Files
mm/src/code/z_kaleido_manager.c
T
Lucas Shaw 5455cbc0c8 z_kaleido_manager and z_kaleido_scope_call OK (#489)
* migrated data and bss for z_kaleido_manager, renamed ovl_Player_Actor to ovl_player_actor to make it work with the data

* z_kaleido_manager OK

* add to functions.h variables.h and variables.txt

* init

* rename parameters in func_80163700

* rename func_80163700 to KaleidoManager_FaultAddrConvFunc

* change u32 casts to uintptr_t casts in z_kaleido_manager. (u8 *) casts must stay, they are the only casts that match

* ran format, uintptr_t

* made suggested changes
2021-12-27 03:59:50 +00:00

105 lines
3.4 KiB
C

#include "global.h"
#define KALEIDO_OVERLAY(name) \
{ \
NULL, SEGMENT_ROM_START(ovl_##name), SEGMENT_ROM_END(ovl_##name), SEGMENT_START(ovl_##name), \
SEGMENT_END(ovl_##name), 0, #name, \
}
KaleidoMgrOverlay gKaleidoMgrOverlayTable[] = {
KALEIDO_OVERLAY(kaleido_scope),
KALEIDO_OVERLAY(player_actor),
};
void* sKaleidoAreaPtr = NULL;
KaleidoMgrOverlay* gKaleidoMgrCurOvl = NULL;
FaultAddrConvClient sKaleidoAreaFaultClient;
void* KaleidoManager_FaultAddrConvFunc(void* address, void* param) {
u8* ptr = address;
KaleidoMgrOverlay* ovl = &gKaleidoMgrCurOvl[0];
u8* ramStart;
u8* ramEnd;
size_t size;
uintptr_t offset;
if (ovl != NULL) {
size = (u8*)ovl->vramEnd - (u8*)ovl->vramStart;
ramStart = ovl->loadedRamAddr;
ramEnd = ramStart + size;
offset = (u8*)ovl->vramStart - ramStart;
if (ramStart != NULL) {
if (ptr >= ramStart && ptr < ramEnd) {
return ptr + offset;
}
}
}
return NULL;
}
void KaleidoManager_LoadOvl(KaleidoMgrOverlay* ovl) {
ovl->loadedRamAddr = sKaleidoAreaPtr;
Load2_LoadOverlay(ovl->vromStart, ovl->vromEnd, ovl->vramStart, ovl->vramEnd, ovl->loadedRamAddr);
ovl->offset = (uintptr_t)ovl->loadedRamAddr - (uintptr_t)ovl->vramStart;
gKaleidoMgrCurOvl = ovl;
}
void KaleidoManager_ClearOvl(KaleidoMgrOverlay* ovl) {
if (ovl->loadedRamAddr != NULL) {
ovl->offset = 0;
bzero(ovl->loadedRamAddr, (uintptr_t)ovl->vramEnd - (uintptr_t)ovl->vramStart);
ovl->loadedRamAddr = NULL;
gKaleidoMgrCurOvl = NULL;
}
}
void KaleidoManager_Init(GlobalContext* globalCtx) {
s32 largestSize = 0;
s32 size;
u32 i;
for (i = 0; i < ARRAY_COUNT(gKaleidoMgrOverlayTable); i++) {
size = (uintptr_t)gKaleidoMgrOverlayTable[i].vramEnd - (uintptr_t)gKaleidoMgrOverlayTable[i].vramStart;
if (size > largestSize) {
largestSize = size;
}
}
sKaleidoAreaPtr = THA_AllocEndAlign16(&globalCtx->state.heap, largestSize);
gKaleidoMgrCurOvl = NULL;
Fault_AddAddrConvClient(&sKaleidoAreaFaultClient, KaleidoManager_FaultAddrConvFunc, NULL);
}
void KaleidoManager_Destroy() {
Fault_RemoveAddrConvClient(&sKaleidoAreaFaultClient);
if (gKaleidoMgrCurOvl != NULL) {
KaleidoManager_ClearOvl(gKaleidoMgrCurOvl);
gKaleidoMgrCurOvl = NULL;
}
sKaleidoAreaPtr = NULL;
}
void* KaleidoManager_GetRamAddr(void* vram) {
if (gKaleidoMgrCurOvl == NULL) {
s32 pad[2];
KaleidoMgrOverlay* ovl = &gKaleidoMgrOverlayTable[0];
do {
if (((uintptr_t)vram >= (uintptr_t)ovl->vramStart) && ((uintptr_t)ovl->vramEnd >= (uintptr_t)vram)) {
KaleidoManager_LoadOvl(ovl);
return (void*)((uintptr_t)vram + ovl->offset);
}
ovl++;
} while (ovl != (KaleidoMgrOverlay*)&sKaleidoAreaPtr);
return NULL;
} else if (((uintptr_t)vram < (uintptr_t)gKaleidoMgrCurOvl->vramStart) ||
((uintptr_t)vram >= (uintptr_t)gKaleidoMgrCurOvl->vramEnd)) {
return NULL;
}
return (void*)((uintptr_t)vram + gKaleidoMgrCurOvl->offset);
}