librw/src/rwobjects.h

877 lines
21 KiB
C++

#include <stddef.h>
namespace rw {
struct Object
{
uint8 type;
uint8 subType;
uint8 flags;
uint8 privateFlags;
void *parent;
void init(uint8 type, uint8 subType){
this->type = type;
this->subType = subType;
this->flags = 0;
this->privateFlags = 0;
this->parent = nil;
}
void copy(Object *o){
this->type = o->type;
this->subType = o->subType;
this->flags = o->flags;
this->privateFlags = o->privateFlags;
this->parent = nil;
}
};
struct Frame
{
PLUGINBASE
typedef Frame *(*Callback)(Frame *f, void *data);
enum { ID = 0 };
enum { // private flags
// The hierarchy has unsynched frames
HIERARCHYSYNCLTM = 0x01, // LTM not synched
HIERARCHYSYNCOBJ = 0x02, // attached objects not synched
HIERARCHYSYNC = HIERARCHYSYNCLTM | HIERARCHYSYNCOBJ,
// This frame is not synched
SUBTREESYNCLTM = 0x04,
SUBTREESYNCOBJ = 0x08,
SUBTREESYNC = SUBTREESYNCLTM | SUBTREESYNCOBJ,
SYNCLTM = HIERARCHYSYNCLTM | SUBTREESYNCLTM,
SYNCOBJ = HIERARCHYSYNCOBJ | SUBTREESYNCOBJ
// STATIC = 0x10
};
Object object;
LLLink inDirtyList;
LinkList objectList;
Matrix matrix;
Matrix ltm;
Frame *child;
Frame *next;
Frame *root;
static int32 numAllocated;
static Frame *create(void);
Frame *cloneHierarchy(void);
void destroy(void);
void destroyHierarchy(void);
Frame *addChild(Frame *f, bool32 append = 0);
Frame *removeChild(void);
Frame *forAllChildren(Callback cb, void *data);
Frame *getParent(void) const {
return (Frame*)this->object.parent; }
int32 count(void);
bool32 dirty(void) const {
return !!(this->root->object.privateFlags & HIERARCHYSYNC); }
Matrix *getLTM(void);
void rotate(const V3d *axis, float32 angle, CombineOp op);
void translate(const V3d *trans, CombineOp op);
void scale(const V3d *scale, CombineOp op);
void transform(const Matrix *mat, CombineOp op);
void updateObjects(void);
void syncHierarchyLTM(void);
void setHierarchyRoot(Frame *root);
Frame *cloneAndLink(void);
void purgeClone(void);
#ifndef RWPUBLIC
static void registerModule(void);
#endif
static void syncDirty(void);
};
struct FrameList_
{
int32 numFrames;
Frame **frames;
FrameList_ *streamRead(Stream *stream);
void streamWrite(Stream *stream);
static uint32 streamGetSize(Frame *f);
};
Frame **makeFrameList(Frame *frame, Frame **flist);
struct ObjectWithFrame
{
typedef void (*Sync)(ObjectWithFrame*);
Object object;
LLLink inFrame;
Sync syncCB;
void setFrame(Frame *f){
if(this->object.parent)
this->inFrame.remove();
this->object.parent = f;
if(f){
f->objectList.add(&this->inFrame);
f->updateObjects();
}
}
void sync(void){ this->syncCB(this); }
static ObjectWithFrame *fromFrame(LLLink *lnk){
return LLLinkGetData(lnk, ObjectWithFrame, inFrame);
}
};
struct Image
{
int32 flags;
int32 width, height;
int32 depth;
int32 bpp; // bytes per pixel
int32 stride;
uint8 *pixels;
uint8 *palette;
static int32 numAllocated;
static Image *create(int32 width, int32 height, int32 depth);
void destroy(void);
void allocate(void);
void free(void);
void setPixels(uint8 *pixels);
void setPixelsDXT(int32 type, uint8 *pixels);
void setPalette(uint8 *palette);
void compressPalette(void); // turn 8 bit into 4 bit if possible
bool32 hasAlpha(void);
void convertTo32(void);
void palettize(int32 depth);
void unpalettize(bool forceAlpha = false);
void makeMask(void);
void applyMask(Image *mask);
void removeMask(void);
Image *extractMask(void);
static void setSearchPath(const char*);
static void printSearchPath(void);
static char *getFilename(const char*);
static Image *read(const char *imageName);
static Image *readMasked(const char *imageName, const char *maskName);
typedef Image *(*fileRead)(const char *afilename);
typedef void (*fileWrite)(Image *image, const char *filename);
static bool32 registerFileFormat(const char *ext, fileRead read, fileWrite write);
#ifndef RWPUBLIC
static void registerModule(void);
#endif
};
Image *readTGA(const char *filename);
void writeTGA(Image *image, const char *filename);
Image *readBMP(const char *filename);
void writeBMP(Image *image, const char *filename);
Image *readPNG(const char *filename);
void writePNG(Image *image, const char *filename);
enum { QUANTDEPTH = 8 };
struct ColorQuant
{
struct Node {
uint32 r, g, b, a;
int32 numPixels;
Node *parent;
Node *children[16];
LLLink link;
void destroy(void);
void addColor(RGBA color);
bool isLeaf(void) { for(int32 i = 0; i < 16; i++) if(this->children[i]) return false; return true; }
};
Node *root;
LinkList leaves;
void init(void);
void destroy(void);
Node *createNode(int32 level);
Node *getNode(Node *root, uint32 addr, int32 level);
Node *findNode(Node *root, uint32 addr, int32 level);
void reduceNode(Node *node);
void addColor(RGBA color);
uint8 findColor(RGBA color);
void addImage(Image *img);
void makePalette(int32 numColors, RGBA *colors);
void matchImage(uint8 *dstPixels, uint32 dstStride, Image *src);
};
// used to emulate d3d and xbox textures
struct RasterLevels
{
int32 numlevels;
uint32 format;
struct Level {
int32 width, height, size;
uint8 *data;
} levels[1]; // 0 is illegal :/
};
struct Raster
{
enum { FLIPWAITVSYNCH = 1 };
PLUGINBASE
int32 platform;
// TODO: use bytes
int32 type;
int32 flags;
int32 privateFlags;
int32 format;
int32 width, height, depth;
int32 stride;
uint8 *pixels;
uint8 *palette;
// remember for locked rasters
uint8 *originalPixels;
int32 originalWidth;
int32 originalHeight;
int32 originalStride;
// subraster
Raster *parent;
int32 offsetX, offsetY;
static int32 numAllocated;
static Raster *create(int32 width, int32 height, int32 depth,
int32 format, int32 platform = 0);
void subRaster(Raster *parent, Rect *r);
void destroy(void);
static bool32 imageFindRasterFormat(Image *image, int32 type,
int32 *pWidth, int32 *pHeight, int32 *pDepth, int32 *pFormat, int32 platform = 0);
Raster *setFromImage(Image *image, int32 platform = 0);
static Raster *createFromImage(Image *image, int32 platform = 0);
Image *toImage(void);
uint8 *lock(int32 level, int32 lockMode);
void unlock(int32 level);
uint8 *lockPalette(int32 lockMode);
void unlockPalette(void);
int32 getNumLevels(void);
static int32 calculateNumLevels(int32 width, int32 height);
static bool formatHasAlpha(int32 format);
void show(uint32 flags);
static Raster *pushContext(Raster *raster);
static Raster *popContext(void);
static Raster *getCurrentContext(void);
bool32 renderFast(int32 x, int32 y);
#ifndef RWPUBLIC
static void registerModule(void);
#endif
enum Format {
DEFAULT = 0,
C1555 = 0x0100,
C565 = 0x0200,
C4444 = 0x0300,
LUM8 = 0x0400,
C8888 = 0x0500,
C888 = 0x0600,
D16 = 0x0700,
D24 = 0x0800,
D32 = 0x0900,
C555 = 0x0A00,
AUTOMIPMAP = 0x1000,
PAL8 = 0x2000,
PAL4 = 0x4000,
MIPMAP = 0x8000
};
enum Type {
NORMAL = 0x00,
ZBUFFER = 0x01,
CAMERA = 0x02,
TEXTURE = 0x04,
CAMERATEXTURE = 0x05,
DONTALLOCATE = 0x80
};
enum LockMode {
LOCKWRITE = 1,
LOCKREAD = 2,
LOCKNOFETCH = 4, // don't fetch pixel data
LOCKRAW = 8,
};
};
void conv_RGBA8888_from_RGBA8888(uint8 *out, uint8 *in);
void conv_RGBA8888_from_RGB888(uint8 *out, uint8 *in);
void conv_RGB888_from_RGB888(uint8 *out, uint8 *in);
void conv_RGBA5551_from_ARGB1555(uint8 *out, uint8 *in);
void conv_RGBA8888_from_ARGB1555(uint8 *out, uint8 *in);
void conv_ABGR1555_from_ARGB1555(uint8 *out, uint8 *in);
inline void conv_ARGB1555_from_ABGR1555(uint8 *out, uint8 *in) { conv_ABGR1555_from_ARGB1555(out, in); }
void expandPal4(uint8 *dst, uint32 dststride, uint8 *src, uint32 srcstride, int32 w, int32 h);
void compressPal4(uint8 *dst, uint32 dststride, uint8 *src, uint32 srcstride, int32 w, int32 h);
void expandPal4_BE(uint8 *dst, uint32 dststride, uint8 *src, uint32 srcstride, int32 w, int32 h);
void compressPal4_BE(uint8 *dst, uint32 dststride, uint8 *src, uint32 srcstride, int32 w, int32 h);
void copyPal8(uint8 *dst, uint32 dststride, uint8 *src, uint32 srcstride, int32 w, int32 h);
#define IGNORERASTERIMP 0
struct TexDictionary;
struct Texture
{
enum FilterMode {
NEAREST = 1,
LINEAR,
MIPNEAREST,
MIPLINEAR,
LINEARMIPNEAREST,
LINEARMIPLINEAR
};
enum Addressing {
WRAP = 1,
MIRROR,
CLAMP,
BORDER
};
PLUGINBASE
Raster *raster;
TexDictionary *dict;
LLLink inDict;
char name[32];
char mask[32];
uint32 filterAddressing; // VVVVUUUU FFFFFFFF
int32 refCount;
LLLink inGlobalList; // actually not in RW
static int32 numAllocated;
static Texture *create(Raster *raster);
void addRef(void) { this->refCount++; }
void destroy(void);
static Texture *fromDict(LLLink *lnk){
return LLLinkGetData(lnk, Texture, inDict); }
FilterMode getFilter(void) { return (FilterMode)(filterAddressing & 0xFF); }
void setFilter(FilterMode f) { filterAddressing = (filterAddressing & ~0xFF) | f; }
Addressing getAddressU(void) { return (Addressing)((filterAddressing >> 8) & 0xF); }
Addressing getAddressV(void) { return (Addressing)((filterAddressing >> 12) & 0xF); }
void setAddressU(Addressing u) { filterAddressing = (filterAddressing & ~0xF00) | u<<8; }
void setAddressV(Addressing v) { filterAddressing = (filterAddressing & ~0xF000) | v<<12; }
static Texture *streamRead(Stream *stream);
bool streamWrite(Stream *stream);
uint32 streamGetSize(void);
static Texture *read(const char *name, const char *mask);
static Texture *streamReadNative(Stream *stream);
void streamWriteNative(Stream *stream);
uint32 streamGetSizeNative(void);
static Texture *(*findCB)(const char *name);
static Texture *(*readCB)(const char *name, const char *mask);
static void setLoadTextures(bool32); // default: true
static void setCreateDummies(bool32); // default: false
static void setMipmapping(bool32); // default: false
static void setAutoMipmapping(bool32); // default: false
static bool32 getMipmapping(void);
static bool32 getAutoMipmapping(void);
#ifndef RWPUBLIC
static void registerModule(void);
#endif
};
struct SurfaceProperties
{
float32 ambient;
float32 specular;
float32 diffuse;
};
struct Material
{
PLUGINBASE
Texture *texture;
RGBA color;
SurfaceProperties surfaceProps;
Pipeline *pipeline;
int32 refCount;
static int32 numAllocated;
static Material *create(void);
void addRef(void) { this->refCount++; }
Material *clone(void);
void destroy(void);
void setTexture(Texture *tex);
static Material *streamRead(Stream *stream);
bool streamWrite(Stream *stream);
uint32 streamGetSize(void);
};
void registerMaterialRightsPlugin(void);
struct Mesh
{
uint16 *indices;
uint32 numIndices;
Material *material;
};
struct MeshHeader
{
enum {
TRISTRIP = 1
};
uint32 flags;
uint16 numMeshes;
uint16 serialNum;
uint32 totalIndices;
uint32 pad; // needed for alignment of Meshes
// after this the meshes
Mesh *getMeshes(void) { return (Mesh*)(this+1); }
void setupIndices(void);
uint32 guessNumTriangles(void);
};
struct Geometry;
struct MorphTarget
{
Geometry *parent;
Sphere boundingSphere;
V3d *vertices;
V3d *normals;
Sphere calculateBoundingSphere(void) const;
};
struct InstanceDataHeader
{
uint32 platform;
};
struct Triangle
{
uint16 v[3];
uint16 matId;
};
struct MaterialList
{
Material **materials;
int32 numMaterials;
int32 space;
void init(void);
void deinit(void);
int32 appendMaterial(Material *mat);
int32 findIndex(Material *mat);
static MaterialList *streamRead(Stream *stream, MaterialList *matlist);
bool streamWrite(Stream *stream);
uint32 streamGetSize(void);
};
struct Geometry
{
PLUGINBASE
enum { ID = 8 };
Object object;
uint32 flags;
uint16 lockedSinceInst;
int32 numTriangles;
int32 numVertices;
int32 numMorphTargets;
int32 numTexCoordSets;
Triangle *triangles;
RGBA *colors;
TexCoords *texCoords[8];
MorphTarget *morphTargets;
MaterialList matList;
MeshHeader *meshHeader;
InstanceDataHeader *instData;
int32 refCount;
static int32 numAllocated;
static Geometry *create(int32 numVerts, int32 numTris, uint32 flags);
void addRef(void) { this->refCount++; }
void destroy(void);
void lock(int32 lockFlags);
void unlock(void);
void addMorphTargets(int32 n);
void calculateBoundingSphere(void);
bool32 hasColoredMaterial(void);
void allocateData(void);
MeshHeader *allocateMeshes(int32 numMeshes, uint32 numIndices, bool32 noIndices);
void generateTriangles(int8 *adc = nil);
void buildMeshes(void);
void buildTristrips(void); // private, used by buildMeshes
void correctTristripWinding(void);
void removeUnusedMaterials(void);
static Geometry *streamRead(Stream *stream);
bool streamWrite(Stream *stream);
uint32 streamGetSize(void);
enum Flags
{
TRISTRIP = 0x01,
POSITIONS = 0x02,
TEXTURED = 0x04,
PRELIT = 0x08,
NORMALS = 0x10,
LIGHT = 0x20,
MODULATE = 0x40,
TEXTURED2 = 0x80,
// When this flag is set the geometry has
// native geometry. When streamed out this geometry
// is written out instead of the platform independent data.
// When streamed in with this flag, the geometry is mostly empty.
NATIVE = 0x01000000,
// Just for documentation: RW sets this flag
// to prevent rendering when executing a pipeline,
// so only instancing will occur.
// librw's pipelines are different so it's unused here.
NATIVEINSTANCE = 0x02000000
};
enum LockFlags
{
LOCKPOLYGONS = 0x0001,
LOCKVERTICES = 0x0002,
LOCKNORMALS = 0x0004,
LOCKPRELIGHT = 0x0008,
LOCKTEXCOORDS = 0x0010,
LOCKTEXCOORDS1 = 0x0010,
LOCKTEXCOORDS2 = 0x0020,
LOCKTEXCOORDS3 = 0x0040,
LOCKTEXCOORDS4 = 0x0080,
LOCKTEXCOORDS5 = 0x0100,
LOCKTEXCOORDS6 = 0x0200,
LOCKTEXCOORDS7 = 0x0400,
LOCKTEXCOORDS8 = 0x0800,
LOCKTEXCOORDSALL = 0x0ff0,
LOCKALL = 0x0fff
};
};
void registerMeshPlugin(void);
void registerNativeDataPlugin(void);
struct Clump;
struct World;
struct Atomic
{
PLUGINBASE
typedef void (*RenderCB)(Atomic *atomic);
enum { ID = 1 };
enum {
// flags
COLLISIONTEST = 0x01, // unused here
RENDER = 0x04,
// private flags
WORLDBOUNDDIRTY = 0x01,
// for setGeometry
SAMEBOUNDINGSPHERE = 0x01
};
ObjectWithFrame object;
Geometry *geometry;
Sphere boundingSphere;
Sphere worldBoundingSphere;
Clump *clump;
LLLink inClump;
ObjPipeline *pipeline;
RenderCB renderCB;
World *world;
ObjectWithFrame::Sync originalSync;
static int32 numAllocated;
static Atomic *create(void);
Atomic *clone(void);
void destroy(void);
void setFrame(Frame *f) {
this->object.setFrame(f);
this->object.object.privateFlags |= WORLDBOUNDDIRTY;
}
Frame *getFrame(void) const { return (Frame*)this->object.object.parent; }
static Atomic *fromClump(LLLink *lnk){
return LLLinkGetData(lnk, Atomic, inClump); }
void setGeometry(Geometry *geo, uint32 flags);
Sphere *getWorldBoundingSphere(void);
ObjPipeline *getPipeline(void);
void instance(void);
void uninstance(void);
void render(void) { this->renderCB(this); }
void setRenderCB(RenderCB renderCB){
this->renderCB = renderCB;
if(this->renderCB == nil)
this->renderCB = defaultRenderCB;
};
void setFlags(uint32 flags) { this->object.object.flags = flags; }
uint32 getFlags(void) const { return this->object.object.flags; }
static Atomic *streamReadClump(Stream *stream,
FrameList_ *frameList, Geometry **geometryList);
bool streamWriteClump(Stream *stream, FrameList_ *frmlst);
uint32 streamGetSize(void);
static void defaultRenderCB(Atomic *atomic);
};
void registerAtomicRightsPlugin(void);
struct Light
{
PLUGINBASE
enum { ID = 3 };
ObjectWithFrame object;
float32 radius;
RGBAf color;
float32 minusCosAngle;
LLLink inWorld;
// clump extension
Clump *clump;
LLLink inClump;
// world extension
World *world;
ObjectWithFrame::Sync originalSync;
static int32 numAllocated;
static Light *create(int32 type);
void destroy(void);
void setFrame(Frame *f) { this->object.setFrame(f); }
Frame *getFrame(void) const { return (Frame*)this->object.object.parent; }
static Light *fromClump(LLLink *lnk){
return LLLinkGetData(lnk, Light, inClump); }
static Light *fromWorld(LLLink *lnk){
return LLLinkGetData(lnk, Light, inWorld); }
void setAngle(float32 angle);
float32 getAngle(void);
void setColor(float32 r, float32 g, float32 b);
int32 getType(void){ return this->object.object.subType; }
void setFlags(uint32 flags) { this->object.object.flags = flags; }
uint32 getFlags(void) { return this->object.object.flags; }
static Light *streamRead(Stream *stream);
bool streamWrite(Stream *stream);
uint32 streamGetSize(void);
enum Type {
DIRECTIONAL = 1,
AMBIENT,
POINT = 0x80, // positioned
SPOT,
SOFTSPOT
};
enum Flags {
LIGHTATOMICS = 1,
LIGHTWORLD = 2
};
};
struct FrustumPlane
{
Plane plane;
/* Used for BBox tests:
* 0 = inf is closer to normal direction
* 1 = sup is closer to normal direction */
uint8 closestX;
uint8 closestY;
uint8 closestZ;
};
struct Camera
{
PLUGINBASE
enum { ID = 4 };
enum { PERSPECTIVE = 1, PARALLEL };
enum { CLEARIMAGE = 0x1, CLEARZ = 0x2};
// return value of frustumTestSphere
enum { SPHEREOUTSIDE, SPHEREBOUNDARY, SPHEREINSIDE };
ObjectWithFrame object;
void (*beginUpdateCB)(Camera*);
void (*endUpdateCB)(Camera*);
V2d viewWindow;
V2d viewOffset;
float32 nearPlane, farPlane;
float32 fogPlane;
int32 projection;
Matrix viewMatrix;
float32 zScale, zShift;
FrustumPlane frustumPlanes[6];
V3d frustumCorners[8];
BBox frustumBoundBox;
Raster *frameBuffer;
Raster *zBuffer;
// Device dependant view and projection matrices
// optional
RawMatrix devView;
RawMatrix devProj;
// clump link handled by plugin in RW
Clump *clump;
LLLink inClump;
// world extension
/* RW: frustum sectors, space, position */
World *world;
ObjectWithFrame::Sync originalSync;
void (*originalBeginUpdate)(Camera*);
void (*originalEndUpdate)(Camera*);
static int32 numAllocated;
static Camera *create(void);
Camera *clone(void);
void destroy(void);
void setFrame(Frame *f) { this->object.setFrame(f); }
Frame *getFrame(void)const { return (Frame*)this->object.object.parent; }
static Camera *fromClump(LLLink *lnk){
return LLLinkGetData(lnk, Camera, inClump); }
void beginUpdate(void) { this->beginUpdateCB(this); }
void endUpdate(void) { this->endUpdateCB(this); }
void clear(RGBA *col, uint32 mode);
void showRaster(uint32 flags);
void setNearPlane(float32);
void setFarPlane(float32);
void setViewWindow(const V2d *window);
void setViewOffset(const V2d *offset);
void setProjection(int32 proj);
int32 frustumTestSphere(const Sphere *s) const;
static Camera *streamRead(Stream *stream);
bool streamWrite(Stream *stream);
uint32 streamGetSize(void);
// fov in degrees
void setFOV(float32 fov, float32 ratio);
};
struct Clump
{
PLUGINBASE
enum { ID = 2 };
Object object;
LinkList atomics;
LinkList lights;
LinkList cameras;
World *world;
LLLink inWorld;
static int32 numAllocated;
static Clump *create(void);
Clump *clone(void);
void destroy(void);
static Clump *fromWorld(LLLink *lnk){
return LLLinkGetData(lnk, Clump, inWorld); }
int32 countAtomics(void) { return this->atomics.count(); }
void addAtomic(Atomic *a);
void removeAtomic(Atomic *a);
int32 countLights(void) { return this->lights.count(); }
void addLight(Light *l);
void removeLight(Light *l);
int32 countCameras(void) { return this->cameras.count(); }
void addCamera(Camera *c);
void removeCamera(Camera *c);
void setFrame(Frame *f){
this->object.parent = f; }
Frame *getFrame(void) const {
return (Frame*)this->object.parent; }
static Clump *streamRead(Stream *stream);
bool streamWrite(Stream *stream);
uint32 streamGetSize(void);
void render(void);
};
// used by enumerateLights for lighting callback
struct WorldLights
{
int32 numAmbients;
RGBAf ambient; // all ambients added
int32 numDirectionals;
Light **directionals; // only directionals
int32 numLocals;
Light **locals; // points, (soft)spots
};
// A bit of a stub right now
struct World
{
PLUGINBASE
enum { ID = 7 };
Object object;
LinkList localLights; // these have positions (type >= 0x80)
LinkList globalLights; // these do not (type < 0x80)
LinkList clumps;
static int32 numAllocated;
static World *create(void);
void destroy(void);
void addLight(Light *light);
void removeLight(Light *light);
void addCamera(Camera *cam);
void removeCamera(Camera *cam);
void addAtomic(Atomic *atomic);
void removeAtomic(Atomic *atomic);
void addClump(Clump *clump);
void removeClump(Clump *clump);
void render(void);
void enumerateLights(Atomic *atomic, WorldLights *lightData);
};
struct TexDictionary
{
PLUGINBASE
enum { ID = 6 };
Object object;
LinkList textures;
LLLink inGlobalList;
static int32 numAllocated;
static TexDictionary *create(void);
static TexDictionary *fromLink(LLLink *lnk){
return LLLinkGetData(lnk, TexDictionary, inGlobalList); }
void destroy(void);
int32 count(void) { return this->textures.count(); }
void add(Texture *t);
void addFront(Texture *t);
void remove(Texture *t);
Texture *find(const char *name);
static TexDictionary *streamRead(Stream *stream);
void streamWrite(Stream *stream);
uint32 streamGetSize(void);
static void setCurrent(TexDictionary *txd);
static TexDictionary *getCurrent(void);
};
}