openclonk/engine/inc/C4Material.h

218 lines
8.8 KiB
C++

/*
* OpenClonk, http://www.openclonk.org
*
* Copyright (c) 1998-2000, 2007 Matthes Bender
* Copyright (c) 2001-2002, 2005-2007 Sven Eberhardt
* Copyright (c) 2007 Peter Wortmann
* Copyright (c) 2001-2009, RedWolf Design GmbH, http://www.clonk.de
*
* Portions might be copyrighted by other authors who have contributed
* to OpenClonk.
*
* Permission to use, copy, modify, and/or distribute this software for any
* purpose with or without fee is hereby granted, provided that the above
* copyright notice and this permission notice appear in all copies.
* See isc_license.txt for full license and disclaimer.
*
* "Clonk" is a registered trademark of Matthes Bender.
* See clonk_trademark_license.txt for full license.
*/
/* Material definitions used by the landscape */
#ifndef INC_C4Material
#define INC_C4Material
#include <C4Id.h>
#include <C4Shape.h>
#include <C4Facet.h>
#include <vector>
#define C4MatOv_Default 0
#define C4MatOv_Exact 1
#define C4MatOv_None 2
#define C4MatOv_HugeZoom 4
#define C4MatOv_Monochrome 8
enum MaterialInteractionEvent
{
meePXSPos=0, // PXS check before movement
meePXSMove=1, // PXS movement
meeMassMove=2, // MassMover-movement
};
typedef bool (*C4MaterialReactionFunc)(struct C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged);
struct C4MaterialReaction
{
static inline bool NoReaction(struct C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged) { return false; }
C4MaterialReactionFunc pFunc; // Guarantueed to be non-NULL
bool fUserDefined; // false for internal reactions generated by material parameters
StdCopyStrBuf TargetSpec; // target material specification
StdCopyStrBuf ScriptFunc; // for reaction func 'script': Script func to be called for reaction evaluation
#ifdef C4ENGINE
C4AulFunc *pScriptFunc; // resolved script function
#endif
uint32_t iExecMask; // execution mask: Bit mask with indices into MaterialInteractionEvent
bool fReverse; // if set, spec will be handled as if specified in target mat def
bool fInverseSpec; // if set, all mats except the given are used
bool fInsertionCheck; // if set, splash/slide checks are done prior to reaction execution
int32_t iDepth; // in mat conversion depth
StdCopyStrBuf sConvertMat;// in mat conversion material (string)
int32_t iConvertMat; // in mat conversion material; evaluated in CrossMapMaterials
int32_t iCorrosionRate; // chance of doing a corrosion
#ifdef C4ENGINE
C4MaterialReaction(C4MaterialReactionFunc pFunc) : pFunc(pFunc), fUserDefined(false), pScriptFunc(NULL), iExecMask(~0u), fReverse(false), fInverseSpec(false), fInsertionCheck(true), iDepth(0), iConvertMat(-1), iCorrosionRate(100) {}
C4MaterialReaction() : pFunc(&NoReaction), fUserDefined(true), pScriptFunc(NULL), iExecMask(~0u), fReverse(false), fInverseSpec(false), fInsertionCheck(true), iDepth(0), iConvertMat(-1), iCorrosionRate(100) { }
#endif
void CompileFunc(StdCompiler *pComp);
#ifdef C4ENGINE
void ResolveScriptFuncs(const char *szMatName);
#endif
bool operator ==(const C4MaterialReaction &rCmp) const { return false; } // never actually called; only comparing with empty vector of C4MaterialReactions
};
class C4MaterialCore
{
public:
C4MaterialCore();
~C4MaterialCore() { Clear(); }
public:
std::vector<C4MaterialReaction> CustomReactionList;
public:
char Name[C4M_MaxName+1];
uint32_t Color[C4M_ColsPerMat*3];
uint32_t Alpha[C4M_ColsPerMat*2];
int32_t MapChunkType;
int32_t Density;
int32_t Friction;
int32_t DigFree;
int32_t BlastFree;
C4ID Dig2Object;
int32_t Dig2ObjectRatio;
int32_t Dig2ObjectOnRequestOnly;
C4ID Blast2Object;
int32_t Blast2ObjectRatio;
int32_t Blast2PXSRatio;
int32_t Instable;
int32_t MaxAirSpeed;
int32_t MaxSlide;
int32_t WindDrift;
int32_t Inflammable;
int32_t Incindiary;
int32_t Extinguisher;
int32_t Corrosive;
int32_t Corrode;
int32_t Soil;
int32_t Placement; // placement order for landscape shading
StdCopyStrBuf sTextureOverlay; // overlayed texture for this material
int32_t OverlayType; // defines the way in which the overlay texture is applied
StdCopyStrBuf sPXSGfx; // newgfx: picture used for loose pxs
C4TargetRect PXSGfxRt; // newgfx: facet rect of pixture used for loose pixels
int32_t PXSGfxSize;
StdCopyStrBuf sBlastShiftTo;
StdCopyStrBuf sInMatConvert;
StdCopyStrBuf sInMatConvertTo;
int32_t InMatConvertDepth; // material converts only if it finds the same material above
int32_t BelowTempConvert;
int32_t BelowTempConvertDir;
StdCopyStrBuf sBelowTempConvertTo;
int32_t AboveTempConvert;
int32_t AboveTempConvertDir;
StdCopyStrBuf sAboveTempConvertTo;
int32_t ColorAnimation;
int32_t TempConvStrength;
int32_t MinHeightCount; // minimum material thickness in order for it to be counted
int32_t SplashRate;
public:
void Clear();
void Default();
BOOL Load(C4Group &hGroup, const char *szEntryName);
DWORD GetDWordColor(int32_t iIndex); // get indexed material color as DWord
void CompileFunc(StdCompiler *pComp);
};
class C4Material: public C4MaterialCore
{
public:
C4Material();
public:
// Cross-mapped material values
int32_t BlastShiftTo; // MatTex
int32_t InMatConvertTo; // Mat
int32_t BelowTempConvertTo; // MatTex
int32_t AboveTempConvertTo; // MatTex
#ifdef C4ENGINE
int32_t DefaultMatTex; // texture used for single pixel values
C4Facet PXSFace; // loose pixel facet
void UpdateScriptPointers(); // set all material script pointers
#endif
};
class C4MaterialMap
{
public:
C4MaterialMap();
~C4MaterialMap();
public:
int32_t Num;
C4Material *Map;
C4MaterialReaction **ppReactionMap;
C4MaterialReaction DefReactConvert, DefReactPoof, DefReactCorrode, DefReactIncinerate, DefReactInsert;
public:
// default reactions
static bool mrfConvert(C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged);
static bool mrfPoof (C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged);
static bool mrfCorrode(C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged);
static bool mrfIncinerate(C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged);
static bool mrfInsert (C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged);
// user-defined actions
#ifdef C4ENGINE
static bool mrfScript(C4MaterialReaction *pReaction, int32_t &iX, int32_t &iY, int32_t iLSPosX, int32_t iLSPosY, FIXED &fXDir, FIXED &fYDir, int32_t &iPxsMat, int32_t iLsMat, MaterialInteractionEvent evEvent, bool *pfPosChanged);
#endif
public:
void Default();
void Clear();
int32_t Load(C4Group &hGroup, C4Group* OverloadFile = 0);
bool HasMaterials(C4Group &hGroup) const;
int32_t Get(const char *szMaterial);
BOOL SaveEnumeration(C4Group &hGroup);
BOOL LoadEnumeration(C4Group &hGroup);
C4MaterialReaction *GetReactionUnsafe(int32_t iPXSMat, int32_t iLandscapeMat)
{ assert(ppReactionMap); assert(Inside<int32_t>(iPXSMat,-1,Num-1)); assert(Inside<int32_t>(iLandscapeMat,-1,Num-1));
return ppReactionMap[(iLandscapeMat+1)*(Num+1) + iPXSMat+1]; }
C4MaterialReaction *GetReaction(int32_t iPXSMat, int32_t iLandscapeMat);
#ifdef C4ENGINE
void UpdateScriptPointers(); // set all material script pointers
void CrossMapMaterials();
#endif
protected:
void SetMatReaction(int32_t iPXSMat, int32_t iLSMat, C4MaterialReaction *pReact);
BOOL SortEnumeration(int32_t iMat, const char *szMatName);
};
const int32_t C4M_Flat = 0,
C4M_TopFlat = 1,
C4M_Smooth = 2,
C4M_Rough = 3,
// Material Density Levels
C4M_Vehicle = 100,
C4M_Solid = 50,
C4M_SemiSolid = 25,
C4M_Liquid = 25,
C4M_Background= 0;
const int32_t MNone = -1;
#endif