int HWDrawInfo::SetupLightsForOtherPlane(subsector_t * sub, FDynLightData &lightdata, const secplane_t *plane)
{
if (Level->HasDynamicLights && !isFullbrightScene())
{
Plane p;
FLightNode * node = sub->section->lighthead;
lightdata.Clear();
while (node)
{
FDynamicLight * light = node->lightsource;
if (!light->IsActive())
{
node = node->nextLight;
continue;
}
iter_dlightf++;
p.Set(plane->Normal(), plane->fD());
draw_dlightf += lightdata.GetLight(sub->sector->PortalGroup, p, light, true);
node = node->nextLight;
}
return screen->mLights->UploadLights(lightdata);
}
else return -1;
}
void GLFlat::SetupSubsectorLights(int pass, subsector_t * sub, int *dli)
{
Plane p;
if (dli != NULL && *dli != -1)
{
gl_RenderState.ApplyLightIndex(GLRenderer->mLights->GetIndex(*dli));
(*dli)++;
return;
}
lightdata.Clear();
FLightNode * node = sub->lighthead;
while (node)
{
ADynamicLight * light = node->lightsource;
if (light->flags2&MF2_DORMANT)
{
node=node->nextLight;
continue;
}
iter_dlightf++;
// we must do the side check here because gl_SetupLight needs the correct plane orientation
// which we don't have for Legacy-style 3D-floors
fixed_t planeh = plane.plane.ZatPoint(light->x, light->y);
if (gl_lights_checkside && ((planeh<light->z && ceiling) || (planeh>light->z && !ceiling)))
{
node=node->nextLight;
continue;
}
p.Set(plane.plane);
gl_GetLight(p, light, false, false, lightdata);
node = node->nextLight;
}
int d = GLRenderer->mLights->UploadLights(lightdata);
if (pass == GLPASS_LIGHTSONLY)
{
GLRenderer->mLights->StoreIndex(d);
}
else
{
gl_RenderState.ApplyLightIndex(d);
}
}
// seppt3
//---------------------------------------------------------------------------
int SeparatePointSets3D (
// convex hull 0
int n0, const Point pts0[], int fCount0, const Triangle* face0,
// convex hull 1
int n1, const Point pts1[], int fCount1, const Triangle* face1,
// result plane, if result >0
Plane &plane)
{
int i, j0, j1, j2, side0, side1;
//hg was double
float ux, uy, uz, vx, vy, vz;
float xNor,yNor,zNor,c;
// test faces of hull 0 for possible separation of points
for (i = 0; i < fCount0; i++)
{
// lookup face (assert: j0 != j1 && j0 != j2 && j1 != j2)
j0 = face0[i][0];
j1 = face0[i][1];
j2 = face0[i][2];
// compute perpendicular to face (assert: (xNor,yNor,zNor) != (0,0,0))
ux = pts0[j1].x-pts0[j0].x;
uy = pts0[j1].y-pts0[j0].y;
uz = pts0[j1].z-pts0[j0].z;
vx = pts0[j2].x-pts0[j0].x;
vy = pts0[j2].y-pts0[j0].y;
vz = pts0[j2].z-pts0[j0].z;
xNor = uy*vz-uz*vy;
yNor = uz*vx-ux*vz;
zNor = ux*vy-uy*vx;
if (xNor == 0 && yNor == 0 && zNor == 0) {
TRACE("BAD NORMAL in hull !!!!!!\n");
continue;
}
// compute plane constant
c = xNor*pts0[j0].x+yNor*pts0[j0].y+zNor*pts0[j0].z;
// determine if hull 1 is on same side of plane
side1 = OnSameSide(xNor,yNor,zNor,c,fCount1,face1,pts1);
if ( side1 )
{
// determine which side of plane hull 0 lies
side0 = WhichSide(xNor,yNor,zNor,c,fCount0,face0,pts0);
if ( side0*side1 <= 0 ) { // plane separates hulls
plane.Set(xNor,yNor,zNor,c);
return 1;
}
}
}
// test faces of hull 1 for possible separation of points
for (i = 0; i < fCount1; i++)
{
// lookup edge (assert: j0 != j1 && j0 != j2 && j1 != j2)
j0 = face1[i][0];
j1 = face1[i][1];
j2 = face1[i][2];
// compute perpendicular to face (assert: (xNor,yNor,zNor) != (0,0,0))
ux = pts1[j1].x-pts1[j0].x;
uy = pts1[j1].y-pts1[j0].y;
uz = pts1[j1].z-pts1[j0].z;
vx = pts1[j2].x-pts1[j0].x;
vy = pts1[j2].y-pts1[j0].y;
vz = pts1[j2].z-pts1[j0].z;
xNor = uy*vz-uz*vy;
yNor = uz*vx-ux*vz;
zNor = ux*vy-uy*vx;
if (xNor == 0 && yNor == 0 && zNor == 0) {
TRACE("BAD NORMAL in hull !!!!!!\n");
continue;
}
// compute plane constant
c = xNor*pts1[j0].x+yNor*pts1[j0].y+zNor*pts1[j0].z;
// determine if hull 0 is on same side of plane
side0 = OnSameSide(xNor,yNor,zNor,c,fCount0,face0,pts0);
if ( side0 )
{
// determine which side of plane hull 1 lies
side1 = WhichSide(xNor,yNor,zNor,c,fCount1,face1,pts1);
if ( side0*side1 <= 0 ) { // plane separates hulls
/*
// normalize
float l = sqrt(xNor*xNor + yNor*yNor + zNor*zNor);
if (l != 0.0) {
l= 1.0/l;
xNor *= l; yNor *=l; zNor*=l;
}
c = xNor*pts1[j0].x+yNor*pts1[j0].y+zNor*pts1[j0].z;
*/
plane.Set(xNor,yNor,zNor,c);
return 1;
}
}
}
#if 0
// what if two hulls are on same plane ?
// don't do the full test
return (0);
#endif
// build edge list for hull 0
EdgeNode* list0 = 0;
for (i = 0; i < fCount0; i++)
{
// lookup face (assert: j0 != j1 && j0 != j2 && j1 != j2)
j0 = face0[i][0];
j1 = face0[i][1];
j2 = face0[i][2];
AddEdge(list0,j0,j1);
AddEdge(list0,j0,j2);
AddEdge(list0,j1,j2);
}
// build edge list for hull 1
EdgeNode* list1 = 0;
for (i = 0; i < fCount1; i++)
{
// lookup face (assert: j0 != j1 && j0 != j2 && j1 != j2)
j0 = face1[i][0];
j1 = face1[i][1];
j2 = face1[i][2];
AddEdge(list1,j0,j1);
AddEdge(list1,j0,j2);
AddEdge(list1,j1,j2);
}
// Test planes whose normals are cross products of two edges,
// one from each hull.
for (EdgeNode* node0 = list0; node0; node0 = node0->next)
{
// get edge
ux = pts0[node0->v1].x-pts0[node0->v0].x;
uy = pts0[node0->v1].y-pts0[node0->v0].y;
uz = pts0[node0->v1].z-pts0[node0->v0].z;
for (EdgeNode* node1 = list1; node1; node1 = node1->next)
{
vx = pts1[node1->v1].x-pts1[node1->v0].x;
vy = pts1[node1->v1].y-pts1[node1->v0].y;
vz = pts1[node1->v1].z-pts1[node1->v0].z;
// compute plane normal
xNor = uy*vz-uz*vy;
yNor = uz*vx-ux*vz;
zNor = ux*vy-uy*vx;
if (xNor == 0 && yNor == 0 && zNor == 0) {
TRACE("BAD NORMAL in hull !!!!!!\n");
continue;
}
// compute plane constant
c = xNor*pts0[node0->v0].x+yNor*pts0[node0->v0].y+zNor*pts0[node0->v0].z;
// determine if hull 0 is on same side of plane
side0 = OnSameSide(xNor,yNor,zNor,c,fCount0,face0,pts0);
side1 = OnSameSide(xNor,yNor,zNor,c,fCount1,face1,pts1);
if ( side0*side1 < 0 ) { // plane separates hulls
DeleteList(list0); // hg
DeleteList(list1);
plane.Set(xNor,yNor,zNor,c);
return 1;
}
}
}
DeleteList(list0);
DeleteList(list1);
return 0;
}
void MeshEnt::UnSelectFaces( Area<S32> * rect) // = NULL
{
if (!selData)
{
return;
}
MeshRoot & root = RootPriv();
if (!rect)
{
selData->verts.DisposeAll();
selData->faces.DisposeAll();
}
else
{
// get temp memory
Vector * verts;
U8 * hits;
U32 heapSize = Vid::Heap::ReqVector( &verts, root.vertices.count, &hits, root.vertices.count);
Utils::Memset( hits, 0, root.vertices.count);
// set up transform matrices and transform verts to view space
Matrix tranys[MAXMESHPERGROUP];
Bool doMultiWeight = (root.rootControlFlags & controlMULTIWEIGHT) && Vid::renderState.status.multiWeight ? TRUE : FALSE;
root.SetVertsView( statesR, tranys, verts, root.vertices.count, doMultiWeight);
// transform verts and clip in Z
//
U16 i, j;
for (i = 0; i < root.faces.count; i++)
{
FaceObj &face = root.faces[i];
BucketLock &bucky = buckys[face.buckyIndex];
if (!(bucky.flags0 & RS_2SIDED))
{
// backface cull
//
Plane plane;
plane.Set( verts[face.verts[0]], verts[face.verts[2]], verts[face.verts[1]]);
if (plane.Dot( verts[face.verts[0]]) <= 0.0f)
{
continue;
}
}
for (j = 0; j < 3; j++)
{
Vector & vect = verts[face.verts[j]];
if (vect.z < Vid::Math::nearPlane || vect.z >= Vid::Math::farPlane)
{
// done or 3D clip
continue;
}
// project
//
VertexTL v;
Vid::ProjectFromCamera_I( v, vect);
if (v.vv.x >= rect->p0.x && v.vv.x < rect->p1.x
&& v.vv.y >= rect->p0.y && v.vv.y < rect->p1.y)
{
// if a vert is inside the on screen box
//
UnSelectFace( i);
break;
}
}
}
Vid::Heap::Restore( heapSize);
}
}
void COpenGLSkydomeRenderer::DoDrawReflectionSkydomeRenderBatch()
{
if( m_SkydomeStaticBuffer == NULL )
return;
COpenGLShaderManager *pShaderManager = static_cast<COpenGLShaderManager*>(m_pRenderDevice->GetShaderManager());
Matrix4x4 SkydomeWorldMatrix;
Plane ReflectionPlane;
ReflectionPlane.Set( Vector3D(0, 1, 0), -m_pRenderDevice->GetWorldSystemManager()->getWater()->m_fWaterHeight );
SkydomeWorldMatrix.ReflectPlane( ReflectionPlane );
Vector4D newCamPos = m_pRenderDevice->getOpenGLCamera()->m_CameraPos * SkydomeWorldMatrix;
SkydomeWorldMatrix = m_SkydomeWorldMatrix;
SkydomeWorldMatrix.Translate( newCamPos.x, newCamPos.y, newCamPos.z );
Matrix4x4 MVP = SkydomeWorldMatrix * m_pRenderDevice->getOpenGLWaterRenderer()->m_MirrorViewMatrix * m_pRenderDevice->getOpenGLWaterRenderer()->m_ObliqueNearPlaneReflectionProjMatrix;
Matrix4x4 MV = SkydomeWorldMatrix * m_pRenderDevice->getOpenGLWaterRenderer()->m_MirrorViewMatrix;
ISGPMaterialSystem::MaterialList &Mat_List = m_pRenderDevice->GetMaterialSystem()->GetMaterialList();
const ISGPMaterialSystem::SGPMaterialInfo &SkydomeMaterial_info = Mat_List.getReference(ISGPMaterialSystem::eMaterial_skydome);
m_pRenderDevice->getOpenGLMaterialRenderer()->PushMaterial( SkydomeMaterial_info.m_material, MM_Add );
m_pRenderDevice->getOpenGLMaterialRenderer()->ComputeMaterialPass();
m_pRenderDevice->getOpenGLMaterialRenderer()->OnePassPreRenderMaterial(0);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->useProgram();
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("modelViewProjMatrix", MVP);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("modelViewMatrix", MV);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("InvSunDir", m_SunDir);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("HGg", m_HGg);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("BetaRPlusBetaM", m_BetaRPlusBetaM);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("Multipliers", m_Multipliers);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("BetaDashR", m_BetaDashR);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("BetaDashM", m_BetaDashM);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("OneOverBetaRPlusBetaM", m_OneOverBetaRPlusBetaM);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("SunColorAndIntensity", m_SunColorAndIntensity);
m_pRenderDevice->GetTextureManager()->getTextureByID(m_SkydomeMaterialSkin.nTextureID[0])->pSGPTexture->BindTexture2D(0);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("gSampler0", 0);
if( m_SkydomeMaterialSkin.nTextureNum == 2 )
{
m_pRenderDevice->GetTextureManager()->getTextureByID(m_SkydomeMaterialSkin.nTextureID[1])->pSGPTexture->BindTexture2D(1);
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("gSampler1", 1);
}
pShaderManager->GetGLSLShaderProgram(m_SkydomeMaterialSkin.nShaderType)->setShaderUniform("cloudParam", m_SkydomeCloudParam);
m_SkydomeStaticBuffer->pVBO->bindVAO();
glDrawElements( m_pRenderDevice->primitiveTypeToGL( m_SkydomeMaterialSkin.nPrimitiveType ),
m_SkydomeStaticBuffer->nNumIndis,
GL_UNSIGNED_SHORT,
(void*)0 );
m_SkydomeStaticBuffer->pVBO->unBindVAO();
m_pRenderDevice->getOpenGLMaterialRenderer()->OnePassPostRenderMaterial(0);
m_pRenderDevice->getOpenGLMaterialRenderer()->PopMaterial();
}
void GLWall::SetupLights()
{
if (RenderStyle == STYLE_Add && !glset.lightadditivesurfaces) return; // no lights on additively blended surfaces.
// check for wall types which cannot have dynamic lights on them (portal types never get here so they don't need to be checked.)
switch (type)
{
case RENDERWALL_FOGBOUNDARY:
case RENDERWALL_MIRRORSURFACE:
case RENDERWALL_COLOR:
return;
}
float vtx[]={glseg.x1,zbottom[0],glseg.y1, glseg.x1,ztop[0],glseg.y1, glseg.x2,ztop[1],glseg.y2, glseg.x2,zbottom[1],glseg.y2};
Plane p;
lightdata.Clear();
p.Set(&glseg);
/*
if (!p.ValidNormal())
{
return;
}
*/
FLightNode *node;
if (seg->sidedef == NULL)
{
node = NULL;
}
else if (!(seg->sidedef->Flags & WALLF_POLYOBJ))
{
node = seg->sidedef->lighthead;
}
else if (sub)
{
// Polobject segs cannot be checked per sidedef so use the subsector instead.
node = sub->lighthead;
}
else node = NULL;
// Iterate through all dynamic lights which touch this wall and render them
while (node)
{
if (!(node->lightsource->flags2&MF2_DORMANT))
{
iter_dlight++;
DVector3 posrel = node->lightsource->PosRelative(seg->frontsector);
float x = posrel.X;
float y = posrel.Y;
float z = posrel.Z;
float dist = fabsf(p.DistToPoint(x, z, y));
float radius = node->lightsource->GetRadius();
float scale = 1.0f / ((2.f * radius) - dist);
FVector3 fn, pos;
if (radius > 0.f && dist < radius)
{
FVector3 nearPt, up, right;
pos = { x, z, y };
fn = p.Normal();
fn.GetRightUp(right, up);
FVector3 tmpVec = fn * dist;
nearPt = pos + tmpVec;
FVector3 t1;
int outcnt[4]={0,0,0,0};
texcoord tcs[4];
// do a quick check whether the light touches this polygon
for(int i=0;i<4;i++)
{
t1 = FVector3(&vtx[i*3]);
FVector3 nearToVert = t1 - nearPt;
tcs[i].u = ((nearToVert | right) * scale) + 0.5f;
tcs[i].v = ((nearToVert | up) * scale) + 0.5f;
if (tcs[i].u<0) outcnt[0]++;
if (tcs[i].u>1) outcnt[1]++;
if (tcs[i].v<0) outcnt[2]++;
if (tcs[i].v>1) outcnt[3]++;
}
if (outcnt[0]!=4 && outcnt[1]!=4 && outcnt[2]!=4 && outcnt[3]!=4)
{
gl_GetLight(seg->frontsector->PortalGroup, p, node->lightsource, true, lightdata);
}
}
}
node = node->nextLight;
}
dynlightindex = GLRenderer->mLights->UploadLights(lightdata);
}