libretro/snes9x2005
1
0
Fork 0
mirror of https://github.com/libretro/snes9x2005.git synced 2024-11-27 02:20:24 +00:00
Code Issues Actions Packages Projects Releases Wiki Activity
dcb22994b1
snes9x2005/source/sa1.c
Jools Wills b5edf8e7d0 c89 variable declaration
2017-09-04 17:18:57 +00:00

677 lines
19 KiB
C
Raw Blame History

#include "../copyright"
#include "snes9x.h"
#include "ppu.h"
#include "cpuexec.h"
#include "sa1.h"
static void S9xSA1CharConv2(void);
static void S9xSA1DMA(void);
static void S9xSA1ReadVariableLengthData(bool inc, bool no_shift);
void S9xSA1Init()
{
SA1.NMIActive = false;
SA1.IRQActive = 0;
SA1.WaitingForInterrupt = false;
SA1.Waiting = false;
SA1.Flags = 0;
SA1.Executing = false;
memset(&Memory.FillRAM [0x2200], 0, 0x200);
Memory.FillRAM [0x2200] = 0x20;
Memory.FillRAM [0x2220] = 0x00;
Memory.FillRAM [0x2221] = 0x01;
Memory.FillRAM [0x2222] = 0x02;
Memory.FillRAM [0x2223] = 0x03;
Memory.FillRAM [0x2228] = 0xff;
SA1.op1 = 0;
SA1.op2 = 0;
SA1.arithmetic_op = 0;
SA1.sum = 0;
SA1.overflow = false;
SA1.S9xOpcodes = NULL;
}
void S9xSA1Reset()
{
SA1.Registers.PB = 0;
SA1.Registers.PC = Memory.FillRAM [0x2203] | (Memory.FillRAM [0x2204] << 8);
SA1.Registers.D.W = 0;
SA1.Registers.DB = 0;
SA1.Registers.SH = 1;
SA1.Registers.SL = 0xFF;
SA1.Registers.XH = 0;
SA1.Registers.YH = 0;
SA1.Registers.P.W = 0;
SA1.ShiftedPB = 0;
SA1.ShiftedDB = 0;
SA1SetFlags(MemoryFlag | IndexFlag | IRQ | Emulation);
SA1ClearFlags(Decimal);
SA1.WaitingForInterrupt = false;
SA1.PC = NULL;
SA1.PCBase = NULL;
S9xSA1SetPCBase(SA1.Registers.PC);
SA1.S9xOpcodes = S9xSA1OpcodesM1X1;
S9xSA1UnpackStatus();
S9xSA1FixCycles();
SA1.Executing = true;
SA1.BWRAM = Memory.SRAM;
Memory.FillRAM [0x2225] = 0;
}
void S9xSA1SetBWRAMMemMap(uint8_t val)
{
int32_t c;
if (val & 0x80)
{
for (c = 0; c < 0x400; c += 16)
{
SA1.Map [c + 6] = SA1.Map [c + 0x806] = (uint8_t*) MAP_BWRAM_BITMAP2;
SA1.Map [c + 7] = SA1.Map [c + 0x807] = (uint8_t*) MAP_BWRAM_BITMAP2;
SA1.WriteMap [c + 6] = SA1.WriteMap [c + 0x806] = (uint8_t*) MAP_BWRAM_BITMAP2;
SA1.WriteMap [c + 7] = SA1.WriteMap [c + 0x807] = (uint8_t*) MAP_BWRAM_BITMAP2;
}
SA1.BWRAM = Memory.SRAM + (val & 0x7f) * 0x2000 / 4;
}
else
{
for (c = 0; c < 0x400; c += 16)
{
SA1.Map [c + 6] = SA1.Map [c + 0x806] = (uint8_t*) MAP_BWRAM;
SA1.Map [c + 7] = SA1.Map [c + 0x807] = (uint8_t*) MAP_BWRAM;
SA1.WriteMap [c + 6] = SA1.WriteMap [c + 0x806] = (uint8_t*) MAP_BWRAM;
SA1.WriteMap [c + 7] = SA1.WriteMap [c + 0x807] = (uint8_t*) MAP_BWRAM;
}
SA1.BWRAM = Memory.SRAM + (val & 7) * 0x2000;
}
}
void S9xFixSA1AfterSnapshotLoad()
{
SA1.ShiftedPB = (uint32_t) SA1.Registers.PB << 16;
SA1.ShiftedDB = (uint32_t) SA1.Registers.DB << 16;
S9xSA1SetPCBase(SA1.ShiftedPB + SA1.Registers.PC);
S9xSA1UnpackStatus();
S9xSA1FixCycles();
SA1.VirtualBitmapFormat = (Memory.FillRAM [0x223f] & 0x80) ? 2 : 4;
Memory.BWRAM = Memory.SRAM + (Memory.FillRAM [0x2224] & 7) * 0x2000;
S9xSA1SetBWRAMMemMap(Memory.FillRAM [0x2225]);
SA1.Waiting = (Memory.FillRAM [0x2200] & 0x60) != 0;
SA1.Executing = !SA1.Waiting;
}
uint8_t S9xSA1GetByte(uint32_t address)
{
uint8_t* GetAddress = SA1.Map [(address >> MEMMAP_SHIFT) & MEMMAP_MASK];
if (GetAddress >= (uint8_t*) MAP_LAST)
return GetAddress[address & 0xffff];
switch ((intptr_t) GetAddress)
{
case MAP_PPU:
return S9xGetSA1(address & 0xffff);
case MAP_LOROM_SRAM:
case MAP_SA1RAM:
return Memory.SRAM[address & 0xffff];
case MAP_BWRAM:
return SA1.BWRAM[(address & 0x7fff) - 0x6000];
case MAP_BWRAM_BITMAP:
address -= 0x600000;
if (SA1.VirtualBitmapFormat == 2)
return (Memory.SRAM [(address >> 2) & 0xffff] >> ((address & 3) << 1)) & 3;
else
return (Memory.SRAM [(address >> 1) & 0xffff] >> ((address & 1) << 2)) & 15;
case MAP_BWRAM_BITMAP2:
address = (address & 0xffff) - 0x6000;
if (SA1.VirtualBitmapFormat == 2)
return (SA1.BWRAM [(address >> 2) & 0xffff] >> ((address & 3) << 1)) & 3;
else
return (SA1.BWRAM [(address >> 1) & 0xffff] >> ((address & 1) << 2)) & 15;
default:
return OpenBus;
}
}
uint16_t S9xSA1GetWord(uint32_t address)
{
OpenBus = S9xSA1GetByte(address);
return OpenBus | (S9xSA1GetByte(address + 1) << 8);
}
void S9xSA1SetByte(uint8_t byte, uint32_t address)
{
uint8_t* SetAddress = SA1.WriteMap [(address >> MEMMAP_SHIFT) & MEMMAP_MASK];
if (SetAddress >= (uint8_t*) MAP_LAST)
{
SetAddress[address & 0xffff] = byte;
return;
}
switch ((intptr_t) SetAddress)
{
case MAP_PPU:
S9xSetSA1(byte, address & 0xffff);
return;
case MAP_SA1RAM:
case MAP_LOROM_SRAM:
Memory.SRAM[address & 0xffff] = byte;
return;
case MAP_BWRAM:
SA1.BWRAM[(address & 0x7fff) - 0x6000] = byte;
return;
case MAP_BWRAM_BITMAP:
address -= 0x600000;
if (SA1.VirtualBitmapFormat == 2)
{
uint8_t* ptr = &Memory.SRAM [(address >> 2) & 0xffff];
*ptr &= ~(3 << ((address & 3) << 1));
*ptr |= (byte & 3) << ((address & 3) << 1);
}
else
{
uint8_t* ptr = &Memory.SRAM [(address >> 1) & 0xffff];
*ptr &= ~(15 << ((address & 1) << 2));
*ptr |= (byte & 15) << ((address & 1) << 2);
}
break;
case MAP_BWRAM_BITMAP2:
address = (address & 0xffff) - 0x6000;
if (SA1.VirtualBitmapFormat == 2)
{
uint8_t* ptr = &SA1.BWRAM[(address >> 2) & 0xffff];
*ptr &= ~(3 << ((address & 3) << 1));
*ptr |= (byte & 3) << ((address & 3) << 1);
}
else
{
uint8_t* ptr = &SA1.BWRAM [(address >> 1) & 0xffff];
*ptr &= ~(15 << ((address & 1) << 2));
*ptr |= (byte & 15) << ((address & 1) << 2);
}
}
}
void S9xSA1SetWord(uint16_t Word, uint32_t address)
{
S9xSA1SetByte((uint8_t) Word, address);
S9xSA1SetByte((uint8_t)(Word >> 8), address + 1);
}
void S9xSA1SetPCBase(uint32_t address)
{
uint8_t* GetAddress = SA1.Map [(address >> MEMMAP_SHIFT) & MEMMAP_MASK];
if (GetAddress >= (uint8_t*) MAP_LAST)
{
SA1.PCBase = GetAddress;
SA1.PC = GetAddress + (address & 0xffff);
return;
}
switch ((intptr_t) GetAddress)
{
case MAP_PPU:
SA1.PCBase = Memory.FillRAM - 0x2000;
break;
case MAP_CPU:
SA1.PCBase = Memory.FillRAM - 0x4000;
break;
case MAP_DSP:
SA1.PCBase = Memory.FillRAM - 0x6000;
break;
case MAP_SA1RAM:
case MAP_LOROM_SRAM:
SA1.PCBase = Memory.SRAM;
break;
case MAP_BWRAM:
SA1.PCBase = SA1.BWRAM - 0x6000;
break;
case MAP_HIROM_SRAM:
SA1.PCBase = Memory.SRAM - 0x6000;
break;
default:
SA1.PCBase = Memory.RAM;
break;
}
SA1.PC = SA1.PCBase + (address & 0xffff);
}
void S9xSetSA1MemMap(uint32_t which1, uint8_t map)
{
int32_t c;
int32_t i;
int32_t start = which1 * 0x100 + 0xc00;
int32_t start2 = which1 * 0x200;
uint8_t* block;
if (which1 >= 2)
start2 += 0x400;
for (c = 0; c < 0x100; c += 16)
{
block = &Memory.ROM [(map & 7) * 0x100000 + (c << 12)];
for (i = c; i < c + 16; i++)
Memory.Map [start + i] = SA1.Map [start + i] = block;
}
for (c = 0; c < 0x200; c += 16)
{
/* Code from Snes9x 1.54.1 - This allows Super Mario World VLDC 9 hack to load.
Conversion to int is needed here - map is promoted but which1 is not */
int32_t offset = (((map & 0x80) ? map : which1) & 7) * 0x100000 + (c << 11) - 0x8000;
block = &Memory.ROM [offset];
for (i = c + 8; i < c + 16; i++)
Memory.Map [start2 + i] = SA1.Map [start2 + i] = block;
}
}
uint8_t S9xGetSA1(uint32_t address)
{
switch (address)
{
case 0x2300:
return (Memory.FillRAM[0x2209] & 0x5f) | (Memory.FillRAM[0x2300] & 0xa0);
case 0x2301:
return (Memory.FillRAM[0x2200] & 0x0f) | (Memory.FillRAM[0x2301] & 0xf0);
case 0x2306:
return (uint8_t) SA1.sum;
case 0x2307:
return (uint8_t) (SA1.sum >> 8);
case 0x2308:
return (uint8_t) (SA1.sum >> 16);
case 0x2309:
return (uint8_t) (SA1.sum >> 24);
case 0x230a:
return (uint8_t) (SA1.sum >> 32);
case 0x230b:
return SA1.overflow ? 0x80 : 0;
case 0x230c:
return Memory.FillRAM[0x230c];
case 0x230d:
{
uint8_t byte = Memory.FillRAM[0x230d];
if (Memory.FillRAM[0x2258] & 0x80)
S9xSA1ReadVariableLengthData(true, false);
return byte;
}
case 0x230e: /* version code register */
return 0x01;
default:
break;
}
return Memory.FillRAM[address];
}
void S9xSetSA1(uint8_t byte, uint32_t address)
{
if (address < 0x2200 || address > 0x22ff)
return;
switch (address)
{
case 0x2200:
SA1.Waiting = (byte & 0x60) != 0;
if (!(byte & 0x80) && (Memory.FillRAM[0x2200] & 0x20))
S9xSA1Reset();
if (byte & 0x80)
{
Memory.FillRAM[0x2301] |= 0x80;
if (Memory.FillRAM[0x220a] & 0x80)
{
Memory.FillRAM[0x220b] &= ~0x80;
SA1.Flags |= IRQ_PENDING_FLAG;
SA1.IRQActive |= SNES_IRQ_SOURCE;
SA1.Executing = !SA1.Waiting && SA1.S9xOpcodes;
}
}
if (byte & 0x10)
{
Memory.FillRAM[0x2301] |= 0x10;
if (Memory.FillRAM[0x220a] & 0x10)
Memory.FillRAM[0x220b] &= ~0x10;
}
break;
case 0x2201:
if (((byte ^ Memory.FillRAM[0x2201]) & 0x80) && (Memory.FillRAM[0x2300] & byte & 0x80))
{
Memory.FillRAM[0x2202] &= ~0x80;
S9xSetIRQ(SA1_IRQ_SOURCE);
}
if (((byte ^ Memory.FillRAM[0x2201]) & 0x20) && (Memory.FillRAM[0x2300] & byte & 0x20))
{
Memory.FillRAM[0x2202] &= ~0x20;
S9xSetIRQ(SA1_DMA_IRQ_SOURCE);
}
break;
case 0x2202:
if (byte & 0x80)
{
Memory.FillRAM [0x2300] &= ~0x80;
S9xClearIRQ(SA1_IRQ_SOURCE);
}
if (byte & 0x20)
{
Memory.FillRAM [0x2300] &= ~0x20;
S9xClearIRQ(SA1_DMA_IRQ_SOURCE);
}
break;
case 0x2209:
if (byte & 0x80)
{
Memory.FillRAM[0x2300] |= 0x80;
if (Memory.FillRAM[0x2201] & 0x80)
{
Memory.FillRAM[0x2202] &= ~0x80;
S9xSetIRQ(SA1_IRQ_SOURCE);
}
}
break;
case 0x220a:
if (((byte ^ Memory.FillRAM[0x220a]) & 0x80) && (Memory.FillRAM[0x2301] & byte & 0x80))
{
Memory.FillRAM[0x220b] &= ~0x80;
SA1.Flags |= IRQ_PENDING_FLAG;
SA1.IRQActive |= SNES_IRQ_SOURCE;
}
if (((byte ^ Memory.FillRAM[0x220a]) & 0x40) && (Memory.FillRAM[0x2301] & byte & 0x40))
{
Memory.FillRAM[0x220b] &= ~0x40;
SA1.Flags |= IRQ_PENDING_FLAG;
SA1.IRQActive |= TIMER_IRQ_SOURCE;
}
if (((byte ^ Memory.FillRAM[0x220a]) & 0x20) && (Memory.FillRAM[0x2301] & byte & 0x20))
{
Memory.FillRAM[0x220b] &= ~0x20;
SA1.Flags |= IRQ_PENDING_FLAG;
SA1.IRQActive |= DMA_IRQ_SOURCE;
}
if (((byte ^ Memory.FillRAM[0x220a]) & 0x10) && (Memory.FillRAM[0x2301] & byte & 0x10))
Memory.FillRAM[0x220b] &= ~0x10;
break;
case 0x220b:
if (byte & 0x80)
{
SA1.IRQActive &= ~SNES_IRQ_SOURCE;
Memory.FillRAM [0x2301] &= ~0x80;
}
if (byte & 0x40)
{
SA1.IRQActive &= ~TIMER_IRQ_SOURCE;
Memory.FillRAM [0x2301] &= ~0x40;
}
if (byte & 0x20)
{
SA1.IRQActive &= ~DMA_IRQ_SOURCE;
Memory.FillRAM [0x2301] &= ~0x20;
}
if (byte & 0x10)
Memory.FillRAM [0x2301] &= ~0x10;
if (!SA1.IRQActive)
SA1.Flags &= ~IRQ_PENDING_FLAG;
break;
case 0x2220:
case 0x2221:
case 0x2222:
case 0x2223:
S9xSetSA1MemMap(address - 0x2220, byte);
break;
case 0x2224:
Memory.BWRAM = Memory.SRAM + (byte & 7) * 0x2000;
break;
case 0x2225:
if (byte != Memory.FillRAM [address])
S9xSA1SetBWRAMMemMap(byte);
break;
case 0x2231:
if (byte & 0x80)
SA1.in_char_dma = 0;
break;
case 0x2236: /* DMA destination start address (LH) */
Memory.FillRAM[address] = byte;
if ((Memory.FillRAM[0x2230] & 0xa4) == 0x80) /* Normal DMA to I-RAM */
S9xSA1DMA(); /* Normal DMA to I-RAM */
else if ((Memory.FillRAM[0x2230] & 0xb0) == 0xb0)
{
SA1.in_char_dma = 1;
Memory.FillRAM[0x2300] |= 0x20;
if (Memory.FillRAM[0x2201] & 0x20)
{
Memory.FillRAM[0x2202] &= ~0x20;
S9xSetIRQ(SA1_DMA_IRQ_SOURCE);
}
}
break;
case 0x2237:
Memory.FillRAM [address] = byte;
if ((Memory.FillRAM [0x2230] & 0xa4) == 0x84)
S9xSA1DMA(); /* Normal DMA to BW-RAM */
break;
case 0x223f:
SA1.VirtualBitmapFormat = (byte & 0x80) ? 2 : 4;
break;
case 0x224f:
Memory.FillRAM [address] = byte;
if ((Memory.FillRAM [0x2230] & 0xb0) == 0xa0)
{
/* Char conversion 2 DMA enabled */
/* memmove converted: Same malloc but constant non-overlapping addresses [Neb] */
memcpy(&Memory.ROM [MAX_ROM_SIZE - 0x10000] + (SA1.in_char_dma << 4), &Memory.FillRAM [0x2240], 16);
SA1.in_char_dma = (SA1.in_char_dma + 1) & 7;
if ((SA1.in_char_dma & 3) == 0)
S9xSA1CharConv2();
}
break;
case 0x2250:
if (byte & 2)
SA1.sum = 0;
SA1.arithmetic_op = byte & 3;
break;
case 0x2251:
SA1.op1 = (SA1.op1 & 0xff00) | byte;
break;
case 0x2252:
SA1.op1 = (SA1.op1 & 0x00ff) | (byte << 8);
break;
case 0x2253:
SA1.op2 = (SA1.op2 & 0xff00) | byte;
break;
case 0x2254:
SA1.op2 = (SA1.op2 & 0x00ff) | (byte << 8);
switch (SA1.arithmetic_op)
{
case 0: /* multiply */
SA1.sum = (int16_t) SA1.op1 * (int16_t) SA1.op2;
SA1.op2 = 0;
break;
case 1: /* divide */
if (SA1.op2 == 0)
SA1.sum = 0;
else
{
int16_t quotient = (int16_t) SA1.op1 / (uint16_t) SA1.op2;
uint16_t remainder = (int16_t) SA1.op1 % (uint16_t) SA1.op2;
SA1.sum = (remainder << 16) | quotient;
}
SA1.op1 = 0;
SA1.op2 = 0;
break;
default: /* cumulative sum */
SA1.sum += (int16_t) SA1.op1 * (int16_t) SA1.op2;
SA1.overflow = (SA1.sum >= (((uint64_t) 1) << 40));
SA1.sum &= (((uint64_t) 1) << 40) - 1;
SA1.op2 = 0;
break;
}
break;
case 0x2258: /* Variable bit-field length/auto inc/start. */
Memory.FillRAM[0x2258] = byte;
S9xSA1ReadVariableLengthData(true, false);
return;
case 0x2259:
case 0x225a:
case 0x225b: /* Variable bit-field start address */
Memory.FillRAM[address] = byte;
SA1.variable_bit_pos = 0;
S9xSA1ReadVariableLengthData(false, true);
return;
default:
break;
}
Memory.FillRAM[address] = byte;
}
static void S9xSA1CharConv2(void)
{
uint32_t dest = Memory.FillRAM[0x2235] | (Memory.FillRAM[0x2236] << 8);
uint32_t offset = (SA1.in_char_dma & 7) ? 0 : 1;
int32_t depthX8 = (Memory.FillRAM[0x2231] & 3) == 0 ? 64 : (Memory.FillRAM[0x2231] & 3) == 1 ? 32 : 16;
uint8_t* p = &Memory.FillRAM[0x3000] + (dest & 0x7ff) + offset * depthX8;
uint8_t* q = &Memory.ROM[MAX_ROM_SIZE - 0x10000] + offset * 64;
int l, b;
switch(depthX8)
{
case 16:
for (l = 0; l < 8; l++, q += 8)
{
for (b = 0; b < 8; b++)
{
uint8_t r = q[b];
p[0] = (p[0] << 1) | ((r >> 0) & 1);
p[1] = (p[1] << 1) | ((r >> 1) & 1);
}
p += 2;
}
break;
case 32:
for (l = 0; l < 8; l++, q += 8)
{
for (b = 0; b < 8; b++)
{
uint8_t r = q[b];
p[0] = (p[0] << 1) | ((r >> 0) & 1);
p[1] = (p[1] << 1) | ((r >> 1) & 1);
p[16] = (p[16] << 1) | ((r >> 2) & 1);
p[17] = (p[17] << 1) | ((r >> 3) & 1);
}
p += 2;
}
break;
case 64:
for (l = 0; l < 8; l++, q += 8)
{
for (b = 0; b < 8; b++)
{
uint8_t r = q[b];
p[0] = (p[0] << 1) | ((r >> 0) & 1);
p[1] = (p[1] << 1) | ((r >> 1) & 1);
p[16] = (p[16] << 1) | ((r >> 2) & 1);
p[17] = (p[17] << 1) | ((r >> 3) & 1);
p[32] = (p[32] << 1) | ((r >> 4) & 1);
p[33] = (p[33] << 1) | ((r >> 5) & 1);
p[48] = (p[48] << 1) | ((r >> 6) & 1);
p[49] = (p[49] << 1) | ((r >> 7) & 1);
}
p += 2;
}
break;
}
}
static void S9xSA1DMA()
{
uint32_t src = Memory.FillRAM[0x2232] | (Memory.FillRAM[0x2233] << 8) | (Memory.FillRAM[0x2234] << 16);
uint32_t dst = Memory.FillRAM[0x2235] | (Memory.FillRAM[0x2236] << 8) | (Memory.FillRAM[0x2237] << 16);
uint32_t len = Memory.FillRAM[0x2238] | (Memory.FillRAM[0x2239] << 8);
uint8_t* s;
uint8_t* d;
switch (Memory.FillRAM [0x2230] & 3)
{
case 0: /* ROM */
s = SA1.Map [(src >> MEMMAP_SHIFT) & MEMMAP_MASK];
if (s >= (uint8_t*) MAP_LAST)
s += (src & 0xffff);
else
s = Memory.ROM + (src & 0xffff);
break;
case 1: /* BW-RAM */
src &= Memory.SRAMMask;
len &= Memory.SRAMMask;
s = Memory.SRAM + src;
break;
default:
src &= 0x3ff;
len &= 0x3ff;
s = &Memory.FillRAM [0x3000] + src;
break;
}
if (Memory.FillRAM [0x2230] & 4)
{
dst &= Memory.SRAMMask;
len &= Memory.SRAMMask;
d = Memory.SRAM + dst;
}
else
{
dst &= 0x3ff;
len &= 0x3ff;
d = &Memory.FillRAM [0x3000] + dst;
}
/* memmove required: Can overlap arbitrarily [Neb] */
memmove(d, s, len);
Memory.FillRAM [0x2301] |= 0x20;
if (Memory.FillRAM [0x220a] & 0x20)
{
SA1.Flags |= IRQ_PENDING_FLAG;
SA1.IRQActive |= DMA_IRQ_SOURCE;
}
}
void S9xSA1ReadVariableLengthData(bool inc, bool no_shift)
{
uint8_t s;
uint32_t data;
uint32_t addr = Memory.FillRAM[0x2259] | (Memory.FillRAM[0x225a] << 8) | (Memory.FillRAM[0x225b] << 16);
uint8_t shift = Memory.FillRAM [0x2258] & 15;
if (no_shift)
shift = 0;
else if (shift == 0)
shift = 16;
s = shift + SA1.variable_bit_pos;
if (s >= 16)
{
addr += (s >> 4) << 1;
s &= 15;
}
data = S9xSA1GetWord(addr) | (S9xSA1GetWord(addr + 2) << 16);
data >>= s;
Memory.FillRAM [0x230c] = (uint8_t) data;
Memory.FillRAM [0x230d] = (uint8_t)(data >> 8);
if (inc)
{
SA1.variable_bit_pos = (SA1.variable_bit_pos + shift) & 15;
Memory.FillRAM [0x2259] = (uint8_t) addr;
Memory.FillRAM [0x225a] = (uint8_t)(addr >> 8);
Memory.FillRAM [0x225b] = (uint8_t)(addr >> 16);
}
}
Reference in New Issue View Git Blame Copy Permalink