gzdoom-gles/src/textures/textures.h
Christoph Oelckers 08fe9c375b - use the same formula for calculating 3DMidTex offsets as the renderer when per-sidedef scaling is used.
This reuses the FTexCoordInfo class the hardware renderer had been using to calculate wall texture offsetting.
The software renderers still need this sorted out to bring them in line with the rest of the code, though, but they do not have this code sufficiently well organized to make this a straightforward task.
2018-11-17 18:24:14 +01:00

826 lines
26 KiB
C++

/*
** textures.h
**
**---------------------------------------------------------------------------
** Copyright 2005-2016 Randy Heit
** Copyright 2005-2016 Christoph Oelckers
** All rights reserved.
**
** Redistribution and use in source and binary forms, with or without
** modification, are permitted provided that the following conditions
** are met:
**
** 1. Redistributions of source code must retain the above copyright
** notice, this list of conditions and the following disclaimer.
** 2. Redistributions in binary form must reproduce the above copyright
** notice, this list of conditions and the following disclaimer in the
** documentation and/or other materials provided with the distribution.
** 3. The name of the author may not be used to endorse or promote products
** derived from this software without specific prior written permission.
**
** THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR
** IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES
** OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
** IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT,
** INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT
** NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
** DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
** THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
** (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF
** THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
**---------------------------------------------------------------------------
**
*/
#ifndef __TEXTURES_H
#define __TEXTURES_H
#include "doomtype.h"
#include "vectors.h"
#include "v_palette.h"
#include "v_colortables.h"
#include "colormatcher.h"
#include "r_data/renderstyle.h"
#include "r_data/r_translate.h"
#include <vector>
// 15 because 0th texture is our texture
#define MAX_CUSTOM_HW_SHADER_TEXTURES 15
typedef TMap<int, bool> SpriteHits;
enum MaterialShaderIndex
{
SHADER_Default,
SHADER_Warp1,
SHADER_Warp2,
SHADER_Brightmap,
SHADER_Specular,
SHADER_SpecularBrightmap,
SHADER_PBR,
SHADER_PBRBrightmap,
SHADER_Paletted,
SHADER_NoTexture,
SHADER_BasicFuzz,
SHADER_SmoothFuzz,
SHADER_SwirlyFuzz,
SHADER_TranslucentFuzz,
SHADER_JaggedFuzz,
SHADER_NoiseFuzz,
SHADER_SmoothNoiseFuzz,
SHADER_SoftwareFuzz,
FIRST_USER_SHADER
};
struct UserShaderDesc
{
FString shader;
MaterialShaderIndex shaderType;
FString defines;
bool disablealphatest = false;
};
extern TArray<UserShaderDesc> usershaders;
struct FloatRect
{
float left,top;
float width,height;
void Offset(float xofs,float yofs)
{
left+=xofs;
top+=yofs;
}
void Scale(float xfac,float yfac)
{
left*=xfac;
width*=xfac;
top*=yfac;
height*=yfac;
}
};
enum ECreateTexBufferFlags
{
CTF_CheckHires = 1, // use external hires replacement if found
CTF_Expand = 2, // create buffer with a one-pixel wide border
CTF_ProcessData = 4, // run postprocessing on the generated buffer. This is only needed when using the data for a hardware texture.
};
class FBitmap;
struct FRemapTable;
struct FCopyInfo;
class FScanner;
// Texture IDs
class FTextureManager;
class FTerrainTypeArray;
class IHardwareTexture;
class FMaterial;
extern int r_spriteadjustSW, r_spriteadjustHW;
class FNullTextureID : public FTextureID
{
public:
FNullTextureID() : FTextureID(0) {}
};
//
// Animating textures and planes
//
// [RH] Expanded to work with a Hexen ANIMDEFS lump
//
struct FAnimDef
{
FTextureID BasePic;
uint16_t NumFrames;
uint16_t CurFrame;
uint8_t AnimType;
bool bDiscrete; // taken out of AnimType to have better control
uint64_t SwitchTime; // Time to advance to next frame
struct FAnimFrame
{
uint32_t SpeedMin; // Speeds are in ms, not tics
uint32_t SpeedRange;
FTextureID FramePic;
} Frames[1];
enum
{
ANIM_Forward,
ANIM_Backward,
ANIM_OscillateUp,
ANIM_OscillateDown,
ANIM_Random
};
void SetSwitchTime (uint64_t mstime);
};
struct FSwitchDef
{
FTextureID PreTexture; // texture to switch from
FSwitchDef *PairDef; // switch def to use to return to PreTexture
uint16_t NumFrames; // # of animation frames
bool QuestPanel; // Special texture for Strife mission
int Sound; // sound to play at start of animation. Changed to int to avoiud having to include s_sound here.
struct frame // Array of times followed by array of textures
{ // actual length of each array is <NumFrames>
uint16_t TimeMin;
uint16_t TimeRnd;
FTextureID Texture;
} frames[1];
};
struct FDoorAnimation
{
FTextureID BaseTexture;
FTextureID *TextureFrames;
int NumTextureFrames;
FName OpenSound;
FName CloseSound;
};
// Patches.
// A patch holds one or more columns.
// Patches are used for sprites and all masked pictures, and we compose
// textures from the TEXTURE1/2 lists of patches.
struct patch_t
{
int16_t width; // bounding box size
int16_t height;
int16_t leftoffset; // pixels to the left of origin
int16_t topoffset; // pixels below the origin
uint32_t columnofs[]; // only [width] used
// the [0] is &columnofs[width]
};
// All FTextures present their data to the world in 8-bit format, but if
// the source data is something else, this is it.
enum FTextureFormat : uint32_t
{
TEX_Pal,
TEX_Gray,
TEX_RGB, // Actually ARGB
TEX_Count
};
// Base texture class
class FTexture
{
public:
static FTexture *CreateTexture(const char *name, int lumpnum, ETextureType usetype);
static FTexture *CreateTexture(int lumpnum, ETextureType usetype);
virtual ~FTexture ();
void AddAutoMaterials();
unsigned char *CreateUpsampledTextureBuffer(unsigned char *inputBuffer, const int inWidth, const int inHeight, int &outWidth, int &outHeight, bool hasAlpha);
//int16_t LeftOffset, TopOffset;
uint8_t WidthBits, HeightBits;
DVector2 Scale;
int SourceLump;
FTextureID id;
FMaterial *Material[2] = { nullptr, nullptr };
IHardwareTexture *SystemTexture[2] = { nullptr, nullptr };
// None of the following pointers are owned by this texture, they are all controlled by the texture manager.
// Paletted variant
FTexture *PalVersion = nullptr;
// External hires texture
FTexture *HiresTexture = nullptr;
// Material layers
FTexture *Brightmap = nullptr;
FTexture *Normal = nullptr; // Normal map texture
FTexture *Specular = nullptr; // Specular light texture for the diffuse+normal+specular light model
FTexture *Metallic = nullptr; // Metalness texture for the physically based rendering (PBR) light model
FTexture *Roughness = nullptr; // Roughness texture for PBR
FTexture *AmbientOcclusion = nullptr; // Ambient occlusion texture for PBR
FTexture *CustomShaderTextures[MAX_CUSTOM_HW_SHADER_TEXTURES] = { nullptr }; // Custom texture maps for custom hardware shaders
FString Name;
ETextureType UseType; // This texture's primary purpose
uint8_t bNoDecals:1; // Decals should not stick to texture
uint8_t bNoRemap0:1; // Do not remap color 0 (used by front layer of parallax skies)
uint8_t bWorldPanning:1; // Texture is panned in world units rather than texels
uint8_t bMasked:1; // Texture (might) have holes
uint8_t bAlphaTexture:1; // Texture is an alpha channel without color information
uint8_t bHasCanvas:1; // Texture is based off FCanvasTexture
uint8_t bWarped:2; // This is a warped texture. Used to avoid multiple warps on one texture
uint8_t bComplex:1; // Will be used to mark extended MultipatchTextures that have to be
// fully composited before subjected to any kind of postprocessing instead of
// doing it per patch.
uint8_t bMultiPatch:2; // This is a multipatch texture (we really could use real type info for textures...)
uint8_t bKeepAround:1; // This texture was used as part of a multi-patch texture. Do not free it.
uint8_t bFullNameTexture : 1;
uint8_t bBrightmapChecked : 1; // Set to 1 if brightmap has been checked
uint8_t bGlowing : 1; // Texture glow color
uint8_t bAutoGlowing : 1; // Glow info is determined from texture image.
uint8_t bFullbright : 1; // always draw fullbright
uint8_t bDisableFullbright : 1; // This texture will not be displayed as fullbright sprite
uint8_t bSkybox : 1; // is a cubic skybox
uint8_t bNoCompress : 1;
uint8_t bNoExpand : 1;
int8_t bTranslucent : 2;
bool bHiresHasColorKey = false; // Support for old color-keyed Doomsday textures
uint16_t Rotations;
int16_t SkyOffset;
FloatRect *areas = nullptr;
int areacount = 0;
int GlowHeight = 128;
PalEntry GlowColor = 0;
int HiresLump = -1; // For external hires textures.
float Glossiness = 10.f;
float SpecularLevel = 0.1f;
float shaderspeed = 1.f;
int shaderindex = 0;
struct Span
{
uint16_t TopOffset;
uint16_t Length; // A length of 0 terminates this column
};
// Returns a single column of the texture
virtual const uint8_t *GetColumn(FRenderStyle style, unsigned int column, const Span **spans_out);
// Returns a single column of the texture, in BGRA8 format
virtual const uint32_t *GetColumnBgra(unsigned int column, const Span **spans_out);
// Returns the whole texture, stored in column-major order
virtual const uint8_t *GetPixels(FRenderStyle style);
// Returns the whole texture, stored in column-major order, in BGRA8 format
virtual const uint32_t *GetPixelsBgra();
// Returns true if GetPixelsBgra includes mipmaps
virtual bool Mipmapped() { return true; }
virtual int CopyTrueColorPixels(FBitmap *bmp, int x, int y, int rotate=0, FCopyInfo *inf = NULL);
virtual int CopyTrueColorTranslated(FBitmap *bmp, int x, int y, int rotate, PalEntry *remap, FCopyInfo *inf = NULL);
virtual bool UseBasePalette();
virtual int GetSourceLump() { return SourceLump; }
virtual FTexture *GetRedirect();
virtual FTexture *GetRawTexture(); // for FMultiPatchTexture to override
virtual void Unload ();
// Returns the native pixel format for this image
virtual FTextureFormat GetFormat();
// Fill the native texture buffer with pixel data for this image
virtual void FillBuffer(uint8_t *buff, int pitch, int height, FTextureFormat fmt);
int GetWidth () { return Width; }
int GetHeight () { return Height; }
int GetScaledWidth () { int foo = int((Width * 2) / Scale.X); return (foo >> 1) + (foo & 1); }
int GetScaledHeight () { int foo = int((Height * 2) / Scale.Y); return (foo >> 1) + (foo & 1); }
double GetScaledWidthDouble () { return Width / Scale.X; }
double GetScaledHeightDouble () { return Height / Scale.Y; }
double GetScaleY() const { return Scale.Y; }
// Now with improved offset adjustment.
int GetLeftOffset(int adjusted) { return _LeftOffset[adjusted]; }
int GetTopOffset(int adjusted) { return _TopOffset[adjusted]; }
int GetScaledLeftOffset (int adjusted) { int foo = int((_LeftOffset[adjusted] * 2) / Scale.X); return (foo >> 1) + (foo & 1); }
int GetScaledTopOffset (int adjusted) { int foo = int((_TopOffset[adjusted] * 2) / Scale.Y); return (foo >> 1) + (foo & 1); }
double GetScaledLeftOffsetDouble(int adjusted) { return _LeftOffset[adjusted] / Scale.X; }
double GetScaledTopOffsetDouble(int adjusted) { return _TopOffset[adjusted] / Scale.Y; }
// Interfaces for the different renderers. Everything that needs to check renderer-dependent offsets
// should use these, so that if changes are needed, this is the only place to edit.
// For the original software renderer
int GetLeftOffsetSW() { return _LeftOffset[r_spriteadjustSW]; }
int GetTopOffsetSW() { return _TopOffset[r_spriteadjustSW]; }
int GetScaledLeftOffsetSW() { return GetScaledLeftOffset(r_spriteadjustSW); }
int GetScaledTopOffsetSW() { return GetScaledTopOffset(r_spriteadjustSW); }
// For the softpoly renderer, in case it wants adjustment
int GetLeftOffsetPo() { return _LeftOffset[r_spriteadjustSW]; }
int GetTopOffsetPo() { return _TopOffset[r_spriteadjustSW]; }
int GetScaledLeftOffsetPo() { return GetScaledLeftOffset(r_spriteadjustSW); }
int GetScaledTopOffsetPo() { return GetScaledTopOffset(r_spriteadjustSW); }
// For the hardware renderer
int GetLeftOffsetHW() { return _LeftOffset[r_spriteadjustHW]; }
int GetTopOffsetHW() { return _TopOffset[r_spriteadjustHW]; }
virtual void ResolvePatches() {}
virtual void SetFrontSkyLayer();
void CopyToBlock (uint8_t *dest, int dwidth, int dheight, int x, int y, int rotate, const uint8_t *translation, FRenderStyle style);
// Returns true if the next call to GetPixels() will return an image different from the
// last call to GetPixels(). This should be considered valid only if a call to CheckModified()
// is immediately followed by a call to GetPixels().
virtual bool CheckModified (FRenderStyle style);
static void InitGrayMap();
void CopySize(FTexture *BaseTexture)
{
Width = BaseTexture->GetWidth();
Height = BaseTexture->GetHeight();
_TopOffset[0] = BaseTexture->_TopOffset[0];
_TopOffset[1] = BaseTexture->_TopOffset[1];
_LeftOffset[0] = BaseTexture->_LeftOffset[0];
_LeftOffset[1] = BaseTexture->_LeftOffset[1];
WidthBits = BaseTexture->WidthBits;
HeightBits = BaseTexture->HeightBits;
Scale = BaseTexture->Scale;
WidthMask = (1 << WidthBits) - 1;
}
void SetScaledSize(int fitwidth, int fitheight);
PalEntry GetSkyCapColor(bool bottom);
static PalEntry averageColor(const uint32_t *data, int size, int maxout);
protected:
uint16_t Width, Height, WidthMask;
int16_t _LeftOffset[2], _TopOffset[2];
static uint8_t GrayMap[256];
uint8_t *GetRemap(FRenderStyle style, bool srcisgrayscale = false)
{
if (style.Flags & STYLEF_RedIsAlpha)
{
return translationtables[TRANSLATION_Standard][srcisgrayscale ? STD_Gray : STD_Grayscale]->Remap;
}
else
{
return srcisgrayscale ? GrayMap : GPalette.Remap;
}
}
uint8_t RGBToPalettePrecise(bool wantluminance, int r, int g, int b, int a = 255)
{
if (wantluminance)
{
return (uint8_t)Luminance(r, g, b) * a / 255;
}
else
{
return ColorMatcher.Pick(r, g, b);
}
}
uint8_t RGBToPalette(bool wantluminance, int r, int g, int b, int a = 255)
{
if (wantluminance)
{
// This is the same formula the OpenGL renderer uses for grayscale textures with an alpha channel.
return (uint8_t)(Luminance(r, g, b) * a / 255);
}
else
{
return a < 128? 0 : RGB256k.RGB[r >> 2][g >> 2][b >> 2];
}
}
uint8_t RGBToPalette(bool wantluminance, PalEntry pe, bool hasalpha = true)
{
return RGBToPalette(wantluminance, pe.r, pe.g, pe.b, hasalpha? pe.a : 255);
}
uint8_t RGBToPalette(FRenderStyle style, int r, int g, int b, int a = 255)
{
return RGBToPalette(!!(style.Flags & STYLEF_RedIsAlpha), r, g, b, a);
}
FTexture (const char *name = NULL, int lumpnum = -1);
Span **CreateSpans (const uint8_t *pixels) const;
void FreeSpans (Span **spans) const;
void CalcBitSize ();
void CopyInfo(FTexture *other)
{
CopySize(other);
bNoDecals = other->bNoDecals;
Rotations = other->Rotations;
}
std::vector<uint32_t> PixelsBgra;
void GenerateBgraFromBitmap(const FBitmap &bitmap);
void CreatePixelsBgraWithMipmaps();
void GenerateBgraMipmaps();
void GenerateBgraMipmapsFast();
int MipmapLevels() const;
public:
unsigned char * CreateTexBuffer(int translation, int & w, int & h, int flags = 0);
bool GetTranslucency();
private:
int CheckDDPK3();
int CheckExternalFile(bool & hascolorkey);
unsigned char *LoadHiresTexture(int *width, int *height);
bool bSWSkyColorDone = false;
PalEntry FloorSkyColor;
PalEntry CeilingSkyColor;
public:
static void FlipSquareBlock (uint8_t *block, int x, int y);
static void FlipSquareBlockBgra (uint32_t *block, int x, int y);
static void FlipSquareBlockRemap (uint8_t *block, int x, int y, const uint8_t *remap);
static void FlipNonSquareBlock (uint8_t *blockto, const uint8_t *blockfrom, int x, int y, int srcpitch);
static void FlipNonSquareBlockBgra (uint32_t *blockto, const uint32_t *blockfrom, int x, int y, int srcpitch);
static void FlipNonSquareBlockRemap (uint8_t *blockto, const uint8_t *blockfrom, int x, int y, int srcpitch, const uint8_t *remap);
public:
void GetGlowColor(float *data);
bool isGlowing() { return bGlowing; }
bool isFullbright() { return bFullbright; }
void CreateDefaultBrightmap();
bool FindHoles(const unsigned char * buffer, int w, int h);
static bool SmoothEdges(unsigned char * buffer,int w, int h);
void CheckTrans(unsigned char * buffer, int size, int trans);
bool ProcessData(unsigned char * buffer, int w, int h, bool ispatch);
int CheckRealHeight();
void SetSpriteAdjust();
friend class FTextureManager;
};
class FxAddSub;
// Texture manager
class FTextureManager
{
friend class FxAddSub; // needs access to do a bounds check on the texture ID.
public:
FTextureManager ();
~FTextureManager ();
// Get texture without translation
//private:
FTexture *operator[] (FTextureID texnum)
{
if ((unsigned)texnum.GetIndex() >= Textures.Size()) return NULL;
return Textures[texnum.GetIndex()].Texture;
}
FTexture *operator[] (const char *texname)
{
FTextureID texnum = GetTexture (texname, ETextureType::MiscPatch);
if (!texnum.Exists()) return NULL;
return Textures[texnum.GetIndex()].Texture;
}
FTexture *ByIndex(int i)
{
if (unsigned(i) >= Textures.Size()) return NULL;
return Textures[i].Texture;
}
FTexture *FindTexture(const char *texname, ETextureType usetype = ETextureType::MiscPatch, BITFIELD flags = TEXMAN_TryAny);
// Get texture with translation
FTexture *operator() (FTextureID texnum, bool withpalcheck=false)
{
if ((size_t)texnum.texnum >= Textures.Size()) return NULL;
int picnum = Translation[texnum.texnum];
if (withpalcheck)
{
picnum = PalCheck(picnum).GetIndex();
}
return Textures[picnum].Texture;
}
FTexture *operator() (const char *texname)
{
FTextureID texnum = GetTexture (texname, ETextureType::MiscPatch);
if (texnum.texnum == -1) return NULL;
return Textures[Translation[texnum.texnum]].Texture;
}
FTexture *ByIndexTranslated(int i)
{
if (unsigned(i) >= Textures.Size()) return NULL;
return Textures[Translation[i]].Texture;
}
//public:
FTextureID PalCheck(FTextureID tex);
enum
{
TEXMAN_TryAny = 1,
TEXMAN_Overridable = 2,
TEXMAN_ReturnFirst = 4,
TEXMAN_AllowSkins = 8,
TEXMAN_ShortNameOnly = 16,
TEXMAN_DontCreate = 32
};
enum
{
HIT_Wall = 1,
HIT_Flat = 2,
HIT_Sky = 4,
HIT_Sprite = 8,
HIT_Columnmode = HIT_Wall|HIT_Sky|HIT_Sprite
};
FTextureID CheckForTexture (const char *name, ETextureType usetype, BITFIELD flags=TEXMAN_TryAny);
FTextureID GetTexture (const char *name, ETextureType usetype, BITFIELD flags=0);
int ListTextures (const char *name, TArray<FTextureID> &list, bool listall = false);
void AddTexturesLump (const void *lumpdata, int lumpsize, int deflumpnum, int patcheslump, int firstdup=0, bool texture1=false);
void AddTexturesLumps (int lump1, int lump2, int patcheslump);
void AddGroup(int wadnum, int ns, ETextureType usetype);
void AddPatches (int lumpnum);
void AddHiresTextures (int wadnum);
void LoadTextureDefs(int wadnum, const char *lumpname);
void ParseTextureDef(int remapLump);
void ParseXTexture(FScanner &sc, ETextureType usetype);
void SortTexturesByType(int start, int end);
bool AreTexturesCompatible (FTextureID picnum1, FTextureID picnum2);
FTextureID CreateTexture (int lumpnum, ETextureType usetype=ETextureType::Any); // Also calls AddTexture
FTextureID AddTexture (FTexture *texture);
FTextureID GetDefaultTexture() const { return DefaultTexture; }
void LoadTextureX(int wadnum);
void AddTexturesForWad(int wadnum);
void Init();
void DeleteAll();
void SpriteAdjustChanged();
// Replaces one texture with another. The new texture will be assigned
// the same name, slot, and use type as the texture it is replacing.
// The old texture will no longer be managed. Set free true if you want
// the old texture to be deleted or set it false if you want it to
// be left alone in memory. You will still need to delete it at some
// point, because the texture manager no longer knows about it.
// This function can be used for such things as warping textures.
void ReplaceTexture (FTextureID picnum, FTexture *newtexture, bool free);
void UnloadAll ();
int NumTextures () const { return (int)Textures.Size(); }
void UpdateAnimations (uint64_t mstime);
int GuesstimateNumTextures ();
FSwitchDef *FindSwitch (FTextureID texture);
FDoorAnimation *FindAnimatedDoor (FTextureID picnum);
private:
// texture counting
int CountTexturesX ();
int CountLumpTextures (int lumpnum);
void AdjustSpriteOffsets();
// Build tiles
void AddTiles (const FString &pathprefix, const void *, int translation);
//int CountBuildTiles ();
void InitBuildTiles ();
// Animation stuff
FAnimDef *AddAnim (FAnimDef *anim);
void FixAnimations ();
void InitAnimated ();
void InitAnimDefs ();
FAnimDef *AddSimpleAnim (FTextureID picnum, int animcount, uint32_t speedmin, uint32_t speedrange=0);
FAnimDef *AddComplexAnim (FTextureID picnum, const TArray<FAnimDef::FAnimFrame> &frames);
void ParseAnim (FScanner &sc, ETextureType usetype);
FAnimDef *ParseRangeAnim (FScanner &sc, FTextureID picnum, ETextureType usetype, bool missing);
void ParsePicAnim (FScanner &sc, FTextureID picnum, ETextureType usetype, bool missing, TArray<FAnimDef::FAnimFrame> &frames);
void ParseWarp(FScanner &sc);
void ParseCameraTexture(FScanner &sc);
FTextureID ParseFramenum (FScanner &sc, FTextureID basepicnum, ETextureType usetype, bool allowMissing);
void ParseTime (FScanner &sc, uint32_t &min, uint32_t &max);
FTexture *Texture(FTextureID id) { return Textures[id.GetIndex()].Texture; }
void SetTranslation (FTextureID fromtexnum, FTextureID totexnum);
void ParseAnimatedDoor(FScanner &sc);
void InitPalettedVersions();
void GenerateGlobalBrightmapFromColormap();
// Switches
void InitSwitchList ();
void ProcessSwitchDef (FScanner &sc);
FSwitchDef *ParseSwitchDef (FScanner &sc, bool ignoreBad);
void AddSwitchPair (FSwitchDef *def1, FSwitchDef *def2);
struct TextureHash
{
FTexture *Texture;
int HashNext;
};
enum { HASH_END = -1, HASH_SIZE = 1027 };
TArray<TextureHash> Textures;
TArray<int> Translation;
int HashFirst[HASH_SIZE];
FTextureID DefaultTexture;
TArray<int> FirstTextureForFile;
TArray<TArray<uint8_t> > BuildTileData;
TArray<FAnimDef *> mAnimations;
TArray<FSwitchDef *> mSwitchDefs;
TArray<FDoorAnimation> mAnimatedDoors;
public:
bool HasGlobalBrightmap;
FRemapTable GlobalBrightmap;
short sintable[2048]; // for texture warping
enum
{
SINMASK = 2047
};
FTextureID glLight;
FTextureID glPart2;
FTextureID glPart;
FTextureID mirrorTexture;
};
// base class for everything that can be used as a world texture.
// This intermediate class encapsulates the buffers for the software renderer.
class FWorldTexture : public FTexture
{
protected:
uint8_t *Pixeldata[2] = { nullptr, nullptr };
Span **Spandata[2] = { nullptr, nullptr };
uint8_t PixelsAreStatic = 0; // can be set by subclasses which provide static pixel buffers.
FWorldTexture(const char *name = nullptr, int lumpnum = -1);
~FWorldTexture();
const uint8_t *GetColumn(FRenderStyle style, unsigned int column, const Span **spans_out) override;
const uint8_t *GetPixels(FRenderStyle style) override;
void Unload() override;
virtual uint8_t *MakeTexture(FRenderStyle style) = 0;
void FreeAllSpans();
};
// A texture that doesn't really exist
class FDummyTexture : public FTexture
{
public:
FDummyTexture ();
void SetSize (int width, int height);
};
// A texture that returns a wiggly version of another texture.
class FWarpTexture : public FWorldTexture
{
public:
FWarpTexture (FTexture *source, int warptype);
~FWarpTexture ();
void Unload() override;
virtual int CopyTrueColorPixels(FBitmap *bmp, int x, int y, int rotate=0, FCopyInfo *inf = NULL) override;
virtual int CopyTrueColorTranslated(FBitmap *bmp, int x, int y, int rotate, PalEntry *remap, FCopyInfo *inf = NULL) override;
const uint32_t *GetPixelsBgra() override;
bool CheckModified (FRenderStyle) override;
float GetSpeed() const { return Speed; }
int GetSourceLump() { return SourcePic->GetSourceLump(); }
void SetSpeed(float fac) { Speed = fac; }
uint64_t GenTime[2] = { 0, 0 };
uint64_t GenTimeBgra = 0;
float Speed = 1.f;
int WidthOffsetMultiplier, HeightOffsetMultiplier; // [mxd]
protected:
FTexture *SourcePic;
uint8_t *MakeTexture (FRenderStyle style) override;
int NextPo2 (int v); // [mxd]
void SetupMultipliers (int width, int height); // [mxd]
};
// A texture that can be drawn to.
class DSimpleCanvas;
class AActor;
class FCanvasTexture : public FTexture
{
public:
FCanvasTexture (const char *name, int width, int height);
~FCanvasTexture ();
const uint8_t *GetColumn(FRenderStyle style, unsigned int column, const Span **spans_out);
const uint8_t *GetPixels (FRenderStyle style);
const uint32_t *GetPixelsBgra() override;
void Unload ();
bool CheckModified (FRenderStyle) override;
void NeedUpdate() { bNeedsUpdate=true; }
void SetUpdated() { bNeedsUpdate = false; bDidUpdate = true; bFirstUpdate = false; }
DSimpleCanvas *GetCanvas() { return Canvas; }
DSimpleCanvas *GetCanvasBgra() { return CanvasBgra; }
bool Mipmapped() override { return false; }
void MakeTexture (FRenderStyle style);
void MakeTextureBgra ();
protected:
DSimpleCanvas *Canvas = nullptr;
DSimpleCanvas *CanvasBgra = nullptr;
uint8_t *Pixels = nullptr;
uint32_t *PixelsBgra = nullptr;
Span DummySpans[2];
bool bNeedsUpdate = true;
bool bDidUpdate = false;
bool bPixelsAllocated = false;
bool bPixelsAllocatedBgra = false;
public:
bool bFirstUpdate;
friend struct FCanvasTextureInfo;
};
// A wrapper around a hardware texture, to allow using it in the 2D drawing interface.
class FWrapperTexture : public FTexture
{
public:
FWrapperTexture(int w, int h, int bits = 1);
};
extern FTextureManager TexMan;
struct FTexCoordInfo
{
int mRenderWidth;
int mRenderHeight;
int mWidth;
FVector2 mScale;
FVector2 mTempScale;
bool mWorldPanning;
float FloatToTexU(float v) const { return v / mRenderWidth; }
float FloatToTexV(float v) const { return v / mRenderHeight; }
float RowOffset(float ofs) const;
float TextureOffset(float ofs) const;
float TextureAdjustWidth() const;
void GetFromTexture(FTexture *tex, float x, float y);
};
#endif