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FITD/FitdLib/hqr.cpp

520 lines
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C++
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#include "common.h"
#include "hybrid.h"
template <typename T>
struct hqrSubEntryStruct
{
s16 key;
s16 size;
unsigned int lastTimeUsed;
T* ptr;
};
template <typename T>
struct hqrEntryStruct
{
std::string string;
u16 maxFreeData;
u16 sizeFreeData;
u16 numMaxEntry;
u16 numUsedEntry;
std::vector<hqrSubEntryStruct<T>> entries;
};
template <typename T>
hqrSubEntryStruct<T>* quickFindEntry(int index, int numMax, std::vector<hqrSubEntryStruct<T>>& ptr) // no RE. Original was probably faster
{
for(int i=0;i<numMax;i++)
{
if((ptr[i].key == index) && ptr[i].ptr)
{
return &ptr[i];
}
}
return nullptr;
}
template <typename T>
hqrEntryStruct<T>* HQR_InitRessource(const char* name, int size, int numEntries)
{
hqrEntryStruct<T>* dest = new hqrEntryStruct<T>();
if(!dest)
return NULL;
numEntries = 2000;
dest->string = name;
dest->sizeFreeData = size;
dest->maxFreeData = size;
dest->numMaxEntry = numEntries;
dest->numUsedEntry = 0;
dest->entries.resize(numEntries);
for(int i=0;i<numEntries;i++)
{
dest->entries[i].ptr = nullptr;
}
return(dest);
}
int HQ_Malloc(hqrEntryStruct<char>* hqrPtr,int size)
{
int key;
int entryNum;
if(hqrPtr->sizeFreeData<size)
return(-1);
entryNum = hqrPtr->numUsedEntry;
key = hqrKeyGen;
hqrPtr->entries[entryNum].key = key;
// dataPtr1[entryNum].offset = hqrPtr->maxFreeData - hqrPtr->sizeFreeData;
hqrPtr->entries[entryNum].size = size;
hqrPtr->entries[entryNum].ptr = (char*)malloc(size);
hqrPtr->numUsedEntry++;
hqrPtr->sizeFreeData -= size;
hqrKeyGen++;
return(key);
}
char* HQ_PtrMalloc(hqrEntryStruct<char>* hqrPtr, int index)
{
if(index<0)
return NULL;
hqrSubEntryStruct<char>* ptr = quickFindEntry(index, hqrPtr->numUsedEntry, hqrPtr->entries);
if(!ptr)
return NULL;
return(ptr->ptr);
}
sAnimation* createAnimationFromPtr(void* ptr, int size)
{
u8* animPtr = (u8*)ptr;
sAnimation* pAnimation = new sAnimation;
pAnimation->m_raw = ptr;
pAnimation->m_numFrames = READ_LE_U16(animPtr); animPtr += 2;
pAnimation->m_numGroups = READ_LE_U16(animPtr); animPtr += 2;
int fullSizeNoOptim = 2 + 2 + pAnimation->m_numFrames * (2 + 2 + 2 + 2 + pAnimation->m_numGroups * (2 + 2 + 2 + 2));
int fullSizeWithOptim = 2 + 2 + pAnimation->m_numFrames * (2 + 2 + 2 + 2 + pAnimation->m_numGroups * (2 + 2 + 2 + 2 + 2 + 2 + 2 + 2));
bool bUseOptim = false;
if (size == fullSizeWithOptim) {
bUseOptim = true;
}
else {
assert(size == fullSizeNoOptim);
}
pAnimation->m_frames.resize(pAnimation->m_numFrames);
for (int i = 0; i < pAnimation->m_numFrames; i++)
{
sFrame* pFrame = &pAnimation->m_frames[i];
pFrame->m_timestamp = READ_LE_U16(animPtr); animPtr += 2;
pFrame->m_animStep.x = READ_LE_S16(animPtr); animPtr += 2;
pFrame->m_animStep.y = READ_LE_S16(animPtr); animPtr += 2;
pFrame->m_animStep.z = READ_LE_S16(animPtr); animPtr += 2;
pFrame->m_groups.resize(pAnimation->m_numGroups);
for (int i = 0; i < pAnimation->m_numGroups; i++)
{
sGroupState* pGroup = &pFrame->m_groups[i];
pGroup->m_type = READ_LE_S16(animPtr); animPtr += 2;
pGroup->m_delta.x = READ_LE_S16(animPtr); animPtr += 2;
pGroup->m_delta.y = READ_LE_S16(animPtr); animPtr += 2;
pGroup->m_delta.z = READ_LE_S16(animPtr); animPtr += 2;
if (bUseOptim) {
pGroup->m_rotateDelta.emplace();
pGroup->m_rotateDelta.value().x = READ_LE_S16(animPtr); animPtr += 2;
pGroup->m_rotateDelta.value().y = READ_LE_S16(animPtr); animPtr += 2;
pGroup->m_rotateDelta.value().z = READ_LE_S16(animPtr); animPtr += 2;
animPtr += 2;
}
}
}
return pAnimation;
}
sBody* createBodyFromPtr(void* ptr)
{
u8* bodyBuffer = (u8*)ptr;
sBody* newBody = new sBody;
newBody->m_raw = ptr;
newBody->m_flags = READ_LE_U16(bodyBuffer); bodyBuffer += 2;
newBody->m_zv.ZVX1 = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_zv.ZVX2 = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_zv.ZVY1 = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_zv.ZVY2 = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_zv.ZVZ1 = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_zv.ZVZ2 = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
u16 scratchBufferSize = READ_LE_U16(bodyBuffer); bodyBuffer += 2;
newBody->m_scratchBuffer.resize(scratchBufferSize);
for (int i = 0; i < scratchBufferSize; i++)
{
newBody->m_scratchBuffer[i] = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
}
u16 numVertices = READ_LE_U16(bodyBuffer); bodyBuffer += 2;
newBody->m_vertices.resize(numVertices);
for (int i = 0; i < numVertices; i++)
{
newBody->m_vertices[i].x = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_vertices[i].y = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_vertices[i].z = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
}
if (newBody->m_flags & INFO_TORTUE)
{
assert(0); // never used
}
if (newBody->m_flags & INFO_ANIM)
{
u16 numGroups = READ_LE_U16(bodyBuffer); bodyBuffer += 2;
newBody->m_groupOrder.reserve(numGroups);
newBody->m_groups.resize(numGroups);
if (newBody->m_flags & INFO_OPTIMISE) // AITD2+
{
for (int i = 0; i < numGroups; i++)
{
u16 offset = READ_LE_U16(bodyBuffer);
assert(offset % 0x18 == 0);
newBody->m_groupOrder.push_back(offset / 0x18);
bodyBuffer += 2;
}
for (int i = 0; i < numGroups; i++)
{
newBody->m_groups[i].m_start = READ_LE_S16(bodyBuffer) / 6; bodyBuffer += 2;
newBody->m_groups[i].m_numVertices = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_baseVertices = READ_LE_S16(bodyBuffer) / 6; bodyBuffer += 2;
newBody->m_groups[i].m_orgGroup = READ_LE_S8(bodyBuffer); bodyBuffer += 1;
newBody->m_groups[i].m_numGroup = READ_LE_S8(bodyBuffer); bodyBuffer += 1;
newBody->m_groups[i].m_state.m_type = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_delta.x = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_delta.y = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_delta.z = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_rotateDelta.emplace();
newBody->m_groups[i].m_state.m_rotateDelta.value().x = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_rotateDelta.value().y = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_rotateDelta.value().z = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
bodyBuffer += 2;
}
}
else
{
for (int i = 0; i < numGroups; i++)
{
u16 offset = READ_LE_U16(bodyBuffer);
assert(offset % 0x10 == 0);
newBody->m_groupOrder.push_back(offset / 0x10);
bodyBuffer += 2;
}
for (int i = 0; i < numGroups; i++)
{
newBody->m_groups[i].m_start = READ_LE_S16(bodyBuffer) / 6; bodyBuffer += 2;
newBody->m_groups[i].m_numVertices = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_baseVertices = READ_LE_S16(bodyBuffer) / 6; bodyBuffer += 2;
newBody->m_groups[i].m_orgGroup = READ_LE_S8(bodyBuffer); bodyBuffer += 1;
newBody->m_groups[i].m_numGroup = READ_LE_S8(bodyBuffer); bodyBuffer += 1;
newBody->m_groups[i].m_state.m_type = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_delta.x = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_delta.y = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
newBody->m_groups[i].m_state.m_delta.z = READ_LE_S16(bodyBuffer); bodyBuffer += 2;
}
}
}
u16 numPrimitives = READ_LE_U16(bodyBuffer); bodyBuffer += 2;
newBody->m_primitives.resize(numPrimitives);
for (int i = 0; i < numPrimitives; i++)
{
newBody->m_primitives[i].m_type = (primTypeEnum)READ_LE_U8(bodyBuffer); bodyBuffer += 1;
switch (newBody->m_primitives[i].m_type)
{
case primTypeEnum_Line:
newBody->m_primitives[i].m_material = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_color = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_even = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_points.resize(2);
for (int j = 0; j < newBody->m_primitives[i].m_points.size(); j++)
{
newBody->m_primitives[i].m_points[j] = READ_LE_U16(bodyBuffer) / 6; bodyBuffer += 2;
}
break;
case primTypeEnum_Poly:
newBody->m_primitives[i].m_points.resize(READ_LE_U8(bodyBuffer)); bodyBuffer += 1;
newBody->m_primitives[i].m_material = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_color = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
for (int j = 0; j < newBody->m_primitives[i].m_points.size(); j++)
{
newBody->m_primitives[i].m_points[j] = READ_LE_U16(bodyBuffer) / 6; bodyBuffer += 2;
}
break;
case primTypeEnum_Point:
case primTypeEnum_BigPoint:
case primTypeEnum_Zixel:
newBody->m_primitives[i].m_material = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_color = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_even = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_points.resize(1);
for (int j = 0; j < newBody->m_primitives[i].m_points.size(); j++)
{
newBody->m_primitives[i].m_points[j] = READ_LE_U16(bodyBuffer) / 6; bodyBuffer += 2;
}
break;
case primTypeEnum_Sphere:
newBody->m_primitives[i].m_material = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_color = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_even = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_size = READ_LE_U16(bodyBuffer); bodyBuffer += 2;
newBody->m_primitives[i].m_points.resize(1);
for (int j = 0; j < newBody->m_primitives[i].m_points.size(); j++)
{
newBody->m_primitives[i].m_points[j] = READ_LE_U16(bodyBuffer) / 6; bodyBuffer += 2;
}
break;
case processPrim_PolyTexture8:
newBody->m_primitives[i].m_points.resize(READ_LE_U8(bodyBuffer)); bodyBuffer += 1;
newBody->m_primitives[i].m_material = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_color = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
for (int j = 0; j < newBody->m_primitives[i].m_points.size(); j++)
{
newBody->m_primitives[i].m_points[j] = READ_LE_U16(bodyBuffer) / 6; bodyBuffer += 2;
}
break;
case processPrim_PolyTexture9:
case processPrim_PolyTexture10:
newBody->m_primitives[i].m_points.resize(READ_LE_U8(bodyBuffer)); bodyBuffer += 1;
newBody->m_primitives[i].m_material = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
newBody->m_primitives[i].m_color = READ_LE_U8(bodyBuffer); bodyBuffer += 1;
for (int j = 0; j < newBody->m_primitives[i].m_points.size(); j++)
{
newBody->m_primitives[i].m_points[j] = READ_LE_U16(bodyBuffer) / 6; bodyBuffer += 2;
}
// load UVS?
for (int j = 0; j < newBody->m_primitives[i].m_points.size(); j++)
{
READ_LE_U8(bodyBuffer); bodyBuffer += 1;
READ_LE_U8(bodyBuffer); bodyBuffer += 1;
}
break;
default:
assert(0);
break;
}
}
return newBody;
}
template <typename T>
T* HQR_Get(hqrEntryStruct<T>* hqrPtr, int index)
{
hqrSubEntryStruct<T>* foundEntry;
if(index<0)
return NULL;
foundEntry = quickFindEntry(index,hqrPtr->numUsedEntry,hqrPtr->entries);
if(foundEntry)
{
foundEntry->lastTimeUsed = timer;
HQ_Load = 0;
return(foundEntry->ptr);
}
else
{
SaveTimerAnim();
int size = getPakSize(hqrPtr->string.c_str(),index);
if(size == 0)
return NULL;
if(size>=hqrPtr->maxFreeData)
{
fatalError(1,hqrPtr->string.c_str());
}
unsigned int time = timer;
for(int i=0;i<hqrPtr->numMaxEntry;i++)
{
if(hqrPtr->entries[i].ptr == NULL)
{
foundEntry = &hqrPtr->entries[i];
break;
}
}
ASSERT(foundEntry);
// foundEntry = hqrSubPtr;
HQ_Load = 1;
foundEntry->key = index;
foundEntry->lastTimeUsed = timer;
//foundEntry[hqrPtr->numUsedEntry].offset = hqrPtr->maxFreeData - hqrPtr->sizeFreeData;
foundEntry->size = size;
char* buffer = new char[size];
LoadPak(hqrPtr->string.c_str(), index, buffer);
if constexpr (std::is_same_v<T, char>) {
foundEntry->ptr = buffer;
}
else if constexpr (std::is_same_v<T, sBody>) {
foundEntry->ptr = createBodyFromPtr(buffer);
delete[] buffer;
}
else if constexpr (std::is_same_v<T, sAnimation>) {
foundEntry->ptr = createAnimationFromPtr(buffer, size);
delete[] buffer;
}
else if constexpr (std::is_same_v<T, sHybrid>) {
foundEntry->ptr = new sHybrid((uint8_t*)buffer, size);
delete[] buffer;
}
else {
assert(0);
}
hqrPtr->numUsedEntry++;
hqrPtr->sizeFreeData -= size;
RestoreTimerAnim();
return(foundEntry->ptr);
}
}
hqrEntryStruct<char>* HQR_Init(int size,int numEntry)
{
ASSERT(size > 0);
ASSERT(numEntry > 0);
hqrEntryStruct<char>* dest = new hqrEntryStruct<char>();
numEntry = 2000;
ASSERT_PTR(dest);
if(!dest)
return NULL;
dest->string = "_MEMORY_";
dest->sizeFreeData = size;
dest->maxFreeData = size;
dest->numMaxEntry = numEntry;
dest->numUsedEntry = 0;
dest->entries.resize(numEntry);
for(int i=0;i<numEntry;i++)
{
dest->entries[i].ptr = nullptr;
}
return(dest);
}
template <typename T>
void HQR_Reset(hqrEntryStruct<T>* hqrPtr)
{
hqrPtr->sizeFreeData = hqrPtr->maxFreeData;
hqrPtr->numUsedEntry = 0;
for(int i =0;i<hqrPtr->numMaxEntry;i++)
{
if (hqrPtr->entries[i].ptr)
{
if constexpr (std::is_same_v<T, char>) {
delete[] hqrPtr->entries[i].ptr;
}
else {
delete hqrPtr->entries[i].ptr;
}
hqrPtr->entries[i].ptr = nullptr;
}
}
}
template <typename T>
void HQR_Free(hqrEntryStruct<T>* hqrPtr)
{
HQR_Reset(hqrPtr);
delete hqrPtr;
}
template <typename T>
void configureHqrHero(hqrEntryStruct<T>* hqrPtr, const char* name)
{
hqrPtr->string = name;
}
void HQ_Free_Malloc(hqrEntryStruct<char>* hqrPtr, int index)
{
}
template
hqrEntryStruct<char>* HQR_InitRessource(const char* name, int size, int numEntries);
template
char* HQR_Get(hqrEntryStruct<char>* hqrPtr, int index);
template
void HQR_Free(hqrEntryStruct<char>* hqrPtr);
template
void HQR_Reset(hqrEntryStruct<char>* hqrPtr);
template
void configureHqrHero(hqrEntryStruct<char>* hqrPtr, const char* name);
/// body
template hqrEntryStruct<sBody>* HQR_InitRessource(const char* name, int size, int numEntries);
template sBody* HQR_Get(hqrEntryStruct<sBody>* hqrPtr, int index);
template void HQR_Free(hqrEntryStruct<sBody>* hqrPtr);
template void configureHqrHero(hqrEntryStruct<sBody>* hqrPtr, const char* name);
/// anim
template hqrEntryStruct<sAnimation>* HQR_InitRessource(const char* name, int size, int numEntries);
template sAnimation* HQR_Get(hqrEntryStruct<sAnimation>* hqrPtr, int index);
template void HQR_Free(hqrEntryStruct<sAnimation>* hqrPtr);
template void HQR_Reset(hqrEntryStruct<sAnimation>* hqrPtr);
template void configureHqrHero(hqrEntryStruct<sAnimation>* hqrPtr, const char* name);
/// hybrids
template hqrEntryStruct<sHybrid>* HQR_InitRessource(const char* name, int size, int numEntries);
template sHybrid* HQR_Get(hqrEntryStruct<sHybrid>* hqrPtr, int index);
template void HQR_Free(hqrEntryStruct<sHybrid>* hqrPtr);
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