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librw/tools/rsltest/rsltest.cpp

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#include <cstdio>
#include <cstdlib>
#include <cstring>
#include <cassert>
#include <new>
#include <args.h>
#include <rw.h>
#include <src/gtaplg.h>
using namespace std;
using namespace rw;
#include "rsl.h"
char *argv0;
void
RslStream::relocate(void)
{
uint32 off = (uint32)(uintptr)this->data;
off -= 0x20;
*(uint32*)&this->reloc += off;
*(uint32*)&this->hashTab += off;
uint8 **rel = (uint8**)this->reloc;
for(uint32 i = 0; i < this->relocSize; i++){
rel[i] += off;
*this->reloc[i] += off;
}
}
RslFrame *dumpFrameCB(RslFrame *frame, void *data)
{
printf(" frm: %x %s %x\n", frame->nodeId, frame->name, frame->hierId);
RslFrameForAllChildren(frame, dumpFrameCB, data);
return frame;
}
RslMaterial *dumpMaterialCB(RslMaterial *material, void*)
{
printf(" mat: %d %d %d %d %s %x\n", material->color.red, material->color.green, material->color.blue, material->color.alpha,
material->texname, material->refCount);
if(material->matfx){
RslMatFX *fx = material->matfx;
printf(" matfx: %d", fx->effectType);
if(fx->effectType == 2)
printf("env[%s %f] ", fx->env.texname, fx->env.intensity);
printf("\n");
}
return material;
}
RslAtomic *dumpAtomicCB(RslAtomic *atomic, void*)
{
printf(" atm: %x %x %x %p\n", atomic->unk1, atomic->unk2, atomic->unk3, atomic->hier);
RslGeometry *g = atomic->geometry;
RslGeometryForAllMaterials(g, dumpMaterialCB, NULL);
return atomic;
}
int32
mapID(int32 id)
{
if(id == 255) return -1;
if(id > 0x80) id |= 0x1300;
return id;
}
Frame*
convertFrame(RslFrame *f)
{
Frame *rwf = Frame::create();
rwf->matrix[0] = f->modelling.right.x;
rwf->matrix[1] = f->modelling.right.y;
rwf->matrix[2] = f->modelling.right.z;
rwf->matrix[4] = f->modelling.up.x;
rwf->matrix[5] = f->modelling.up.y;
rwf->matrix[6] = f->modelling.up.z;
rwf->matrix[8] = f->modelling.at.x;
rwf->matrix[9] = f->modelling.at.y;
rwf->matrix[10] = f->modelling.at.z;
rwf->matrix[12] = f->modelling.pos.x;
rwf->matrix[13] = f->modelling.pos.y;
rwf->matrix[14] = f->modelling.pos.z;
if(f->name)
strncpy(gta::getNodeName(rwf), f->name, 24);
HAnimData *hanim = PLUGINOFFSET(HAnimData, rwf, hAnimOffset);
hanim->id = f->nodeId;
if(f->hier){
HAnimHierarchy *hier;
hanim->hierarchy = hier = new HAnimHierarchy;
hier->numNodes = f->hier->numNodes;
hier->flags = f->hier->flags;
hier->maxInterpKeyFrameSize = f->hier->maxKeyFrameSize;
hier->parentFrame = rwf;
hier->parentHierarchy = hier;
hier->nodeInfo = new HAnimNodeInfo[hier->numNodes];
for(int32 i = 0; i < hier->numNodes; i++){
hier->nodeInfo[i].id = mapID((uint8)f->hier->pNodeInfo[i].id);
hier->nodeInfo[i].index = f->hier->pNodeInfo[i].index;
hier->nodeInfo[i].flags = f->hier->pNodeInfo[i].flags;
hier->nodeInfo[i].frame = NULL;
}
}
return rwf;
}
Texture*
convertTexture(RslTexture *t)
{
Texture *tex = Texture::read(t->name, t->mask);
//tex->refCount++; // ??
if(tex->refCount == 1)
tex->filterAddressing = (Texture::WRAP << 12) | (Texture::WRAP << 8) | Texture::LINEAR;
return tex;
}
Material*
convertMaterial(RslMaterial *m)
{
Material *rwm;
rwm = Material::create();
rwm->color[0] = m->color.red;
rwm->color[1] = m->color.green;
rwm->color[2] = m->color.blue;
rwm->color[3] = m->color.alpha;
if(m->texture)
rwm->texture = convertTexture(m->texture);
if(m->matfx){
MatFX *matfx = new MatFX;
matfx->setEffects(m->matfx->effectType);
matfx->setEnvCoefficient(m->matfx->env.intensity);
if(m->matfx->env.texture)
matfx->setEnvTexture(convertTexture(m->matfx->env.texture));
*PLUGINOFFSET(MatFX*, rwm, matFXGlobals.materialOffset) = matfx;
}
return rwm;
}
static uint32
unpackSize(uint32 unpack)
{
if((unpack&0x6F000000) == 0x6F000000)
return 2;
static uint32 size[] = { 32, 16, 8, 16 };
return ((unpack>>26 & 3)+1)*size[unpack>>24 & 3]/8;
}
static uint32*
skipUnpack(uint32 *p)
{
int32 n = (p[0] >> 16) & 0xFF;
return p + (n*unpackSize(p[0])+3 >> 2) + 1;
}
void
convertMesh(Geometry *rwg, RslGeometry *g, int32 ii)
{
RslPS2ResEntryHeader *resHeader = (RslPS2ResEntryHeader*)(g+1);
RslPS2InstanceData *inst = (RslPS2InstanceData*)(resHeader+1);
int32 numInst = resHeader->size >> 20;
uint8 *p = (uint8*)(inst+numInst);
inst += ii;
p += inst->dmaPacket;
Mesh *m = &rwg->meshHeader->mesh[inst->matID];
ps2::SkinVertex v;
uint32 mask = 0x1001; // tex coords, vertices
if(rwg->geoflags & Geometry::NORMALS)
mask |= 0x10;
if(rwg->geoflags & Geometry::PRELIT)
mask |= 0x100;
Skin *skin = *PLUGINOFFSET(Skin*, rwg, skinGlobals.offset);
if(skin)
mask |= 0x10000;
int16 *vuVerts = NULL;
int8 *vuNorms = NULL;
uint8 *vuTex = NULL;
uint16 *vuCols = NULL;
uint32 *vuSkin = NULL;
uint32 *w = (uint32*)p;
uint32 *end = (uint32*)(p + ((w[0] & 0xFFFF) + 1)*0x10);
w += 4;
int32 nvert;
bool first = 1;
while(w < end){
/* Get data pointers */
// GIFtag probably
assert(w[0] == 0x6C018000); // UNPACK
nvert = w[4] & 0x7FFF;
if(!first) nvert -=2;
w += 5;
// positions
assert(w[0] == 0x20000000); // STMASK
w += 2;
assert(w[0] == 0x30000000); // STROW
w += 5;
assert((w[0] & 0xFF004000) == 0x79000000);
vuVerts = (int16*)(w+1);
if(!first) vuVerts += 2*3;
w = skipUnpack(w);
// tex coords
assert(w[0] == 0x20000000); // STMASK
w += 2;
assert(w[0] == 0x30000000); // STROW
w += 5;
assert((w[0] & 0xFF004000) == 0x76004000);
vuTex = (uint8*)(w+1);
if(!first) vuTex += 2*2;
w = skipUnpack(w);
if(rwg->geoflags & Geometry::NORMALS){
assert((w[0] & 0xFF004000) == 0x6A000000);
vuNorms = (int8*)(w+1);
if(!first) vuNorms += 2*3;
w = skipUnpack(w);
}
if(rwg->geoflags & Geometry::PRELIT){
assert((w[0] & 0xFF004000) == 0x6F000000);
vuCols = (uint16*)(w+1);
if(!first) vuCols += 2;
w = skipUnpack(w);
}
if(skin){
assert((w[0] & 0xFF004000) == 0x6C000000);
vuSkin = w+1;
if(!first) vuSkin += 2*4;
w = skipUnpack(w);
}
assert(w[0] == 0x14000006); // MSCAL
w++;
while(w[0] == 0) w++;
/* Insert Data */
for(int32 i = 0; i < nvert; i++){
v.p[0] = vuVerts[0]/32768.0f*resHeader->scale[0] + resHeader->pos[0];
v.p[1] = vuVerts[1]/32768.0f*resHeader->scale[1] + resHeader->pos[1];
v.p[2] = vuVerts[2]/32768.0f*resHeader->scale[2] + resHeader->pos[2];
v.t[0] = vuTex[0]/128.0f*inst->uvScale[0];
v.t[1] = vuTex[1]/128.0f*inst->uvScale[1];
if(mask & 0x10){
v.n[0] = vuNorms[0]/127.0f;
v.n[1] = vuNorms[1]/127.0f;
v.n[2] = vuNorms[2]/127.0f;
}
if(mask & 0x100){
v.c[0] = (vuCols[0] & 0x1f) * 255 / 0x1F;
v.c[1] = (vuCols[0]>>5 & 0x1f) * 255 / 0x1F;
v.c[2] = (vuCols[0]>>10 & 0x1f) * 255 / 0x1F;
v.c[3] = vuCols[0]&0x8000 ? 0xFF : 0;
}
if(mask & 0x10000){
for(int j = 0; j < 4; j++){
((uint32*)v.w)[j] = vuSkin[j] & ~0x3FF;
v.i[j] = vuSkin[j] >> 2;
//if(v.i[j]) v.i[j]--;
if(v.w[j] == 0.0f) v.i[j] = 0;
}
}
int32 idx = ps2::findVertexSkin(rwg, NULL, mask, &v);
if(idx < 0)
idx = rwg->numVertices++;
/* Insert mesh joining indices when we get the index of the first vertex
* in the first VU chunk of a non-first RslMesh. */
if(i == 0 && first && ii != 0 && inst[-1].matID == inst->matID){
m->indices[m->numIndices] = m->indices[m->numIndices-1];
m->numIndices++;
m->indices[m->numIndices++] = idx;
if(inst[-1].numTriangles % 2)
m->indices[m->numIndices++] = idx;
}
m->indices[m->numIndices++] = idx;
ps2::insertVertexSkin(rwg, idx, mask, &v);
vuVerts += 3;
vuTex += 2;
vuNorms += 3;
vuCols++;
vuSkin += 4;
}
first = 0;
}
}
Atomic*
convertAtomic(RslAtomic *atomic)
{
Atomic *rwa = Atomic::create();
RslGeometry *g = atomic->geometry;
Geometry *rwg = Geometry::create(0, 0, 0);
rwa->geometry = rwg;
rwg->numMaterials = g->matList.numMaterials;
rwg->materialList = new Material*[rwg->numMaterials];
for(int32 i = 0; i < rwg->numMaterials; i++)
rwg->materialList[i] = convertMaterial(g->matList.materials[i]);
rwg->meshHeader = new MeshHeader;
rwg->meshHeader->flags = 1;
rwg->meshHeader->numMeshes = rwg->numMaterials;
rwg->meshHeader->mesh = new Mesh[rwg->meshHeader->numMeshes];
rwg->meshHeader->totalIndices = 0;
Mesh *meshes = rwg->meshHeader->mesh;
for(uint32 i = 0; i < rwg->meshHeader->numMeshes; i++)
meshes[i].numIndices = 0;
RslPS2ResEntryHeader *resHeader = (RslPS2ResEntryHeader*)(g+1);
RslPS2InstanceData *inst = (RslPS2InstanceData*)(resHeader+1);
int32 numInst = resHeader->size >> 20;
int32 lastId = -1;
for(int32 i = 0; i < numInst; i++){
Mesh *m = &meshes[inst[i].matID];
rwg->numVertices += inst[i].numTriangles+2;
m->numIndices += inst[i].numTriangles+2;
// Extra indices since we're merging tristrip
// meshes with the same material.
// Be careful with face winding.
if(lastId == inst[i].matID)
m->numIndices += inst[i-1].numTriangles % 2 ? 3 : 2;
lastId = inst[i].matID;
}
for(uint32 i = 0; i < rwg->meshHeader->numMeshes; i++){
rwg->meshHeader->mesh[i].material = rwg->materialList[i];
rwg->meshHeader->totalIndices += meshes[i].numIndices;
}
rwg->geoflags = Geometry::TRISTRIP |
Geometry::POSITIONS | /* 0x01 ? */
Geometry::TEXTURED | /* 0x04 ? */
Geometry::LIGHT;
if(rwg->hasColoredMaterial())
rwg->geoflags |= Geometry::MODULATE;
if(resHeader->flags & 0x2)
rwg->geoflags |= Geometry::NORMALS;
if(resHeader->flags & 0x8)
rwg->geoflags |= Geometry::PRELIT;
rwg->numTexCoordSets = 1;
rwg->allocateData();
rwg->meshHeader->allocateIndices();
Skin *skin = NULL;
if(resHeader->flags & 0x10)
assert(g->skin);
if(g->skin){
skin = new Skin;
*PLUGINOFFSET(Skin*, rwg, skinGlobals.offset) = skin;
skin->init(g->skin->numBones, g->skin->numBones, rwg->numVertices);
memcpy(skin->inverseMatrices, g->skin->invMatrices, skin->numBones*64);
}
for(uint32 i = 0; i < rwg->meshHeader->numMeshes; i++)
meshes[i].numIndices = 0;
rwg->meshHeader->totalIndices = rwg->numVertices = 0;
for(int32 i = 0; i < numInst; i++)
convertMesh(rwg, g, i);
for(uint32 i = 0; i < rwg->meshHeader->numMeshes; i++)
rwg->meshHeader->totalIndices += meshes[i].numIndices;
if(skin){
skin->findNumWeights(rwg->numVertices);
skin->findUsedBones(rwg->numVertices);
}
rwg->calculateBoundingSphere();
rwg->generateTriangles();
return rwa;
}
RslAtomic*
collectAtomics(RslAtomic *atomic, void *data)
{
RslAtomic ***alist = (RslAtomic***)data;
*(*alist)++ = atomic;
return atomic;
}
Clump*
convertClump(RslClump *c)
{
Clump *rwc;
Frame *rwf;
Atomic *rwa;
rslFrameList frameList;
rwc = Clump::create();
rslFrameListInitialize(&frameList, (RslFrame*)c->object.parent);
Frame **rwframes = new Frame*[frameList.numFrames];
for(int32 i = 0; i < frameList.numFrames; i++){
rwf = convertFrame(frameList.frames[i]);
rwframes[i] = rwf;
void *par = frameList.frames[i]->object.parent;
int32 parent = findPointer(par, (void**)frameList.frames, frameList.numFrames);
if(parent >= 0)
rwframes[parent]->addChild(rwf);
}
rwc->object.parent = rwframes[0];
int32 numAtomics = RslClumpGetNumAtomics(c);
RslAtomic **alist = new RslAtomic*[numAtomics];
RslAtomic **ap = &alist[0];
RslClumpForAllAtomics(c, collectAtomics, &ap);
for(int32 i = 0; i < numAtomics; i++){
rwa = convertAtomic(alist[i]);
int32 fi = findPointer(alist[i]->object.object.parent, (void**)frameList.frames, frameList.numFrames);
rwa->setFrame(rwframes[fi]);
rwc->addAtomic(rwa);
}
delete[] alist;
delete[] rwframes;
delete[] frameList.frames;
return rwc;
}
RslAtomic*
makeTextures(RslAtomic *atomic, void*)
{
RslGeometry *g = atomic->geometry;
RslMaterial *m;
for(int32 i = 0; i < g->matList.numMaterials; i++){
m = g->matList.materials[i];
if(m->texname){
RslTexture *tex = RslTextureCreate(NULL);
strncpy(tex->name, m->texname, 32);
strncpy(tex->mask, m->texname, 32);
m->texture = tex;
}
if(m->matfx && m->matfx->effectType == MatFX::ENVMAP &&
m->matfx->env.texname){
RslTexture *tex = RslTextureCreate(NULL);
strncpy(tex->name, m->matfx->env.texname, 32);
strncpy(tex->mask, m->matfx->env.texname, 32);
m->matfx->env.texture = tex;
}
}
return atomic;
}
uint8*
getPalettePS2(RslRaster *raster)
{
uint32 f = raster->ps2.flags;
uint32 w = 1 << (f & 0x3F);
uint32 h = 1 << (f>>6 & 0x3F);
uint32 d = f>>12 & 0xFF;
uint32 mip = f>>20 & 0xF;
uint8 *data = raster->ps2.data;
if(d > 8)
return NULL;
while(mip--){
data += w*h*d/8;
w /= 2;
h /= 2;
}
return data;
}
uint8*
getTexelPS2(RslRaster *raster, int32 n)
{
uint32 f = raster->ps2.flags;
uint32 w = 1 << (f & 0x3F);
uint32 h = 1 << (f>>6 & 0x3F);
uint32 d = f>>12 & 0xFF;
uint8 *data = raster->ps2.data;
for(int32 i = 0; i < n; i++){
data += w*h*d/8;
w /= 2;
h /= 2;
}
return data;
}
void
convertCLUT(uint8 *texels, uint32 w, uint32 h)
{
static uint8 map[4] = { 0x00, 0x10, 0x08, 0x18 };
for (uint32 i = 0; i < w*h; i++)
texels[i] = (texels[i] & ~0x18) | map[(texels[i] & 0x18) >> 3];
}
void
unswizzle8(uint8 *dst, uint8 *src, uint32 w, uint32 h)
{
for (uint32 y = 0; y < h; y++)
for (uint32 x = 0; x < w; x++) {
int32 block_loc = (y&(~0xF))*w + (x&(~0xF))*2;
uint32 swap_sel = (((y+2)>>2)&0x1)*4;
int32 ypos = (((y&(~3))>>1) + (y&1))&0x7;
int32 column_loc = ypos*w*2 + ((x+swap_sel)&0x7)*4;
int32 byte_sum = ((y>>1)&1) + ((x>>2)&2);
uint32 swizzled = block_loc + column_loc + byte_sum;
dst[y*w+x] = src[swizzled];
}
}
void
unswizzle16(uint16 *dst, uint16 *src, int32 w, int32 h)
{
for(int y = 0; y < h; y++)
for(int x = 0; x < w; x++){
int32 pageX = x & (~0x3f);
int32 pageY = y & (~0x3f);
int32 pages_horz = (w+63)/64;
int32 pages_vert = (h+63)/64;
int32 page_number = (pageY/64)*pages_horz + (pageX/64);
int32 page32Y = (page_number/pages_vert)*32;
int32 page32X = (page_number%pages_vert)*64;
int32 page_location = (page32Y*h + page32X)*2;
int32 locX = x & 0x3f;
int32 locY = y & 0x3f;
int32 block_location = (locX&(~0xf))*h + (locY&(~0x7))*2;
int32 column_location = ((y&0x7)*h + (x&0x7))*2;
int32 short_num = (x>>3)&1; // 0,1
uint32 swizzled = page_location + block_location +
column_location + short_num;
dst[y*w+x] = src[swizzled];
}
}
bool32 unswizzle = 1;
void
convertTo32(uint8 *out, uint8 *pal, uint8 *tex,
uint32 w, uint32 h, uint32 d, bool32 swiz)
{
uint32 x;
if(d == 32){
//uint32 *dat = new uint32[w*h];
//if(swiz && unswizzle)
// unswizzle8_hack(dat, (uint32*)tex, w, h);
//else
// memcpy(dat, tex, w*h*4);
//tex = (uint8*)dat;
for(uint32 i = 0; i < w*h; i++){
out[i*4+0] = tex[i*4+0];
out[i*4+1] = tex[i*4+1];
out[i*4+2] = tex[i*4+2];
out[i*4+3] = tex[i*4+3]*255/128;
}
//delete[] dat;
}
if(d == 16) return; // TODO
if(d == 8){
uint8 *dat = new uint8[w*h];
if(swiz && unswizzle)
unswizzle8(dat, tex, w, h);
else
memcpy(dat, tex, w*h);
tex = dat;
convertCLUT(tex, w, h);
for(uint32 i = 0; i < h; i++)
for(uint32 j = 0; j < w; j++){
x = *tex++;
*out++ = pal[x*4+0];
*out++ = pal[x*4+1];
*out++ = pal[x*4+2];
*out++ = pal[x*4+3]*255/128;
}
delete[] dat;
}
if(d == 4){
uint8 *dat = new uint8[w*h];
for(uint32 i = 0; i < w*h/2; i++){
dat[i*2+0] = tex[i] & 0xF;
dat[i*2+1] = tex[i] >> 4;
}
if(swiz && unswizzle){
uint8 *tmp = new uint8[w*h];
unswizzle8(tmp, dat, w, h);
delete[] dat;
dat = tmp;
}
tex = dat;
for(uint32 i = 0; i < h; i++)
for(uint32 j = 0; j < w; j++){
x = *tex++;
*out++ = pal[x*4+0];
*out++ = pal[x*4+1];
*out++ = pal[x*4+2];
*out++ = pal[x*4+3]*255/128;
}
delete[] dat;
}
}
RslTexture *dumpTextureCB(RslTexture *texture, void*)
{
uint32 f = texture->raster->ps2.flags;
uint32 w = 1 << (f & 0x3F);
uint32 h = 1 << (f>>6 & 0x3F);
uint32 d = f>>12 & 0xFF;
uint32 mip = f>>20 & 0xF;
uint32 swizmask = f>>24;
uint8 *palette = getPalettePS2(texture->raster);
uint8 *texels = getTexelPS2(texture->raster, 0);
printf(" %x %x %x %x %x %s\n", w, h, d, mip, swizmask, texture->name);
Image *img = Image::create(w, h, 32);
img->allocate();
convertTo32(img->pixels, palette, texels, w, h, d, swizmask&1);
char *name = new char[strlen(texture->name)+5];
strcpy(name, texture->name);
strcat(name, ".tga");
writeTGA(img, name);
img->destroy();
delete[] name;
return texture;
}
RslTexture*
convertTexturePS2(RslTexture *texture, void *pData)
{
TexDictionary *rwtxd = (TexDictionary*)pData;
Texture *rwtex = Texture::create(NULL);
RslRasterPS2 *ras = &texture->raster->ps2;
strncpy(rwtex->name, texture->name, 32);
strncpy(rwtex->mask, texture->mask, 32);
rwtex->filterAddressing = 0x1102;
uint32 f = ras->flags;
uint32 w = 1 << (f & 0x3F);
uint32 h = 1 << (f>>6 & 0x3F);
uint32 d = f>>12 & 0xFF;
//uint32 mip = f>>20 & 0xF;
uint32 swizmask = f>>24;
uint8 *palette = getPalettePS2(texture->raster);
uint8 *texels = getTexelPS2(texture->raster, 0);
int32 hasAlpha = 0;
uint8 *convtex = NULL;
if(d == 4){
convtex = new uint8[w*h];
for(uint32 i = 0; i < w*h/2; i++){
int32 a = texels[i] & 0xF;
int32 b = texels[i] >> 4;
if(palette[a*4+3] != 0x80)
hasAlpha = 1;
if(palette[b*4+3] != 0x80)
hasAlpha = 1;
convtex[i*2+0] = a;
convtex[i*2+1] = b;
}
if(swizmask & 1 && unswizzle){
uint8 *tmp = new uint8[w*h];
unswizzle8(tmp, convtex, w, h);
delete[] convtex;
convtex = tmp;
}
}else if(d == 8){
convtex = new uint8[w*h];
if(swizmask & 1 && unswizzle)
unswizzle8(convtex, texels, w, h);
else
memcpy(convtex, texels, w*h);
convertCLUT(convtex, w, h);
for(uint32 i = 0; i < w*h; i++)
if(palette[convtex[i]*4+3] != 0x80){
hasAlpha = 1;
break;
}
}
int32 format = 0;
switch(d){
case 4:
case 8:
format |= Raster::PAL8;
goto alpha32;
case 32:
for(uint32 i = 0; i < w*h; i++)
if(texels[i*4+3] != 0x80){
hasAlpha = 1;
break;
}
alpha32:
if(hasAlpha)
format |= Raster::C8888;
else
format |= Raster::C888;
break;
default:
fprintf(stderr, "unsupported depth %d\n", d);
return NULL;
}
Raster *rwras = Raster::create(w, h, d == 4 ? 8 : d, format | 4, PLATFORM_D3D8);
d3d::D3dRaster *d3dras = PLUGINOFFSET(d3d::D3dRaster, rwras, d3d::nativeRasterOffset);
int32 pallen = d == 4 ? 16 :
d == 8 ? 256 : 0;
if(pallen){
uint8 *p = new uint8[256*4];
for(int32 i = 0; i < pallen; i++){
p[i*4+0] = palette[i*4+0];
p[i*4+1] = palette[i*4+1];
p[i*4+2] = palette[i*4+2];
p[i*4+3] = palette[i*4+3]*255/128;
}
memcpy(d3dras->palette, p, 256*4);
delete[] p;
}
uint8 *data = rwras->lock(0);
if(d == 4 || d == 8)
memcpy(data, convtex, w*h);
else if(d == 32){
// texture is fucked, but pretend it isn't
for(uint32 i = 0; i < w*h; i++){
data[i*4+2] = texels[i*4+0];
data[i*4+1] = texels[i*4+1];
data[i*4+0] = texels[i*4+2];
data[i*4+3] = texels[i*4+3]*255/128;
}
}else
memcpy(data, texels, w*h*d/8);
rwras->unlock(0);
rwtex->raster = rwras;
delete[] convtex;
rwtxd->add(rwtex);
return texture;
}
TexDictionary*
convertTXD(RslTexDictionary *txd)
{
TexDictionary *rwtxd = TexDictionary::create();
RslTexDictionaryForAllTextures(txd, convertTexturePS2, rwtxd);
return rwtxd;
}
void
usage(void)
{
fprintf(stderr, "%s [-v version] [-x] [-s] input [output.{txd|dff}]\n", argv0);
fprintf(stderr, "\t-v RW version, e.g. 33004 for 3.3.0.4\n");
fprintf(stderr, "\t-x extract textures to tga\n");
fprintf(stderr, "\t-s don't unswizzle textures\n");
exit(1);
}
int
main(int argc, char *argv[])
{
gta::attachPlugins();
rw::version = 0x34003;
rw::platform = PLATFORM_D3D8;
assert(sizeof(void*) == 4);
int extract = 0;
ARGBEGIN{
case 'v':
sscanf(EARGF(usage()), "%x", &rw::version);
break;
case 's':
unswizzle = 0;
break;
case 'x':
extract++;
break;
default:
usage();
}ARGEND;
if(argc < 1)
usage();
World *world = NULL;
Sector *sector = NULL;
RslClump *clump = NULL;
RslAtomic *atomic = NULL;
RslTexDictionary *txd = NULL;
StreamFile stream;
assert(stream.open(argv[0], "rb"));
uint32 ident = stream.readU32();
stream.seek(0, 0);
if(ident == ID_TEXDICTIONARY){
findChunk(&stream, ID_TEXDICTIONARY, NULL, NULL);
txd = RslTexDictionaryStreamRead(&stream);
stream.close();
assert(txd);
goto writeTxd;
}
if(ident == ID_CLUMP){
findChunk(&stream, ID_CLUMP, NULL, NULL);
clump = RslClumpStreamRead(&stream);
stream.close();
assert(clump);
goto writeDff;
}
RslStream *rslstr;
rslstr = new RslStream;
stream.read(rslstr, 0x20);
rslstr->data = new uint8[rslstr->fileSize-0x20];
stream.read(rslstr->data, rslstr->fileSize-0x20);
stream.close();
rslstr->relocate();
bool32 largefile;
largefile = rslstr->dataSize > 0x1000000;
if(rslstr->ident == WRLD_IDENT && largefile){ // hack
world = (World*)rslstr->data;
int len = strlen(argv[0])+1;
char filename[1024];
strncpy(filename, argv[0], len);
filename[len-3] = 'i';
filename[len-2] = 'm';
filename[len-1] = 'g';
filename[len] = '\0';
assert(stream.open(filename, "rb"));
filename[len-4] = '\\';
filename[len-3] = '\0';
char name[1024];
uint8 *data;
StreamFile outf;
RslStreamHeader *h;
uint32 i = 0;
for(h = world->sectors->sector; h->ident == WRLD_IDENT; h++){
sprintf(name, "world%04d.wrld", i++);
strcat(filename, name);
assert(outf.open(filename, "wb"));
data = new uint8[h->fileEnd];
memcpy(data, h, 0x20);
stream.seek(h->root, 0);
stream.read(data+0x20, h->fileEnd-0x20);
outf.write(data, h->fileEnd);
outf.close();
filename[len-3] = '\0';
}
// radar textures
h = world->textures;
for(i = 0; i < world->numTextures; i++){
sprintf(name, "txd%04d.chk", i);
strcat(filename, name);
assert(outf.open(filename, "wb"));
data = new uint8[h->fileEnd];
memcpy(data, h, 0x20);
stream.seek(h->root, 0);
stream.read(data+0x20, h->fileEnd-0x20);
outf.write(data, h->fileEnd);
outf.close();
filename[len-3] = '\0';
h++;
}
stream.close();
}else if(rslstr->ident == WRLD_IDENT){ // sector
sector = (Sector*)rslstr->data;
fprintf(stderr, "%d\n",sector->unk1);
//printf("resources\n");
//for(uint32 i = 0; i < sector->numResources; i++){
// OverlayResource *r = &sector->resources[i];
// printf(" %d %p\n", r->id, r->raw);
//}
//printf("placement\n");
if(sector->unk1 == 0)
return 0;
Placement *p;
//for(p = sector->sectionA; p < sector->sectionEnd; p++){
// printf(" %d, %d, %f %f %f\n", p->id &0x7FFF, p->resId, p->matrix[12], p->matrix[13], p->matrix[14]);
//}
for(p = sector->sectionA; p < sector->sectionEnd; p++)
printf("%f %f %f\n", p->matrix[12], p->matrix[13], p->matrix[14]);
}else if(rslstr->ident == MDL_IDENT){
uint8 *p;
p = *rslstr->hashTab;
p -= 0x24;
atomic = (RslAtomic*)p;
clump = atomic->clump;
Clump *rwc;
if(clump){
RslClumpForAllAtomics(clump, makeTextures, NULL);
//RslClumpForAllAtomics(clump, dumpAtomicCB, NULL);
//RslFrameForAllChildren(RslClumpGetFrame(clump), dumpFrameCB, NULL);
}else{
makeTextures(atomic, NULL);
clump = RslClumpCreate();
RslAtomicSetFrame(atomic, RslFrameCreate());
RslClumpSetFrame(clump, RslAtomicGetFrame(atomic));
RslClumpAddAtomic(clump, atomic);
//dumpAtomicCB(a, NULL);
//RslFrameForAllChildren(RslAtomicGetFrame(atomic), dumpFrameCB, NULL);
}
writeDff:
rwc = convertClump(clump);
if(argc > 1)
assert(stream.open(argv[1], "wb"));
else
assert(stream.open("out.dff", "wb"));
rwc->streamWrite(&stream);
stream.close();
}else if(rslstr->ident == TEX_IDENT){
txd = (RslTexDictionary*)rslstr->data;
writeTxd:
if(extract)
RslTexDictionaryForAllTextures(txd, dumpTextureCB, NULL);
TexDictionary *rwtxd = convertTXD(txd);
if(argc > 1)
assert(stream.open(argv[1], "wb"));
else
assert(stream.open("out.txd", "wb"));
rwtxd->streamWrite(&stream);
stream.close();
}
return 0;
}
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