[ PlaneLeftCenter ] = ( mPoints[ NearTopLeft ] +
mPoints[ NearBottomLeft ] +
mPoints[ FarTopLeft ] +
mPoints[ FarBottomLeft ] ) / 4.0f;
mPlaneCenters[ PlaneRightCenter ] = ( mPoints[ NearTopRight ] +
mPoints[ NearBottomRight ] +
mPoints[ FarTopRight ] +
mPoints[ FarBottomRight ] ) / 4.0f;
mPlaneCenters[ PlaneTopCenter ] = ( mPoints[ NearTopLeft ] +
mPoints[ NearTopRight ] +
mPoints[ FarTopLeft ] +
mPoints[ FarTopRight ] ) / 4.0f;
mPlaneCenters[ PlaneBottomCenter ] = ( mPoints[ NearBottomLeft ] +
mPoints[ NearBottomRight ] +
mPoints[ FarBottomLeft ] +
mPoints[ FarBottomRight ] ) / 4.0f;
mPlaneCenters[ PlaneNearCenter ] = ( mPoints[ NearTopLeft ] +
mPoints[ NearTopRight ] +
mPoints[ NearBottomLeft ] +
mPoints[ NearBottomRight ] ) / 4.0f;
mPlaneCenters[ PlaneFarCenter ] = ( mPoints[ FarTopLeft ] +
mPoints[ FarTopRight ] +
mPoints[ FarBottomLeft ] +
mPoints[ FarBottomRight ] ) / 4.0f;
// Done.
mDirty = false;
}
void ScatterSky::_getColor( const Point3F &pos, ColorF *outColor )
{
PROFILE_SCOPE( ScatterSky_GetColor );
F32 scaleOverScaleDepth = mScale / mRayleighScaleDepth;
F32 rayleighBrightness = mRayleighScattering * mSkyBrightness;
F32 mieBrightness = mMieScattering * mSkyBrightness;
Point3F invWaveLength( 1.0f / mWavelength4[0],
1.0f / mWavelength4[1],
1.0f / mWavelength4[2] );
Point3F v3Pos = pos / 6378000.0f;
v3Pos.z += mSphereInnerRadius;
Point3F newCamPos( 0, 0, smViewerHeight );
VectorF v3Ray = v3Pos - newCamPos;
F32 fFar = v3Ray.len();
v3Ray / fFar;
v3Ray.normalizeSafe();
Point3F v3Start = newCamPos;
F32 fDepth = mExp( scaleOverScaleDepth * (mSphereInnerRadius - smViewerHeight ) );
F32 fStartAngle = mDot( v3Ray, v3Start );
F32 fStartOffset = fDepth * _vernierScale( fStartAngle );
F32 fSampleLength = fFar / 2.0f;
F32 fScaledLength = fSampleLength * mScale;
VectorF v3SampleRay = v3Ray * fSampleLength;
Point3F v3SamplePoint = v3Start + v3SampleRay * 0.5f;
Point3F v3FrontColor( 0, 0, 0 );
for ( U32 i = 0; i < 2; i++ )
{
F32 fHeight = v3SamplePoint.len();
F32 fDepth = mExp( scaleOverScaleDepth * (mSphereInnerRadius - smViewerHeight) );
F32 fLightAngle = mDot( mLightDir, v3SamplePoint ) / fHeight;
F32 fCameraAngle = mDot( v3Ray, v3SamplePoint ) / fHeight;
F32 fScatter = (fStartOffset + fDepth * ( _vernierScale( fLightAngle ) - _vernierScale( fCameraAngle ) ));
Point3F v3Attenuate( 0, 0, 0 );
F32 tmp = mExp( -fScatter * (invWaveLength[0] * mRayleighScattering4PI + mMieScattering4PI) );
v3Attenuate.x = tmp;
tmp = mExp( -fScatter * (invWaveLength[1] * mRayleighScattering4PI + mMieScattering4PI) );
v3Attenuate.y = tmp;
tmp = mExp( -fScatter * (invWaveLength[2] * mRayleighScattering4PI + mMieScattering4PI) );
v3Attenuate.z = tmp;
v3FrontColor += v3Attenuate * (fDepth * fScaledLength);
v3SamplePoint += v3SampleRay;
}
Point3F mieColor = v3FrontColor * mieBrightness;
Point3F rayleighColor = v3FrontColor * (invWaveLength * rayleighBrightness);
Point3F v3Direction = newCamPos - v3Pos;
v3Direction.normalize();
F32 fCos = mDot( mLightDir, v3Direction ) / v3Direction.len();
F32 fCos2 = fCos * fCos;
F32 g = -0.991f;
F32 g2 = g * g;
F32 miePhase = _getMiePhase( fCos, fCos2, g, g2 );
Point3F color = rayleighColor + (miePhase * mieColor);
ColorF tmp( color.x, color.y, color.z, color.y );
Point3F expColor( 0, 0, 0 );
expColor.x = 1.0f - exp(-mExposure * color.x);
expColor.y = 1.0f - exp(-mExposure * color.y);
expColor.z = 1.0f - exp(-mExposure * color.z);
tmp.set( expColor.x, expColor.y, expColor.z, 1.0f );
if ( !tmp.isValidColor() )
{
F32 len = expColor.len();
if ( len > 0 )
expColor /= len;
}
outColor->set( expColor.x, expColor.y, expColor.z, 1.0f );
}
void ClippedPolyList::end()
{
PROFILE_SCOPE( ClippedPolyList_Clip );
Poly& poly = mPolyList.last();
// Reject polygons facing away from our normal.
if ( mDot( poly.plane, mNormal ) < mNormalTolCosineRadians )
{
mIndexList.setSize(poly.vertexStart);
mPolyList.decrement();
return;
}
// Build initial inside/outside plane masks
U32 indexStart = poly.vertexStart;
U32 vertexCount = mIndexList.size() - indexStart;
U32 frontMask = 0,backMask = 0;
U32 i;
for (i = indexStart; i < mIndexList.size(); i++)
{
U32 mask = mVertexList[mIndexList[i]].mask;
frontMask |= mask;
backMask |= ~mask;
}
// Trivial accept if all the vertices are on the backsides of
// all the planes.
if (!frontMask)
{
poly.vertexCount = vertexCount;
return;
}
// Trivial reject if any plane not crossed has all it's points
// on the front.
U32 crossMask = frontMask & backMask;
if (~crossMask & frontMask)
{
mIndexList.setSize(poly.vertexStart);
mPolyList.decrement();
return;
}
// Potentially, this will add up to mPlaneList.size() * (indexStart - indexEnd)
// elements to mIndexList, so ensure that it has enough space to store that
// so we can use push_back_noresize. If you find this code block getting hit
// frequently, changing the value of 'IndexListReserveSize' or doing some selective
// allocation is suggested
//
// TODO: Re-visit this, since it obviously does not work correctly, and than
// re-enable the push_back_noresize
//while(mIndexList.size() + mPlaneList.size() * (mIndexList.size() - indexStart) > mIndexList.capacity() )
// mIndexList.reserve(mIndexList.capacity() * 2);
// Need to do some clipping
for (U32 p = 0; p < mPlaneList.size(); p++)
{
U32 pmask = 1 << p;
// Only test against this plane if we have something
// on both sides
if (!(crossMask & pmask))
continue;
U32 indexEnd = mIndexList.size();
U32 i1 = indexEnd - 1;
U32 mask1 = mVertexList[mIndexList[i1]].mask;
for (U32 i2 = indexStart; i2 < indexEnd; i2++)
{
U32 mask2 = mVertexList[mIndexList[i2]].mask;
if ((mask1 ^ mask2) & pmask)
{
//
mVertexList.increment();
VectorF& v1 = mVertexList[mIndexList[i1]].point;
VectorF& v2 = mVertexList[mIndexList[i2]].point;
VectorF vv = v2 - v1;
F32 t = -mPlaneList[p].distToPlane(v1) / mDot(mPlaneList[p],vv);
mNormalList.increment();
VectorF& n1 = mNormalList[mIndexList[i1]];
VectorF& n2 = mNormalList[mIndexList[i1]];
VectorF nn = mLerp( n1, n2, t );
nn.normalizeSafe();
mNormalList.last() = nn;
mIndexList.push_back/*_noresize*/(mVertexList.size() - 1);
Vertex& iv = mVertexList.last();
iv.point.x = v1.x + vv.x * t;
iv.point.y = v1.y + vv.y * t;
iv.point.z = v1.z + vv.z * t;
iv.mask = 0;
// Test against the remaining planes
for (U32 i = p + 1; i < mPlaneList.size(); i++)
if (mPlaneList[i].distToPlane(iv.point) > 0)
{
iv.mask = 1 << i;
break;
}
}
if (!(mask2 & pmask))
{
U32 index = mIndexList[i2];
mIndexList.push_back/*_noresize*/(index);
}
mask1 = mask2;
i1 = i2;
}
// Check for degenerate
indexStart = indexEnd;
if (mIndexList.size() - indexStart < 3)
{
mIndexList.setSize(poly.vertexStart);
mPolyList.decrement();
return;
}
}
// Emit what's left and compress the index list.
poly.vertexCount = mIndexList.size() - indexStart;
memcpy(&mIndexList[poly.vertexStart],
&mIndexList[indexStart],poly.vertexCount);
mIndexList.setSize(poly.vertexStart + poly.vertexCount);
}
void ProjectedShadow::_renderToTexture( F32 camDist, const TSRenderState &rdata )
{
PROFILE_SCOPE( ProjectedShadow_RenderToTexture );
GFXDEBUGEVENT_SCOPE( ProjectedShadow_RenderToTexture, ColorI( 255, 0, 0 ) );
RenderPassManager *renderPass = _getRenderPass();
if ( !renderPass )
return;
GFXTransformSaver saver;
// NOTE: GFXTransformSaver does not save/restore the frustum
// so we must save it here before we modify it.
F32 l, r, b, t, n, f;
bool ortho;
GFX->getFrustum( &l, &r, &b, &t, &n, &f, &ortho );
// Set the orthographic projection
// matrix up, to be based on the radius
// generated based on our shape.
GFX->setOrtho( -mRadius, mRadius, -mRadius, mRadius, 0.001f, (mRadius * 2) * smDepthAdjust, true );
// Set the world to light space
// matrix set up in shouldRender().
GFX->setWorldMatrix( mWorldToLight );
// Get the shapebase datablock if we have one.
ShapeBaseData *data = NULL;
if ( mShapeBase )
data = static_cast<ShapeBaseData*>( mShapeBase->getDataBlock() );
// Init or update the shadow texture size.
if ( mShadowTexture.isNull() || ( data && data->shadowSize != mShadowTexture.getWidth() ) )
{
U32 texSize = getNextPow2( data ? data->shadowSize : 256 * LightShadowMap::smShadowTexScalar );
mShadowTexture.set( texSize, texSize, GFXFormatR8G8B8A8, &PostFxTargetProfile, "BLShadow" );
}
GFX->pushActiveRenderTarget();
if ( !mRenderTarget )
mRenderTarget = GFX->allocRenderToTextureTarget();
mRenderTarget->attachTexture( GFXTextureTarget::DepthStencil, _getDepthTarget( mShadowTexture->getWidth(), mShadowTexture->getHeight() ) );
mRenderTarget->attachTexture( GFXTextureTarget::Color0, mShadowTexture );
GFX->setActiveRenderTarget( mRenderTarget );
GFX->clear( GFXClearZBuffer | GFXClearStencil | GFXClearTarget, ColorI( 0, 0, 0, 0 ), 1.0f, 0 );
const SceneRenderState *diffuseState = rdata.getSceneState();
SceneManager *sceneManager = diffuseState->getSceneManager();
SceneRenderState baseState
(
sceneManager,
SPT_Shadow,
SceneCameraState::fromGFXWithViewport( diffuseState->getViewport() ),
renderPass
);
baseState.getMaterialDelegate().bind( &ProjectedShadow::_getShadowMaterial );
baseState.setDiffuseCameraTransform( diffuseState->getCameraTransform() );
baseState.setWorldToScreenScale( diffuseState->getWorldToScreenScale() );
baseState.getCullingState().disableZoneCulling( true );
mParentObject->prepRenderImage( &baseState );
renderPass->renderPass( &baseState );
// Delete the SceneRenderState we allocated.
mRenderTarget->resolve();
GFX->popActiveRenderTarget();
// If we're close enough then filter the shadow.
if ( camDist < BasicLightManager::getShadowFilterDistance() )
{
if ( !smShadowFilter )
{
PostEffect *filter = NULL;
if ( !Sim::findObject( "BL_ShadowFilterPostFx", filter ) )
Con::errorf( "ProjectedShadow::_renderToTexture() - 'BL_ShadowFilterPostFx' not found!" );
smShadowFilter = filter;
}
if ( smShadowFilter )
smShadowFilter->process( NULL, mShadowTexture );
}
// Restore frustum
if (!ortho)
GFX->setFrustum(l, r, b, t, n, f);
else
GFX->setOrtho(l, r, b, t, n, f);
// Set the last render time.
mLastRenderTime = Platform::getVirtualMilliseconds();
// HACK: Will remove in future release!
mDecalInstance->mCustomTex = &mShadowTexture;
}
void ClippedPolyList::cullUnusedVerts()
{
PROFILE_SCOPE( ClippedPolyList_CullUnusedVerts );
U32 i = 0;
U32 k, n, numDeleted;
bool result;
IndexListIterator iNextIter;
VertexListIterator nextVIter;
VertexListIterator vIter;
for ( vIter = mVertexList.begin(); vIter != mVertexList.end(); vIter++, i++ )
{
// Is this vertex used?
iNextIter = find( mIndexList.begin(), mIndexList.end(), i );
if ( iNextIter != mIndexList.end() )
continue;
// If not, find the next used vertex.
// i is an unused vertex
// k is a used vertex
// delete the vertices from i to j - 1
k = 0;
n = i + 1;
result = false;
numDeleted = 0;
for ( nextVIter = vIter + 1; nextVIter != mVertexList.end(); nextVIter++, n++ )
{
iNextIter = find( mIndexList.begin(), mIndexList.end(), n );
// If we found a used vertex
// grab its index for later use
// and set our result bool.
if ( (*iNextIter) == n )
{
k = n;
result = true;
break;
}
}
// All the remaining verts are unused.
if ( !result )
{
mVertexList.setSize( i );
mNormalList.setSize( i );
break;
}
// Erase unused verts.
numDeleted = (k-1) - i + 1;
mVertexList.erase( i, numDeleted );
mNormalList.erase( i, numDeleted );
// Find any references to vertices after those deleted
// in the mIndexList and correct with an offset
for ( iNextIter = mIndexList.begin(); iNextIter != mIndexList.end(); iNextIter++ )
{
if ( (*iNextIter) > i )
(*iNextIter) -= numDeleted;
}
// After the erase the current iter should
// point at the used vertex we found... the
// loop will continue with the next vert.
}
}
void TSShapeInstance::animateNodes(S32 ss)
{
PROFILE_SCOPE( TSShapeInstance_animateNodes );
if (!mShape->nodes.size())
return;
// @todo: When a node is added, we need to make sure to resize the nodeTransforms array as well
mNodeTransforms.setSize(mShape->nodes.size());
// temporary storage for node transforms
smNodeCurrentRotations.setSize(mShape->nodes.size());
smNodeCurrentTranslations.setSize(mShape->nodes.size());
smNodeLocalTransforms.setSize(mShape->nodes.size());
smRotationThreads.setSize(mShape->nodes.size());
smTranslationThreads.setSize(mShape->nodes.size());
TSIntegerSet rotBeenSet;
TSIntegerSet tranBeenSet;
TSIntegerSet scaleBeenSet;
rotBeenSet.setAll(mShape->nodes.size());
tranBeenSet.setAll(mShape->nodes.size());
scaleBeenSet.setAll(mShape->nodes.size());
smNodeLocalTransformDirty.clearAll();
S32 i,j,nodeIndex,a,b,start,end,firstBlend = mThreadList.size();
for (i=0; i<mThreadList.size(); i++)
{
TSThread * th = mThreadList[i];
if (th->getSequence()->isBlend())
{
// blend sequences need default (if not set by other sequence)
// break rather than continue because the rest will be blends too
firstBlend = i;
break;
}
rotBeenSet.takeAway(th->getSequence()->rotationMatters);
tranBeenSet.takeAway(th->getSequence()->translationMatters);
scaleBeenSet.takeAway(th->getSequence()->scaleMatters);
}
rotBeenSet.takeAway(mCallbackNodes);
rotBeenSet.takeAway(mHandsOffNodes);
rotBeenSet.overlap(mMaskRotationNodes);
TSIntegerSet maskPosNodes=mMaskPosXNodes;
maskPosNodes.overlap(mMaskPosYNodes);
maskPosNodes.overlap(mMaskPosZNodes);
tranBeenSet.overlap(maskPosNodes);
tranBeenSet.takeAway(mCallbackNodes);
tranBeenSet.takeAway(mHandsOffNodes);
// can't add masked nodes since x, y, & z masked separately...
// we'll set default regardless of mask status
// all the nodes marked above need to have the default transform
a = mShape->subShapeFirstNode[ss];
b = a + mShape->subShapeNumNodes[ss];
for (i=a; i<b; i++)
{
if (rotBeenSet.test(i))
{
mShape->defaultRotations[i].getQuatF(&smNodeCurrentRotations[i]);
smRotationThreads[i] = NULL;
}
if (tranBeenSet.test(i))
{
smNodeCurrentTranslations[i] = mShape->defaultTranslations[i];
smTranslationThreads[i] = NULL;
}
}
// don't want a transform in these cases...
rotBeenSet.overlap(mHandsOffNodes);
rotBeenSet.overlap(mCallbackNodes);
tranBeenSet.takeAway(maskPosNodes);
tranBeenSet.overlap(mHandsOffNodes);
tranBeenSet.overlap(mCallbackNodes);
// default scale
if (scaleCurrentlyAnimated())
handleDefaultScale(a,b,scaleBeenSet);
// handle non-blend sequences
for (i=0; i<firstBlend; i++)
{
TSThread * th = mThreadList[i];
j=0;
start = th->getSequence()->rotationMatters.start();
end = b;
for (nodeIndex=start; nodeIndex<end; th->getSequence()->rotationMatters.next(nodeIndex), j++)
{
// skip nodes outside of this detail
if (nodeIndex<a)
continue;
if (!rotBeenSet.test(nodeIndex))
{
QuatF q1,q2;
mShape->getRotation(*th->getSequence(),th->keyNum1,j,&q1);
mShape->getRotation(*th->getSequence(),th->keyNum2,j,&q2);
TSTransform::interpolate(q1,q2,th->keyPos,&smNodeCurrentRotations[nodeIndex]);
rotBeenSet.set(nodeIndex);
smRotationThreads[nodeIndex] = th;
}
}
j=0;
start = th->getSequence()->translationMatters.start();
end = b;
for (nodeIndex=start; nodeIndex<end; th->getSequence()->translationMatters.next(nodeIndex), j++)
{
if (nodeIndex<a)
continue;
if (!tranBeenSet.test(nodeIndex))
{
if (maskPosNodes.test(nodeIndex))
handleMaskedPositionNode(th,nodeIndex,j);
else
{
const Point3F & p1 = mShape->getTranslation(*th->getSequence(),th->keyNum1,j);
const Point3F & p2 = mShape->getTranslation(*th->getSequence(),th->keyNum2,j);
TSTransform::interpolate(p1,p2,th->keyPos,&smNodeCurrentTranslations[nodeIndex]);
smTranslationThreads[nodeIndex] = th;
}
tranBeenSet.set(nodeIndex);
}
}
if (scaleCurrentlyAnimated())
handleAnimatedScale(th,a,b,scaleBeenSet);
}
// compute transforms
for (i=a; i<b; i++)
{
if (!mHandsOffNodes.test(i))
TSTransform::setMatrix(smNodeCurrentRotations[i],smNodeCurrentTranslations[i],&smNodeLocalTransforms[i]);
else
smNodeLocalTransforms[i] = mNodeTransforms[i]; // in case mNodeTransform was changed externally
}
// add scale onto transforms
if (scaleCurrentlyAnimated())
handleNodeScale(a,b);
// get callbacks...
start = getMax(mCallbackNodes.start(),a);
end = getMin(mCallbackNodes.end(),b);
for (i=0; i<mNodeCallbacks.size(); i++)
{
AssertFatal(mNodeCallbacks[i].callback, "No callback method defined");
S32 nodeIndex = mNodeCallbacks[i].nodeIndex;
if (nodeIndex>=start && nodeIndex<end)
{
mNodeCallbacks[i].callback->setNodeTransform(this, nodeIndex, smNodeLocalTransforms[nodeIndex]);
smNodeLocalTransformDirty.set(nodeIndex);
}
}
// handle blend sequences
for (i=firstBlend; i<mThreadList.size(); i++)
{
TSThread * th = mThreadList[i];
if (th->blendDisabled)
continue;
handleBlendSequence(th,a,b);
}
// transitions...
if (inTransition())
handleTransitionNodes(a,b);
// multiply transforms...
for (i=a; i<b; i++)
{
S32 parentIdx = mShape->nodes[i].parentIndex;
if (parentIdx < 0)
mNodeTransforms[i] = smNodeLocalTransforms[i];
else
mNodeTransforms[i].mul(mNodeTransforms[parentIdx],smNodeLocalTransforms[i]);
}
}
void SingleLightShadowMap::_render( RenderPassManager* renderPass,
const SceneRenderState *diffuseState )
{
PROFILE_SCOPE(SingleLightShadowMap_render);
const LightMapParams *lmParams = mLight->getExtended<LightMapParams>();
const bool bUseLightmappedGeometry = lmParams ? !lmParams->representedInLightmap || lmParams->includeLightmappedGeometryInShadow : true;
const U32 texSize = getBestTexSize();
if ( mShadowMapTex.isNull() ||
mTexSize != texSize )
{
mTexSize = texSize;
mShadowMapTex.set( mTexSize, mTexSize,
ShadowMapFormat, &ShadowMapProfile,
"SingleLightShadowMap" );
}
GFXFrustumSaver frustSaver;
GFXTransformSaver saver;
MatrixF lightMatrix;
calcLightMatrices( lightMatrix, diffuseState->getCameraFrustum() );
lightMatrix.inverse();
GFX->setWorldMatrix(lightMatrix);
const MatrixF& lightProj = GFX->getProjectionMatrix();
mWorldToLightProj = lightProj * lightMatrix;
// Render the shadowmap!
GFX->pushActiveRenderTarget();
mTarget->attachTexture( GFXTextureTarget::Color0, mShadowMapTex );
mTarget->attachTexture( GFXTextureTarget::DepthStencil,
_getDepthTarget( mShadowMapTex->getWidth(), mShadowMapTex->getHeight() ) );
GFX->setActiveRenderTarget(mTarget);
GFX->clear(GFXClearStencil | GFXClearZBuffer | GFXClearTarget, ColorI(255,255,255), 1.0f, 0);
SceneManager* sceneManager = diffuseState->getSceneManager();
SceneRenderState shadowRenderState
(
sceneManager,
SPT_Shadow,
SceneCameraState::fromGFXWithViewport( diffuseState->getViewport() ),
renderPass
);
shadowRenderState.getMaterialDelegate().bind( this, &LightShadowMap::getShadowMaterial );
shadowRenderState.renderNonLightmappedMeshes( true );
shadowRenderState.renderLightmappedMeshes( bUseLightmappedGeometry );
shadowRenderState.setDiffuseCameraTransform( diffuseState->getCameraTransform() );
shadowRenderState.setWorldToScreenScale( diffuseState->getWorldToScreenScale() );
sceneManager->renderSceneNoLights( &shadowRenderState, SHADOW_TYPEMASK );
_debugRender( &shadowRenderState );
mTarget->resolve();
GFX->popActiveRenderTarget();
}
void SceneManager::renderScene( SceneRenderState* renderState, U32 objectMask, SceneZoneSpace* baseObject, U32 baseZone )
{
PROFILE_SCOPE( SceneGraph_renderScene );
// Get the lights for rendering the scene.
PROFILE_START( SceneGraph_registerLights );
LIGHTMGR->registerGlobalLights( &renderState->getFrustum(), false );
PROFILE_END();
// If its a diffuse pass, update the current ambient light level.
// To do that find the starting zone and determine whether it has a custom
// ambient light color. If so, pass it on to the ambient light manager.
// If not, use the ambient light color of the sunlight.
//
// Note that we retain the starting zone information here and pass it
// on to renderSceneNoLights so that we don't need to look it up twice.
if( renderState->isDiffusePass() )
{
if( !baseObject && getZoneManager() )
{
getZoneManager()->findZone( renderState->getCameraPosition(), baseObject, baseZone );
AssertFatal( baseObject != NULL, "SceneManager::renderScene - findZone() did not return an object" );
}
ColorF zoneAmbient;
if( baseObject && baseObject->getZoneAmbientLightColor( baseZone, zoneAmbient ) )
mAmbientLightColor.setTargetValue( zoneAmbient );
else
{
const LightInfo* sunlight = LIGHTMGR->getSpecialLight( LightManager::slSunLightType );
if( sunlight )
mAmbientLightColor.setTargetValue( sunlight->getAmbient() );
}
renderState->setAmbientLightColor( mAmbientLightColor.getCurrentValue() );
}
// Trigger the pre-render signal.
PROFILE_START( SceneGraph_preRenderSignal);
mCurrentRenderState = renderState;
getPreRenderSignal().trigger( this, renderState );
mCurrentRenderState = NULL;
PROFILE_END();
// Render the scene.
if(GFX->getCurrentRenderStyle() == GFXDevice::RS_StereoSideBySide)
{
// Store previous values
RectI originalVP = GFX->getViewport();
MatrixF originalWorld = GFX->getWorldMatrix();
Point2F projOffset = GFX->getCurrentProjectionOffset();
Point3F eyeOffset = GFX->getStereoEyeOffset();
// Render left half of display
RectI leftVP = originalVP;
leftVP.extent.x *= 0.5;
GFX->setViewport(leftVP);
MatrixF leftWorldTrans(true);
leftWorldTrans.setPosition(Point3F(eyeOffset.x, eyeOffset.y, eyeOffset.z));
MatrixF leftWorld(originalWorld);
leftWorld.mulL(leftWorldTrans);
GFX->setWorldMatrix(leftWorld);
Frustum gfxFrustum = GFX->getFrustum();
gfxFrustum.setProjectionOffset(Point2F(projOffset.x, projOffset.y));
GFX->setFrustum(gfxFrustum);
SceneCameraState cameraStateLeft = SceneCameraState::fromGFX();
SceneRenderState renderStateLeft( this, renderState->getScenePassType(), cameraStateLeft );
renderStateLeft.setSceneRenderStyle(SRS_SideBySide);
renderStateLeft.setSceneRenderField(0);
renderSceneNoLights( &renderStateLeft, objectMask, baseObject, baseZone );
// Render right half of display
RectI rightVP = originalVP;
rightVP.extent.x *= 0.5;
rightVP.point.x += rightVP.extent.x;
GFX->setViewport(rightVP);
MatrixF rightWorldTrans(true);
rightWorldTrans.setPosition(Point3F(-eyeOffset.x, eyeOffset.y, eyeOffset.z));
MatrixF rightWorld(originalWorld);
rightWorld.mulL(rightWorldTrans);
GFX->setWorldMatrix(rightWorld);
gfxFrustum = GFX->getFrustum();
gfxFrustum.setProjectionOffset(Point2F(-projOffset.x, projOffset.y));
GFX->setFrustum(gfxFrustum);
SceneCameraState cameraStateRight = SceneCameraState::fromGFX();
SceneRenderState renderStateRight( this, renderState->getScenePassType(), cameraStateRight );
renderStateRight.setSceneRenderStyle(SRS_SideBySide);
renderStateRight.setSceneRenderField(1);
renderSceneNoLights( &renderStateRight, objectMask, baseObject, baseZone );
// Restore previous values
GFX->setWorldMatrix(originalWorld);
gfxFrustum.clearProjectionOffset();
GFX->setFrustum(gfxFrustum);
GFX->setViewport(originalVP);
}
else
{
renderSceneNoLights( renderState, objectMask, baseObject, baseZone );
}
// Trigger the post-render signal.
PROFILE_START( SceneGraphRender_postRenderSignal );
mCurrentRenderState = renderState;
getPostRenderSignal().trigger( this, renderState );
mCurrentRenderState = NULL;
PROFILE_END();
// Remove the previously registered lights.
PROFILE_START( SceneGraph_unregisterLights);
LIGHTMGR->unregisterAllLights();
PROFILE_END();
}
void ForestWind::processTick()
{
PROFILE_SCOPE( ForestWind_ProcessTick );
const F32 deltaTime = 0.032f;
const U32 simTime = Sim::getCurrentTime();
Point2F finalVec( 0, 0 );
Point2F windDir( mParent->mWindDirection.x, mParent->mWindDirection.y );
if ( mLastGustTime < simTime )
{
Point2F turbVec( 0, 0 );
if ( mLastGustTime < simTime + (mParent->mWindTurbulenceFrequency * 1000.0f) )
turbVec = (mRandom.randF() * mParent->mWindTurbulenceStrength) * windDir;
mLastGustTime = simTime + (mParent->mWindGustFrequency * 1000.0f);
Point2F gustVec = (mRandom.randF() * mParent->mWindGustStrength + mRandom.randF() * mParent->mWindGustWobbleStrength) * windDir;
finalVec += gustVec + turbVec;
//finalVec.normalizeSafe();
}
//bool rotationChange = false;
if ( mLastYawTime < simTime )
{
mLastYawTime = simTime + (mParent->mWindGustYawFrequency * 1000.0f);
F32 rotateAmt = mRandom.randF() * mParent->mWindGustYawAngle + mRandom.randF() * mParent->mWindGustWobbleStrength;
if ( mRandom.randF() <= 0.5f )
rotateAmt = -rotateAmt;
rotateAmt = mDegToRad( rotateAmt );
if ( rotateAmt > M_2PI_F )
rotateAmt -= M_2PI_F;
else if ( rotateAmt < -M_2PI_F )
rotateAmt += M_2PI_F;
mTargetYawAngle = rotateAmt;
//finalVec.rotate( rotateAmt );
mCurrentTarget.rotate( rotateAmt );
}
//mCurrentTarget.normalizeSafe();
if ( mCurrentTarget.isZero() || mCurrentInterp >= 1.0f )
{
mCurrentInterp = 0;
mCurrentTarget.set( 0, 0 );
Point2F windDir( mDirection.x, mDirection.y );
windDir.normalizeSafe();
mCurrentTarget = finalVec + windDir;
}
else
{
mCurrentInterp += deltaTime;
mCurrentInterp = mClampF( mCurrentInterp, 0.0f, 1.0f );
mDirection.interpolate( mDirection, Point3F( mCurrentTarget.x, mCurrentTarget.y, 0 ), mCurrentInterp );
//F32 rotateAmt = mLerp( 0, mTargetYawAngle, mCurrentInterp );
//mTargetYawAngle -= rotateAmt;
//Point2F dir( mDirection.x, mDirection.y );
//if ( mTargetYawAngle > 0.0f )
// dir.rotate( rotateAmt );
//mDirection.set( dir.x, dir.y, 0 );
}
}
void ShaderGen::generateShader( const MaterialFeatureData &featureData,
char *vertFile,
char *pixFile,
F32 *pixVersion,
const GFXVertexFormat *vertexFormat,
const char* cacheName,
Vector<GFXShaderMacro> ¯os )
{
PROFILE_SCOPE( ShaderGen_GenerateShader );
mFeatureData = featureData;
mVertexFormat = vertexFormat;
_uninit();
_init();
char vertShaderName[256];
char pixShaderName[256];
// Note: We use a postfix of _V/_P here so that it sorts the matching
// vert and pixel shaders together when listed alphabetically.
dSprintf( vertShaderName, sizeof(vertShaderName), "shadergen:/%s_V.%s", cacheName, mFileEnding.c_str() );
dSprintf( pixShaderName, sizeof(pixShaderName), "shadergen:/%s_P.%s", cacheName, mFileEnding.c_str() );
dStrcpy( vertFile, vertShaderName );
dStrcpy( pixFile, pixShaderName );
// this needs to change - need to optimize down to ps v.1.1
*pixVersion = GFX->getPixelShaderVersion();
if ( !Con::getBoolVariable( "ShaderGen::GenNewShaders", true ) )
{
// If we are not regenerating the shader we will return here.
// But we must fill in the shader macros first!
_processVertFeatures( macros, true );
_processPixFeatures( macros, true );
return;
}
// create vertex shader
//------------------------
FileStream* s = new FileStream();
if(!s->open(vertShaderName, Torque::FS::File::Write ))
{
AssertFatal(false, "Failed to open Shader Stream" );
return;
}
mOutput = new MultiLine;
mInstancingFormat.clear();
_processVertFeatures(macros);
_printVertShader( *s );
delete s;
((ShaderConnector*)mComponents[C_CONNECTOR])->reset();
LangElement::deleteElements();
// create pixel shader
//------------------------
s = new FileStream();
if(!s->open(pixShaderName, Torque::FS::File::Write ))
{
AssertFatal(false, "Failed to open Shader Stream" );
return;
}
mOutput = new MultiLine;
_processPixFeatures(macros);
_printPixShader( *s );
delete s;
LangElement::deleteElements();
}
void HoverVehicle::updateForces(F32 /*dt*/)
{
PROFILE_SCOPE( HoverVehicle_UpdateForces );
Point3F gravForce(0, 0, sHoverVehicleGravity * mRigid.mass * mGravityMod);
MatrixF currTransform;
mRigid.getTransform(&currTransform);
mRigid.atRest = false;
mThrustLevel = (mForwardThrust * mDataBlock->mainThrustForce +
mReverseThrust * mDataBlock->reverseThrustForce +
mLeftThrust * mDataBlock->strafeThrustForce +
mRightThrust * mDataBlock->strafeThrustForce);
Point3F thrustForce = ((Point3F( 0, 1, 0) * (mForwardThrust * mDataBlock->mainThrustForce)) +
(Point3F( 0, -1, 0) * (mReverseThrust * mDataBlock->reverseThrustForce)) +
(Point3F(-1, 0, 0) * (mLeftThrust * mDataBlock->strafeThrustForce)) +
(Point3F( 1, 0, 0) * (mRightThrust * mDataBlock->strafeThrustForce)));
currTransform.mulV(thrustForce);
if (mJetting)
thrustForce *= mDataBlock->turboFactor;
Point3F torque(0, 0, 0);
Point3F force(0, 0, 0);
Point3F vel = mRigid.linVelocity;
F32 baseStabLen = getBaseStabilizerLength();
Point3F stabExtend(0, 0, -baseStabLen);
currTransform.mulV(stabExtend);
StabPoint stabPoints[2];
stabPoints[0].osPoint = Point3F((mObjBox.minExtents.x + mObjBox.maxExtents.x) * 0.5,
mObjBox.maxExtents.y,
(mObjBox.minExtents.z + mObjBox.maxExtents.z) * 0.5);
stabPoints[1].osPoint = Point3F((mObjBox.minExtents.x + mObjBox.maxExtents.x) * 0.5,
mObjBox.minExtents.y,
(mObjBox.minExtents.z + mObjBox.maxExtents.z) * 0.5);
U32 j, i;
for (i = 0; i < 2; i++) {
currTransform.mulP(stabPoints[i].osPoint, &stabPoints[i].wsPoint);
stabPoints[i].wsExtension = stabExtend;
stabPoints[i].extension = baseStabLen;
stabPoints[i].wsVelocity = mRigid.linVelocity;
}
RayInfo rinfo;
mFloating = true;
bool reallyFloating = true;
F32 compression[2] = { 0.0f, 0.0f };
F32 normalMod[2] = { 0.0f, 0.0f };
bool normalSet[2] = { false, false };
Point3F normal[2];
for (j = 0; j < 2; j++) {
if (getContainer()->castRay(stabPoints[j].wsPoint, stabPoints[j].wsPoint + stabPoints[j].wsExtension * 2.0,
TerrainObjectType |
WaterObjectType, &rinfo))
{
reallyFloating = false;
if (rinfo.t <= 0.5) {
// Ok, stab is in contact with the ground, let's calc the forces...
compression[j] = (1.0 - (rinfo.t * 2.0)) * baseStabLen;
}
normalSet[j] = true;
normalMod[j] = rinfo.t < 0.5 ? 1.0 : (1.0 - ((rinfo.t - 0.5) * 2.0));
normal[j] = rinfo.normal;
}
if ( pointInWater( stabPoints[j].wsPoint ) )
compression[j] = baseStabLen;
}
for (j = 0; j < 2; j++) {
if (compression[j] != 0.0) {
mFloating = false;
// Spring force and damping
Point3F springForce = -stabPoints[j].wsExtension;
springForce.normalize();
springForce *= compression[j] * mDataBlock->stabSpringConstant;
Point3F springDamping = -stabPoints[j].wsExtension;
springDamping.normalize();
springDamping *= -getMin(mDot(springDamping, stabPoints[j].wsVelocity), 0.7f) * mDataBlock->stabDampingConstant;
force += springForce + springDamping;
}
}
// Gravity
if (reallyFloating == false)
force += gravForce;
else
force += gravForce * mDataBlock->floatingGravMag;
// Braking
F32 vellen = mRigid.linVelocity.len();
if (mThrottle == 0.0f &&
mLeftThrust == 0.0f &&
mRightThrust == 0.0f &&
vellen != 0.0f &&
vellen < mDataBlock->brakingActivationSpeed)
{
Point3F dir = mRigid.linVelocity;
dir.normalize();
dir.neg();
force += dir * mDataBlock->brakingForce;
}
// Gyro Drag
torque = -mRigid.angMomentum * mDataBlock->gyroDrag;
// Move to proper normal
Point3F sn, r;
currTransform.getColumn(2, &sn);
if (normalSet[0] || normalSet[1]) {
if (normalSet[0] && normalSet[1]) {
F32 dot = mDot(normal[0], normal[1]);
if (dot > 0.999) {
// Just pick the first normal. They're too close to call
if ((sn - normal[0]).lenSquared() > 0.00001) {
mCross(sn, normal[0], &r);
torque += r * mDataBlock->normalForce * normalMod[0];
}
} else {
Point3F rotAxis;
mCross(normal[0], normal[1], &rotAxis);
rotAxis.normalize();
F32 angle = mAcos(dot) * (normalMod[0] / (normalMod[0] + normalMod[1]));
AngAxisF aa(rotAxis, angle);
QuatF q(aa);
MatrixF tempMat(true);
q.setMatrix(&tempMat);
Point3F newNormal;
tempMat.mulV(normal[1], &newNormal);
if ((sn - newNormal).lenSquared() > 0.00001) {
mCross(sn, newNormal, &r);
torque += r * (mDataBlock->normalForce * ((normalMod[0] + normalMod[1]) * 0.5));
}
}
} else {
Point3F useNormal;
F32 useMod;
if (normalSet[0]) {
useNormal = normal[0];
useMod = normalMod[0];
} else {
useNormal = normal[1];
useMod = normalMod[1];
}
if ((sn - useNormal).lenSquared() > 0.00001) {
mCross(sn, useNormal, &r);
torque += r * mDataBlock->normalForce * useMod;
}
}
} else {
if ((sn - Point3F(0, 0, 1)).lenSquared() > 0.00001) {
mCross(sn, Point3F(0, 0, 1), &r);
torque += r * mDataBlock->restorativeForce;
}
}
Point3F sn2;
currTransform.getColumn(0, &sn);
currTransform.getColumn(1, &sn2);
mCross(sn, sn2, &r);
r.normalize();
torque -= r * (mSteering.x * mDataBlock->steeringForce);
currTransform.getColumn(0, &sn);
currTransform.getColumn(2, &sn2);
mCross(sn, sn2, &r);
r.normalize();
torque -= r * (mSteering.x * mDataBlock->rollForce);
currTransform.getColumn(1, &sn);
currTransform.getColumn(2, &sn2);
mCross(sn, sn2, &r);
r.normalize();
torque -= r * (mSteering.y * mDataBlock->pitchForce);
// Apply drag
Point3F vDrag = mRigid.linVelocity;
if (!mFloating) {
vDrag.convolve(Point3F(1, 1, mDataBlock->vertFactor));
} else {
vDrag.convolve(Point3F(0.25, 0.25, mDataBlock->vertFactor));
}
force -= vDrag * mDataBlock->dragForce;
force += mFloating ? thrustForce * mDataBlock->floatingThrustFactor : thrustForce;
// Add in physical zone force
force += mAppliedForce;
// Container buoyancy & drag
force += Point3F(0, 0,-mBuoyancy * sHoverVehicleGravity * mRigid.mass * mGravityMod);
force -= mRigid.linVelocity * mDrag;
torque -= mRigid.angMomentum * mDrag;
mRigid.force = force;
mRigid.torque = torque;
}
void ProcessedShaderMaterial::_determineFeatures( U32 stageNum,
MaterialFeatureData &fd,
const FeatureSet &features )
{
PROFILE_SCOPE( ProcessedShaderMaterial_DetermineFeatures );
const float shaderVersion = GFX->getPixelShaderVersion();
AssertFatal(shaderVersion > 0.0 , "Cannot create a shader material if we don't support shaders");
bool lastStage = stageNum == (mMaxStages-1);
// First we add all the features which the
// material has defined.
if ( mMaterial->isTranslucent() )
{
// Note: This is for decal blending into the prepass
// for AL... it probably needs to be made clearer.
if ( mMaterial->mTranslucentBlendOp == Material::LerpAlpha &&
mMaterial->mTranslucentZWrite )
fd.features.addFeature( MFT_IsTranslucentZWrite );
else
{
fd.features.addFeature( MFT_IsTranslucent );
fd.features.addFeature( MFT_ForwardShading );
}
}
// TODO: This sort of sucks... BL should somehow force this
// feature on from the outside and not this way.
if ( dStrcmp( LIGHTMGR->getId(), "BLM" ) == 0 )
fd.features.addFeature( MFT_ForwardShading );
// Disabling the InterlacedPrePass feature for now. It is not ready for prime-time
// and it should not be triggered off of the DoubleSided parameter. [2/5/2010 Pat]
/*if ( mMaterial->isDoubleSided() )
{
fd.features.addFeature( MFT_InterlacedPrePass );
}*/
// Allow instancing if it was requested and the card supports
// SM 3.0 or above.
//
// We also disable instancing for non-single pass materials
// and glowing materials because its untested/unimplemented.
//
if ( features.hasFeature( MFT_UseInstancing ) &&
mMaxStages == 1 &&
!mMaterial->mGlow[0] &&
shaderVersion >= 3.0f )
fd.features.addFeature( MFT_UseInstancing );
if ( mMaterial->mAlphaTest )
fd.features.addFeature( MFT_AlphaTest );
// start jc
if ( mMaterial->mAlphaScatter )
fd.features.addFeature( MFT_AlphaScatter );
// end jc
if ( mMaterial->mEmissive[stageNum] )
fd.features.addFeature( MFT_IsEmissive );
else
fd.features.addFeature( MFT_RTLighting );
if ( mMaterial->mAnimFlags[stageNum] )
fd.features.addFeature( MFT_TexAnim );
if ( mMaterial->mVertLit[stageNum] )
fd.features.addFeature( MFT_VertLit );
// cubemaps only available on stage 0 for now - bramage
if ( stageNum < 1 &&
( ( mMaterial->mCubemapData && mMaterial->mCubemapData->mCubemap ) ||
mMaterial->mDynamicCubemap ) )
fd.features.addFeature( MFT_CubeMap );
fd.features.addFeature( MFT_Visibility );
// start jc
/*
if ( lastStage &&
( !gClientSceneGraph->usePostEffectFog() ||
fd.features.hasFeature( MFT_IsTranslucent ) ||
fd.features.hasFeature( MFT_ForwardShading )) )
fd.features.addFeature( MFT_Fog );
*/
if ( lastStage &&
( !gClientSceneGraph->usePostEffectFog() ||
fd.features.hasFeature( MFT_IsTranslucent ) ||
fd.features.hasFeature( MFT_ForwardShading )) )
{
if(mMaterial->mTranslucentBlendOp == Material::Add)
fd.features.addFeature( MFT_FogBlendAdd );
else
fd.features.addFeature( MFT_Fog );
}
// end jc
if ( mMaterial->mMinnaertConstant[stageNum] > 0.0f )
fd.features.addFeature( MFT_MinnaertShading );
if ( mMaterial->mSubSurface[stageNum] )
fd.features.addFeature( MFT_SubSurface );
if ( !mMaterial->mCellLayout[stageNum].isZero() )
{
fd.features.addFeature( MFT_DiffuseMapAtlas );
if ( mMaterial->mNormalMapAtlas )
fd.features.addFeature( MFT_NormalMapAtlas );
}
// Grab other features like normal maps, base texture, etc.
FeatureSet mergeFeatures;
mStages[stageNum].getFeatureSet( &mergeFeatures );
fd.features.merge( mergeFeatures );
if ( fd.features[ MFT_NormalMap ] )
{
if ( mStages[stageNum].getTex( MFT_NormalMap )->mFormat == GFXFormatDXT5 &&
!mStages[stageNum].getTex( MFT_NormalMap )->mHasTransparency )
fd.features.addFeature( MFT_IsDXTnm );
// start jc
if ( mMaterial->mObjectSpaceNormals )
fd.features.addFeature( MFT_IsObjectSpaceNormals );
// end jc
}
// Now for some more advanced features that we
// cannot do on SM 2.0 and below.
if ( shaderVersion > 2.0f )
{
// Only allow parallax if we have a normal map and
// we're not using DXTnm compression.
if ( mMaterial->mParallaxScale[stageNum] > 0.0f &&
fd.features[ MFT_NormalMap ] &&
!fd.features[ MFT_IsDXTnm ] )
fd.features.addFeature( MFT_Parallax );
// If not parallax then allow per-pixel specular if
// we have real time lighting enabled.
else if ( fd.features[MFT_RTLighting] &&
mMaterial->mPixelSpecular[stageNum] )
fd.features.addFeature( MFT_PixSpecular );
}
// Without realtime lighting and on lower end
// shader models disable the specular map.
if ( !fd.features[ MFT_RTLighting ] || shaderVersion == 2.0 )
fd.features.removeFeature( MFT_SpecularMap );
// If we have a specular map then make sure we
// have per-pixel specular enabled.
if( fd.features[ MFT_SpecularMap ] )
{
fd.features.addFeature( MFT_PixSpecular );
// Check for an alpha channel on the specular map. If it has one (and it
// has values less than 255) than the artist has put the gloss map into
// the alpha channel.
if( mStages[stageNum].getTex( MFT_SpecularMap )->mHasTransparency )
fd.features.addFeature( MFT_GlossMap );
}
// Without a base texture use the diffuse color
// feature to ensure some sort of output.
if (!fd.features[MFT_DiffuseMap])
{
fd.features.addFeature( MFT_DiffuseColor );
// No texture coords... no overlay.
fd.features.removeFeature( MFT_OverlayMap );
}
// If we have a diffuse map and the alpha on the diffuse isn't
// zero and the color isn't pure white then multiply the color.
else if ( mMaterial->mDiffuse[stageNum].alpha > 0.0f &&
mMaterial->mDiffuse[stageNum] != ColorF::WHITE )
fd.features.addFeature( MFT_DiffuseColor );
// If lightmaps or tonemaps are enabled or we
// don't have a second UV set then we cannot
// use the overlay texture.
if ( fd.features[MFT_LightMap] ||
fd.features[MFT_ToneMap] ||
mVertexFormat->getTexCoordCount() < 2 )
fd.features.removeFeature( MFT_OverlayMap );
// If tonemaps are enabled don't use lightmap
if ( fd.features[MFT_ToneMap] || mVertexFormat->getTexCoordCount() < 2 )
fd.features.removeFeature( MFT_LightMap );
// Don't allow tonemaps if we don't have a second UV set
if ( mVertexFormat->getTexCoordCount() < 2 )
fd.features.removeFeature( MFT_ToneMap );
// Always add the HDR output feature.
//
// It will be filtered out if it was disabled
// for this material creation below.
//
// Also the shader code will evaluate to a nop
// if HDR is not enabled in the scene.
//
fd.features.addFeature( MFT_HDROut );
// If vertex color is enabled on the material's stage and
// color is present in vertex format, add diffuse vertex
// color feature.
if ( mMaterial->mVertColor[ stageNum ] &&
mVertexFormat->hasColor() )
fd.features.addFeature( MFT_DiffuseVertColor );
// Allow features to add themselves.
for ( U32 i = 0; i < FEATUREMGR->getFeatureCount(); i++ )
{
const FeatureInfo &info = FEATUREMGR->getAt( i );
info.feature->determineFeature( mMaterial,
mVertexFormat,
stageNum,
*info.type,
features,
&fd );
}
// Now disable any features that were
// not part of the input feature handle.
fd.features.filter( features );
}
void StdServerProcessList::onTickObject( ProcessObject *pobj )
{
PROFILE_SCOPE( StdServerProcessList_OnTickObject );
// Each object is either advanced a single tick, or if it's
// being controlled by a client, ticked once for each pending move.
GameConnection *con = pobj->getControllingClient();
if ( pobj->mIsGameBase && con && con->getControlObject() == pobj )
{
// In case the object is deleted during its own tick.
SimObjectPtr<GameBase> obj = getGameBase( pobj );
Move* movePtr;
U32 m, numMoves;
con->mMoveList->getMoves( &movePtr, &numMoves );
// For debugging it can be useful to know when this happens.
//if ( numMoves > 1 )
// Con::printf( "numMoves: %i", numMoves );
// Do we really need to test the control object each iteration? Does it change?
for ( m = 0; m < numMoves && con && con->getControlObject() == obj; m++, movePtr++ )
{
#ifdef TORQUE_DEBUG_NET_MOVES
U32 sum = Move::ChecksumMask & obj->getPacketDataChecksum(obj->getControllingClient());
#endif
if ( obj->isTicking() )
obj->processTick( movePtr );
if ( con && con->getControlObject() == obj )
{
U32 newsum = Move::ChecksumMask & obj->getPacketDataChecksum( obj->getControllingClient() );
// check move checksum
if ( movePtr->checksum != newsum )
{
#ifdef TORQUE_DEBUG_NET_MOVES
if( !obj->isAIControlled() )
Con::printf("move %i checksum disagree: %i != %i, (start %i), (move %f %f %f)",
movePtr->id, movePtr->checksum,newsum,sum,movePtr->yaw,movePtr->y,movePtr->z);
#endif
movePtr->checksum = Move::ChecksumMismatch;
}
else
{
#ifdef TORQUE_DEBUG_NET_MOVES
Con::printf("move %i checksum agree: %i == %i, (start %i), (move %f %f %f)",
movePtr->id, movePtr->checksum,newsum,sum,movePtr->yaw,movePtr->y,movePtr->z);
#endif
}
}
}
con->mMoveList->clearMoves( m );
}
else if ( pobj->isTicking() )
pobj->processTick( 0 );
}
void ProcessedShaderMaterial::_setTextureTransforms(const U32 pass)
{
PROFILE_SCOPE( ProcessedShaderMaterial_SetTextureTransforms );
ShaderConstHandles* handles = _getShaderConstHandles(pass);
if (handles->mTexMatSC->isValid())
{
MatrixF texMat( true );
mMaterial->updateTimeBasedParams();
F32 waveOffset = _getWaveOffset( pass ); // offset is between 0.0 and 1.0
// handle scroll anim type
if( mMaterial->mAnimFlags[pass] & Material::Scroll )
{
if( mMaterial->mAnimFlags[pass] & Material::Wave )
{
Point3F scrollOffset;
scrollOffset.x = mMaterial->mScrollDir[pass].x * waveOffset;
scrollOffset.y = mMaterial->mScrollDir[pass].y * waveOffset;
scrollOffset.z = 1.0;
texMat.setColumn( 3, scrollOffset );
}
else
{
Point3F offset( mMaterial->mScrollOffset[pass].x,
mMaterial->mScrollOffset[pass].y,
1.0 );
texMat.setColumn( 3, offset );
}
}
// handle rotation
if( mMaterial->mAnimFlags[pass] & Material::Rotate )
{
if( mMaterial->mAnimFlags[pass] & Material::Wave )
{
F32 rotPos = waveOffset * M_2PI;
texMat.set( EulerF( 0.0, 0.0, rotPos ) );
texMat.setColumn( 3, Point3F( 0.5, 0.5, 0.0 ) );
MatrixF test( true );
test.setColumn( 3, Point3F( mMaterial->mRotPivotOffset[pass].x,
mMaterial->mRotPivotOffset[pass].y,
0.0 ) );
texMat.mul( test );
}
else
{
texMat.set( EulerF( 0.0, 0.0, mMaterial->mRotPos[pass] ) );
texMat.setColumn( 3, Point3F( 0.5, 0.5, 0.0 ) );
MatrixF test( true );
test.setColumn( 3, Point3F( mMaterial->mRotPivotOffset[pass].x,
mMaterial->mRotPivotOffset[pass].y,
0.0 ) );
texMat.mul( test );
}
}
// Handle scale + wave offset
if( mMaterial->mAnimFlags[pass] & Material::Scale &&
mMaterial->mAnimFlags[pass] & Material::Wave )
{
F32 wOffset = fabs( waveOffset );
texMat.setColumn( 3, Point3F( 0.5, 0.5, 0.0 ) );
MatrixF temp( true );
temp.setRow( 0, Point3F( wOffset, 0.0, 0.0 ) );
temp.setRow( 1, Point3F( 0.0, wOffset, 0.0 ) );
temp.setRow( 2, Point3F( 0.0, 0.0, wOffset ) );
temp.setColumn( 3, Point3F( -wOffset * 0.5, -wOffset * 0.5, 0.0 ) );
texMat.mul( temp );
}
// handle sequence
if( mMaterial->mAnimFlags[pass] & Material::Sequence )
{
U32 frameNum = (U32)(MATMGR->getTotalTime() * mMaterial->mSeqFramePerSec[pass]);
F32 offset = frameNum * mMaterial->mSeqSegSize[pass];
if ( mMaterial->mAnimFlags[pass] & Material::Scale )
texMat.scale( Point3F( mMaterial->mSeqSegSize[pass], 1.0f, 1.0f ) );
Point3F texOffset = texMat.getPosition();
texOffset.x += offset;
texMat.setPosition( texOffset );
}
GFXShaderConstBuffer* shaderConsts = _getShaderConstBuffer(pass);
shaderConsts->setSafe(handles->mTexMatSC, texMat);
}
}
void TerrCell::createPrimBuffer( GFXPrimitiveBufferHandle *primBuffer )
{
PROFILE_SCOPE( TerrCell_AllocPrimBuffer );
primBuffer->set( GFX, smPBSize, 1, GFXBufferTypeStatic, "TerrCell" );
// We don't use the primitive for normal clipmap
// rendering, but it is used for the shadow pass.
GFXPrimitive *prim = primBuffer->getPointer()->mPrimitiveArray;
prim->type = GFXTriangleList;
prim->numPrimitives = smTriCount;
prim->numVertices = smVBSize;
//
// The vertex pattern for the terrain is as
// follows...
//
// 0----1----2.....n
// |\ | /|
// | \ | / |
// | \ | / |
// | \|/ |
// n----n----n
// | /|\ |
// | / | \ |
// | / | \ |
// |/ | \|
// n----n----n
//
// Lock and fill it up!
U16 *idxBuff;
primBuffer->lock( &idxBuff );
U32 counter = 0;
U32 maxIndex = 0;
for ( U32 y = 0; y < smMinCellSize; y++ )
{
const U32 yTess = y % 2;
for ( U32 x = 0; x < smMinCellSize; x++ )
{
U32 index = ( y * smVBStride ) + x;
const U32 xTess = x % 2;
if ( ( xTess == 0 && yTess == 0 ) ||
( xTess != 0 && yTess != 0 ) )
{
idxBuff[0] = index + 0;
idxBuff[1] = index + smVBStride;
idxBuff[2] = index + smVBStride + 1;
idxBuff[3] = index + 0;
idxBuff[4] = index + smVBStride + 1;
idxBuff[5] = index + 1;
}
else
{
idxBuff[0] = index + 1;
idxBuff[1] = index;
idxBuff[2] = index + smVBStride;
idxBuff[3] = index + 1;
idxBuff[4] = index + smVBStride;
idxBuff[5] = index + smVBStride + 1;
}
idxBuff += 6;
maxIndex = index + 1 + smVBStride;
counter += 6;
}
}
// Now add indices for the 'skirts'.
// These could probably be reduced to a loop.
// Temporaries that hold triangle indices.
// Top/Bottom - 0,1
U32 t0, t1, b0, b1;
// Top edge skirt...
// Index to the first vert of the top row.
U32 startIndex = 0;
// Index to the first vert of the skirt under the top row.
U32 skirtStartIdx = smVBStride * smVBStride;
// Step to go one vert to the right.
U32 step = 1;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + i * step;
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = b0;
idxBuff[1] = t0;
idxBuff[2] = t1;
idxBuff[3] = b1;
idxBuff[4] = b0;
idxBuff[5] = t1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
}
// Bottom edge skirt...
// Index to the first vert of the bottom row.
startIndex = smVBStride * smVBStride - smVBStride;
// Index to the first vert of the skirt under the bottom row.
skirtStartIdx = startIndex + smVBStride * 2;
// Step to go one vert to the right.
step = 1;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + ( i * step );
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = t1;
idxBuff[1] = t0;
idxBuff[2] = b0;
idxBuff[3] = t1;
idxBuff[4] = b0;
idxBuff[5] = b1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
}
// Left edge skirt...
// Index to the first vert of the left column.
startIndex = 0;
// Index to the first vert of the skirt under the left column.
skirtStartIdx = smVBStride * smVBStride + smVBStride * 2;
// Step to go one vert down.
step = smVBStride;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + ( i * step );
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = t1;
idxBuff[1] = t0;
idxBuff[2] = b0;
idxBuff[3] = t1;
idxBuff[4] = b0;
idxBuff[5] = b1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
}
// Right edge skirt...
// Index to the first vert of the right column.
startIndex = smVBStride - 1;
// Index to the first vert of the skirt under the right column.
skirtStartIdx = smVBStride * smVBStride + smVBStride * 3;
// Step to go one vert down.
step = smVBStride;
for ( U32 i = 0; i < smMinCellSize; i++ )
{
t0 = startIndex + ( i * step );
t1 = t0 + step;
b0 = skirtStartIdx + i;
b1 = skirtStartIdx + i + 1;
idxBuff[0] = b0;
idxBuff[1] = t0;
idxBuff[2] = t1;
idxBuff[3] = b1;
idxBuff[4] = b0;
idxBuff[5] = t1;
idxBuff += 6;
maxIndex = b1;
counter += 6;
}
primBuffer->unlock();
}
