bool C4MaterialMap::CrossMapMaterials(const char* szEarthMaterial) // Called after load
{
// Check material number
if (::MaterialMap.Num>C4MaxMaterial)
{ LogFatal(LoadResStr("IDS_PRC_TOOMANYMATS")); return false; }
// build reaction function map
delete [] ppReactionMap;
typedef C4MaterialReaction * C4MaterialReactionPtr;
ppReactionMap = new C4MaterialReactionPtr[(Num+1)*(Num+1)];
for (int32_t iMatPXS=-1; iMatPXS<Num; iMatPXS++)
{
C4Material *pMatPXS = (iMatPXS+1) ? Map+iMatPXS : NULL;
for (int32_t iMatLS=-1; iMatLS<Num; iMatLS++)
{
C4MaterialReaction *pReaction = NULL;
C4Material *pMatLS = ( iMatLS+1) ? Map+ iMatLS : NULL;
// natural stuff: material conversion here?
if (pMatPXS && pMatPXS->sInMatConvert.getLength() && SEqualNoCase(pMatPXS->sInMatConvert.getData(), pMatLS ? pMatLS->Name : C4TLS_MatSky))
pReaction = &DefReactConvert;
// non-sky reactions
else if (pMatPXS && pMatLS)
{
// incindiary vs extinguisher
if ((pMatPXS->Incendiary && pMatLS->Extinguisher) || (pMatPXS->Extinguisher && pMatLS->Incendiary))
pReaction = &DefReactPoof;
// incindiary vs inflammable
else if ((pMatPXS->Incendiary && pMatLS->Inflammable) || (pMatPXS->Inflammable && pMatLS->Incendiary))
pReaction = &DefReactIncinerate;
// corrosive vs corrode
else if (pMatPXS->Corrosive && pMatLS->Corrode)
pReaction = &DefReactCorrode;
// liquid hitting liquid or solid: Material insertion
else if (DensityLiquid(MatDensity(iMatPXS)) && DensitySemiSolid(MatDensity(iMatLS)))
pReaction = &DefReactInsert;
// solid hitting solid: Material insertion
else if (DensitySolid(MatDensity(iMatPXS)) && DensitySolid(MatDensity(iMatLS)))
pReaction = &DefReactInsert;
}
// assign the function; or NULL for no reaction
SetMatReaction(iMatPXS, iMatLS, pReaction);
}
}
// reset max shape size
max_shape_width=max_shape_height=0;
// material-specific initialization
int32_t cnt;
for (cnt=0; cnt<Num; cnt++)
{
C4Material *pMat = Map+cnt;
const char *szTextureOverlay = NULL;
// newgfx: init pattern
if (Map[cnt].sTextureOverlay.getLength())
if (::TextureMap.GetTexture(Map[cnt].sTextureOverlay.getLength()))
{
szTextureOverlay = Map[cnt].sTextureOverlay.getData();
// backwards compatibility: if a pattern was specified although the no-pattern flag was set, overwrite that flag
if (Map[cnt].OverlayType & C4MatOv_None)
{
DebugLogF("Error in overlay of material %s: Flag C4MatOv_None ignored because a custom overlay (%s) was specified!", Map[cnt].Name, szTextureOverlay);
Map[cnt].OverlayType &= ~C4MatOv_None;
}
}
// default to first texture in texture map
int iTexMapIx;
if (!szTextureOverlay && (iTexMapIx = ::TextureMap.GetIndex(Map[cnt].Name, NULL, false)))
szTextureOverlay = TextureMap.GetEntry(iTexMapIx)->GetTextureName();
// default to smooth
if (!szTextureOverlay)
szTextureOverlay = "none";
// search/create entry in texmap
Map[cnt].DefaultMatTex = ::TextureMap.GetIndex(Map[cnt].Name, szTextureOverlay, true,
FormatString("DefaultMatTex of mat %s", Map[cnt].Name).getData());
// init PXS facet
C4Surface * sfcTexture;
C4Texture * Texture;
if (Map[cnt].sPXSGfx.getLength())
if ((Texture=::TextureMap.GetTexture(Map[cnt].sPXSGfx.getData())))
if ((sfcTexture=Texture->Surface32))
Map[cnt].PXSFace.Set(sfcTexture, Map[cnt].PXSGfxRt.x, Map[cnt].PXSGfxRt.y, Map[cnt].PXSGfxRt.Wdt, Map[cnt].PXSGfxRt.Hgt);
// evaluate reactions for that material
for (unsigned int iRCnt = 0; iRCnt < pMat->CustomReactionList.size(); ++iRCnt)
{
C4MaterialReaction *pReact = &(pMat->CustomReactionList[iRCnt]);
if (pReact->sConvertMat.getLength()) pReact->iConvertMat = Get(pReact->sConvertMat.getData()); else pReact->iConvertMat = -1;
// evaluate target spec
int32_t tmat;
if (MatValid(tmat=Get(pReact->TargetSpec.getData())))
{
// single material target
if (pReact->fInverseSpec)
for (int32_t cnt2=-1; cnt2<Num; cnt2++) {
if (cnt2!=tmat)
SetMatReaction(cnt, cnt2, pReact);
else
SetMatReaction(cnt, tmat, pReact);
}
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "All"))
{
// add to all materials, including sky
if (!pReact->fInverseSpec) for (int32_t cnt2=-1; cnt2<Num; cnt2++) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Solid"))
{
// add to all solid materials
if (pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (DensitySolid(Map[cnt2].Density) != pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "SemiSolid"))
{
// add to all semisolid materials
if (pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (DensitySemiSolid(Map[cnt2].Density) != pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Background"))
{
// add to all BG materials, including sky
if (!pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (!Map[cnt2].Density != pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Sky"))
{
// add to sky
if (!pReact->fInverseSpec)
SetMatReaction(cnt, -1, pReact);
else
for (int32_t cnt2=0; cnt2<Num; cnt2++) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Incendiary") || SEqualNoCase(pReact->TargetSpec.getData(), "Incindiary"))
{
// add to all incendiary materials
if (pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (!Map[cnt2].Incendiary == pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Extinguisher"))
{
// add to all incendiary materials
if (pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (!Map[cnt2].Extinguisher == pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Inflammable"))
{
// add to all incendiary materials
if (pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (!Map[cnt2].Inflammable == pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Corrosive"))
{
// add to all incendiary materials
if (pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (!Map[cnt2].Corrosive == pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
else if (SEqualNoCase(pReact->TargetSpec.getData(), "Corrode"))
{
// add to all incendiary materials
if (pReact->fInverseSpec) SetMatReaction(cnt, -1, pReact);
for (int32_t cnt2=0; cnt2<Num; cnt2++) if (!Map[cnt2].Corrode == pReact->fInverseSpec) SetMatReaction(cnt, cnt2, pReact);
}
}
}
// second loop (DefaultMatTex is needed by GetIndexMatTex)
for (cnt=0; cnt<Num; cnt++)
{
if (Map[cnt].sBlastShiftTo.getLength())
Map[cnt].BlastShiftTo=::TextureMap.GetIndexMatTex(Map[cnt].sBlastShiftTo.getData(), NULL, true, FormatString("BlastShiftTo of mat %s", Map[cnt].Name).getData());
if (Map[cnt].sInMatConvertTo.getLength())
Map[cnt].InMatConvertTo=Get(Map[cnt].sInMatConvertTo.getData());
if (Map[cnt].sBelowTempConvertTo.getLength())
Map[cnt].BelowTempConvertTo=::TextureMap.GetIndexMatTex(Map[cnt].sBelowTempConvertTo.getData(), NULL, true, FormatString("BelowTempConvertTo of mat %s", Map[cnt].Name).getData());
if (Map[cnt].sAboveTempConvertTo.getLength())
Map[cnt].AboveTempConvertTo=::TextureMap.GetIndexMatTex(Map[cnt].sAboveTempConvertTo.getData(), NULL, true, FormatString("AboveTempConvertTo of mat %s", Map[cnt].Name).getData());
}
// Get hardcoded system material indices
const C4TexMapEntry* earth_entry = ::TextureMap.GetEntry(::TextureMap.GetIndexMatTex(szEarthMaterial));
if(!earth_entry)
{ LogFatal(FormatString("Earth material \"%s\" not found!", szEarthMaterial).getData()); return false; }
MVehic = Get("Vehicle"); MCVehic = Mat2PixColDefault(MVehic);
MHalfVehic = Get("HalfVehicle"); MCHalfVehic = Mat2PixColDefault(MHalfVehic);
MTunnel = Get("Tunnel");
MWater = Get("Water");
MEarth = Get(earth_entry->GetMaterialName());
if ((MVehic==MNone) || (MTunnel==MNone))
{ LogFatal(LoadResStr("IDS_PRC_NOSYSMATS")); return false; }
return true;
}
void C4PXSSystem::Draw(C4TargetFacet &cgo)
{
// Draw PXS in this region
C4Rect VisibleRect(cgo.TargetX, cgo.TargetY, cgo.Wdt, cgo.Hgt);
VisibleRect.Enlarge(20);
// Go through all PXS and build vertex arrays. The vertex arrays are
// then submitted to the GL in one go.
std::vector<C4BltVertex> pixVtx;
std::vector<C4BltVertex> lineVtx;
std::map<int, std::vector<C4BltVertex> > bltVtx;
// TODO: reserve some space to avoid too many allocations
// TODO: keep vertex mem allocated between draw invocations
float cgox = cgo.X - cgo.TargetX, cgoy = cgo.Y - cgo.TargetY;
// First pass: draw simple PXS (lines/pixels)
unsigned int cnt;
for (cnt=0; cnt < PXSMaxChunk; cnt++)
{
if (Chunk[cnt] && iChunkPXS[cnt])
{
C4PXS *pxp = Chunk[cnt];
for (unsigned int cnt2 = 0; cnt2 < PXSChunkSize; cnt2++, pxp++)
if (pxp->Mat != MNone && VisibleRect.Contains(fixtoi(pxp->x), fixtoi(pxp->y)))
{
C4Material *pMat = &::MaterialMap.Map[pxp->Mat];
const DWORD dwMatClr = ::Landscape.GetPal()->GetClr((BYTE) (Mat2PixColDefault(pxp->Mat)));
if(pMat->PXSFace.Surface)
{
int32_t pnx, pny;
pMat->PXSFace.GetPhaseNum(pnx, pny);
int32_t fcWdt = pMat->PXSFace.Wdt;
int32_t fcHgt = pMat->PXSFace.Hgt;
// calculate draw width and tile to use (random-ish)
uint32_t size = (1103515245 * (cnt * PXSChunkSize + cnt2) + 12345) >> 3;
float z = pMat->PXSGfxSize * (0.625f + 0.05f * int(size % 16));
pny = (cnt2 / pnx) % pny; pnx = cnt2 % pnx;
const float w = z;
const float h = z * fcHgt / fcWdt;
const float x1 = fixtof(pxp->x) + cgox + z * pMat->PXSGfxRt.tx / fcWdt;
const float y1 = fixtof(pxp->y) + cgoy + z * pMat->PXSGfxRt.ty / fcHgt;
const float x2 = x1 + w;
const float y2 = y1 + h;
const float sfcWdt = pMat->PXSFace.Surface->Wdt;
const float sfcHgt = pMat->PXSFace.Surface->Hgt;
C4BltVertex vtx[6];
vtx[0].tx = (pnx + 0.f) * fcWdt / sfcWdt; vtx[0].ty = (pny + 0.f) * fcHgt / sfcHgt;
vtx[0].ftx = x1; vtx[0].fty = y1;
vtx[1].tx = (pnx + 1.f) * fcWdt / sfcWdt; vtx[1].ty = (pny + 0.f) * fcHgt / sfcHgt;
vtx[1].ftx = x2; vtx[1].fty = y1;
vtx[2].tx = (pnx + 1.f) * fcWdt / sfcWdt; vtx[2].ty = (pny + 1.f) * fcHgt / sfcHgt;
vtx[2].ftx = x2; vtx[2].fty = y2;
vtx[3].tx = (pnx + 0.f) * fcWdt / sfcWdt; vtx[3].ty = (pny + 1.f) * fcHgt / sfcHgt;
vtx[3].ftx = x1; vtx[3].fty = y2;
DwTo4UB(0xFFFFFFFF, vtx[0].color);
DwTo4UB(0xFFFFFFFF, vtx[1].color);
DwTo4UB(0xFFFFFFFF, vtx[2].color);
DwTo4UB(0xFFFFFFFF, vtx[3].color);
vtx[4] = vtx[2];
vtx[5] = vtx[0];
std::vector<C4BltVertex>& vec = bltVtx[pxp->Mat];
vec.push_back(vtx[0]);
vec.push_back(vtx[1]);
vec.push_back(vtx[2]);
vec.push_back(vtx[3]);
vec.push_back(vtx[4]);
vec.push_back(vtx[5]);
}
else
{
// old-style: unicolored pixels or lines
if (fixtoi(pxp->xdir) || fixtoi(pxp->ydir))