xref: /dports/games/libretro-vbanext/vba-next-c24bf52/src/gba.cpp

#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <math.h>
#include <stddef.h>
#include <memalign.h>
#include <time.h>

#include "system.h"
#include "globals.h"

#include "port.h"
#include "gba.h"
#include "memory.h"
#include "sound.h"

#ifdef ELF
#include "elf.h"
#endif

#define DEBUG_RENDERER_MODE0 1
#define DEBUG_RENDERER_MODE1 1
#define DEBUG_RENDERER_MODE2 1
#define DEBUG_RENDERER_MODE3 1
#define DEBUG_RENDERER_MODE4 1
#define DEBUG_RENDERER_MODE5 1

#define DEBUG_RENDERER_NOSYNC 0

#define CLOCKTICKS_UPDATE_TYPE16  codeTicksAccessSeq16(bus.armNextPC) + 1
#define CLOCKTICKS_UPDATE_TYPE32  codeTicksAccessSeq32(bus.armNextPC) + 1
#define CLOCKTICKS_UPDATE_TYPE16P (codeTicksAccessSeq16(bus.armNextPC) << 1) + codeTicksAccess(bus.armNextPC, BITS_16) + 3
#define CLOCKTICKS_UPDATE_TYPE32P (codeTicksAccessSeq32(bus.armNextPC) << 1) + codeTicksAccess(bus.armNextPC, BITS_32) + 3

// Indexes into the line array
#define Layer_BG0 0
#define Layer_BG1 1
#define Layer_BG2 2
#define Layer_BG3 3
#define Layer_OBJ 4
#define Layer_WIN_OBJ 5 // Used by VBA for OBJ opacity tests

#define LayerMask_BG0  (1 << Layer_BG0)
#define LayerMask_BG1  (1 << Layer_BG1)
#define LayerMask_BG2  (1 << Layer_BG2)
#define LayerMask_BG3  (1 << Layer_BG3)
#define LayerMask_OBJ  (1 << Layer_OBJ)
// Used in R_WIN_* to indicate whether color effects are enabled
#define LayerMask_SFX  (1 << 5)

#if USE_FRAME_SKIP

int fs_count = 0;
int fs_type = 0;
int fs_type_a = 0;
int fs_type_b = 0;
bool fs_draw = false;

void SetFrameskip(int code)
{
	fs_type = code;
	fs_type_a = (0xF0 & fs_type) >> 4;
	fs_type_b = 0xF & fs_type;
}
#endif

typedef void (*renderfunc_t)(void);

template<int renderer_idx>
renderfunc_t GetRenderFunc(int mode, int type);

inline static long max(int p, int q) { return p > q ? p : q; }
inline static long min(int p, int q) { return p < q ? p : q; }

uint8_t *rom = 0;
uint8_t *bios = 0;
uint8_t *vram = 0;
uint16_t *pix = 0;
uint8_t *oam = 0;
uint8_t *ioMem = 0;
uint8_t *internalRAM = 0;
uint8_t *workRAM = 0;
uint8_t *paletteRAM = 0;
char cartridgeCode[4];

int renderfunc_mode = 0;
int renderfunc_type = 0;

#if USE_MOTION_SENSOR
hardware_t hardware;

static void hardware_reset() {
	hardware.tilt_x = 0;
	hardware.tilt_y = 0;
	hardware.direction = 0;
	hardware.pinState = 0;
	hardware.gyroSample = 0;
	hardware.readWrite = false;
	hardware.gyroEdge = false;
}
#endif

#if THREADED_RENDERER

	//THREADED_RENDERER_COUNT: 1 to 4
	#if VITA
		#define THREADED_RENDERER_COUNT 2
	#else
		#define THREADED_RENDERER_COUNT 1
	#endif

	#include "thread.h"

	static int threaded_renderer_idx = 0;
	static uint32_t threaded_gfxinwin_ver[2] = {1, 1};
	static volatile uint32_t threaded_background_ver = 0;
	static volatile int threaded_renderer_ready = 0;

	static void threaded_renderer_loop(void* p);
	static void threaded_renderer_loop0(void* p);

	typedef struct {
		thread_t renderer_thread_id;

		volatile int renderer_control;
		volatile int renderer_state;
		int renderfunc_mode;
		int renderfunc_type;
		int vcount;

		uint32_t background_ver;
		uint32_t gfxinwin_ver[2];

		uint16_t io_registers[1024 * 16];
		uint32_t line[6][240];
		int lineOBJpixleft[128];
		bool gfxInWin[2][240];

		bool draw_objwin;
		bool draw_sprites;
		uint16_t mosaic;
		uint16_t bldmod;
		uint16_t layers;

		int bg2c;
		int bg3c;
		int bg2x;
		int bg2y;
		int bg3x;
		int bg3y;

		int bg2x_l;
		int bg2x_h;
		int bg2y_l;
		int bg2y_h;
		int bg3x_l;
		int bg3x_h;
		int bg3y_l;
		int bg3y_h;
	} renderer_context;

	static void init_renderer_context(renderer_context& ctx) {
		ctx.renderer_control = 0;
		ctx.renderer_state = 0;
		ctx.background_ver = 0;
		ctx.gfxinwin_ver[0] = 0;
		ctx.gfxinwin_ver[1] = 0;
		memset(ctx.line[Layer_BG0], -1, 240 * sizeof(u32));
		memset(ctx.line[Layer_BG1], -1, 240 * sizeof(u32));
		memset(ctx.line[Layer_BG2], -1, 240 * sizeof(u32));
		memset(ctx.line[Layer_BG3], -1, 240 * sizeof(u32));
	}

	static renderer_context threaded_renderer_contexts[THREADED_RENDERER_COUNT];

	#define INIT_RENDERER_CONTEXT(__renderer_idx__) renderer_context& renderer_ctx = threaded_renderer_contexts[__renderer_idx__]

	#define RENDERER_BG2C renderer_ctx.bg2c
	#define RENDERER_BG3C renderer_ctx.bg3c

	#define RENDERER_BG2X renderer_ctx.bg2x
	#define RENDERER_BG2Y renderer_ctx.bg2y
	#define RENDERER_BG3X renderer_ctx.bg3x
	#define RENDERER_BG3Y renderer_ctx.bg3y

	#define RENDERER_BG2X_L renderer_ctx.bg2x_l
	#define RENDERER_BG2X_H renderer_ctx.bg2x_h
	#define RENDERER_BG2Y_L renderer_ctx.bg2y_l
	#define RENDERER_BG2Y_H renderer_ctx.bg2y_h
	#define RENDERER_BG3X_L renderer_ctx.bg3x_l
	#define RENDERER_BG3X_H renderer_ctx.bg3x_h
	#define RENDERER_BG3Y_L renderer_ctx.bg3y_l
	#define RENDERER_BG3Y_H renderer_ctx.bg3y_h

	#define RENDERER_PALETTE paletteRAM
	#define RENDERER_OAM oam

	#define RENDERER_LINE renderer_ctx.line
	#define RENDERER_IO_REGISTERS renderer_ctx.io_registers
	#define RENDERER_MOSAIC renderer_ctx.mosaic
	#define RENDERER_BLDMOD renderer_ctx.bldmod
	#define RENDERER_GRAPHICS_LAYERS renderer_ctx.layers
	#define RENDERER_LINE_OBJ_PIX_LEFT renderer_ctx.lineOBJpixleft
	#define RENDERER_GFX_IN_WIN renderer_ctx.gfxInWin

	#define RENDERER_R_VCOUNT renderer_ctx.vcount
	#define RENDERER_R_DISPCNT_Video_Mode renderer_ctx.renderfunc_mode

	#define RENDERER_R_DISPCNT_Screen_Display_BG0 (RENDERER_GRAPHICS_LAYERS & (1 <<  8))
	#define RENDERER_R_DISPCNT_Screen_Display_BG1 (RENDERER_GRAPHICS_LAYERS & (1 <<  9))
	#define RENDERER_R_DISPCNT_Screen_Display_BG2 (RENDERER_GRAPHICS_LAYERS & (1 << 10))
	#define RENDERER_R_DISPCNT_Screen_Display_BG3 (RENDERER_GRAPHICS_LAYERS & (1 << 11))
	#define RENDERER_R_DISPCNT_Screen_Display_OBJ (RENDERER_GRAPHICS_LAYERS & (1 << 12))
	#define RENDERER_R_DISPCNT_Window_0_Display   (RENDERER_GRAPHICS_LAYERS & (1 << 13))
	#define RENDERER_R_DISPCNT_Window_1_Display   (RENDERER_GRAPHICS_LAYERS & (1 << 14))
	#define RENDERER_R_DISPCNT_OBJ_Window_Display (RENDERER_GRAPHICS_LAYERS & (1 << 15))

	#define RENDERER_R_WIN_Window0_X1 (RENDERER_IO_REGISTERS[REG_WIN0H] >> 8)
	#define RENDERER_R_WIN_Window0_X2 (RENDERER_IO_REGISTERS[REG_WIN0H] & 0xFF)
	#define RENDERER_R_WIN_Window0_Y1 (RENDERER_IO_REGISTERS[REG_WIN0V] >> 8)
	#define RENDERER_R_WIN_Window0_Y2 (RENDERER_IO_REGISTERS[REG_WIN0V] & 0xFF)

	#define RENDERER_R_WIN_Window1_X1 (RENDERER_IO_REGISTERS[REG_WIN1H] >> 8)
	#define RENDERER_R_WIN_Window1_X2 (RENDERER_IO_REGISTERS[REG_WIN1H] & 0xFF)
	#define RENDERER_R_WIN_Window1_Y1 (RENDERER_IO_REGISTERS[REG_WIN1V] >> 8)
	#define RENDERER_R_WIN_Window1_Y2 (RENDERER_IO_REGISTERS[REG_WIN1V] & 0xFF)

	#define RENDERER_R_WIN_Window0_Mask (RENDERER_IO_REGISTERS[REG_WININ] & 0xFF)
	#define RENDERER_R_WIN_Window1_Mask (RENDERER_IO_REGISTERS[REG_WININ] >> 8)
	#define RENDERER_R_WIN_Outside_Mask (RENDERER_IO_REGISTERS[REG_WINOUT] & 0xFF)
	#define RENDERER_R_WIN_OBJ_Mask     (RENDERER_IO_REGISTERS[REG_WINOUT] >> 8)

#else
	#define INIT_RENDERER_CONTEXT(__renderer_idx__) 0

    #define RENDERER_BG2C gfxBG2Changed
	#define RENDERER_BG3C gfxBG3Changed

	#define RENDERER_BG2X gfxBG2X
	#define RENDERER_BG2Y gfxBG2Y
	#define RENDERER_BG3X gfxBG3X
	#define RENDERER_BG3Y gfxBG3Y

	#define RENDERER_BG2X_L BG2X_L
	#define RENDERER_BG2X_H BG2X_H
	#define RENDERER_BG2Y_L BG2Y_L
	#define RENDERER_BG2Y_H BG2Y_H
	#define RENDERER_BG3X_L BG3X_L
	#define RENDERER_BG3X_H BG3X_H
	#define RENDERER_BG3Y_L BG3Y_L
	#define RENDERER_BG3Y_H BG3Y_H

	#define RENDERER_PALETTE paletteRAM
	#define RENDERER_IO_REGISTERS io_registers
	#define RENDERER_LINE line
	#define RENDERER_OAM oam
	#define RENDERER_MOSAIC MOSAIC
	#define RENDERER_BLDMOD BLDMOD
	#define RENDERER_GRAPHICS_LAYERS graphics.layerEnable
	#define RENDERER_LINE_OBJ_PIX_LEFT lineOBJpixleft
	#define RENDERER_GFX_IN_WIN gfxInWin

	#define RENDERER_R_VCOUNT (RENDERER_IO_REGISTERS[REG_VCOUNT])
	#define RENDERER_R_DISPCNT_Video_Mode (RENDERER_IO_REGISTERS[REG_DISPCNT] & 7)

	#define RENDERER_R_DISPCNT_Screen_Display_BG0 (RENDERER_GRAPHICS_LAYERS & (1 <<  8))
	#define RENDERER_R_DISPCNT_Screen_Display_BG1 (RENDERER_GRAPHICS_LAYERS & (1 <<  9))
	#define RENDERER_R_DISPCNT_Screen_Display_BG2 (RENDERER_GRAPHICS_LAYERS & (1 << 10))
	#define RENDERER_R_DISPCNT_Screen_Display_BG3 (RENDERER_GRAPHICS_LAYERS & (1 << 11))
	#define RENDERER_R_DISPCNT_Screen_Display_OBJ (RENDERER_GRAPHICS_LAYERS & (1 << 12))
	#define RENDERER_R_DISPCNT_Window_0_Display   (RENDERER_GRAPHICS_LAYERS & (1 << 13))
	#define RENDERER_R_DISPCNT_Window_1_Display   (RENDERER_GRAPHICS_LAYERS & (1 << 14))
	#define RENDERER_R_DISPCNT_OBJ_Window_Display (RENDERER_GRAPHICS_LAYERS & (1 << 15))

	#define RENDERER_R_WIN_Window0_X1 (RENDERER_IO_REGISTERS[REG_WIN0H] >> 8)
	#define RENDERER_R_WIN_Window0_X2 (RENDERER_IO_REGISTERS[REG_WIN0H] & 0xFF)
	#define RENDERER_R_WIN_Window0_Y1 (RENDERER_IO_REGISTERS[REG_WIN0V] >> 8)
	#define RENDERER_R_WIN_Window0_Y2 (RENDERER_IO_REGISTERS[REG_WIN0V] & 0xFF)

	#define RENDERER_R_WIN_Window1_X1 (RENDERER_IO_REGISTERS[REG_WIN1H] >> 8)
	#define RENDERER_R_WIN_Window1_X2 (RENDERER_IO_REGISTERS[REG_WIN1H] & 0xFF)
	#define RENDERER_R_WIN_Window1_Y1 (RENDERER_IO_REGISTERS[REG_WIN1V] >> 8)
	#define RENDERER_R_WIN_Window1_Y2 (RENDERER_IO_REGISTERS[REG_WIN1V] & 0xFF)

	#define RENDERER_R_WIN_Window0_Mask (RENDERER_IO_REGISTERS[REG_WININ] & 0xFF)
	#define RENDERER_R_WIN_Window1_Mask (RENDERER_IO_REGISTERS[REG_WININ] >> 8)
	#define RENDERER_R_WIN_Outside_Mask (RENDERER_IO_REGISTERS[REG_WINOUT] & 0xFF)
	#define RENDERER_R_WIN_OBJ_Mask     (RENDERER_IO_REGISTERS[REG_WINOUT] >> 8)

#endif

#define RENDERER_BACKDROP (READ16LE(&reinterpret_cast<uint16_t*>(RENDERER_PALETTE)[0]) | 0x30000000)
#define RENDERER_R_BLDCNT_Color_Special_Effect ((RENDERER_BLDMOD >> 6) & 3)
#define RENDERER_R_BLDCNT_IsTarget1(target) ((target) & (RENDERER_BLDMOD     ))
#define RENDERER_R_BLDCNT_IsTarget2(target) ((target) & (RENDERER_BLDMOD >> 8))

/*============================================================
	GBA INLINE
============================================================ */

#define UPDATE_REG(address, value)	WRITE16LE(((u16 *)&ioMem[address]),value);
#define ARM_PREFETCH_NEXT		cpuPrefetch[1] = CPUReadMemoryQuick(bus.armNextPC+4);
#define THUMB_PREFETCH_NEXT		cpuPrefetch[1] = CPUReadHalfWordQuick(bus.armNextPC+2);

#define ARM_PREFETCH \
  {\
    cpuPrefetch[0] = CPUReadMemoryQuick(bus.armNextPC);\
    cpuPrefetch[1] = CPUReadMemoryQuick(bus.armNextPC+4);\
  }

#define THUMB_PREFETCH \
  {\
    cpuPrefetch[0] = CPUReadHalfWordQuick(bus.armNextPC);\
    cpuPrefetch[1] = CPUReadHalfWordQuick(bus.armNextPC+2);\
  }

#define MOSAIC_LOOP(__layer__, __mosaicX__) { \
	int m = 1; \
	int i = 0; \
	for (; i < 239; i++) { \
		RENDERER_LINE[__layer__][i+1] = RENDERER_LINE[__layer__][i]; \
		if (++m == __mosaicX__) { m = 1; i++; } \
	} \
}

static INLINE u32 gfxIncreaseBrightness(u32 color, int coeff) {
	color = (((color & 0xffff) << 16) | (color & 0xffff)) & 0x3E07C1F;
	color += ((((0x3E07C1F - color) * coeff) >> 4) & 0x3E07C1F);
	return (color >> 16) | color;
}

static INLINE u32 gfxDecreaseBrightness(u32 color, int coeff) {
	color = (((color & 0xffff) << 16) | (color & 0xffff)) & 0x3E07C1F;
	color -= (((color * coeff) >> 4) & 0x3E07C1F);
	return (color >> 16) | color;
}

static u32 AlphaClampLUT[64] =
{
	0x00, 0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08, 0x09, 0x0A, 0x0B, 0x0C, 0x0D, 0x0E, 0x0F,
	0x10, 0x11, 0x12, 0x13, 0x14, 0x15, 0x16, 0x17, 0x18, 0x19, 0x1A, 0x1B, 0x1C, 0x1D, 0x1E, 0x1F,
	0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F,
	0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F, 0x1F
};

#define GFX_ALPHA_BLEND(color, color2, ca, cb) {                                                         \
	int r = AlphaClampLUT[(((color & 0x1F) * ca) >> 4) + (((color2 & 0x1F) * cb) >> 4)];                 \
	int g = AlphaClampLUT[((((color >> 5) & 0x1F) * ca) >> 4) + ((((color2 >> 5) & 0x1F) * cb) >> 4)];   \
	int b = AlphaClampLUT[((((color >> 10) & 0x1F) * ca) >> 4) + ((((color2 >> 10) & 0x1F) * cb) >> 4)]; \
	color = (color & 0xFFFF0000) | (b << 10) | (g << 5) | r;	\
}

#define brightness_switch()                                                                \
	switch(RENDERER_R_BLDCNT_Color_Special_Effect) { \
		case SpecialEffect_Brightness_Increase:                                            \
			color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]); break;               \
		case SpecialEffect_Brightness_Decrease:                                            \
			color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]); break;               \
	}

#define alpha_blend_brightness_switch()                                                    \
	if(RENDERER_R_BLDCNT_IsTarget2(top2)) { \
		if(color < 0x80000000) {	\
			GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]); \
		} else if (RENDERER_R_BLDCNT_IsTarget1(top)) { \
			brightness_switch();                                                           \
		} \
	}

#ifdef USE_SWITICKS
extern int SWITicks;
#endif
static int cpuNextEvent = 0;
static bool holdState = false;
static uint32_t cpuPrefetch[2];
static int cpuTotalTicks = 0;

static uint8_t memoryWait[16] =
  { 0, 0, 2, 0, 0, 0, 0, 0, 4, 4, 4, 4, 4, 4, 4, 0 };
static uint8_t memoryWaitSeq[16] =
  { 0, 0, 2, 0, 0, 0, 0, 0, 2, 2, 4, 4, 8, 8, 4, 0 };
static uint8_t memoryWait32[16] =
  { 0, 0, 5, 0, 0, 1, 1, 0, 7, 7, 9, 9, 13, 13, 4, 0 };
static uint8_t memoryWaitSeq32[16] =
  { 0, 0, 5, 0, 0, 1, 1, 0, 5, 5, 9, 9, 17, 17, 4, 0 };

const int table [0x40] =
{
		0xFF10,     0,0xFF11,0xFF12,0xFF13,0xFF14,     0,     0,
		0xFF16,0xFF17,     0,     0,0xFF18,0xFF19,     0,     0,
		0xFF1A,     0,0xFF1B,0xFF1C,0xFF1D,0xFF1E,     0,     0,
		0xFF20,0xFF21,     0,     0,0xFF22,0xFF23,     0,     0,
		0xFF24,0xFF25,     0,     0,0xFF26,     0,     0,     0,
		     0,     0,     0,     0,     0,     0,     0,     0,
		0xFF30,0xFF31,0xFF32,0xFF33,0xFF34,0xFF35,0xFF36,0xFF37,
		0xFF38,0xFF39,0xFF3A,0xFF3B,0xFF3C,0xFF3D,0xFF3E,0xFF3F,
};

static int coeff[32] = {0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10,
			11, 12, 13, 14, 15, 16, 16, 16, 16,
			16, 16, 16, 16, 16, 16, 16, 16, 16,
			16, 16, 16};

static uint8_t biosProtected[4];
static uint8_t cpuBitsSet[256];

static void CPUSwitchMode(int mode, bool saveState, bool breakLoop);
static bool N_FLAG = 0;
static bool C_FLAG = 0;
static bool Z_FLAG = 0;
static bool V_FLAG = 0;
static bool armState = true;
static bool armIrqEnable = true;
static int armMode = 0x1f;

typedef enum
{
  REG_DISPCNT = 0x000,
  REG_DISPSTAT = 0x002,
  REG_VCOUNT = 0x003,
  REG_BG0CNT = 0x004,
  REG_BG1CNT = 0x005,
  REG_BG2CNT = 0x006,
  REG_BG3CNT = 0x007,
  REG_BG0HOFS = 0x08,
  REG_BG0VOFS = 0x09,
  REG_BG1HOFS = 0x0A,
  REG_BG1VOFS = 0x0B,
  REG_BG2HOFS = 0x0C,
  REG_BG2VOFS = 0x0D,
  REG_BG3HOFS = 0x0E,
  REG_BG3VOFS = 0x0F,
  REG_BG2PA = 0x10,
  REG_BG2PB = 0x11,
  REG_BG2PC = 0x12,
  REG_BG2PD = 0x13,
  REG_BG2X_L = 0x14,
  REG_BG2X_H = 0x15,
  REG_BG2Y_L = 0x16,
  REG_BG2Y_H = 0x17,
  REG_BG3PA = 0x18,
  REG_BG3PB = 0x19,
  REG_BG3PC = 0x1A,
  REG_BG3PD = 0x1B,
  REG_BG3X_L = 0x1C,
  REG_BG3X_H = 0x1D,
  REG_BG3Y_L = 0x1E,
  REG_BG3Y_H = 0x1F,
  REG_WIN0H = 0x20,
  REG_WIN1H = 0x21,
  REG_WIN0V = 0x22,
  REG_WIN1V = 0x23,
  REG_WININ = 0x24,
  REG_WINOUT = 0x25,
  REG_BLDCNT = 0x28,
  REG_BLDALPHA = 0x29,
  REG_BLDY = 0x2A,
  REG_TM0D = 0x80,
  REG_TM0CNT = 0x81,
  REG_TM1D = 0x82,
  REG_TM1CNT = 0x83,
  REG_TM2D = 0x84,
  REG_TM2CNT = 0x85,
  REG_TM3D = 0x86,
  REG_TM3CNT = 0x87,
  REG_P1 = 0x098,
  REG_P1CNT = 0x099,
  REG_RCNT = 0x9A,
  REG_IE = 0x100,
  REG_IF = 0x101,
  REG_IME = 0x104,
  REG_HALTCNT = 0x180
} hardware_register;

static uint16_t io_registers[1024 * 16];

// Note: Some comments below are from the GBATEK document
// (http://problemkaputt.de/gbatek.htm).

#define R_DISPCNT_Video_Mode (io_registers[REG_DISPCNT] & 7)

// By default, BG0-3 and OBJ Display Flags (Bit 8-12) are used to
// enable/disable BGs and OBJ. When enabling Window 0 and/or 1
// (Bit 13-14), color special effects may be used, and BG0-3 and
// OBJ are controlled by the window(s).

#define R_DISPCNT_Screen_Display_BG0 (graphics.layerEnable & (1 <<  8))
#define R_DISPCNT_Screen_Display_BG1 (graphics.layerEnable & (1 <<  9))
#define R_DISPCNT_Screen_Display_BG2 (graphics.layerEnable & (1 << 10))
#define R_DISPCNT_Screen_Display_BG3 (graphics.layerEnable & (1 << 11))
#define R_DISPCNT_Screen_Display_OBJ (graphics.layerEnable & (1 << 12))
#define R_DISPCNT_Window_0_Display   (graphics.layerEnable & (1 << 13))
#define R_DISPCNT_Window_1_Display   (graphics.layerEnable & (1 << 14))
#define R_DISPCNT_OBJ_Window_Display (graphics.layerEnable & (1 << 15))

#define R_WIN_Window0_X1 (io_registers[REG_WIN0H] >> 8)
#define R_WIN_Window0_X2 (io_registers[REG_WIN0H] & 0xFF)
#define R_WIN_Window0_Y1 (io_registers[REG_WIN0V] >> 8)
#define R_WIN_Window0_Y2 (io_registers[REG_WIN0V] & 0xFF)

#define R_WIN_Window1_X1 (io_registers[REG_WIN1H] >> 8)
#define R_WIN_Window1_X2 (io_registers[REG_WIN1H] & 0xFF)
#define R_WIN_Window1_Y1 (io_registers[REG_WIN1V] >> 8)
#define R_WIN_Window1_Y2 (io_registers[REG_WIN1V] & 0xFF)

// These return a 6-bit mask which corresponds which layers are
// visible in the corresponding window/region:
// Bits 0-3 : Whether BG0-BG3 are visible
// Bit   4  : Whether OBJ is visible
// Bit   5  : Whether special effects are enabled

#define R_WIN_Window0_Mask (io_registers[REG_WININ] & 0xFF)
#define R_WIN_Window1_Mask (io_registers[REG_WININ] >> 8)
#define R_WIN_Outside_Mask (io_registers[REG_WINOUT] & 0xFF)
#define R_WIN_OBJ_Mask     (io_registers[REG_WINOUT] >> 8)

// Indicates the currently drawn scanline, values in range from
// 160..227 indicate 'hidden' scanlines within VBlank area.

#define R_VCOUNT (io_registers[REG_VCOUNT])

// Two types of Special Effects are supported:
// Alpha Blending (Semi-Transparency) allows to combine colors
// of two selected surfaces. Brightness Increase/Decrease
// adjust the brightness of the selected surface.

#define R_BLDCNT_Color_Special_Effect ((BLDMOD >> 6) & 3)
#define SpecialEffect_None                (0)
#define SpecialEffect_Alpha_Blending      (1)
#define SpecialEffect_Brightness_Increase (2)
#define SpecialEffect_Brightness_Decrease (3)

// Special effect targets.
#define R_BLDCNT_IsTarget1(target) ((target) & (BLDMOD     ))
#define R_BLDCNT_IsTarget2(target) ((target) & (BLDMOD >> 8))

// The first 5 entries coincide with LayerMask_*.
#define SpecialEffectTarget_BG0  (1 << Layer_BG0)
#define SpecialEffectTarget_BG1  (1 << Layer_BG1)
#define SpecialEffectTarget_BG2  (1 << Layer_BG2)
#define SpecialEffectTarget_BG3  (1 << Layer_BG3)
#define SpecialEffectTarget_OBJ  (1 << Layer_OBJ) // Top-most OBJ
#define SpecialEffectTarget_BD   (1 << 5        ) // Backdrop


// Fast implementation of ternary operator.
// Implemented as a function (as opposed to a macro) to avoid
// evaluating the parameters more than once.
uint32_t FORCE_INLINE SELECT(bool condition, uint32_t ifTrue, uint32_t ifFalse)
{
	// Will be 0 if condition==true or 0xFFFFFFFF
	// if condition==false.
	uint32_t testmask = (uint32_t)condition - 1;

	return (testmask & ifFalse) | (~testmask & ifTrue);
}

static u16 MOSAIC;

static uint16_t BG2X_L   = 0x0000;
static uint16_t BG2X_H   = 0x0000;
static uint16_t BG2Y_L   = 0x0000;
static uint16_t BG2Y_H   = 0x0000;
static uint16_t BG3X_L   = 0x0000;
static uint16_t BG3X_H   = 0x0000;
static uint16_t BG3Y_L   = 0x0000;
static uint16_t BG3Y_H   = 0x0000;
static uint16_t BLDMOD   = 0x0000; // aka BLDCNT
static uint16_t COLEV    = 0x0000; // aka BLDALPHA
static uint16_t COLY     = 0x0000; // aka BLDY
static uint16_t DM0SAD_L = 0x0000;
static uint16_t DM0SAD_H = 0x0000;
static uint16_t DM0DAD_L = 0x0000;
static uint16_t DM0DAD_H = 0x0000;
static uint16_t DM0CNT_L = 0x0000;
static uint16_t DM0CNT_H = 0x0000;
static uint16_t DM1SAD_L = 0x0000;
static uint16_t DM1SAD_H = 0x0000;
static uint16_t DM1DAD_L = 0x0000;
static uint16_t DM1DAD_H = 0x0000;
static uint16_t DM1CNT_L = 0x0000;
static uint16_t DM1CNT_H = 0x0000;
static uint16_t DM2SAD_L = 0x0000;
static uint16_t DM2SAD_H = 0x0000;
static uint16_t DM2DAD_L = 0x0000;
static uint16_t DM2DAD_H = 0x0000;
static uint16_t DM2CNT_L = 0x0000;
static uint16_t DM2CNT_H = 0x0000;
static uint16_t DM3SAD_L = 0x0000;
static uint16_t DM3SAD_H = 0x0000;
static uint16_t DM3DAD_L = 0x0000;
static uint16_t DM3DAD_H = 0x0000;
static uint16_t DM3CNT_L = 0x0000;
static uint16_t DM3CNT_H = 0x0000;

static uint8_t timerOnOffDelay = 0;
static uint16_t timer0Value = 0;
static uint32_t dma0Source = 0;
static uint32_t dma0Dest = 0;
static uint32_t dma1Source = 0;
static uint32_t dma1Dest = 0;
static uint32_t dma2Source = 0;
static uint32_t dma2Dest = 0;
static uint32_t dma3Source = 0;
static uint32_t dma3Dest = 0;
void (*cpuSaveGameFunc)(uint32_t,uint8_t) = flashSaveDecide;
static bool fxOn = false;
static bool windowOn = false;

uint32_t mastercode = 0;
static int cpuDmaTicksToUpdate = 0;

static const uint32_t TIMER_TICKS[4] = {0, 6, 8, 10};

static const uint8_t gamepakRamWaitState[4] = { 4, 3, 2, 8 };
static const uint8_t gamepakWaitState[4] = { 4, 3, 2, 8 };
static const uint8_t gamepakWaitState0[2] = { 2, 1 };
static const uint8_t gamepakWaitState1[2] = { 4, 1 };
static const uint8_t gamepakWaitState2[2] = { 8, 1 };

static int IRQTicks = 0;
static bool intState = false;

static bus_t bus;
static graphics_t graphics;

static memoryMap map[256];
static int clockTicks;

static int romSize = 0x2000000;
static uint32_t line[6][240];
static bool gfxInWin[2][240];
static int lineOBJpixleft[128];
uint64_t joy = 0;

static int gfxBG2Changed = 0;
static int gfxBG3Changed = 0;

static int gfxBG2X = 0;
static int gfxBG2Y = 0;
static int gfxBG3X = 0;
static int gfxBG3Y = 0;

static bool ioReadable[0x400];
static int gbaSaveType = 0; // used to remember the save type on reset

//static int gfxLastVCOUNT = 0;

// Waitstates when accessing data

#define DATATICKS_ACCESS_BUS_PREFETCH(address, value) \
	int addr = (address >> 24) & 15; \
	if ((addr>=0x08) || (addr < 0x02)) \
	{ \
		bus.busPrefetchCount=0; \
		bus.busPrefetch=false; \
	} \
	else if (bus.busPrefetch) \
	{ \
		int waitState = value; \
		waitState = (1 & ~waitState) | (waitState & waitState); \
		bus.busPrefetchCount = ((bus.busPrefetchCount+1)<<waitState) - 1; \
	}

/* Waitstates when accessing data */

#define DATATICKS_ACCESS_32BIT(address)  (memoryWait32[(address >> 24) & 15])
#define DATATICKS_ACCESS_32BIT_SEQ(address) (memoryWaitSeq32[(address >> 24) & 15])
#define DATATICKS_ACCESS_16BIT(address) (memoryWait[(address >> 24) & 15])
#define DATATICKS_ACCESS_16BIT_SEQ(address) (memoryWaitSeq[(address >> 24) & 15])

// Waitstates when executing opcode
static INLINE int codeTicksAccess(u32 address, u8 bit32) // THUMB NON SEQ
{
	int addr, ret;

	addr = (address>>24) & 15;

	if (unsigned(addr - 0x08) <= 5)
	{
		if (bus.busPrefetchCount&0x1)
		{
			if (bus.busPrefetchCount&0x2)
			{
				bus.busPrefetchCount = ((bus.busPrefetchCount&0xFF)>>2) | (bus.busPrefetchCount&0xFFFFFF00);
				return 0;
			}
			bus.busPrefetchCount = ((bus.busPrefetchCount&0xFF)>>1) | (bus.busPrefetchCount&0xFFFFFF00);
			return memoryWaitSeq[addr]-1;
		}
	}
	bus.busPrefetchCount = 0;

	if(bit32)		/* ARM NON SEQ */
		ret = memoryWait32[addr];
	else			/* THUMB NON SEQ */
		ret = memoryWait[addr];

	return ret;
}

static INLINE int codeTicksAccessSeq16(u32 address) // THUMB SEQ
{
	int addr = (address>>24) & 15;

	if (unsigned(addr - 0x08) <= 5)
	{
		if (bus.busPrefetchCount&0x1)
		{
			bus.busPrefetchCount = ((bus.busPrefetchCount&0xFF)>>1) | (bus.busPrefetchCount&0xFFFFFF00);
			return 0;
		}
		else if (bus.busPrefetchCount>0xFF)
		{
			bus.busPrefetchCount=0;
			return memoryWait[addr];
		}
	}
	else
		bus.busPrefetchCount = 0;

	return memoryWaitSeq[addr];
}

static INLINE int codeTicksAccessSeq32(u32 address) // ARM SEQ
{
	int addr = (address>>24)&15;

	if (unsigned(addr - 0x08) <= 5)
	{
		if (bus.busPrefetchCount&0x1)
		{
			if (bus.busPrefetchCount&0x2)
			{
				bus.busPrefetchCount = ((bus.busPrefetchCount&0xFF)>>2) | (bus.busPrefetchCount&0xFFFFFF00);
				return 0;
			}
			bus.busPrefetchCount = ((bus.busPrefetchCount&0xFF)>>1) | (bus.busPrefetchCount&0xFFFFFF00);
			return memoryWaitSeq[addr];
		}
		else if (bus.busPrefetchCount > 0xFF)
		{
			bus.busPrefetchCount=0;
			return memoryWait32[addr];
		}
	}
	return memoryWaitSeq32[addr];
}

#define CPUReadByteQuick(addr)		map[(addr)>>24].address[(addr) & map[(addr)>>24].mask]
#define CPUReadHalfWordQuick(addr)	READ16LE(((u16*)&map[(addr)>>24].address[(addr) & map[(addr)>>24].mask]))
#define CPUReadMemoryQuick(addr)	READ32LE(((u32*)&map[(addr)>>24].address[(addr) & map[(addr)>>24].mask]))

static bool stopState = false;
extern bool cpuSramEnabled;
extern bool cpuFlashEnabled;
extern bool cpuEEPROMEnabled;

static bool timer0On = false;
static int timer0Ticks = 0;
static int timer0Reload = 0;
static int timer0ClockReload  = 0;
static uint16_t timer1Value = 0;
static bool timer1On = false;
static int timer1Ticks = 0;
static int timer1Reload = 0;
static int timer1ClockReload  = 0;
static uint16_t timer2Value = 0;
static bool timer2On = false;
static int timer2Ticks = 0;
static int timer2Reload = 0;
static int timer2ClockReload  = 0;
static uint16_t timer3Value = 0;
static bool timer3On = false;
static int timer3Ticks = 0;
static int timer3Reload = 0;
static int timer3ClockReload  = 0;

int cpuDmaCount = 0;
static uint32_t cpuDmaLast = 0;
static uint32_t cpuDmaPC = 0;
static bool cpuDmaRunning = false;

static const uint32_t  objTilesAddress [3] = {0x010000, 0x014000, 0x014000};

#if 0
static uint8_t* CPUDecodeAddress(uint32_t address)
{
	switch(address >> 24) {
		case 0:
			/* BIOS */
			if(bus.reg[15].I >> 24) {
				if(address < 0x4000)
					return biosProtected;
				else
					goto unreadable;
			} else
				return bios + (address & 0x3FFC);
		case 0x02:
			/* external work RAM */
			return workRAM + (address & 0x3FFFC);
		case 0x03:
			/* internal work RAM */
			return internalRAM + (address & 0x7ffC);
		case 0x04:
			/* I/O registers */
			if((address < 0x4000400) && ioReadable[address & 0x3fc]) {
				if(ioReadable[(address & 0x3fc) + 2])
					return ioMem + (address & 0x3fC);
				else
					return ioMem + (address & 0x3fc);
			}
			else
				goto unreadable;
			break;
		case 0x05:
			/* palette RAM */
			return paletteRAM + (address & 0x3fC);
		case 0x06:
			/* VRAM */
			address = (address & 0x1fffc);
			if ((R_DISPCNT_Video_Mode >2) && ((address & 0x1C000) == 0x18000))
				break;
			if ((address & 0x18000) == 0x18000)
				address &= 0x17fff;
			return vram + address;
		case 0x07:
			/* OAM RAM */
			return oam + (address & 0x3FC);
		case 0x08:
		case 0x09:
		case 0x0A:
		case 0x0B:
		case 0x0C:
			/* gamepak ROM */
			return rom + (address & 0x1FFFFFC);
		case 0x0D:
        	//value = eepromRead();
			break;
		case 14:
      	case 15:
			//value = flashRead(address) * 0x01010101;
			break;
		default:
unreadable:
			/*
			if(armState)
				value = CPUReadHalfWordQuick(bus.reg[15].I + (address & 2));
			else
				value = CPUReadHalfWordQuick(bus.reg[15].I);
			*/
			break;
	}

	return NULL;
}
#endif

static INLINE u32 CPUReadMemory(u32 address)
{
	u32 value;
	switch(address >> 24)
	{
		case 0:
			/* BIOS */
			if(bus.reg[15].I >> 24)
			{
				if(address < 0x4000)
					value = READ32LE(((u32 *)&biosProtected));
				else goto unreadable;
			}
			else
				value = READ32LE(bios + (address & 0x3FFC));
			break;
		case 0x02:
			/* external work RAM */
			value = READ32LE(workRAM + (address & 0x3FFFC));
			break;
		case 0x03:
			/* internal work RAM */
			value = READ32LE(internalRAM + (address & 0x7ffC));
			break;
		case 0x04:
			/* I/O registers */
			if((address < 0x4000400) && ioReadable[address & 0x3fc])
			{
				if(ioReadable[(address & 0x3fc) + 2])
					value = READ32LE(ioMem + (address & 0x3fC));
				else
					value = READ16LE(ioMem + (address & 0x3fc));
			}
			else
				goto unreadable;
			break;
		case 0x05:
			/* palette RAM */
			value = READ32LE(paletteRAM + (address & 0x3fC));
			break;
		case 0x06: {
			/* VRAM */
			u32 addr = (address & 0x1fffc);
			if ((R_DISPCNT_Video_Mode > 2) && ((addr & 0x1C000) == 0x18000))
			{
				value = 0;
				break;
			}
			if ((addr & 0x18000) == 0x18000)
				addr &= 0x17ffc;
			value = READ32LE(vram + addr);
		} break;
		case 0x07:
			/* OAM RAM */
			value = READ32LE(oam + (address & 0x3FC));
			break;
		case 0x08:
		case 0x09:
		case 0x0A:
		case 0x0B:
		case 0x0C:
			/* gamepak ROM */
			value = READ32LE(rom + (address&0x1FFFFFC));
			break;
		case 0x0D:
         value = eepromRead();
         break;
		case 14:
      case 15:
		  	value = flashRead(address) * 0x01010101;
            break;
		default:
unreadable:
			if (cpuDmaRunning || ((bus.reg[15].I - cpuDmaPC) == (armState ? 4 : 2))) {
				value = cpuDmaLast;
			} else {
				if (armState)
					value = CPUReadMemoryQuick(bus.reg[15].I);
				else
					value = CPUReadHalfWordQuick(bus.reg[15].I) | CPUReadHalfWordQuick(bus.reg[15].I) << 16;
			}
	}

	if(address & 3) {
		int shift = (address & 3) << 3;
		value = (value >> shift) | (value << (32 - shift));
	}
	return value;
}

static INLINE u32 CPUReadHalfWord(u32 address)
{
	u32 value;

	switch(address >> 24)
	{
		case 0:
			if (bus.reg[15].I >> 24)
			{
				if(address < 0x4000)
					value = READ16LE(biosProtected + (address & 2));
				else
					goto unreadable;
			}
			else
				value = READ16LE(bios + (address & 0x3FFE));
			break;
		case 2:
			value = READ16LE(workRAM + (address & 0x3FFFE));
			break;
		case 3:
			value = READ16LE(internalRAM + (address & 0x7ffe));
			break;
		case 4:
			if((address < 0x4000400) && ioReadable[address & 0x3fe])
			{
				value =  READ16LE(ioMem + (address & 0x3fe));
				if (((address & 0x3fe)>0xFF) && ((address & 0x3fe)<0x10E))
				{
					if (((address & 0x3fe) == 0x100) && timer0On)
						value = 0xFFFF - ((timer0Ticks-cpuTotalTicks) >> timer0ClockReload);
					else
						if (((address & 0x3fe) == 0x104) && timer1On && !(io_registers[REG_TM1CNT] & 4))
							value = 0xFFFF - ((timer1Ticks-cpuTotalTicks) >> timer1ClockReload);
						else
							if (((address & 0x3fe) == 0x108) && timer2On && !(io_registers[REG_TM2CNT] & 4))
								value = 0xFFFF - ((timer2Ticks-cpuTotalTicks) >> timer2ClockReload);
							else
								if (((address & 0x3fe) == 0x10C) && timer3On && !(io_registers[REG_TM3CNT] & 4))
									value = 0xFFFF - ((timer3Ticks-cpuTotalTicks) >> timer3ClockReload);
				}
			}
			else goto unreadable;
			break;
		case 5:
			value = READ16LE(paletteRAM + (address & 0x3fe));
			break;
		case 6: {
			u32 addr = (address & 0x1fffe);
			if ((R_DISPCNT_Video_Mode > 2) && ((addr & 0x1C000) == 0x18000))
			{
				value = 0;
				break;
			}
			if ((addr & 0x18000) == 0x18000)
				addr &= 0x17fff;
			value = READ16LE(vram + addr);
		} break;
		case 7:
			value = READ16LE(oam + (address & 0x3fe));
			break;
		case 8:
		case 9:
		case 10:
		case 11:
		case 12:
			switch(address) {
			case 0x80000c4:
			case 0x80000c6:
			case 0x80000c8:
#if USE_MOTION_SENSOR
				if(hardware.sensor & HARDWARE_SENSOR_GYRO)
					return gyroRead(address);
				else
#endif
					return rtcRead(address);
				break;
			default:
				value = READ16LE(rom + (address & 0x1FFFFFE)); break;
			}
			break;
		case 13:
         value =  eepromRead();
         break;
		case 14:
		case 15:
         value = flashRead(address) * 0x0101;
         break;
		default:
unreadable:
			if (cpuDmaRunning || ((bus.reg[15].I - cpuDmaPC) == (armState ? 4 : 2))) {
				value = cpuDmaLast & 0xFFFF;
			} else {
				int param = bus.reg[15].I;
				if(armState)
					param += (address & 2);
				value = CPUReadHalfWordQuick(param);
			}
			break;
	}

	if(address & 1)
		value = (value >> 8) | (value << 24);

	return value;
}

static INLINE u16 CPUReadHalfWordSigned(u32 address)
{
	u16 value = CPUReadHalfWord(address);
	if((address & 1))
		value = (s8)value;
	return value;
}

static INLINE u8 CPUReadByte(u32 address)
{
	switch(address >> 24)
	{
		case 0:
			if (bus.reg[15].I >> 24)
			{
				if(address < 0x4000)
					return biosProtected[address & 3];
				else
					goto unreadable;
			}
			return bios[address & 0x3FFF];
		case 2:
			return workRAM[address & 0x3FFFF];
		case 3:
			return internalRAM[address & 0x7fff];
		case 4:
			if((address < 0x4000400) && ioReadable[address & 0x3ff])
				return ioMem[address & 0x3ff];
			else goto unreadable;
		case 5:
			return paletteRAM[address & 0x3ff];
		case 6:
			address = (address & 0x1ffff);
			if ((R_DISPCNT_Video_Mode >2) && ((address & 0x1C000) == 0x18000))
				return 0;
			if ((address & 0x18000) == 0x18000)
				address &= 0x17fff;
			return vram[address];
		case 7:
			return oam[address & 0x3ff];
		case 8:
		case 9:
		case 10:
		case 11:
		case 12:
			return rom[address & 0x1FFFFFF];
		case 13:
         	return eepromRead();
		case 14:
		case 15:
#ifdef USE_MOTION_SENSOR
		if(hardware.sensor)
        {
			switch(address & 0x00008f00)
            {
				case 0x8200:
					return hardware.tilt_x & 0xFF;
				case 0x8300:
					return ((hardware.tilt_x >> 8) & 0xF) | 0x80;
				case 0x8400:
					return hardware.tilt_y & 0xFF;
				case 0x8500:
					return ((hardware.tilt_y >> 8) & 0xF) | 0x80;
			}
		}
#endif
         	return flashRead(address);
		default:
unreadable:
			if (cpuDmaRunning || ((bus.reg[15].I - cpuDmaPC) == (armState ? 4 : 2))) {
				return cpuDmaLast & 0xFF;
			} else {
				if(armState)
					return CPUReadByteQuick(bus.reg[15].I+(address & 3));
				else
					return CPUReadByteQuick(bus.reg[15].I+(address & 1));
			}
	}
}

static INLINE void CPUWriteMemory(u32 address, u32 value)
{
	switch(address >> 24)
	{
		case 0x02:
			WRITE32LE(workRAM + (address & 0x3FFFC), value);
			break;
		case 0x03:
			WRITE32LE(internalRAM + (address & 0x7ffC), value);
			break;
		case 0x04:
			if(address < 0x4000400)
			{
				CPUUpdateRegister((address & 0x3FC), value & 0xFFFF);
				CPUUpdateRegister((address & 0x3FC) + 2, (value >> 16));
			}
			break;
		case 0x05:
			WRITE32LE(paletteRAM + (address & 0x3FC), value);
			break;
		case 0x06:
			address = (address & 0x1fffc);
			if ((R_DISPCNT_Video_Mode >2) && ((address & 0x1C000) == 0x18000))
				return;
			if ((address & 0x18000) == 0x18000)
				address &= 0x17fff;


			WRITE32LE(vram + address, value);
			break;
		case 0x07:
			WRITE32LE(oam + (address & 0x3fc), value);
			break;
		case 0x0D:
			if(cpuEEPROMEnabled) {
				eepromWrite(value);
				break;
			}
			break;
		case 0x0E:
		case 0x0F:
			if((!eepromInUse) | cpuSramEnabled | cpuFlashEnabled)
				(*cpuSaveGameFunc)(address, (u8)value);
			break;
		default:
			break;
	}
}

static INLINE void CPUWriteHalfWord(u32 address, u16 value)
{
	switch(address >> 24)
	{
		case 2:
			WRITE16LE(workRAM + (address & 0x3FFFE),value);
			break;
		case 3:
			WRITE16LE(internalRAM + (address & 0x7ffe), value);
			break;
		case 4:
			if(address < 0x4000400)
				CPUUpdateRegister(address & 0x3fe, value);
			break;
		case 5:
			WRITE16LE(paletteRAM + (address & 0x3fe), value);
			break;
		case 6:
			address = (address & 0x1fffe);
			if ((R_DISPCNT_Video_Mode >2) && ((address & 0x1C000) == 0x18000))
				return;
			if ((address & 0x18000) == 0x18000)
				address &= 0x17fff;
			WRITE16LE(vram + address, value);
			break;
		case 7:
			WRITE16LE(oam + (address & 0x3fe), value);
			break;
		case 8:
		case 9:
			switch(address) {
			case 0x80000c4:
			case 0x80000c6:
			case 0x80000c8:
#if USE_MOTION_SENSOR
				if(hardware.sensor & HARDWARE_SENSOR_GYRO)
					gyroWrite(address, value);
				else
#endif
					rtcWrite(address, value);
				break;
			}
			break;
		case 13:
			if(cpuEEPROMEnabled)
				eepromWrite((u8)value);
			break;
		case 14:
		case 15:
			if((!eepromInUse) | cpuSramEnabled | cpuFlashEnabled)
				(*cpuSaveGameFunc)(address, (u8)value);
			break;
		default:
			break;
	}
}

static INLINE void CPUWriteByte(u32 address, u8 b)
{
	switch(address >> 24)
	{
		case 2:
			workRAM[address & 0x3FFFF] = b;
			break;
		case 3:
			internalRAM[address & 0x7fff] = b;
			break;
		case 4:
			if(address < 0x4000400)
			{
				switch(address & 0x3FF)
				{
					case 0x60:
					case 0x61:
					case 0x62:
					case 0x63:
					case 0x64:
					case 0x65:
					case 0x68:
					case 0x69:
					case 0x6c:
					case 0x6d:
					case 0x70:
					case 0x71:
					case 0x72:
					case 0x73:
					case 0x74:
					case 0x75:
					case 0x78:
					case 0x79:
					case 0x7c:
					case 0x7d:
					case 0x80:
					case 0x81:
					case 0x84:
					case 0x85:
					case 0x90:
					case 0x91:
					case 0x92:
					case 0x93:
					case 0x94:
					case 0x95:
					case 0x96:
					case 0x97:
					case 0x98:
					case 0x99:
					case 0x9a:
					case 0x9b:
					case 0x9c:
					case 0x9d:
					case 0x9e:
					case 0x9f:
						{
							int gb_addr = table[(address & 0xFF) - 0x60];
							soundEvent_u8(gb_addr, address&0xFF, b);
						}
						break;
					case 0x301: // HALTCNT, undocumented
						if(b == 0x80)
							stopState = true;
						holdState = 1;
						cpuNextEvent = cpuTotalTicks;
						break;
					default: // every other register
						{
							u32 lowerBits = address & 0x3fe;
							uint16_t param;
							if(address & 1)
								param = (READ16LE(&ioMem[lowerBits]) & 0x00FF) | (b << 8);
							else
								param = (READ16LE(&ioMem[lowerBits]) & 0xFF00) | b;

							CPUUpdateRegister(lowerBits, param);
						}
					break;
				}
			}
			break;
		case 5:
			// no need to switch
			*(u16 *)(paletteRAM + (address & 0x3FE)) = (b << 8) | b;
			break;
		case 6:
			address = (address & 0x1fffe);
			if ((R_DISPCNT_Video_Mode >2) && ((address & 0x1C000) == 0x18000))
				return;
			if ((address & 0x18000) == 0x18000)
				address &= 0x17fff;

			// no need to switch
			// byte writes to OBJ VRAM are ignored
			if ((address) < objTilesAddress[(R_DISPCNT_Video_Mode+1)>>2])
				*(u16 *)(vram + address) = (b << 8) | b;
			break;
		case 7:
			// no need to switch
			// byte writes to OAM are ignored
			//    *((u16 *)&oam[address & 0x3FE]) = (b << 8) | b;
			break;
		case 13:
			if(cpuEEPROMEnabled)
				eepromWrite(b);
			break;
		case 14:
		case 15:
			if ((saveType != 5) && ((!eepromInUse) | cpuSramEnabled | cpuFlashEnabled))
			{
				(*cpuSaveGameFunc)(address, b);
				break;
			}
		default:
			break;
	}
}


/*============================================================
	BIOS
============================================================ */
static inline int16_t fast_sin(uint8_t val)
{
	uint8_t p = 0x7F & val;
	int16_t q = 1 - ((0x80 & val) >> 6);
	return ((p << 9) + (-4 * p * p)) * q;
}

static inline int16_t fast_cos(uint8_t val)
{
	return fast_sin(val + 0x40);
}

// 2020-08-12 negativeExponent
// ArcTan/ArcTan2 fixes based from mgba hle bios

static void BIOS_ArcTan (void)
{
	s32 i = bus.reg[0].I;
	s32 a =  -((i * i) >> 14);
	s32 b = ((0xA9 * a) >> 14) + 0x390;
	b = ((b * a) >> 14) + 0x91C;
	b = ((b * a) >> 14) + 0xFB6;
	b = ((b * a) >> 14) + 0x16AA;
	b = ((b * a) >> 14) + 0x2081;
	b = ((b * a) >> 14) + 0x3651;
	b = ((b * a) >> 14) + 0xA2F9;
	bus.reg[0].I = (i * b) >> 16;
    bus.reg[1].I = a;
    bus.reg[3].I = b;
}

static void BIOS_Div (void)
{
	int number = bus.reg[0].I;
	int denom = bus.reg[1].I;

	if(denom != 0)
	{
		bus.reg[0].I = number / denom;
		bus.reg[1].I = number % denom;
		s32 temp = (s32)bus.reg[0].I;
		bus.reg[3].I = temp < 0 ? (u32)-temp : (u32)temp;
	}
}

static void BIOS_ArcTan2 (void)
{
	s32 x = bus.reg[0].I;
	s32 y = bus.reg[1].I;
	u32 res = 0;
	if (y == 0)
		res = ((x>>16) & 0x8000);
	else
	{
		if (x == 0)
			res = ((y>>16) & 0x8000) + 0x4000;
		else
		{
			if ((abs(x) > abs(y)) || ((abs(x) == abs(y)) && (!((x<0) && (y<0)))))
			{
				bus.reg[1].I = x;
				bus.reg[0].I = y << 14;
				BIOS_Div();
				BIOS_ArcTan();
				if (x < 0)
					res = 0x8000 + bus.reg[0].I;
				else
					res = (((y>>16) & 0x8000)<<1) + bus.reg[0].I;
			}
			else
			{
				bus.reg[0].I = x << 14;
				BIOS_Div();
				BIOS_ArcTan();
				res = (0x4000 + ((y>>16) & 0x8000)) - bus.reg[0].I;
			}
		}
	}
	bus.reg[0].I = res;
	bus.reg[3].I = 0x170;
}

static void BIOS_BitUnPack (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;
	u32 header = bus.reg[2].I;

	int len = CPUReadHalfWord(header);
	// check address
	if(((source & 0xe000000) == 0) ||
			((source + len) & 0xe000000) == 0)
		return;

	int bits = CPUReadByte(header+2);
	int revbits = 8 - bits;
	// u32 value = 0;
	u32 base = CPUReadMemory(header+4);
	bool addBase = (base & 0x80000000) ? true : false;
	base &= 0x7fffffff;
	int dataSize = CPUReadByte(header+3);

	int data = 0;
	int bitwritecount = 0;
	while(1)
	{
		len -= 1;
		if(len < 0)
			break;
		int mask = 0xff >> revbits;
		u8 b = CPUReadByte(source);
		source++;
		int bitcount = 0;
		while(1) {
			if(bitcount >= 8)
				break;
			u32 d = b & mask;
			u32 temp = d >> bitcount;
			if(d || addBase) {
				temp += base;
			}
			data |= temp << bitwritecount;
			bitwritecount += dataSize;
			if(bitwritecount >= 32) {
				CPUWriteMemory(dest, data);
				dest += 4;
				data = 0;
				bitwritecount = 0;
			}
			mask <<= bits;
			bitcount += bits;
		}
	}
}

static void BIOS_BgAffineSet (void)
{
	u32 src = bus.reg[0].I;
	u32 dest = bus.reg[1].I;
	int num = bus.reg[2].I;

	for(int i = 0; i < num; i++)
	{
		s32 cx = CPUReadMemory(src);
		src+=4;
		s32 cy = CPUReadMemory(src);
		src+=4;
		s16 dispx = CPUReadHalfWord(src);
		src+=2;
		s16 dispy = CPUReadHalfWord(src);
		src+=2;
		s16 rx = CPUReadHalfWord(src);
		src+=2;
		s16 ry = CPUReadHalfWord(src);
		src+=2;
		u16 theta = CPUReadHalfWord(src)>>8;
		src+=4; // keep structure alignment
		s32 a = fast_cos(theta);
		s32 b = fast_sin(theta);

		s16 dx =  (rx * a)>>14;
		s16 dmx = (rx * b)>>14;
		s16 dy =  (ry * b)>>14;
		s16 dmy = (ry * a)>>14;

		CPUWriteHalfWord(dest, dx);
		dest += 2;
		CPUWriteHalfWord(dest, -dmx);
		dest += 2;
		CPUWriteHalfWord(dest, dy);
		dest += 2;
		CPUWriteHalfWord(dest, dmy);

		dest += 2;

		s32 startx = cx - dx * dispx + dmx * dispy;
		s32 starty = cy - dy * dispx - dmy * dispy;

		CPUWriteMemory(dest, startx);
		dest += 4;
		CPUWriteMemory(dest, starty);
		dest += 4;
	}
}

static void BIOS_CpuSet (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;
	u32 cnt = bus.reg[2].I;

	int count = cnt & 0x1FFFFF;

	// 32-bit ?
	if((cnt >> 26) & 1)
	{
		// needed for 32-bit mode!
		source &= 0xFFFFFFFC;
		dest &= 0xFFFFFFFC;
		// fill ?
		if((cnt >> 24) & 1) {
			u32 value = (source>0x0EFFFFFF ? 0x1CAD1CAD : CPUReadMemory(source));
			while(count > 0) {
				CPUWriteMemory(dest, value);
				dest += 4;
				count--;
			}
		} else {
#if USE_TWEAK_MEMFUNC
			if(source > 0x0EFFFFFF) {
				while(count > 0) {
					CPUWriteMemory(dest, 0x1CAD1CAD);
					dest += 4;
					count--;
				}
			} else {
				while(count > 0) {
					CPUWriteMemory(dest, CPUReadMemory(source));
					source += 4;
					dest += 4;
					count--;
				}
			}
#else
			// copy
			while(count > 0) {
				CPUWriteMemory(dest, (source>0x0EFFFFFF ? 0x1CAD1CAD : CPUReadMemory(source)));
				source += 4;
				dest += 4;
				count--;
			}
#endif
		}
	}
	else
	{
		// 16-bit fill?
		if((cnt >> 24) & 1) {
			u16 value = (source>0x0EFFFFFF ? 0x1CAD : CPUReadHalfWord(source));
			while(count > 0) {
				CPUWriteHalfWord(dest, value);
				dest += 2;
				count--;
			}
		} else {
#if USE_TWEAK_MEMFUNC
			if(source > 0x0EFFFFFF) {
				while(count > 0) {
					CPUWriteHalfWord(dest, 0x1CAD);
					dest += 2;
					count--;
				}
			} else {
				while(count > 0) {
					CPUWriteHalfWord(dest, CPUReadHalfWord(source));
					source += 2;
					dest += 2;
					count--;
				}
			}
#else
			// copy
			while(count > 0) {
				CPUWriteHalfWord(dest, (source>0x0EFFFFFF ? 0x1CAD : CPUReadHalfWord(source)));
				source += 2;
				dest += 2;
				count--;
			}
#endif
		}
	}
}

static void BIOS_CpuFastSet (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;
	u32 cnt = bus.reg[2].I;

	// needed for 32-bit mode!
	source &= 0xFFFFFFFC;
	dest &= 0xFFFFFFFC;

	int count = cnt & 0x1FFFFF;

	// fill?
	if((cnt >> 24) & 1) {
		while(count > 0) {
			// BIOS always transfers 32 bytes at a time
			u32 value = (source>0x0EFFFFFF ? 0xBAFFFFFB : CPUReadMemory(source));
			for(int i = 0; i < 8; i++) {
				CPUWriteMemory(dest, value);
				dest += 4;
			}
			count -= 8;
		}
	} else {
#if USE_TWEAK_MEMFUNC
		if(source > 0x0EFFFFFF) {
			while(count > 0) {
				for(int i = 0; i < 8; i++) {
					CPUWriteMemory(dest, 0xBAFFFFFB);
					dest += 4;
				}
				count -= 8;
			}
		} else {
			while(count > 0) {
				for(int i = 0; i < 8; i++) {
					CPUWriteMemory(dest, CPUReadMemory(source));
					source += 4;
					dest += 4;
				}
				count -= 8;
			}
		}
#else
		// copy
		while(count > 0) {
			// BIOS always transfers 32 bytes at a time
			for(int i = 0; i < 8; i++) {
				CPUWriteMemory(dest, (source>0x0EFFFFFF ? 0xBAFFFFFB :CPUReadMemory(source)));
				source += 4;
				dest += 4;
			}
			count -= 8;
		}
#endif
	}
}

static void BIOS_Diff8bitUnFilterWram (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source);
	source += 4;

	if(((source & 0xe000000) == 0) ||
	(((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0))
		return;

	int len = header >> 8;

	u8 data = CPUReadByte(source++);
	CPUWriteByte(dest++, data);
	len--;

	while(len > 0) {
		u8 diff = CPUReadByte(source++);
		data += diff;
		CPUWriteByte(dest++, data);
		len--;
	}
}

static void BIOS_Diff8bitUnFilterVram (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source);
	source += 4;

	if(((source & 0xe000000) == 0) ||
			((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0)
		return;

	int len = header >> 8;

	u8 data = CPUReadByte(source++);
	u16 writeData = data;
	int shift = 8;
	int bytes = 1;

	while(len >= 2) {
		u8 diff = CPUReadByte(source++);
		data += diff;
		writeData |= (data << shift);
		bytes++;
		shift += 8;
		if(bytes == 2) {
			CPUWriteHalfWord(dest, writeData);
			dest += 2;
			len -= 2;
			bytes = 0;
			writeData = 0;
			shift = 0;
		}
	}
}

static void BIOS_Diff16bitUnFilter (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source);
	source += 4;

	if(((source & 0xe000000) == 0) ||
			((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0)
		return;

	int len = header >> 8;

	u16 data = CPUReadHalfWord(source);
	source += 2;
	CPUWriteHalfWord(dest, data);
	dest += 2;
	len -= 2;

	while(len >= 2) {
		u16 diff = CPUReadHalfWord(source);
		source += 2;
		data += diff;
		CPUWriteHalfWord(dest, data);
		dest += 2;
		len -= 2;
	}
}

static void BIOS_HuffUnComp (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source);
	source += 4;

	if(((source & 0xe000000) == 0) ||
	((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0)
		return;

	u8 treeSize = CPUReadByte(source++);

	u32 treeStart = source;

	source += ((treeSize+1)<<1)-1; // minus because we already skipped one byte

	int len = header >> 8;

	u32 mask = 0x80000000;
	u32 data = CPUReadMemory(source);
	source += 4;

	int pos = 0;
	u8 rootNode = CPUReadByte(treeStart);
	u8 currentNode = rootNode;
	bool writeData = false;
	int byteShift = 0;
	int byteCount = 0;
	u32 writeValue = 0;

	if((header & 0x0F) == 8) {
		while(len > 0) {
			// take left
			if(pos == 0)
				pos++;
			else
				pos += (((currentNode & 0x3F)+1)<<1);

			if(data & mask) {
				// right
				if(currentNode & 0x40)
					writeData = true;
				currentNode = CPUReadByte(treeStart+pos+1);
			} else {
				// left
				if(currentNode & 0x80)
					writeData = true;
				currentNode = CPUReadByte(treeStart+pos);
			}

			if(writeData) {
				writeValue |= (currentNode << byteShift);
				byteCount++;
				byteShift += 8;

				pos = 0;
				currentNode = rootNode;
				writeData = false;

				if(byteCount == 4) {
					byteCount = 0;
					byteShift = 0;
					CPUWriteMemory(dest, writeValue);
					writeValue = 0;
					dest += 4;
					len -= 4;
				}
			}
			mask >>= 1;
			if(mask == 0) {
				mask = 0x80000000;
				data = CPUReadMemory(source);
				source += 4;
			}
		}
	} else {
		int halfLen = 0;
		int value = 0;
		while(len > 0) {
			// take left
			if(pos == 0)
				pos++;
			else
				pos += (((currentNode & 0x3F)+1)<<1);

			if((data & mask)) {
				// right
				if(currentNode & 0x40)
					writeData = true;
				currentNode = CPUReadByte(treeStart+pos+1);
			} else {
				// left
				if(currentNode & 0x80)
					writeData = true;
				currentNode = CPUReadByte(treeStart+pos);
			}

			if(writeData) {
				if(halfLen == 0)
					value |= currentNode;
				else
					value |= (currentNode<<4);

				halfLen += 4;
				if(halfLen == 8) {
					writeValue |= (value << byteShift);
					byteCount++;
					byteShift += 8;

					halfLen = 0;
					value = 0;

					if(byteCount == 4) {
						byteCount = 0;
						byteShift = 0;
						CPUWriteMemory(dest, writeValue);
						dest += 4;
						writeValue = 0;
						len -= 4;
					}
				}
				pos = 0;
				currentNode = rootNode;
				writeData = false;
			}
			mask >>= 1;
			if(mask == 0) {
				mask = 0x80000000;
				data = CPUReadMemory(source);
				source += 4;
			}
		}
	}
}

static void BIOS_LZ77UnCompVram (void)
{

	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source);
	source += 4;

	if(((source & 0xe000000) == 0) ||
			((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0)
		return;

	int byteCount = 0;
	int byteShift = 0;
	u32 writeValue = 0;

	int len = header >> 8;

	while(len > 0) {
		u8 d = CPUReadByte(source++);

		if(d) {
			for(int i = 0; i < 8; i++) {
				if(d & 0x80) {
					u16 data = CPUReadByte(source++) << 8;
					data |= CPUReadByte(source++);
					int length = (data >> 12) + 3;
					int offset = (data & 0x0FFF);
					u32 windowOffset = dest + byteCount - offset - 1;
					for(int i2 = 0; i2 < length; i2++) {
						writeValue |= (CPUReadByte(windowOffset++) << byteShift);
						byteShift += 8;
						byteCount++;

						if(byteCount == 2) {
							CPUWriteHalfWord(dest, writeValue);
							dest += 2;
							byteCount = 0;
							byteShift = 0;
							writeValue = 0;
						}
						len--;
						if(len == 0)
							return;
					}
				} else {
					writeValue |= (CPUReadByte(source++) << byteShift);
					byteShift += 8;
					byteCount++;
					if(byteCount == 2) {
						CPUWriteHalfWord(dest, writeValue);
						dest += 2;
						byteCount = 0;
						byteShift = 0;
						writeValue = 0;
					}
					len--;
					if(len == 0)
						return;
				}
				d <<= 1;
			}
		} else {
			for(int i = 0; i < 8; i++) {
				writeValue |= (CPUReadByte(source++) << byteShift);
				byteShift += 8;
				byteCount++;
				if(byteCount == 2) {
					CPUWriteHalfWord(dest, writeValue);
					dest += 2;
					byteShift = 0;
					byteCount = 0;
					writeValue = 0;
				}
				len--;
				if(len == 0)
					return;
			}
		}
	}
}

static void BIOS_LZ77UnCompWram (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source);
	source += 4;

	if(((source & 0xe000000) == 0) ||
			((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0)
		return;

	int len = header >> 8;

	while(len > 0) {
		u8 d = CPUReadByte(source++);

		if(d) {
			for(int i = 0; i < 8; i++) {
				if(d & 0x80) {
					u16 data = CPUReadByte(source++) << 8;
					data |= CPUReadByte(source++);
					int length = (data >> 12) + 3;
					int offset = (data & 0x0FFF);
					u32 windowOffset = dest - offset - 1;
					for(int i2 = 0; i2 < length; i2++) {
						CPUWriteByte(dest++, CPUReadByte(windowOffset++));
						len--;
						if(len == 0)
							return;
					}
				} else {
					CPUWriteByte(dest++, CPUReadByte(source++));
					len--;
					if(len == 0)
						return;
				}
				d <<= 1;
			}
		} else {
			for(int i = 0; i < 8; i++) {
				CPUWriteByte(dest++, CPUReadByte(source++));
				len--;
				if(len == 0)
					return;
			}
		}
	}
}

static void BIOS_ObjAffineSet (void)
{
	u32 src = bus.reg[0].I;
	u32 dest = bus.reg[1].I;
	int num = bus.reg[2].I;
	int offset = bus.reg[3].I;

	for(int i = 0; i < num; i++) {
		s16 rx = CPUReadHalfWord(src);
		src+=2;
		s16 ry = CPUReadHalfWord(src);
		src+=2;
		u16 theta = CPUReadHalfWord(src)>>8;
		src+=4; // keep structure alignment

		s32 a = fast_cos(theta);
		s32 b = fast_sin(theta);

		s16 dx =  ((s32)rx * a)>>14;
		s16 dmx = ((s32)rx * b)>>14;
		s16 dy =  ((s32)ry * b)>>14;
		s16 dmy = ((s32)ry * a)>>14;

		CPUWriteHalfWord(dest, dx);
		dest += offset;
		CPUWriteHalfWord(dest, -dmx);
		dest += offset;
		CPUWriteHalfWord(dest, dy);
		dest += offset;
		CPUWriteHalfWord(dest, dmy);
		dest += offset;
	}
}

static void BIOS_RegisterRamReset(u32 flags)
{
	// no need to trace here. this is only called directly from GBA.cpp
	// to emulate bios initialization

	CPUUpdateRegister(0x0, 0x80);

	if(flags)
	{
		if(flags & 0x01)
			memset(workRAM, 0, 0x40000);		// clear work RAM

		if(flags & 0x02)
			memset(internalRAM, 0, 0x7e00);		// don't clear 0x7e00-0x7fff, clear internal RAM

		if(flags & 0x04)
			memset(paletteRAM, 0, 0x400);	// clear palette RAM

		if(flags & 0x08)
			memset(vram, 0, 0x18000);		// clear VRAM

		if(flags & 0x10)
			memset(oam, 0, 0x400);			// clean OAM

		if(flags & 0x80) {
			int i;
			for(i = 0; i < 0x10; i++)
				CPUUpdateRegister(0x200+i*2, 0);

			for(i = 0; i < 0xF; i++)
				CPUUpdateRegister(0x4+i*2, 0);

			for(i = 0; i < 0x20; i++)
				CPUUpdateRegister(0x20+i*2, 0);

			for(i = 0; i < 0x18; i++)
				CPUUpdateRegister(0xb0+i*2, 0);

			CPUUpdateRegister(0x130, 0);
			CPUUpdateRegister(0x20, 0x100);
			CPUUpdateRegister(0x30, 0x100);
			CPUUpdateRegister(0x26, 0x100);
			CPUUpdateRegister(0x36, 0x100);
		}

		if(flags & 0x20) {
			int i;
			for(i = 0; i < 8; i++)
				CPUUpdateRegister(0x110+i*2, 0);
			CPUUpdateRegister(0x134, 0x8000);
			for(i = 0; i < 7; i++)
				CPUUpdateRegister(0x140+i*2, 0);
		}

		if(flags & 0x40) {
			int i;
			CPUWriteByte(0x4000084, 0);
			CPUWriteByte(0x4000084, 0x80);
			CPUWriteMemory(0x4000080, 0x880e0000);
			CPUUpdateRegister(0x88, CPUReadHalfWord(0x4000088)&0x3ff);
			CPUWriteByte(0x4000070, 0x70);
			for(i = 0; i < 8; i++)
				CPUUpdateRegister(0x90+i*2, 0);
			CPUWriteByte(0x4000070, 0);
			for(i = 0; i < 8; i++)
				CPUUpdateRegister(0x90+i*2, 0);
			CPUWriteByte(0x4000084, 0);
		}
	}
}

static void BIOS_RLUnCompVram (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source & 0xFFFFFFFC);
	source += 4;

	if(((source & 0xe000000) == 0) ||
			((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0)
		return;

	int len = header >> 8;
	int byteCount = 0;
	int byteShift = 0;
	u32 writeValue = 0;

	while(len > 0)
	{
		u8 d = CPUReadByte(source++);
		int l = d & 0x7F;
		if(d & 0x80) {
			u8 data = CPUReadByte(source++);
			l += 3;
			for(int i = 0;i < l; i++) {
				writeValue |= (data << byteShift);
				byteShift += 8;
				byteCount++;

				if(byteCount == 2) {
					CPUWriteHalfWord(dest, writeValue);
					dest += 2;
					byteCount = 0;
					byteShift = 0;
					writeValue = 0;
				}
				len--;
				if(len == 0)
					return;
			}
		} else {
			l++;
			for(int i = 0; i < l; i++) {
				writeValue |= (CPUReadByte(source++) << byteShift);
				byteShift += 8;
				byteCount++;
				if(byteCount == 2) {
					CPUWriteHalfWord(dest, writeValue);
					dest += 2;
					byteCount = 0;
					byteShift = 0;
					writeValue = 0;
				}
				len--;
				if(len == 0)
					return;
			}
		}
	}
}

static void BIOS_RLUnCompWram (void)
{
	u32 source = bus.reg[0].I;
	u32 dest = bus.reg[1].I;

	u32 header = CPUReadMemory(source & 0xFFFFFFFC);
	source += 4;

	if(((source & 0xe000000) == 0) ||
			((source + ((header >> 8) & 0x1fffff)) & 0xe000000) == 0)
		return;

	int len = header >> 8;

	while(len > 0) {
		u8 d = CPUReadByte(source++);
		int l = d & 0x7F;
		if(d & 0x80) {
			u8 data = CPUReadByte(source++);
			l += 3;
			for(int i = 0;i < l; i++) {
				CPUWriteByte(dest++, data);
				len--;
				if(len == 0)
					return;
			}
		} else {
			l++;
			for(int i = 0; i < l; i++) {
				CPUWriteByte(dest++,  CPUReadByte(source++));
				len--;
				if(len == 0)
					return;
			}
		}
	}
}

static void BIOS_SoftReset (void)
{
	armState = true;
	armMode = 0x1F;
	armIrqEnable = false;
	C_FLAG = V_FLAG = N_FLAG = Z_FLAG = false;
	bus.reg[13].I = 0x03007F00;
	bus.reg[14].I = 0x00000000;
	bus.reg[16].I = 0x00000000;
	bus.reg[R13_IRQ].I = 0x03007FA0;
	bus.reg[R14_IRQ].I = 0x00000000;
	bus.reg[SPSR_IRQ].I = 0x00000000;
	bus.reg[R13_SVC].I = 0x03007FE0;
	bus.reg[R14_SVC].I = 0x00000000;
	bus.reg[SPSR_SVC].I = 0x00000000;
	u8 b = internalRAM[0x7ffa];

	memset(&internalRAM[0x7e00], 0, 0x200);

	if(b) {
		bus.armNextPC = 0x02000000;
		bus.reg[15].I = 0x02000004;
	} else {
		bus.armNextPC = 0x08000000;
		bus.reg[15].I = 0x08000004;
	}
}

#define BIOS_GET_BIOS_CHECKSUM()	bus.reg[0].I=0xBAAE187F;

#define BIOS_REGISTER_RAM_RESET() BIOS_RegisterRamReset(bus.reg[0].I);

#define BIOS_SQRT() bus.reg[0].I = (u32)sqrt((double)bus.reg[0].I);

#define BIOS_MIDI_KEY_2_FREQ() \
{ \
	int freq = CPUReadMemory(bus.reg[0].I+4); \
	double tmp; \
	tmp = ((double)(180 - bus.reg[1].I)) - ((double)bus.reg[2].I / 256.f); \
	tmp = pow((double)2.f, tmp / 12.f); \
	bus.reg[0].I = (int)((double)freq / tmp); \
}

/*
#define BIOS_SND_DRIVER_JMP_TABLE_COPY() \
	for(int i = 0; i < 36; i++) \
	{ \
		CPUWriteMemory(bus.reg[0].I, 0x9c); \
		bus.reg[0].I += 4; \
	}
*/

#define BIOS_SND_DRIVER_JMP_TABLE_COPY() \
	CPUWriteMemory(bus.reg[0].I, 0x9c); \
	bus.reg[0].I += 4;

#define CPU_UPDATE_CPSR() \
{ \
	uint32_t CPSR; \
	CPSR = bus.reg[16].I & 0x40; \
	if(N_FLAG) \
		CPSR |= 0x80000000; \
	if(Z_FLAG) \
		CPSR |= 0x40000000; \
	if(C_FLAG) \
		CPSR |= 0x20000000; \
	if(V_FLAG) \
		CPSR |= 0x10000000; \
	if(!armState) \
		CPSR |= 0x00000020; \
	if(!armIrqEnable) \
		CPSR |= 0x80; \
	CPSR |= (armMode & 0x1F); \
	bus.reg[16].I = CPSR; \
}

#define CPU_SOFTWARE_INTERRUPT() \
{ \
  uint32_t PC = bus.reg[15].I; \
  bool savedArmState = armState; \
  if(armMode != 0x13) \
    CPUSwitchMode(0x13, true, false); \
  bus.reg[14].I = PC - (savedArmState ? 4 : 2); \
  bus.reg[15].I = 0x08; \
  armState = true; \
  armIrqEnable = false; \
  bus.armNextPC = 0x08; \
  ARM_PREFETCH; \
  bus.reg[15].I += 4; \
}

static void CPUUpdateFlags(bool breakLoop)
{
	uint32_t CPSR = bus.reg[16].I;

	N_FLAG = (CPSR & 0x80000000) ? true: false;
	Z_FLAG = (CPSR & 0x40000000) ? true: false;
	C_FLAG = (CPSR & 0x20000000) ? true: false;
	V_FLAG = (CPSR & 0x10000000) ? true: false;
	armState = (CPSR & 0x20) ? false : true;
	armIrqEnable = (CPSR & 0x80) ? false : true;
	if (breakLoop && armIrqEnable && (io_registers[REG_IF] & io_registers[REG_IE]) && (io_registers[REG_IME] & 1))
		cpuNextEvent = cpuTotalTicks;
}

static void CPUSoftwareInterrupt(int comment)
{
	if(armState)
		comment >>= 16;

#ifdef HAVE_HLE_BIOS
	if(useBios)
	{
		CPU_SOFTWARE_INTERRUPT();
		return;
	}
#endif

	switch(comment) {
		case 0x00:
			BIOS_SoftReset();
			ARM_PREFETCH;
			break;
		case 0x01:
			BIOS_REGISTER_RAM_RESET();
			break;
		case 0x02:
			holdState = true;
			cpuNextEvent = cpuTotalTicks;
			break;
		case 0x03:
			holdState = true;
			stopState = true;
			cpuNextEvent = cpuTotalTicks;
			break;
		case 0x04:
		case 0x05:
		case 0x06:
		case 0x07:
			CPU_SOFTWARE_INTERRUPT();
			break;
		case 0x08:
			BIOS_SQRT();
			break;
		case 0x09:
			BIOS_ArcTan();
			break;
		case 0x0A:
			BIOS_ArcTan2();
			break;
		case 0x0B:
			{
#ifdef USE_SWITICKS
				int len = (bus.reg[2].I & 0x1FFFFF) >>1;
				if (!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + len) & 0xe000000) == 0))
				{
					if ((bus.reg[2].I >> 24) & 1)
					{
						if ((bus.reg[2].I >> 26) & 1)
							SWITicks = (7 + memoryWait32[(bus.reg[1].I>>24) & 0xF]) * (len>>1);
						else
							SWITicks = (8 + memoryWait[(bus.reg[1].I>>24) & 0xF]) * (len);
					}
					else
					{
						if ((bus.reg[2].I >> 26) & 1)
							SWITicks = (10 + memoryWait32[(bus.reg[0].I>>24) & 0xF] +
									memoryWait32[(bus.reg[1].I>>24) & 0xF]) * (len>>1);
						else
							SWITicks = (11 + memoryWait[(bus.reg[0].I>>24) & 0xF] +
									memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
					}
				}
#endif
			}
			if(!(((bus.reg[0].I & 0xe000000) == 0) || ((bus.reg[0].I + (((bus.reg[2].I << 11)>>9) & 0x1fffff)) & 0xe000000) == 0))
				BIOS_CpuSet();
			break;
		case 0x0C:
			{
#ifdef USE_SWITICKS
				int len = (bus.reg[2].I & 0x1FFFFF) >>5;
				if (!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + len) & 0xe000000) == 0))
				{
					if ((bus.reg[2].I >> 24) & 1)
						SWITicks = (6 + memoryWait32[(bus.reg[1].I>>24) & 0xF] +
								7 * (memoryWaitSeq32[(bus.reg[1].I>>24) & 0xF] + 1)) * len;
					else
						SWITicks = (9 + memoryWait32[(bus.reg[0].I>>24) & 0xF] +
								memoryWait32[(bus.reg[1].I>>24) & 0xF] +
								7 * (memoryWaitSeq32[(bus.reg[0].I>>24) & 0xF] +
									memoryWaitSeq32[(bus.reg[1].I>>24) & 0xF] + 2)) * len;
				}
#endif
			}
			if(!(((bus.reg[0].I & 0xe000000) == 0) || ((bus.reg[0].I + (((bus.reg[2].I << 11)>>9) & 0x1fffff)) & 0xe000000) == 0))
				BIOS_CpuFastSet();
			break;
		case 0x0D:
			BIOS_GET_BIOS_CHECKSUM();
			break;
		case 0x0E:
			BIOS_BgAffineSet();
			break;
		case 0x0F:
			BIOS_ObjAffineSet();
			break;
		case 0x10:
			{
#ifdef USE_SWITICKS
				int len = CPUReadHalfWord(bus.reg[2].I);
				if (!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + len) & 0xe000000) == 0))
					SWITicks = (32 + memoryWait[(bus.reg[0].I>>24) & 0xF]) * len;
#endif
			}
			BIOS_BitUnPack();
			break;
		case 0x11:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 8;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (9 + memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
			}
#endif
			BIOS_LZ77UnCompWram();
			break;
		case 0x12:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 8;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (19 + memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
			}
#endif
			BIOS_LZ77UnCompVram();
			break;
		case 0x13:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 8;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (29 + (memoryWait[(bus.reg[0].I>>24) & 0xF]<<1)) * len;
			}
#endif
			BIOS_HuffUnComp();
			break;
		case 0x14:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 8;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (11 + memoryWait[(bus.reg[0].I>>24) & 0xF] +
							memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
			}
#endif
			BIOS_RLUnCompWram();
			break;
		case 0x15:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 9;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (34 + (memoryWait[(bus.reg[0].I>>24) & 0xF] << 1) +
							memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
			}
#endif
			BIOS_RLUnCompVram();
			break;
		case 0x16:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 8;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (13 + memoryWait[(bus.reg[0].I>>24) & 0xF] +
							memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
			}
#endif
			BIOS_Diff8bitUnFilterWram();
			break;
		case 0x17:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 9;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (39 + (memoryWait[(bus.reg[0].I>>24) & 0xF]<<1) +
							memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
			}
#endif
			BIOS_Diff8bitUnFilterVram();
			break;
		case 0x18:
#ifdef USE_SWITICKS
			{
				uint32_t len = CPUReadMemory(bus.reg[0].I) >> 9;
				if(!(((bus.reg[0].I & 0xe000000) == 0) ||
							((bus.reg[0].I + (len & 0x1fffff)) & 0xe000000) == 0))
					SWITicks = (13 + memoryWait[(bus.reg[0].I>>24) & 0xF] +
							memoryWait[(bus.reg[1].I>>24) & 0xF]) * len;
			}
#endif
			BIOS_Diff16bitUnFilter();
			break;
		case 0x19:
			break;
		case 0x1F:
			BIOS_MIDI_KEY_2_FREQ();
			break;
		case 0x2A:
			BIOS_SND_DRIVER_JMP_TABLE_COPY();
			// let it go, because we don't really emulate this function
		default:
			break;
	}
}

/*============================================================
	GBA ARM CORE
============================================================ */

#ifdef _MSC_VER
 // Disable "empty statement" warnings
 #pragma warning(disable: 4390)
 // Visual C's inline assembler treats "offset" as a reserved word, so we
 // tell it otherwise.  If you want to use it, write "OFFSET" in capitals.e
 #define offset offset_
#endif

static void armUnknownInsn(u32 opcode)
{
	u32 PC = bus.reg[15].I;
	bool savedArmState = armState;
	if(armMode != 0x1b )
		CPUSwitchMode(0x1b, true, false);
	bus.reg[14].I = PC - (savedArmState ? 4 : 2);
	bus.reg[15].I = 0x04;
	armState = true;
	armIrqEnable = false;
	bus.armNextPC = 0x04;
	ARM_PREFETCH;
	bus.reg[15].I += 4;
}

// Common macros //////////////////////////////////////////////////////////

#define NEG(i) ((i) >> 31)
#define POS(i) ((~(i)) >> 31)

// The following macros are used for optimization; any not defined for a
// particular compiler/CPU combination default to the C core versions.
//
//    ALU_INIT_C:   Used at the beginning of ALU instructions (AND/EOR/...).
//    (ALU_INIT_NC) Can consist of variable declarations, like the C core,
//                  or the start of a continued assembly block, like the
//                  x86-optimized version.  The _C version is used when the
//                  carry flag from the shift operation is needed (logical
//                  operations that set condition codes, like ANDS); the
//                  _NC version is used when the carry result is ignored.
//    VALUE_XXX: Retrieve the second operand's value for an ALU instruction.
//               The _C and _NC versions are used the same way as ALU_INIT.
//    OP_XXX: ALU operations.  XXX is the instruction name.
//    SETCOND_NONE: Used in multiply instructions in place of SETCOND_MUL
//                  when the condition codes are not set.  Usually empty.
//    SETCOND_MUL: Used in multiply instructions to set the condition codes.
//    ROR_IMM_MSR: Used to rotate the immediate operand for MSR.
//    ROR_OFFSET: Used to rotate the `offset' parameter for LDR and STR
//                instructions.
//    RRX_OFFSET: Used to rotate (RRX) the `offset' parameter for LDR and
//                STR instructions.

// C core

#define C_SETCOND_LOGICAL \
    N_FLAG = ((s32)res < 0) ? true : false;             \
    Z_FLAG = (res == 0) ? true : false;                 \
    C_FLAG = C_OUT;
#define C_SETCOND_ADD \
    N_FLAG = ((s32)res < 0) ? true : false;             \
    Z_FLAG = (res == 0) ? true : false;                 \
    V_FLAG = ((NEG(lhs) & NEG(rhs) & POS(res)) |        \
              (POS(lhs) & POS(rhs) & NEG(res))) ? true : false;\
    C_FLAG = ((NEG(lhs) & NEG(rhs)) |                   \
              (NEG(lhs) & POS(res)) |                   \
              (NEG(rhs) & POS(res))) ? true : false;
#define C_SETCOND_SUB \
    N_FLAG = ((s32)res < 0) ? true : false;             \
    Z_FLAG = (res == 0) ? true : false;                 \
    V_FLAG = ((NEG(lhs) & POS(rhs) & POS(res)) |        \
              (POS(lhs) & NEG(rhs) & NEG(res))) ? true : false;\
    C_FLAG = ((NEG(lhs) & POS(rhs)) |                   \
              (NEG(lhs) & POS(res)) |                   \
              (POS(rhs) & POS(res))) ? true : false;

#ifndef ALU_INIT_C
 #define ALU_INIT_C \
    int dest = (opcode>>12) & 15;                       \
    bool C_OUT = C_FLAG;                                \
    u32 value;
#endif
// OP Rd,Rb,Rm LSL #
#ifndef VALUE_LSL_IMM_C
 #define VALUE_LSL_IMM_C \
    unsigned int shift = (opcode >> 7) & 0x1F;          \
    if (!shift) {  /* LSL #0 most common? */    \
        value = bus.reg[opcode & 0x0F].I;                   \
    } else {                                            \
        u32 v = bus.reg[opcode & 0x0F].I;                   \
        C_OUT = (v >> (32 - shift)) & 1 ? true : false; \
        value = v << shift;                             \
    }
#endif
// OP Rd,Rb,Rm LSL Rs
#ifndef VALUE_LSL_REG_C
 #define VALUE_LSL_REG_C \
    u32 shift = bus.reg[(opcode >> 8) & 15].B.B0;                \
    u32 rm = bus.reg[opcode & 0x0F].I;                           \
    if ((opcode & 0x0F) == 15) {                             \
        rm += 4;                                             \
    }                                                        \
    if (shift) {                                             \
        if (shift == 32) {                                   \
            value = 0;                                       \
            C_OUT = (rm & 1 ? true : false);                 \
        } else if (shift < 32) {                     \
            u32 v = rm;                                      \
            C_OUT = (v >> (32 - shift)) & 1 ? true : false;  \
            value = v << shift;                              \
        } else {                                             \
            value = 0;                                       \
            C_OUT = false;                                   \
        }                                                    \
    } else {                                                 \
        value = rm;                                          \
    }
#endif
// OP Rd,Rb,Rm LSR #
#ifndef VALUE_LSR_IMM_C
 #define VALUE_LSR_IMM_C \
    u32 shift = (opcode >> 7) & 0x1F;          \
    if (shift) {                                \
        u32 v = bus.reg[opcode & 0x0F].I;                   \
        C_OUT = (v >> (shift - 1)) & 1 ? true : false;  \
        value = v >> shift;                             \
    } else {                                            \
        value = 0;                                      \
        C_OUT = (bus.reg[opcode & 0x0F].I & 0x80000000) ? true : false;\
    }
#endif
// OP Rd,Rb,Rm LSR Rs
#ifndef VALUE_LSR_REG_C
 #define VALUE_LSR_REG_C \
    unsigned int shift = bus.reg[(opcode >> 8) & 15].B.B0;  \
    u32 rm = bus.reg[opcode & 0x0F].I;                      \
    if ((opcode & 0x0F) == 15) {                        \
        rm += 4;                                        \
    }                                                   \
    if (shift) {                                \
        if (shift == 32) {                              \
            value = 0;                                  \
            C_OUT = (rm & 0x80000000 ? true : false);   \
        } else if (shift < 32) {                \
            u32 v = rm;                                 \
            C_OUT = (v >> (shift - 1)) & 1 ? true : false;\
            value = v >> shift;                         \
        } else {                                        \
            value = 0;                                  \
            C_OUT = false;                              \
        }                                               \
    } else {                                            \
        value = rm;                                     \
    }
#endif
// OP Rd,Rb,Rm ASR #
#ifndef VALUE_ASR_IMM_C
 #define VALUE_ASR_IMM_C \
    unsigned int shift = (opcode >> 7) & 0x1F;          \
    if (shift) {                                        \
        s32 v = bus.reg[opcode & 0x0F].I;                   \
        C_OUT = (v >> (int)(shift - 1)) & 1 ? true : false;\
        value = v >> (int)shift;                        \
    } else {                                            \
        if (bus.reg[opcode & 0x0F].I & 0x80000000) {        \
            value = 0xFFFFFFFF;                         \
            C_OUT = true;                               \
        } else {                                        \
            value = 0;                                  \
            C_OUT = false;                              \
        }                                               \
    }
#endif
// OP Rd,Rb,Rm ASR Rs
#ifndef VALUE_ASR_REG_C
 #define VALUE_ASR_REG_C \
    unsigned int shift = bus.reg[(opcode >> 8)&15].B.B0;    \
    u32 rm = bus.reg[opcode & 0x0F].I;                      \
    if ((opcode & 0x0F) == 15) {                        \
        rm += 4;                                        \
    }                                                   \
    if (shift < 32) {                           \
        if (shift) {                            \
            s32 v = rm;                                 \
            C_OUT = (v >> (int)(shift - 1)) & 1 ? true : false;\
            value = v >> (int)shift;                    \
        } else {                                        \
            value = rm;                                 \
        }                                               \
    } else {                                            \
        if (bus.reg[opcode & 0x0F].I & 0x80000000) {        \
            value = 0xFFFFFFFF;                         \
            C_OUT = true;                               \
        } else {                                        \
            value = 0;                                  \
            C_OUT = false;                              \
        }                                               \
    }
#endif
// OP Rd,Rb,Rm ROR #
#ifndef VALUE_ROR_IMM_C
 #define VALUE_ROR_IMM_C \
    unsigned int shift = (opcode >> 7) & 0x1F;          \
    if (shift) {                                \
        u32 v = bus.reg[opcode & 0x0F].I;                   \
        C_OUT = (v >> (shift - 1)) & 1 ? true : false;  \
        value = ((v << (32 - shift)) |                  \
                 (v >> shift));                         \
    } else {                                            \
        u32 v = bus.reg[opcode & 0x0F].I;                   \
        C_OUT = (v & 1) ? true : false;                 \
        value = ((v >> 1) |                             \
                 (C_FLAG << 31));                       \
    }
#endif
// OP Rd,Rb,Rm ROR Rs
#ifndef VALUE_ROR_REG_C
 #define VALUE_ROR_REG_C \
    unsigned int shift = bus.reg[(opcode >> 8)&15].B.B0;    \
    u32 rm = bus.reg[opcode & 0x0F].I;                      \
    if ((opcode & 0x0F) == 15) {                        \
        rm += 4;                                        \
    }                                                   \
    if (shift & 0x1F) {                         \
        u32 v = rm;                                     \
        C_OUT = (v >> (shift - 1)) & 1 ? true : false;  \
        value = ((v << (32 - shift)) |                  \
                 (v >> shift));                         \
    } else {                                            \
        value = rm;                                     \
        if (shift)                                      \
            C_OUT = (value & 0x80000000 ? true : false);\
    }
#endif
// OP Rd,Rb,# ROR #
#ifndef VALUE_IMM_C
 #define VALUE_IMM_C \
    int shift = (opcode & 0xF00) >> 7;                  \
    if (shift) {                              \
        u32 v = opcode & 0xFF;                          \
        C_OUT = (v >> (shift - 1)) & 1 ? true : false;  \
        value = ((v << (32 - shift)) |                  \
                 (v >> shift));                         \
    } else {                                            \
        value = opcode & 0xFF;                          \
    }
#endif

// Make the non-carry versions default to the carry versions
// (this is fine for C--the compiler will optimize the dead code out)
#ifndef ALU_INIT_NC
 #define ALU_INIT_NC ALU_INIT_C
#endif
#ifndef VALUE_LSL_IMM_NC
 #define VALUE_LSL_IMM_NC VALUE_LSL_IMM_C
#endif
#ifndef VALUE_LSL_REG_NC
 #define VALUE_LSL_REG_NC VALUE_LSL_REG_C
#endif
#ifndef VALUE_LSR_IMM_NC
 #define VALUE_LSR_IMM_NC VALUE_LSR_IMM_C
#endif
#ifndef VALUE_LSR_REG_NC
 #define VALUE_LSR_REG_NC VALUE_LSR_REG_C
#endif
#ifndef VALUE_ASR_IMM_NC
 #define VALUE_ASR_IMM_NC VALUE_ASR_IMM_C
#endif
#ifndef VALUE_ASR_REG_NC
 #define VALUE_ASR_REG_NC VALUE_ASR_REG_C
#endif
#ifndef VALUE_ROR_IMM_NC
 #define VALUE_ROR_IMM_NC VALUE_ROR_IMM_C
#endif
#ifndef VALUE_ROR_REG_NC
 #define VALUE_ROR_REG_NC VALUE_ROR_REG_C
#endif
#ifndef VALUE_IMM_NC
 #define VALUE_IMM_NC VALUE_IMM_C
#endif

#define C_CHECK_PC(SETCOND) if (dest != 15) { SETCOND }
#ifndef OP_AND
 #define OP_AND \
    u32 res = bus.reg[(opcode>>16)&15].I & value;           \
    bus.reg[dest].I = res;
#endif
#ifndef OP_ANDS
 #define OP_ANDS   OP_AND C_CHECK_PC(C_SETCOND_LOGICAL)
#endif
#ifndef OP_EOR
 #define OP_EOR \
    u32 res = bus.reg[(opcode>>16)&15].I ^ value;           \
    bus.reg[dest].I = res;
#endif
#ifndef OP_EORS
 #define OP_EORS   OP_EOR C_CHECK_PC(C_SETCOND_LOGICAL)
#endif
#ifndef OP_SUB
 #define OP_SUB \
    u32 lhs = bus.reg[(opcode>>16)&15].I;                   \
    u32 rhs = value;                                    \
    u32 res = lhs - rhs;                                \
    bus.reg[dest].I = res;
#endif
#ifndef OP_SUBS
 #define OP_SUBS   OP_SUB C_CHECK_PC(C_SETCOND_SUB)
#endif
#ifndef OP_RSB
 #define OP_RSB \
    u32 lhs = value;                                    \
    u32 rhs = bus.reg[(opcode>>16)&15].I;               \
    u32 res = lhs - rhs;                                \
    bus.reg[dest].I = res;
#endif
#ifndef OP_RSBS
 #define OP_RSBS   OP_RSB C_CHECK_PC(C_SETCOND_SUB)
#endif
#ifndef OP_ADD
 #define OP_ADD \
    u32 lhs = bus.reg[(opcode>>16)&15].I;                   \
    u32 rhs = value;                                    \
    u32 res = lhs + rhs;                                \
    bus.reg[dest].I = res;
#endif
#ifndef OP_ADDS
 #define OP_ADDS   OP_ADD C_CHECK_PC(C_SETCOND_ADD)
#endif
#ifndef OP_ADC
 #define OP_ADC \
    u32 lhs = bus.reg[(opcode>>16)&15].I;                   \
    u32 rhs = value;                                    \
    u32 res = lhs + rhs + (u32)C_FLAG;                  \
    bus.reg[dest].I = res;
#endif
#ifndef OP_ADCS
 #define OP_ADCS   OP_ADC C_CHECK_PC(C_SETCOND_ADD)
#endif
#ifndef OP_SBC
 #define OP_SBC \
    u32 lhs = bus.reg[(opcode>>16)&15].I;                   \
    u32 rhs = value;                                    \
    u32 res = lhs - rhs - !((u32)C_FLAG);               \
    bus.reg[dest].I = res;
#endif
#ifndef OP_SBCS
 #define OP_SBCS   OP_SBC C_CHECK_PC(C_SETCOND_SUB)
#endif
#ifndef OP_RSC
 #define OP_RSC \
    u32 lhs = value;                                    \
    u32 rhs = bus.reg[(opcode>>16)&15].I;                   \
    u32 res = lhs - rhs - !((u32)C_FLAG);               \
    bus.reg[dest].I = res;
#endif
#ifndef OP_RSCS
 #define OP_RSCS   OP_RSC C_CHECK_PC(C_SETCOND_SUB)
#endif
#ifndef OP_TST
 #define OP_TST \
    u32 res = bus.reg[(opcode >> 16) & 0x0F].I & value;     \
    C_SETCOND_LOGICAL;
#endif
#ifndef OP_TEQ
 #define OP_TEQ \
    u32 res = bus.reg[(opcode >> 16) & 0x0F].I ^ value;     \
    C_SETCOND_LOGICAL;
#endif
#ifndef OP_CMP
 #define OP_CMP \
    u32 lhs = bus.reg[(opcode>>16)&15].I;                   \
    u32 rhs = value;                                    \
    u32 res = lhs - rhs;                                \
    C_SETCOND_SUB;
#endif
#ifndef OP_CMN
 #define OP_CMN \
    u32 lhs = bus.reg[(opcode>>16)&15].I;                   \
    u32 rhs = value;                                    \
    u32 res = lhs + rhs;                                \
    C_SETCOND_ADD;
#endif
#ifndef OP_ORR
 #define OP_ORR \
    u32 res = bus.reg[(opcode >> 16) & 0x0F].I | value;     \
    bus.reg[dest].I = res;
#endif
#ifndef OP_ORRS
 #define OP_ORRS   OP_ORR C_CHECK_PC(C_SETCOND_LOGICAL)
#endif
#ifndef OP_MOV
 #define OP_MOV \
    u32 res = value;                                    \
    bus.reg[dest].I = res;
#endif
#ifndef OP_MOVS
 #define OP_MOVS   OP_MOV C_CHECK_PC(C_SETCOND_LOGICAL)
#endif
#ifndef OP_BIC
 #define OP_BIC \
    u32 res = bus.reg[(opcode >> 16) & 0x0F].I & (~value);  \
    bus.reg[dest].I = res;
#endif
#ifndef OP_BICS
 #define OP_BICS   OP_BIC C_CHECK_PC(C_SETCOND_LOGICAL)
#endif
#ifndef OP_MVN
 #define OP_MVN \
    u32 res = ~value;                                   \
    bus.reg[dest].I = res;
#endif
#ifndef OP_MVNS
 #define OP_MVNS   OP_MVN C_CHECK_PC(C_SETCOND_LOGICAL)
#endif

#ifndef SETCOND_NONE
 #define SETCOND_NONE /*nothing*/
#endif
#ifndef SETCOND_MUL
 #define SETCOND_MUL \
     N_FLAG = ((s32)bus.reg[dest].I < 0) ? true : false;    \
     Z_FLAG = bus.reg[dest].I ? false : true;
#endif
#ifndef SETCOND_MULL
 #define SETCOND_MULL \
     N_FLAG = (bus.reg[dest].I & 0x80000000) ? true : false;\
     Z_FLAG = bus.reg[dest].I || bus.reg[acc].I ? false : true;
#endif

#ifndef ROR_IMM_MSR
 #define ROR_IMM_MSR \
    u32 v = opcode & 0xff;                              \
    value = ((v << (32 - shift)) | (v >> shift));
#endif
#ifndef ROR_OFFSET
 #define ROR_OFFSET \
    offset = ((offset << (32 - shift)) | (offset >> shift));
#endif
#ifndef RRX_OFFSET
 #define RRX_OFFSET \
    offset = ((offset >> 1) | ((int)C_FLAG << 31));
#endif

// ALU ops (except multiply) //////////////////////////////////////////////

// ALU_INIT: init code (ALU_INIT_C or ALU_INIT_NC)
// GETVALUE: load value and shift/rotate (VALUE_XXX)
// OP: ALU operation (OP_XXX)
// MODECHANGE: MODECHANGE_NO or MODECHANGE_YES
// ISREGSHIFT: 1 for insns of the form ...,Rn LSL/etc Rs; 0 otherwise
// ALU_INIT, GETVALUE and OP are concatenated in order.

#define ALU_INSN(ALU_INIT, GETVALUE, OP, MODECHANGE, ISREGSHIFT) \
    ALU_INIT GETVALUE OP;                                        \
    if ((opcode & 0x0000F000) != 0x0000F000) {                   \
        clockTicks = CLOCKTICKS_UPDATE_TYPE32 + ISREGSHIFT;      \
    } else {                                                     \
        MODECHANGE;                                              \
        if (armState) {                                          \
            bus.reg[15].I &= 0xFFFFFFFC;                         \
            bus.armNextPC = bus.reg[15].I;                       \
            bus.reg[15].I += 4;                                  \
            ARM_PREFETCH;                                        \
        } else {                                                 \
            bus.reg[15].I &= 0xFFFFFFFE;                         \
            bus.armNextPC = bus.reg[15].I;                       \
            bus.reg[15].I += 2;                                  \
            THUMB_PREFETCH;                                      \
        }                                                        \
        clockTicks = CLOCKTICKS_UPDATE_TYPE32P + ISREGSHIFT;     \
    }

#define MODECHANGE_NO  /*nothing*/
#define MODECHANGE_YES if(armMode != (bus.reg[17].I & 0x1f)) CPUSwitchMode(bus.reg[17].I & 0x1f, false, true);

#define DEFINE_ALU_INSN_C(CODE1, CODE2, OP, MODECHANGE) \
  static  void arm##CODE1##0(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_LSL_IMM_C, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##1(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_LSL_REG_C, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE1##2(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_LSR_IMM_C, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##3(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_LSR_REG_C, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE1##4(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_ASR_IMM_C, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##5(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_ASR_REG_C, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE1##6(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_ROR_IMM_C, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##7(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_ROR_REG_C, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE2##0(u32 opcode) { ALU_INSN(ALU_INIT_C, VALUE_IMM_C,     OP_##OP, MODECHANGE_##MODECHANGE, 0); }
#define DEFINE_ALU_INSN_NC(CODE1, CODE2, OP, MODECHANGE) \
  static  void arm##CODE1##0(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_LSL_IMM_NC, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##1(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_LSL_REG_NC, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE1##2(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_LSR_IMM_NC, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##3(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_LSR_REG_NC, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE1##4(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_ASR_IMM_NC, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##5(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_ASR_REG_NC, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE1##6(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_ROR_IMM_NC, OP_##OP, MODECHANGE_##MODECHANGE, 0); }\
  static  void arm##CODE1##7(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_ROR_REG_NC, OP_##OP, MODECHANGE_##MODECHANGE, 1); }\
  static  void arm##CODE2##0(u32 opcode) { ALU_INSN(ALU_INIT_NC, VALUE_IMM_NC,     OP_##OP, MODECHANGE_##MODECHANGE, 0); }

// AND
DEFINE_ALU_INSN_NC(00, 20, AND,  NO)
// ANDS
DEFINE_ALU_INSN_C (01, 21, ANDS, YES)

// EOR
DEFINE_ALU_INSN_NC(02, 22, EOR,  NO)
// EORS
DEFINE_ALU_INSN_C (03, 23, EORS, YES)

// SUB
DEFINE_ALU_INSN_NC(04, 24, SUB,  NO)
// SUBS
DEFINE_ALU_INSN_NC(05, 25, SUBS, YES)

// RSB
DEFINE_ALU_INSN_NC(06, 26, RSB,  NO)
// RSBS
DEFINE_ALU_INSN_NC(07, 27, RSBS, YES)

// ADD
DEFINE_ALU_INSN_NC(08, 28, ADD,  NO)
// ADDS
DEFINE_ALU_INSN_NC(09, 29, ADDS, YES)

// ADC
DEFINE_ALU_INSN_NC(0A, 2A, ADC,  NO)
// ADCS
DEFINE_ALU_INSN_NC(0B, 2B, ADCS, YES)

// SBC
DEFINE_ALU_INSN_NC(0C, 2C, SBC,  NO)
// SBCS
DEFINE_ALU_INSN_NC(0D, 2D, SBCS, YES)

// RSC
DEFINE_ALU_INSN_NC(0E, 2E, RSC,  NO)
// RSCS
DEFINE_ALU_INSN_NC(0F, 2F, RSCS, YES)

// TST
DEFINE_ALU_INSN_C (11, 31, TST,  NO)

// TEQ
DEFINE_ALU_INSN_C (13, 33, TEQ,  NO)

// CMP
DEFINE_ALU_INSN_NC(15, 35, CMP,  NO)

// CMN
DEFINE_ALU_INSN_NC(17, 37, CMN,  NO)

// ORR
DEFINE_ALU_INSN_NC(18, 38, ORR,  NO)
// ORRS
DEFINE_ALU_INSN_C (19, 39, ORRS, YES)

// MOV
DEFINE_ALU_INSN_NC(1A, 3A, MOV,  NO)
// MOVS
DEFINE_ALU_INSN_C (1B, 3B, MOVS, YES)

// BIC
DEFINE_ALU_INSN_NC(1C, 3C, BIC,  NO)
// BICS
DEFINE_ALU_INSN_C (1D, 3D, BICS, YES)

// MVN
DEFINE_ALU_INSN_NC(1E, 3E, MVN,  NO)
// MVNS
DEFINE_ALU_INSN_C (1F, 3F, MVNS, YES)

// Multiply instructions //////////////////////////////////////////////////

// OP: OP_MUL, OP_MLA etc.
// SETCOND: SETCOND_NONE, SETCOND_MUL, or SETCOND_MULL
// CYCLES: base cycle count (1, 2, or 3)
#define MUL_INSN(OP, SETCOND, CYCLES)                   \
    int mult = (opcode & 0x0F);                         \
    u32 rs = bus.reg[(opcode >> 8) & 0x0F].I;           \
    int acc = (opcode >> 12) & 0x0F;   /* or destLo */  \
    int dest = (opcode >> 16) & 0x0F;  /* or destHi */  \
    OP;                                                 \
    SETCOND;                                            \
    if ((s32)rs < 0)                                    \
        rs = ~rs;                                       \
    if ((rs & 0xFFFFFF00) == 0)                         \
        clockTicks += 0;                                \
    else if ((rs & 0xFFFF0000) == 0)                    \
        clockTicks += 1;                                \
    else if ((rs & 0xFF000000) == 0)                    \
        clockTicks += 2;                                \
    else                                                \
        clockTicks += 3;                                \
    if (bus.busPrefetchCount == 0)                          \
        bus.busPrefetchCount = ((bus.busPrefetchCount+1)<<clockTicks) - 1; \
    clockTicks += CYCLES + 1 + codeTicksAccess(bus.armNextPC, BITS_32);

#define OP_MUL \
    bus.reg[dest].I = bus.reg[mult].I * rs;
#define OP_MLA \
    bus.reg[dest].I = bus.reg[mult].I * rs + bus.reg[acc].I;
#define OP_MULL(SIGN) \
    SIGN##64 res = (SIGN##64)(SIGN##32)bus.reg[mult].I      \
                 * (SIGN##64)(SIGN##32)rs;              \
    bus.reg[acc].I = (u32)res;                              \
    bus.reg[dest].I = (u32)(res >> 32);
#define OP_MLAL(SIGN) \
    SIGN##64 res = ((SIGN##64)bus.reg[dest].I<<32 | bus.reg[acc].I)\
                 + ((SIGN##64)(SIGN##32)bus.reg[mult].I     \
                    * (SIGN##64)(SIGN##32)rs);          \
    bus.reg[acc].I = (u32)res;                              \
    bus.reg[dest].I = (u32)(res >> 32);
#define OP_UMULL OP_MULL(u)
#define OP_UMLAL OP_MLAL(u)
#define OP_SMULL OP_MULL(s)
#define OP_SMLAL OP_MLAL(s)

// MUL Rd, Rm, Rs
static  void arm009(u32 opcode) { MUL_INSN(OP_MUL, SETCOND_NONE, 1); }
// MULS Rd, Rm, Rs
static  void arm019(u32 opcode) { MUL_INSN(OP_MUL, SETCOND_MUL, 1); }

// MLA Rd, Rm, Rs, Rn
static  void arm029(u32 opcode) { MUL_INSN(OP_MLA, SETCOND_NONE, 2); }
// MLAS Rd, Rm, Rs, Rn
static  void arm039(u32 opcode) { MUL_INSN(OP_MLA, SETCOND_MUL, 2); }

// UMULL RdLo, RdHi, Rn, Rs
static  void arm089(u32 opcode) { MUL_INSN(OP_UMULL, SETCOND_NONE, 2); }
// UMULLS RdLo, RdHi, Rn, Rs
static  void arm099(u32 opcode) { MUL_INSN(OP_UMULL, SETCOND_MULL, 2); }

// UMLAL RdLo, RdHi, Rn, Rs
static  void arm0A9(u32 opcode) { MUL_INSN(OP_UMLAL, SETCOND_NONE, 3); }
// UMLALS RdLo, RdHi, Rn, Rs
static  void arm0B9(u32 opcode) { MUL_INSN(OP_UMLAL, SETCOND_MULL, 3); }

// SMULL RdLo, RdHi, Rm, Rs
static  void arm0C9(u32 opcode) { MUL_INSN(OP_SMULL, SETCOND_NONE, 2); }
// SMULLS RdLo, RdHi, Rm, Rs
static  void arm0D9(u32 opcode) { MUL_INSN(OP_SMULL, SETCOND_MULL, 2); }

// SMLAL RdLo, RdHi, Rm, Rs
static  void arm0E9(u32 opcode) { MUL_INSN(OP_SMLAL, SETCOND_NONE, 3); }
// SMLALS RdLo, RdHi, Rm, Rs
static  void arm0F9(u32 opcode) { MUL_INSN(OP_SMLAL, SETCOND_MULL, 3); }

// Misc instructions //////////////////////////////////////////////////////

// SWP Rd, Rm, [Rn]
static  void arm109(u32 opcode)
{
	u32 address = bus.reg[(opcode >> 16) & 15].I;
	u32 temp = CPUReadMemory(address);
	CPUWriteMemory(address, bus.reg[opcode&15].I);
	bus.reg[(opcode >> 12) & 15].I = temp;
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 4 + (dataticks_value << 1) + codeTicksAccess(bus.armNextPC, BITS_32);
}

// SWPB Rd, Rm, [Rn]
static  void arm149(u32 opcode)
{
	u32 address = bus.reg[(opcode >> 16) & 15].I;
	u32 temp = CPUReadByte(address);
	CPUWriteByte(address, bus.reg[opcode&15].B.B0);
	bus.reg[(opcode>>12)&15].I = temp;
	u32 dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 4 + (dataticks_value << 1) + codeTicksAccess(bus.armNextPC, BITS_32);
}

// MRS Rd, CPSR
static  void arm100(u32 opcode)
{
	if ((opcode & 0x0FFF0FFF) == 0x010F0000)
	{
		CPU_UPDATE_CPSR();
		bus.reg[(opcode >> 12) & 0x0F].I = bus.reg[16].I;
	}
	else
		armUnknownInsn(opcode);
}

// MRS Rd, SPSR
static  void arm140(u32 opcode)
{
	if ((opcode & 0x0FFF0FFF) == 0x014F0000)
		bus.reg[(opcode >> 12) & 0x0F].I = bus.reg[17].I;
	else
		armUnknownInsn(opcode);
}

// MSR CPSR_fields, Rm
static  void arm120(u32 opcode)
{
    if ((opcode & 0x0FF0FFF0) == 0x0120F000)
    {
	    CPU_UPDATE_CPSR();
	    u32 value = bus.reg[opcode & 15].I;
	    u32 newValue = bus.reg[16].I;
	    if (armMode > 0x10) {
		    if (opcode & 0x00010000)
			    newValue = (newValue & 0xFFFFFF00) | (value & 0x000000FF);
		    if (opcode & 0x00020000)
			    newValue = (newValue & 0xFFFF00FF) | (value & 0x0000FF00);
		    if (opcode & 0x00040000)
			    newValue = (newValue & 0xFF00FFFF) | (value & 0x00FF0000);
	    }
	    if (opcode & 0x00080000)
		    newValue = (newValue & 0x00FFFFFF) | (value & 0xFF000000);
	    newValue |= 0x10;
	    if(armMode != (newValue & 0x1F))
		    CPUSwitchMode(newValue & 0x1F, false, true);
	    bus.reg[16].I = newValue;
	    CPUUpdateFlags(1);
	    if (!armState) {  // this should not be allowed, but it seems to work
		    THUMB_PREFETCH;
		    bus.reg[15].I = bus.armNextPC + 2;
	    }
    }
    else
	    armUnknownInsn(opcode);
}

// MSR SPSR_fields, Rm
static  void arm160(u32 opcode)
{
	if ((opcode & 0x0FF0FFF0) == 0x0160F000)
	{
		u32 value = bus.reg[opcode & 15].I;
		if (armMode > 0x10 && armMode < 0x1F)
		{
			if (opcode & 0x00010000)
				bus.reg[17].I = (bus.reg[17].I & 0xFFFFFF00) | (value & 0x000000FF);
			if (opcode & 0x00020000)
				bus.reg[17].I = (bus.reg[17].I & 0xFFFF00FF) | (value & 0x0000FF00);
			if (opcode & 0x00040000)
				bus.reg[17].I = (bus.reg[17].I & 0xFF00FFFF) | (value & 0x00FF0000);
			if (opcode & 0x00080000)
				bus.reg[17].I = (bus.reg[17].I & 0x00FFFFFF) | (value & 0xFF000000);
		}
	}
	else
		armUnknownInsn(opcode);
}

// MSR CPSR_fields, #
static  void arm320(u32 opcode)
{
	if ((opcode & 0x0FF0F000) == 0x0320F000)
	{
		CPU_UPDATE_CPSR();
		u32 value = opcode & 0xFF;
		int shift = (opcode & 0xF00) >> 7;
		if (shift) {
			ROR_IMM_MSR;
		}
		u32 newValue = bus.reg[16].I;
		if (armMode > 0x10) {
			if (opcode & 0x00010000)
				newValue = (newValue & 0xFFFFFF00) | (value & 0x000000FF);
			if (opcode & 0x00020000)
				newValue = (newValue & 0xFFFF00FF) | (value & 0x0000FF00);
			if (opcode & 0x00040000)
				newValue = (newValue & 0xFF00FFFF) | (value & 0x00FF0000);
		}
		if (opcode & 0x00080000)
			newValue = (newValue & 0x00FFFFFF) | (value & 0xFF000000);

		newValue |= 0x10;

		if(armMode != (newValue & 0x1F))
			CPUSwitchMode(newValue & 0x1F, false, true);
		bus.reg[16].I = newValue;
		CPUUpdateFlags(1);
		if (!armState) {  // this should not be allowed, but it seems to work
			THUMB_PREFETCH;
			bus.reg[15].I = bus.armNextPC + 2;
		}
	}
	else
		armUnknownInsn(opcode);
}

// MSR SPSR_fields, #
static  void arm360(u32 opcode)
{
	if ((opcode & 0x0FF0F000) == 0x0360F000) {
		if (armMode > 0x10 && armMode < 0x1F) {
			u32 value = opcode & 0xFF;
			int shift = (opcode & 0xF00) >> 7;
			if (shift) {
				ROR_IMM_MSR;
			}
			if (opcode & 0x00010000)
				bus.reg[17].I = (bus.reg[17].I & 0xFFFFFF00) | (value & 0x000000FF);
			if (opcode & 0x00020000)
				bus.reg[17].I = (bus.reg[17].I & 0xFFFF00FF) | (value & 0x0000FF00);
			if (opcode & 0x00040000)
				bus.reg[17].I = (bus.reg[17].I & 0xFF00FFFF) | (value & 0x00FF0000);
			if (opcode & 0x00080000)
				bus.reg[17].I = (bus.reg[17].I & 0x00FFFFFF) | (value & 0xFF000000);
		}
	}
	else
		armUnknownInsn(opcode);
}

// BX Rm
static  void arm121(u32 opcode)
{
	if ((opcode & 0x0FFFFFF0) == 0x012FFF10) {
		int base = opcode & 0x0F;
		bus.busPrefetchCount = 0;
		armState = bus.reg[base].I & 1 ? false : true;
		if (armState) {
			bus.reg[15].I = bus.reg[base].I & 0xFFFFFFFC;
			bus.armNextPC = bus.reg[15].I;
			bus.reg[15].I += 4;
			ARM_PREFETCH;
			clockTicks = CLOCKTICKS_UPDATE_TYPE32P;
		} else {
			bus.reg[15].I = bus.reg[base].I & 0xFFFFFFFE;
			bus.armNextPC = bus.reg[15].I;
			bus.reg[15].I += 2;
			THUMB_PREFETCH;
			clockTicks = CLOCKTICKS_UPDATE_TYPE16P;
		}
	}
	else
		armUnknownInsn(opcode);
}

// Load/store /////////////////////////////////////////////////////////////

#define OFFSET_IMM \
    int offset = opcode & 0xFFF;
#define OFFSET_IMM8 \
    int offset = ((opcode & 0x0F) | ((opcode>>4) & 0xF0));
#define OFFSET_REG \
    int offset = bus.reg[opcode & 15].I;
#define OFFSET_LSL \
    int offset = bus.reg[opcode & 15].I << ((opcode>>7) & 31);
#define OFFSET_LSR \
    int shift = (opcode >> 7) & 31;                     \
    int offset = shift ? bus.reg[opcode & 15].I >> shift : 0;
#define OFFSET_ASR \
    int shift = (opcode >> 7) & 31;                     \
    int offset;                                         \
    if (shift)                                          \
        offset = (int)((s32)bus.reg[opcode & 15].I >> shift);\
    else if (bus.reg[opcode & 15].I & 0x80000000)           \
        offset = 0xFFFFFFFF;                            \
    else                                                \
        offset = 0;
#define OFFSET_ROR \
    int shift = (opcode >> 7) & 31;                     \
    u32 offset = bus.reg[opcode & 15].I;                    \
    if (shift) {                                        \
        ROR_OFFSET;                                     \
    } else {                                            \
        RRX_OFFSET;                                     \
    }

#define ADDRESS_POST (bus.reg[base].I)
#define ADDRESS_PREDEC (bus.reg[base].I - offset)
#define ADDRESS_PREINC (bus.reg[base].I + offset)

#define OP_STR    CPUWriteMemory(address, bus.reg[dest].I)
#define OP_STRH   CPUWriteHalfWord(address, bus.reg[dest].W.W0)
#define OP_STRB   CPUWriteByte(address, bus.reg[dest].B.B0)
#define OP_LDR    bus.reg[dest].I = CPUReadMemory(address)
#define OP_LDRH   bus.reg[dest].I = CPUReadHalfWord(address)
#define OP_LDRB   bus.reg[dest].I = CPUReadByte(address)
#define OP_LDRSH  bus.reg[dest].I = (s16)CPUReadHalfWordSigned(address)
#define OP_LDRSB  bus.reg[dest].I = (s8)CPUReadByte(address)

#define WRITEBACK_NONE     /*nothing*/
#define WRITEBACK_PRE      bus.reg[base].I = address
#define WRITEBACK_POSTDEC  bus.reg[base].I = address - offset
#define WRITEBACK_POSTINC  bus.reg[base].I = address + offset

#define LDRSTR_INIT(CALC_OFFSET, CALC_ADDRESS) \
    if (bus.busPrefetchCount == 0)                          \
        bus.busPrefetch = bus.busPrefetchEnable;                \
    int dest = (opcode >> 12) & 15;                     \
    int base = (opcode >> 16) & 15;                     \
    CALC_OFFSET;                                        \
    u32 address = CALC_ADDRESS;

#define STR(CALC_OFFSET, CALC_ADDRESS, STORE_DATA, WRITEBACK1, WRITEBACK2, SIZE) \
    LDRSTR_INIT(CALC_OFFSET, CALC_ADDRESS);             \
    WRITEBACK1;                                         \
    STORE_DATA;                                         \
    WRITEBACK2;                                         \
    int dataticks_val;					\
    if(SIZE == 32) \
       dataticks_val = DATATICKS_ACCESS_32BIT(address);	\
    else \
       dataticks_val = DATATICKS_ACCESS_16BIT(address); \
    DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_val); \
    clockTicks = 2 + dataticks_val + codeTicksAccess(bus.armNextPC, BITS_32);

#define LDR(CALC_OFFSET, CALC_ADDRESS, LOAD_DATA, WRITEBACK, SIZE) \
    LDRSTR_INIT(CALC_OFFSET, CALC_ADDRESS);             \
    LOAD_DATA;                                          \
    if (dest != base)                                   \
    {                                                   \
        WRITEBACK;                                      \
    }                                                   \
    clockTicks = 0;                                     \
    int dataticks_value; \
    if (dest == 15) {                                   \
        bus.reg[15].I &= 0xFFFFFFFC;                        \
        bus.armNextPC = bus.reg[15].I;                          \
        bus.reg[15].I += 4;                                 \
        ARM_PREFETCH;                                   \
	dataticks_value = DATATICKS_ACCESS_32BIT_SEQ(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
        clockTicks += 2 + (dataticks_value << 1);\
    }                                                   \
    if(SIZE == 32)					\
    dataticks_value = DATATICKS_ACCESS_32BIT(address); \
    else \
    dataticks_value = DATATICKS_ACCESS_16BIT(address); \
    DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
    clockTicks += 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_32);
#define STR_POSTDEC(CALC_OFFSET, STORE_DATA, SIZE) \
  STR(CALC_OFFSET, ADDRESS_POST, STORE_DATA, WRITEBACK_NONE, WRITEBACK_POSTDEC, SIZE)
#define STR_POSTINC(CALC_OFFSET, STORE_DATA, SIZE) \
  STR(CALC_OFFSET, ADDRESS_POST, STORE_DATA, WRITEBACK_NONE, WRITEBACK_POSTINC, SIZE)
#define STR_PREDEC(CALC_OFFSET, STORE_DATA, SIZE) \
  STR(CALC_OFFSET, ADDRESS_PREDEC, STORE_DATA, WRITEBACK_NONE, WRITEBACK_NONE, SIZE)
#define STR_PREDEC_WB(CALC_OFFSET, STORE_DATA, SIZE) \
  STR(CALC_OFFSET, ADDRESS_PREDEC, STORE_DATA, WRITEBACK_PRE, WRITEBACK_NONE, SIZE)
#define STR_PREINC(CALC_OFFSET, STORE_DATA, SIZE) \
  STR(CALC_OFFSET, ADDRESS_PREINC, STORE_DATA, WRITEBACK_NONE, WRITEBACK_NONE, SIZE)
#define STR_PREINC_WB(CALC_OFFSET, STORE_DATA, SIZE) \
  STR(CALC_OFFSET, ADDRESS_PREINC, STORE_DATA, WRITEBACK_PRE, WRITEBACK_NONE, SIZE)
#define LDR_POSTDEC(CALC_OFFSET, LOAD_DATA, SIZE) \
  LDR(CALC_OFFSET, ADDRESS_POST, LOAD_DATA, WRITEBACK_POSTDEC, SIZE)
#define LDR_POSTINC(CALC_OFFSET, LOAD_DATA, SIZE) \
  LDR(CALC_OFFSET, ADDRESS_POST, LOAD_DATA, WRITEBACK_POSTINC, SIZE)
#define LDR_PREDEC(CALC_OFFSET, LOAD_DATA, SIZE) \
  LDR(CALC_OFFSET, ADDRESS_PREDEC, LOAD_DATA, WRITEBACK_NONE, SIZE)
#define LDR_PREDEC_WB(CALC_OFFSET, LOAD_DATA, SIZE) \
  LDR(CALC_OFFSET, ADDRESS_PREDEC, LOAD_DATA, WRITEBACK_PRE, SIZE)
#define LDR_PREINC(CALC_OFFSET, LOAD_DATA, SIZE) \
  LDR(CALC_OFFSET, ADDRESS_PREINC, LOAD_DATA, WRITEBACK_NONE, SIZE)
#define LDR_PREINC_WB(CALC_OFFSET, LOAD_DATA, SIZE) \
  LDR(CALC_OFFSET, ADDRESS_PREINC, LOAD_DATA, WRITEBACK_PRE, SIZE)

// STRH Rd, [Rn], -Rm
static  void arm00B(u32 opcode) { STR_POSTDEC(OFFSET_REG, OP_STRH, 16); }
// STRH Rd, [Rn], #-offset
static  void arm04B(u32 opcode) { STR_POSTDEC(OFFSET_IMM8, OP_STRH, 16); }
// STRH Rd, [Rn], Rm
static  void arm08B(u32 opcode) { STR_POSTINC(OFFSET_REG, OP_STRH, 16); }
// STRH Rd, [Rn], #offset
static  void arm0CB(u32 opcode) { STR_POSTINC(OFFSET_IMM8, OP_STRH, 16); }
// STRH Rd, [Rn, -Rm]
static  void arm10B(u32 opcode) { STR_PREDEC(OFFSET_REG, OP_STRH, 16); }
// STRH Rd, [Rn, -Rm]!
static  void arm12B(u32 opcode) { STR_PREDEC_WB(OFFSET_REG, OP_STRH, 16); }
// STRH Rd, [Rn, -#offset]
static  void arm14B(u32 opcode) { STR_PREDEC(OFFSET_IMM8, OP_STRH, 16); }
// STRH Rd, [Rn, -#offset]!
static  void arm16B(u32 opcode) { STR_PREDEC_WB(OFFSET_IMM8, OP_STRH, 16); }
// STRH Rd, [Rn, Rm]
static  void arm18B(u32 opcode) { STR_PREINC(OFFSET_REG, OP_STRH, 16); }
// STRH Rd, [Rn, Rm]!
static  void arm1AB(u32 opcode) { STR_PREINC_WB(OFFSET_REG, OP_STRH, 16); }
// STRH Rd, [Rn, #offset]
static  void arm1CB(u32 opcode) { STR_PREINC(OFFSET_IMM8, OP_STRH, 16); }
// STRH Rd, [Rn, #offset]!
static  void arm1EB(u32 opcode) { STR_PREINC_WB(OFFSET_IMM8, OP_STRH, 16); }

// LDRH Rd, [Rn], -Rm
static  void arm01B(u32 opcode) { LDR_POSTDEC(OFFSET_REG, OP_LDRH, 16); }
// LDRH Rd, [Rn], #-offset
static  void arm05B(u32 opcode) { LDR_POSTDEC(OFFSET_IMM8, OP_LDRH, 16); }
// LDRH Rd, [Rn], Rm
static  void arm09B(u32 opcode) { LDR_POSTINC(OFFSET_REG, OP_LDRH, 16); }
// LDRH Rd, [Rn], #offset
static  void arm0DB(u32 opcode) { LDR_POSTINC(OFFSET_IMM8, OP_LDRH, 16); }
// LDRH Rd, [Rn, -Rm]
static  void arm11B(u32 opcode) { LDR_PREDEC(OFFSET_REG, OP_LDRH, 16); }
// LDRH Rd, [Rn, -Rm]!
static  void arm13B(u32 opcode) { LDR_PREDEC_WB(OFFSET_REG, OP_LDRH, 16); }
// LDRH Rd, [Rn, -#offset]
static  void arm15B(u32 opcode) { LDR_PREDEC(OFFSET_IMM8, OP_LDRH, 16); }
// LDRH Rd, [Rn, -#offset]!
static  void arm17B(u32 opcode) { LDR_PREDEC_WB(OFFSET_IMM8, OP_LDRH, 16); }
// LDRH Rd, [Rn, Rm]
static  void arm19B(u32 opcode) { LDR_PREINC(OFFSET_REG, OP_LDRH, 16); }
// LDRH Rd, [Rn, Rm]!
static  void arm1BB(u32 opcode) { LDR_PREINC_WB(OFFSET_REG, OP_LDRH, 16); }
// LDRH Rd, [Rn, #offset]
static  void arm1DB(u32 opcode) { LDR_PREINC(OFFSET_IMM8, OP_LDRH, 16); }
// LDRH Rd, [Rn, #offset]!
static  void arm1FB(u32 opcode) { LDR_PREINC_WB(OFFSET_IMM8, OP_LDRH, 16); }

// LDRSB Rd, [Rn], -Rm
static  void arm01D(u32 opcode) { LDR_POSTDEC(OFFSET_REG, OP_LDRSB, 16); }
// LDRSB Rd, [Rn], #-offset
static  void arm05D(u32 opcode) { LDR_POSTDEC(OFFSET_IMM8, OP_LDRSB, 16); }
// LDRSB Rd, [Rn], Rm
static  void arm09D(u32 opcode) { LDR_POSTINC(OFFSET_REG, OP_LDRSB, 16); }
// LDRSB Rd, [Rn], #offset
static  void arm0DD(u32 opcode) { LDR_POSTINC(OFFSET_IMM8, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, -Rm]
static  void arm11D(u32 opcode) { LDR_PREDEC(OFFSET_REG, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, -Rm]!
static  void arm13D(u32 opcode) { LDR_PREDEC_WB(OFFSET_REG, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, -#offset]
static  void arm15D(u32 opcode) { LDR_PREDEC(OFFSET_IMM8, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, -#offset]!
static  void arm17D(u32 opcode) { LDR_PREDEC_WB(OFFSET_IMM8, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, Rm]
static  void arm19D(u32 opcode) { LDR_PREINC(OFFSET_REG, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, Rm]!
static  void arm1BD(u32 opcode) { LDR_PREINC_WB(OFFSET_REG, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, #offset]
static  void arm1DD(u32 opcode) { LDR_PREINC(OFFSET_IMM8, OP_LDRSB, 16); }
// LDRSB Rd, [Rn, #offset]!
static  void arm1FD(u32 opcode) { LDR_PREINC_WB(OFFSET_IMM8, OP_LDRSB, 16); }

// LDRSH Rd, [Rn], -Rm
static  void arm01F(u32 opcode) { LDR_POSTDEC(OFFSET_REG, OP_LDRSH, 16); }
// LDRSH Rd, [Rn], #-offset
static  void arm05F(u32 opcode) { LDR_POSTDEC(OFFSET_IMM8, OP_LDRSH, 16); }
// LDRSH Rd, [Rn], Rm
static  void arm09F(u32 opcode) { LDR_POSTINC(OFFSET_REG, OP_LDRSH, 16); }
// LDRSH Rd, [Rn], #offset
static  void arm0DF(u32 opcode) { LDR_POSTINC(OFFSET_IMM8, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, -Rm]
static  void arm11F(u32 opcode) { LDR_PREDEC(OFFSET_REG, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, -Rm]!
static  void arm13F(u32 opcode) { LDR_PREDEC_WB(OFFSET_REG, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, -#offset]
static  void arm15F(u32 opcode) { LDR_PREDEC(OFFSET_IMM8, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, -#offset]!
static  void arm17F(u32 opcode) { LDR_PREDEC_WB(OFFSET_IMM8, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, Rm]
static  void arm19F(u32 opcode) { LDR_PREINC(OFFSET_REG, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, Rm]!
static  void arm1BF(u32 opcode) { LDR_PREINC_WB(OFFSET_REG, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, #offset]
static  void arm1DF(u32 opcode) { LDR_PREINC(OFFSET_IMM8, OP_LDRSH, 16); }
// LDRSH Rd, [Rn, #offset]!
static  void arm1FF(u32 opcode) { LDR_PREINC_WB(OFFSET_IMM8, OP_LDRSH, 16); }

// STR[T] Rd, [Rn], -#
// Note: STR and STRT do the same thing on the GBA (likewise for LDR/LDRT etc)
static  void arm400(u32 opcode) { STR_POSTDEC(OFFSET_IMM, OP_STR, 32); }
// LDR[T] Rd, [Rn], -#
static  void arm410(u32 opcode) { LDR_POSTDEC(OFFSET_IMM, OP_LDR, 32); }
// STRB[T] Rd, [Rn], -#
static  void arm440(u32 opcode) { STR_POSTDEC(OFFSET_IMM, OP_STRB, 16); }
// LDRB[T] Rd, [Rn], -#
static  void arm450(u32 opcode) { LDR_POSTDEC(OFFSET_IMM, OP_LDRB, 16); }
// STR[T] Rd, [Rn], #
static  void arm480(u32 opcode) { STR_POSTINC(OFFSET_IMM, OP_STR, 32); }
// LDR Rd, [Rn], #
static  void arm490(u32 opcode) { LDR_POSTINC(OFFSET_IMM, OP_LDR, 32); }
// STRB[T] Rd, [Rn], #
static  void arm4C0(u32 opcode) { STR_POSTINC(OFFSET_IMM, OP_STRB, 16); }
// LDRB[T] Rd, [Rn], #
static  void arm4D0(u32 opcode) { LDR_POSTINC(OFFSET_IMM, OP_LDRB, 16); }
// STR Rd, [Rn, -#]
static  void arm500(u32 opcode) { STR_PREDEC(OFFSET_IMM, OP_STR, 32); }
// LDR Rd, [Rn, -#]
static  void arm510(u32 opcode) { LDR_PREDEC(OFFSET_IMM, OP_LDR, 32); }
// STR Rd, [Rn, -#]!
static  void arm520(u32 opcode) { STR_PREDEC_WB(OFFSET_IMM, OP_STR, 32); }
// LDR Rd, [Rn, -#]!
static  void arm530(u32 opcode) { LDR_PREDEC_WB(OFFSET_IMM, OP_LDR, 32); }
// STRB Rd, [Rn, -#]
static  void arm540(u32 opcode) { STR_PREDEC(OFFSET_IMM, OP_STRB, 16); }
// LDRB Rd, [Rn, -#]
static  void arm550(u32 opcode) { LDR_PREDEC(OFFSET_IMM, OP_LDRB, 16); }
// STRB Rd, [Rn, -#]!
static  void arm560(u32 opcode) { STR_PREDEC_WB(OFFSET_IMM, OP_STRB, 16); }
// LDRB Rd, [Rn, -#]!
static  void arm570(u32 opcode) { LDR_PREDEC_WB(OFFSET_IMM, OP_LDRB, 16); }
// STR Rd, [Rn, #]
static  void arm580(u32 opcode) { STR_PREINC(OFFSET_IMM, OP_STR, 32); }
// LDR Rd, [Rn, #]
static  void arm590(u32 opcode) { LDR_PREINC(OFFSET_IMM, OP_LDR, 32); }
// STR Rd, [Rn, #]!
static  void arm5A0(u32 opcode) { STR_PREINC_WB(OFFSET_IMM, OP_STR, 32); }
// LDR Rd, [Rn, #]!
static  void arm5B0(u32 opcode) { LDR_PREINC_WB(OFFSET_IMM, OP_LDR, 32); }
// STRB Rd, [Rn, #]
static  void arm5C0(u32 opcode) { STR_PREINC(OFFSET_IMM, OP_STRB, 16); }
// LDRB Rd, [Rn, #]
static  void arm5D0(u32 opcode) { LDR_PREINC(OFFSET_IMM, OP_LDRB, 16); }
// STRB Rd, [Rn, #]!
static  void arm5E0(u32 opcode) { STR_PREINC_WB(OFFSET_IMM, OP_STRB, 16); }
// LDRB Rd, [Rn, #]!
static  void arm5F0(u32 opcode) { LDR_PREINC_WB(OFFSET_IMM, OP_LDRB, 16); }

// STR[T] Rd, [Rn], -Rm, LSL #
static  void arm600(u32 opcode) { STR_POSTDEC(OFFSET_LSL, OP_STR, 32); }
// STR[T] Rd, [Rn], -Rm, LSR #
static  void arm602(u32 opcode) { STR_POSTDEC(OFFSET_LSR, OP_STR, 32); }
// STR[T] Rd, [Rn], -Rm, ASR #
static  void arm604(u32 opcode) { STR_POSTDEC(OFFSET_ASR, OP_STR, 32); }
// STR[T] Rd, [Rn], -Rm, ROR #
static  void arm606(u32 opcode) { STR_POSTDEC(OFFSET_ROR, OP_STR, 32); }
// LDR[T] Rd, [Rn], -Rm, LSL #
static  void arm610(u32 opcode) { LDR_POSTDEC(OFFSET_LSL, OP_LDR, 32); }
// LDR[T] Rd, [Rn], -Rm, LSR #
static  void arm612(u32 opcode) { LDR_POSTDEC(OFFSET_LSR, OP_LDR, 32); }
// LDR[T] Rd, [Rn], -Rm, ASR #
static  void arm614(u32 opcode) { LDR_POSTDEC(OFFSET_ASR, OP_LDR, 32); }
// LDR[T] Rd, [Rn], -Rm, ROR #
static  void arm616(u32 opcode) { LDR_POSTDEC(OFFSET_ROR, OP_LDR, 32); }
// STRB[T] Rd, [Rn], -Rm, LSL #
static  void arm640(u32 opcode) { STR_POSTDEC(OFFSET_LSL, OP_STRB, 16); }
// STRB[T] Rd, [Rn], -Rm, LSR #
static  void arm642(u32 opcode) { STR_POSTDEC(OFFSET_LSR, OP_STRB, 16); }
// STRB[T] Rd, [Rn], -Rm, ASR #
static  void arm644(u32 opcode) { STR_POSTDEC(OFFSET_ASR, OP_STRB, 16); }
// STRB[T] Rd, [Rn], -Rm, ROR #
static  void arm646(u32 opcode) { STR_POSTDEC(OFFSET_ROR, OP_STRB, 16); }
// LDRB[T] Rd, [Rn], -Rm, LSL #
static  void arm650(u32 opcode) { LDR_POSTDEC(OFFSET_LSL, OP_LDRB, 16); }
// LDRB[T] Rd, [Rn], -Rm, LSR #
static  void arm652(u32 opcode) { LDR_POSTDEC(OFFSET_LSR, OP_LDRB, 16); }
// LDRB[T] Rd, [Rn], -Rm, ASR #
static  void arm654(u32 opcode) { LDR_POSTDEC(OFFSET_ASR, OP_LDRB, 16); }
// LDRB Rd, [Rn], -Rm, ROR #
static  void arm656(u32 opcode) { LDR_POSTDEC(OFFSET_ROR, OP_LDRB, 16); }
// STR[T] Rd, [Rn], Rm, LSL #
static  void arm680(u32 opcode) { STR_POSTINC(OFFSET_LSL, OP_STR, 32); }
// STR[T] Rd, [Rn], Rm, LSR #
static  void arm682(u32 opcode) { STR_POSTINC(OFFSET_LSR, OP_STR, 32); }
// STR[T] Rd, [Rn], Rm, ASR #
static  void arm684(u32 opcode) { STR_POSTINC(OFFSET_ASR, OP_STR, 32); }
// STR[T] Rd, [Rn], Rm, ROR #
static  void arm686(u32 opcode) { STR_POSTINC(OFFSET_ROR, OP_STR, 32); }
// LDR[T] Rd, [Rn], Rm, LSL #
static  void arm690(u32 opcode) { LDR_POSTINC(OFFSET_LSL, OP_LDR, 32); }
// LDR[T] Rd, [Rn], Rm, LSR #
static  void arm692(u32 opcode) { LDR_POSTINC(OFFSET_LSR, OP_LDR, 32); }
// LDR[T] Rd, [Rn], Rm, ASR #
static  void arm694(u32 opcode) { LDR_POSTINC(OFFSET_ASR, OP_LDR, 32); }
// LDR[T] Rd, [Rn], Rm, ROR #
static  void arm696(u32 opcode) { LDR_POSTINC(OFFSET_ROR, OP_LDR, 32); }
// STRB[T] Rd, [Rn], Rm, LSL #
static  void arm6C0(u32 opcode) { STR_POSTINC(OFFSET_LSL, OP_STRB, 16); }
// STRB[T] Rd, [Rn], Rm, LSR #
static  void arm6C2(u32 opcode) { STR_POSTINC(OFFSET_LSR, OP_STRB, 16); }
// STRB[T] Rd, [Rn], Rm, ASR #
static  void arm6C4(u32 opcode) { STR_POSTINC(OFFSET_ASR, OP_STRB, 16); }
// STRB[T] Rd, [Rn], Rm, ROR #
static  void arm6C6(u32 opcode) { STR_POSTINC(OFFSET_ROR, OP_STRB, 16); }
// LDRB[T] Rd, [Rn], Rm, LSL #
static  void arm6D0(u32 opcode) { LDR_POSTINC(OFFSET_LSL, OP_LDRB, 16); }
// LDRB[T] Rd, [Rn], Rm, LSR #
static  void arm6D2(u32 opcode) { LDR_POSTINC(OFFSET_LSR, OP_LDRB, 16); }
// LDRB[T] Rd, [Rn], Rm, ASR #
static  void arm6D4(u32 opcode) { LDR_POSTINC(OFFSET_ASR, OP_LDRB, 16); }
// LDRB[T] Rd, [Rn], Rm, ROR #
static  void arm6D6(u32 opcode) { LDR_POSTINC(OFFSET_ROR, OP_LDRB, 16); }
// STR Rd, [Rn, -Rm, LSL #]
static  void arm700(u32 opcode) { STR_PREDEC(OFFSET_LSL, OP_STR, 32); }
// STR Rd, [Rn, -Rm, LSR #]
static  void arm702(u32 opcode) { STR_PREDEC(OFFSET_LSR, OP_STR, 32); }
// STR Rd, [Rn, -Rm, ASR #]
static  void arm704(u32 opcode) { STR_PREDEC(OFFSET_ASR, OP_STR, 32); }
// STR Rd, [Rn, -Rm, ROR #]
static  void arm706(u32 opcode) { STR_PREDEC(OFFSET_ROR, OP_STR, 32); }
// LDR Rd, [Rn, -Rm, LSL #]
static  void arm710(u32 opcode) { LDR_PREDEC(OFFSET_LSL, OP_LDR, 32); }
// LDR Rd, [Rn, -Rm, LSR #]
static  void arm712(u32 opcode) { LDR_PREDEC(OFFSET_LSR, OP_LDR, 32); }
// LDR Rd, [Rn, -Rm, ASR #]
static  void arm714(u32 opcode) { LDR_PREDEC(OFFSET_ASR, OP_LDR, 32); }
// LDR Rd, [Rn, -Rm, ROR #]
static  void arm716(u32 opcode) { LDR_PREDEC(OFFSET_ROR, OP_LDR, 32); }
// STR Rd, [Rn, -Rm, LSL #]!
static  void arm720(u32 opcode) { STR_PREDEC_WB(OFFSET_LSL, OP_STR, 32); }
// STR Rd, [Rn, -Rm, LSR #]!
static  void arm722(u32 opcode) { STR_PREDEC_WB(OFFSET_LSR, OP_STR, 32); }
// STR Rd, [Rn, -Rm, ASR #]!
static  void arm724(u32 opcode) { STR_PREDEC_WB(OFFSET_ASR, OP_STR, 32); }
// STR Rd, [Rn, -Rm, ROR #]!
static  void arm726(u32 opcode) { STR_PREDEC_WB(OFFSET_ROR, OP_STR, 32); }
// LDR Rd, [Rn, -Rm, LSL #]!
static  void arm730(u32 opcode) { LDR_PREDEC_WB(OFFSET_LSL, OP_LDR, 32); }
// LDR Rd, [Rn, -Rm, LSR #]!
static  void arm732(u32 opcode) { LDR_PREDEC_WB(OFFSET_LSR, OP_LDR, 32); }
// LDR Rd, [Rn, -Rm, ASR #]!
static  void arm734(u32 opcode) { LDR_PREDEC_WB(OFFSET_ASR, OP_LDR, 32); }
// LDR Rd, [Rn, -Rm, ROR #]!
static  void arm736(u32 opcode) { LDR_PREDEC_WB(OFFSET_ROR, OP_LDR, 32); }
// STRB Rd, [Rn, -Rm, LSL #]
static  void arm740(u32 opcode) { STR_PREDEC(OFFSET_LSL, OP_STRB, 16); }
// STRB Rd, [Rn, -Rm, LSR #]
static  void arm742(u32 opcode) { STR_PREDEC(OFFSET_LSR, OP_STRB, 16); }
// STRB Rd, [Rn, -Rm, ASR #]
static  void arm744(u32 opcode) { STR_PREDEC(OFFSET_ASR, OP_STRB, 16); }
// STRB Rd, [Rn, -Rm, ROR #]
static  void arm746(u32 opcode) { STR_PREDEC(OFFSET_ROR, OP_STRB, 16); }
// LDRB Rd, [Rn, -Rm, LSL #]
static  void arm750(u32 opcode) { LDR_PREDEC(OFFSET_LSL, OP_LDRB, 16); }
// LDRB Rd, [Rn, -Rm, LSR #]
static  void arm752(u32 opcode) { LDR_PREDEC(OFFSET_LSR, OP_LDRB, 16); }
// LDRB Rd, [Rn, -Rm, ASR #]
static  void arm754(u32 opcode) { LDR_PREDEC(OFFSET_ASR, OP_LDRB, 16); }
// LDRB Rd, [Rn, -Rm, ROR #]
static  void arm756(u32 opcode) { LDR_PREDEC(OFFSET_ROR, OP_LDRB, 16); }
// STRB Rd, [Rn, -Rm, LSL #]!
static  void arm760(u32 opcode) { STR_PREDEC_WB(OFFSET_LSL, OP_STRB, 16); }
// STRB Rd, [Rn, -Rm, LSR #]!
static  void arm762(u32 opcode) { STR_PREDEC_WB(OFFSET_LSR, OP_STRB, 16); }
// STRB Rd, [Rn, -Rm, ASR #]!
static  void arm764(u32 opcode) { STR_PREDEC_WB(OFFSET_ASR, OP_STRB, 16); }
// STRB Rd, [Rn, -Rm, ROR #]!
static  void arm766(u32 opcode) { STR_PREDEC_WB(OFFSET_ROR, OP_STRB, 16); }
// LDRB Rd, [Rn, -Rm, LSL #]!
static  void arm770(u32 opcode) { LDR_PREDEC_WB(OFFSET_LSL, OP_LDRB, 16); }
// LDRB Rd, [Rn, -Rm, LSR #]!
static  void arm772(u32 opcode) { LDR_PREDEC_WB(OFFSET_LSR, OP_LDRB, 16); }
// LDRB Rd, [Rn, -Rm, ASR #]!
static  void arm774(u32 opcode) { LDR_PREDEC_WB(OFFSET_ASR, OP_LDRB, 16); }
// LDRB Rd, [Rn, -Rm, ROR #]!
static  void arm776(u32 opcode) { LDR_PREDEC_WB(OFFSET_ROR, OP_LDRB, 16); }
// STR Rd, [Rn, Rm, LSL #]
static  void arm780(u32 opcode) { STR_PREINC(OFFSET_LSL, OP_STR, 32); }
// STR Rd, [Rn, Rm, LSR #]
static  void arm782(u32 opcode) { STR_PREINC(OFFSET_LSR, OP_STR, 32); }
// STR Rd, [Rn, Rm, ASR #]
static  void arm784(u32 opcode) { STR_PREINC(OFFSET_ASR, OP_STR, 32); }
// STR Rd, [Rn, Rm, ROR #]
static  void arm786(u32 opcode) { STR_PREINC(OFFSET_ROR, OP_STR, 32); }
// LDR Rd, [Rn, Rm, LSL #]
static  void arm790(u32 opcode) { LDR_PREINC(OFFSET_LSL, OP_LDR, 32); }
// LDR Rd, [Rn, Rm, LSR #]
static  void arm792(u32 opcode) { LDR_PREINC(OFFSET_LSR, OP_LDR, 32); }
// LDR Rd, [Rn, Rm, ASR #]
static  void arm794(u32 opcode) { LDR_PREINC(OFFSET_ASR, OP_LDR, 32); }
// LDR Rd, [Rn, Rm, ROR #]
static  void arm796(u32 opcode) { LDR_PREINC(OFFSET_ROR, OP_LDR, 32); }
// STR Rd, [Rn, Rm, LSL #]!
static  void arm7A0(u32 opcode) { STR_PREINC_WB(OFFSET_LSL, OP_STR, 32); }
// STR Rd, [Rn, Rm, LSR #]!
static  void arm7A2(u32 opcode) { STR_PREINC_WB(OFFSET_LSR, OP_STR, 32); }
// STR Rd, [Rn, Rm, ASR #]!
static  void arm7A4(u32 opcode) { STR_PREINC_WB(OFFSET_ASR, OP_STR, 32); }
// STR Rd, [Rn, Rm, ROR #]!
static  void arm7A6(u32 opcode) { STR_PREINC_WB(OFFSET_ROR, OP_STR, 32); }
// LDR Rd, [Rn, Rm, LSL #]!
static  void arm7B0(u32 opcode) { LDR_PREINC_WB(OFFSET_LSL, OP_LDR, 32); }
// LDR Rd, [Rn, Rm, LSR #]!
static  void arm7B2(u32 opcode) { LDR_PREINC_WB(OFFSET_LSR, OP_LDR, 32); }
// LDR Rd, [Rn, Rm, ASR #]!
static  void arm7B4(u32 opcode) { LDR_PREINC_WB(OFFSET_ASR, OP_LDR, 32); }
// LDR Rd, [Rn, Rm, ROR #]!
static  void arm7B6(u32 opcode) { LDR_PREINC_WB(OFFSET_ROR, OP_LDR, 32); }
// STRB Rd, [Rn, Rm, LSL #]
static  void arm7C0(u32 opcode) { STR_PREINC(OFFSET_LSL, OP_STRB, 16); }
// STRB Rd, [Rn, Rm, LSR #]
static  void arm7C2(u32 opcode) { STR_PREINC(OFFSET_LSR, OP_STRB, 16); }
// STRB Rd, [Rn, Rm, ASR #]
static  void arm7C4(u32 opcode) { STR_PREINC(OFFSET_ASR, OP_STRB, 16); }
// STRB Rd, [Rn, Rm, ROR #]
static  void arm7C6(u32 opcode) { STR_PREINC(OFFSET_ROR, OP_STRB, 16); }
// LDRB Rd, [Rn, Rm, LSL #]
static  void arm7D0(u32 opcode) { LDR_PREINC(OFFSET_LSL, OP_LDRB, 16); }
// LDRB Rd, [Rn, Rm, LSR #]
static  void arm7D2(u32 opcode) { LDR_PREINC(OFFSET_LSR, OP_LDRB, 16); }
// LDRB Rd, [Rn, Rm, ASR #]
static  void arm7D4(u32 opcode) { LDR_PREINC(OFFSET_ASR, OP_LDRB, 16); }
// LDRB Rd, [Rn, Rm, ROR #]
static  void arm7D6(u32 opcode) { LDR_PREINC(OFFSET_ROR, OP_LDRB, 16); }
// STRB Rd, [Rn, Rm, LSL #]!
static  void arm7E0(u32 opcode) { STR_PREINC_WB(OFFSET_LSL, OP_STRB, 16); }
// STRB Rd, [Rn, Rm, LSR #]!
static  void arm7E2(u32 opcode) { STR_PREINC_WB(OFFSET_LSR, OP_STRB, 16); }
// STRB Rd, [Rn, Rm, ASR #]!
static  void arm7E4(u32 opcode) { STR_PREINC_WB(OFFSET_ASR, OP_STRB, 16); }
// STRB Rd, [Rn, Rm, ROR #]!
static  void arm7E6(u32 opcode) { STR_PREINC_WB(OFFSET_ROR, OP_STRB, 16); }
// LDRB Rd, [Rn, Rm, LSL #]!
static  void arm7F0(u32 opcode) { LDR_PREINC_WB(OFFSET_LSL, OP_LDRB, 16); }
// LDRB Rd, [Rn, Rm, LSR #]!
static  void arm7F2(u32 opcode) { LDR_PREINC_WB(OFFSET_LSR, OP_LDRB, 16); }
// LDRB Rd, [Rn, Rm, ASR #]!
static  void arm7F4(u32 opcode) { LDR_PREINC_WB(OFFSET_ASR, OP_LDRB, 16); }
// LDRB Rd, [Rn, Rm, ROR #]!
static  void arm7F6(u32 opcode) { LDR_PREINC_WB(OFFSET_ROR, OP_LDRB, 16); }

// STM/LDM ////////////////////////////////////////////////////////////////

#define STM_REG(bit,num) \
    if (opcode & (1U<<(bit))) {                         \
        CPUWriteMemory(address, bus.reg[(num)].I);          \
	int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
	clockTicks += 1 + dataticks_value; \
        count++;                                        \
        address += 4;                                   \
    }
#define STMW_REG(bit,num) \
    if (opcode & (1U<<(bit))) {                         \
        CPUWriteMemory(address, bus.reg[(num)].I);          \
	int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
	clockTicks += 1 + dataticks_value; \
        bus.reg[base].I = temp;                             \
        count++;                                        \
        address += 4;                                   \
    }
#define LDM_REG(bit,num) \
    if (opcode & (1U<<(bit))) {                         \
	int dataticks_value; \
        bus.reg[(num)].I = CPUReadMemory(address); \
	dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
	clockTicks += 1 + dataticks_value; \
        count++;                                        \
        address += 4;                                   \
    }
#define STM_LOW(STORE_REG) \
    STORE_REG(0, 0);                                    \
    STORE_REG(1, 1);                                    \
    STORE_REG(2, 2);                                    \
    STORE_REG(3, 3);                                    \
    STORE_REG(4, 4);                                    \
    STORE_REG(5, 5);                                    \
    STORE_REG(6, 6);                                    \
    STORE_REG(7, 7);
#define STM_HIGH(STORE_REG) \
    STORE_REG(8, 8);                                    \
    STORE_REG(9, 9);                                    \
    STORE_REG(10, 10);                                  \
    STORE_REG(11, 11);                                  \
    STORE_REG(12, 12);                                  \
    STORE_REG(13, 13);                                  \
    STORE_REG(14, 14);
#define STM_HIGH_2(STORE_REG) \
    if (armMode == 0x11) {                              \
        STORE_REG(8, R8_FIQ);                           \
        STORE_REG(9, R9_FIQ);                           \
        STORE_REG(10, R10_FIQ);                         \
        STORE_REG(11, R11_FIQ);                         \
        STORE_REG(12, R12_FIQ);                         \
    } else {                                            \
        STORE_REG(8, 8);                                \
        STORE_REG(9, 9);                                \
        STORE_REG(10, 10);                              \
        STORE_REG(11, 11);                              \
        STORE_REG(12, 12);                              \
    }                                                   \
    if (armMode != 0x10 && armMode != 0x1F) {           \
        STORE_REG(13, R13_USR);                         \
        STORE_REG(14, R14_USR);                         \
    } else {                                            \
        STORE_REG(13, 13);                              \
        STORE_REG(14, 14);                              \
    }
#define STM_PC \
    if (opcode & (1U<<15)) {                            \
        CPUWriteMemory(address, bus.reg[15].I+4);           \
	int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
	clockTicks += 1 + dataticks_value; \
        count++;                                        \
    }
#define STMW_PC \
    if (opcode & (1U<<15)) {                            \
        CPUWriteMemory(address, bus.reg[15].I+4);           \
	int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
	clockTicks += 1 + dataticks_value; \
        bus.reg[base].I = temp;                             \
        count++;                                        \
    }
#define LDM_LOW \
    LDM_REG(0, 0);                                      \
    LDM_REG(1, 1);                                      \
    LDM_REG(2, 2);                                      \
    LDM_REG(3, 3);                                      \
    LDM_REG(4, 4);                                      \
    LDM_REG(5, 5);                                      \
    LDM_REG(6, 6);                                      \
    LDM_REG(7, 7);
#define LDM_HIGH \
    LDM_REG(8, 8);                                      \
    LDM_REG(9, 9);                                      \
    LDM_REG(10, 10);                                    \
    LDM_REG(11, 11);                                    \
    LDM_REG(12, 12);                                    \
    LDM_REG(13, 13);                                    \
    LDM_REG(14, 14);
#define LDM_HIGH_2 \
    if (armMode == 0x11) {                              \
        LDM_REG(8, R8_FIQ);                             \
        LDM_REG(9, R9_FIQ);                             \
        LDM_REG(10, R10_FIQ);                           \
        LDM_REG(11, R11_FIQ);                           \
        LDM_REG(12, R12_FIQ);                           \
    } else {                                            \
        LDM_REG(8, 8);                                  \
        LDM_REG(9, 9);                                  \
        LDM_REG(10, 10);                                \
        LDM_REG(11, 11);                                \
        LDM_REG(12, 12);                                \
    }                                                   \
    if (armMode != 0x10 && armMode != 0x1F) {           \
        LDM_REG(13, R13_USR);                           \
        LDM_REG(14, R14_USR);                           \
    } else {                                            \
        LDM_REG(13, 13);                                \
        LDM_REG(14, 14);                                \
    }
#define STM_ALL \
    STM_LOW(STM_REG);                                   \
    STM_HIGH(STM_REG);                                  \
    STM_PC;
#define STMW_ALL \
    STM_LOW(STMW_REG);                                  \
    STM_HIGH(STMW_REG);                                 \
    STMW_PC;
#define LDM_ALL \
    LDM_LOW;                                            \
    LDM_HIGH;                                           \
    if (opcode & (1U<<15)) {                            \
        bus.reg[15].I = CPUReadMemory(address);             \
	int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
	clockTicks += 1 + dataticks_value; \
        count++;                                        \
    }                                                   \
    if (opcode & (1U<<15)) {                            \
        bus.armNextPC = bus.reg[15].I;                          \
        bus.reg[15].I += 4;                                 \
        ARM_PREFETCH;                                   \
        clockTicks += CLOCKTICKS_UPDATE_TYPE32;\
    }
#define STM_ALL_2 \
    STM_LOW(STM_REG);                                   \
    STM_HIGH_2(STM_REG);                                \
    STM_PC;
#define STMW_ALL_2 \
    STM_LOW(STMW_REG);                                  \
    STM_HIGH_2(STMW_REG);                               \
    STMW_PC;
#define LDM_ALL_2 \
    LDM_LOW;                                            \
    if (opcode & (1U<<15)) {                            \
        LDM_HIGH;                                       \
        bus.reg[15].I = CPUReadMemory(address);             \
	int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
	clockTicks += 1 + dataticks_value; \
        count++;                                        \
    } else {                                            \
        LDM_HIGH_2;                                     \
    }
#define LDM_ALL_2B \
    if (opcode & (1U<<15)) {                            \
	if(armMode != (bus.reg[17].I & 0x1F)) \
	    CPUSwitchMode(bus.reg[17].I & 0x1F, false, true);   \
        if (armState) {                                 \
            bus.armNextPC = bus.reg[15].I & 0xFFFFFFFC;         \
            bus.reg[15].I = bus.armNextPC + 4;                  \
            ARM_PREFETCH;                               \
        } else {                                        \
            bus.armNextPC = bus.reg[15].I & 0xFFFFFFFE;         \
            bus.reg[15].I = bus.armNextPC + 2;                  \
            THUMB_PREFETCH;                             \
        }                                               \
        clockTicks += CLOCKTICKS_UPDATE_TYPE32;\
    }


// STMDA Rn, {Rlist}
static  void arm800(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp + 4) & 0xFFFFFFFC;
    int count = 0;
    STM_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDA Rn, {Rlist}
static  void arm810(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp + 4) & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMDA Rn!, {Rlist}
static  void arm820(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp+4) & 0xFFFFFFFC;
    int count = 0;
    STMW_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDA Rn!, {Rlist}
static  void arm830(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp + 4) & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
    if (!(opcode & (1U << base)))
        bus.reg[base].I = temp;
}

// STMDA Rn, {Rlist}^
static  void arm840(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp+4) & 0xFFFFFFFC;
    int count = 0;
    STM_ALL_2;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDA Rn, {Rlist}^
static  void arm850(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp + 4) & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL_2;
    LDM_ALL_2B;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMDA Rn!, {Rlist}^
static  void arm860(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp+4) & 0xFFFFFFFC;
    int count = 0;
    STMW_ALL_2;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDA Rn!, {Rlist}^
static  void arm870(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (temp + 4) & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL_2;
    if (!(opcode & (1U << base)))
        bus.reg[base].I = temp;
    LDM_ALL_2B;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMIA Rn, {Rlist}
static  void arm880(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    STM_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIA Rn, {Rlist}
static  void arm890(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMIA Rn!, {Rlist}
static  void arm8A0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    u32 temp = bus.reg[base].I +
        4 * (cpuBitsSet[opcode & 0xFF] + cpuBitsSet[(opcode >> 8) & 255]);
    STMW_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIA Rn!, {Rlist}
static  void arm8B0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I +
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
    if (!(opcode & (1U << base)))
        bus.reg[base].I = temp;
}

// STMIA Rn, {Rlist}^
static  void arm8C0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    STM_ALL_2;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIA Rn, {Rlist}^
static  void arm8D0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL_2;
    LDM_ALL_2B;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMIA Rn!, {Rlist}^
static  void arm8E0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    u32 temp = bus.reg[base].I +
        4 * (cpuBitsSet[opcode & 0xFF] + cpuBitsSet[(opcode >> 8) & 255]);
    STMW_ALL_2;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIA Rn!, {Rlist}^
static  void arm8F0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I +
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = bus.reg[base].I & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL_2;
    if (!(opcode & (1U << base)))
        bus.reg[base].I = temp;
    LDM_ALL_2B;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMDB Rn, {Rlist}
static  void arm900(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    STM_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDB Rn, {Rlist}
static  void arm910(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMDB Rn!, {Rlist}
static  void arm920(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    STMW_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDB Rn!, {Rlist}
static  void arm930(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
    if (!(opcode & (1U << base)))
        bus.reg[base].I = temp;
}

// STMDB Rn, {Rlist}^
static  void arm940(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    STM_ALL_2;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDB Rn, {Rlist}^
static  void arm950(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL_2;
    LDM_ALL_2B;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMDB Rn!, {Rlist}^
static  void arm960(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    STMW_ALL_2;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMDB Rn!, {Rlist}^
static  void arm970(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I -
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = temp & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL_2;
    if (!(opcode & (1U << base)))
        bus.reg[base].I = temp;
    LDM_ALL_2B;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMIB Rn, {Rlist}
static  void arm980(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
    int count = 0;
    STM_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIB Rn, {Rlist}
static  void arm990(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMIB Rn!, {Rlist}
static  void arm9A0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
    int count = 0;
    u32 temp = bus.reg[base].I +
        4 * (cpuBitsSet[opcode & 0xFF] + cpuBitsSet[(opcode >> 8) & 255]);
    STMW_ALL;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIB Rn!, {Rlist}
static  void arm9B0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 temp = bus.reg[base].I +
        4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
    u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
    if (!(opcode & (1U << base)))
        bus.reg[base].I = temp;
}

// STMIB Rn, {Rlist}^
static  void arm9C0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
    int count = 0;
    STM_ALL_2;
    clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIB Rn, {Rlist}^
static  void arm9D0(u32 opcode)
{
    if (bus.busPrefetchCount == 0)
        bus.busPrefetch = bus.busPrefetchEnable;
    int base = (opcode & 0x000F0000) >> 16;
    u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
    int count = 0;
    LDM_ALL_2;
    LDM_ALL_2B;
    clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// STMIB Rn!, {Rlist}^
static  void arm9E0(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	int base = (opcode & 0x000F0000) >> 16;
	u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
	int count = 0;
	u32 temp = bus.reg[base].I +
		4 * (cpuBitsSet[opcode & 0xFF] + cpuBitsSet[(opcode >> 8) & 255]);
	STMW_ALL_2;
	clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// LDMIB Rn!, {Rlist}^
static  void arm9F0(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	int base = (opcode & 0x000F0000) >> 16;
	u32 temp = bus.reg[base].I +
		4 * (cpuBitsSet[opcode & 255] + cpuBitsSet[(opcode >> 8) & 255]);
	u32 address = (bus.reg[base].I+4) & 0xFFFFFFFC;
	int count = 0;
	LDM_ALL_2;
	if (!(opcode & (1U << base)))
		bus.reg[base].I = temp;
	LDM_ALL_2B;
	clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_32);
}

// B/BL/SWI and (unimplemented) coproc support ////////////////////////////

// B <offset>
static  void armA00(u32 opcode)
{
	int offset = opcode & 0x00FFFFFF;
	if (offset & 0x00800000)
		offset |= 0xFF000000;  // negative offset
	bus.reg[15].I += offset<<2;
	bus.armNextPC = bus.reg[15].I;
	bus.reg[15].I += 4;
	ARM_PREFETCH;

	clockTicks = CLOCKTICKS_UPDATE_TYPE32P;
	bus.busPrefetchCount = 0;
}

// BL <offset>
static  void armB00(u32 opcode)
{
	int offset = opcode & 0x00FFFFFF;
	if (offset & 0x00800000)
		offset |= 0xFF000000;  // negative offset
	bus.reg[14].I = bus.reg[15].I - 4;
	bus.reg[15].I += offset<<2;
	bus.armNextPC = bus.reg[15].I;
	bus.reg[15].I += 4;
	ARM_PREFETCH;

	clockTicks = CLOCKTICKS_UPDATE_TYPE32P;
	bus.busPrefetchCount = 0;
}

#define armE01 armUnknownInsn

// SWI <comment>
static  void armF00(u32 opcode)
{
	clockTicks = CLOCKTICKS_UPDATE_TYPE32P;
	bus.busPrefetchCount = 0;
	CPUSoftwareInterrupt(opcode & 0x00FFFFFF);
}

// Instruction table //////////////////////////////////////////////////////

typedef  void (*insnfunc_t)(u32 opcode);
#define REP16(insn) \
    insn,insn,insn,insn,insn,insn,insn,insn,\
    insn,insn,insn,insn,insn,insn,insn,insn
#define REP256(insn) \
    REP16(insn),REP16(insn),REP16(insn),REP16(insn),\
    REP16(insn),REP16(insn),REP16(insn),REP16(insn),\
    REP16(insn),REP16(insn),REP16(insn),REP16(insn),\
    REP16(insn),REP16(insn),REP16(insn),REP16(insn)
#define arm_UI armUnknownInsn
#define arm_BP armUnknownInsn

static insnfunc_t armInsnTable[4096] =
{
    arm000,arm001,arm002,arm003,arm004,arm005,arm006,arm007,  // 000
    arm000,arm009,arm002,arm00B,arm004,arm_UI,arm006,arm_UI,  // 008
    arm010,arm011,arm012,arm013,arm014,arm015,arm016,arm017,  // 010
    arm010,arm019,arm012,arm01B,arm014,arm01D,arm016,arm01F,  // 018
    arm020,arm021,arm022,arm023,arm024,arm025,arm026,arm027,  // 020
    arm020,arm029,arm022,arm_UI,arm024,arm_UI,arm026,arm_UI,  // 028
    arm030,arm031,arm032,arm033,arm034,arm035,arm036,arm037,  // 030
    arm030,arm039,arm032,arm_UI,arm034,arm01D,arm036,arm01F,  // 038
    arm040,arm041,arm042,arm043,arm044,arm045,arm046,arm047,  // 040
    arm040,arm_UI,arm042,arm04B,arm044,arm_UI,arm046,arm_UI,  // 048
    arm050,arm051,arm052,arm053,arm054,arm055,arm056,arm057,  // 050
    arm050,arm_UI,arm052,arm05B,arm054,arm05D,arm056,arm05F,  // 058
    arm060,arm061,arm062,arm063,arm064,arm065,arm066,arm067,  // 060
    arm060,arm_UI,arm062,arm_UI,arm064,arm_UI,arm066,arm_UI,  // 068
    arm070,arm071,arm072,arm073,arm074,arm075,arm076,arm077,  // 070
    arm070,arm_UI,arm072,arm_UI,arm074,arm05D,arm076,arm05F,  // 078
    arm080,arm081,arm082,arm083,arm084,arm085,arm086,arm087,  // 080
    arm080,arm089,arm082,arm08B,arm084,arm_UI,arm086,arm_UI,  // 088
    arm090,arm091,arm092,arm093,arm094,arm095,arm096,arm097,  // 090
    arm090,arm099,arm092,arm09B,arm094,arm09D,arm096,arm09F,  // 098
    arm0A0,arm0A1,arm0A2,arm0A3,arm0A4,arm0A5,arm0A6,arm0A7,  // 0A0
    arm0A0,arm0A9,arm0A2,arm_UI,arm0A4,arm_UI,arm0A6,arm_UI,  // 0A8
    arm0B0,arm0B1,arm0B2,arm0B3,arm0B4,arm0B5,arm0B6,arm0B7,  // 0B0
    arm0B0,arm0B9,arm0B2,arm_UI,arm0B4,arm09D,arm0B6,arm09F,  // 0B8
    arm0C0,arm0C1,arm0C2,arm0C3,arm0C4,arm0C5,arm0C6,arm0C7,  // 0C0
    arm0C0,arm0C9,arm0C2,arm0CB,arm0C4,arm_UI,arm0C6,arm_UI,  // 0C8
    arm0D0,arm0D1,arm0D2,arm0D3,arm0D4,arm0D5,arm0D6,arm0D7,  // 0D0
    arm0D0,arm0D9,arm0D2,arm0DB,arm0D4,arm0DD,arm0D6,arm0DF,  // 0D8
    arm0E0,arm0E1,arm0E2,arm0E3,arm0E4,arm0E5,arm0E6,arm0E7,  // 0E0
    arm0E0,arm0E9,arm0E2,arm0CB,arm0E4,arm_UI,arm0E6,arm_UI,  // 0E8
    arm0F0,arm0F1,arm0F2,arm0F3,arm0F4,arm0F5,arm0F6,arm0F7,  // 0F0
    arm0F0,arm0F9,arm0F2,arm0DB,arm0F4,arm0DD,arm0F6,arm0DF,  // 0F8

    arm100,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,  // 100
    arm_UI,arm109,arm_UI,arm10B,arm_UI,arm_UI,arm_UI,arm_UI,  // 108
    arm110,arm111,arm112,arm113,arm114,arm115,arm116,arm117,  // 110
    arm110,arm_UI,arm112,arm11B,arm114,arm11D,arm116,arm11F,  // 118
    arm120,arm121,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,arm_BP,  // 120
    arm_UI,arm_UI,arm_UI,arm12B,arm_UI,arm_UI,arm_UI,arm_UI,  // 128
    arm130,arm131,arm132,arm133,arm134,arm135,arm136,arm137,  // 130
    arm130,arm_UI,arm132,arm13B,arm134,arm13D,arm136,arm13F,  // 138
    arm140,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,  // 140
    arm_UI,arm149,arm_UI,arm14B,arm_UI,arm_UI,arm_UI,arm_UI,  // 148
    arm150,arm151,arm152,arm153,arm154,arm155,arm156,arm157,  // 150
    arm150,arm_UI,arm152,arm15B,arm154,arm15D,arm156,arm15F,  // 158
    arm160,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,arm_UI,  // 160
    arm_UI,arm_UI,arm_UI,arm16B,arm_UI,arm_UI,arm_UI,arm_UI,  // 168
    arm170,arm171,arm172,arm173,arm174,arm175,arm176,arm177,  // 170
    arm170,arm_UI,arm172,arm17B,arm174,arm17D,arm176,arm17F,  // 178
    arm180,arm181,arm182,arm183,arm184,arm185,arm186,arm187,  // 180
    arm180,arm_UI,arm182,arm18B,arm184,arm_UI,arm186,arm_UI,  // 188
    arm190,arm191,arm192,arm193,arm194,arm195,arm196,arm197,  // 190
    arm190,arm_UI,arm192,arm19B,arm194,arm19D,arm196,arm19F,  // 198
    arm1A0,arm1A1,arm1A2,arm1A3,arm1A4,arm1A5,arm1A6,arm1A7,  // 1A0
    arm1A0,arm_UI,arm1A2,arm1AB,arm1A4,arm_UI,arm1A6,arm_UI,  // 1A8
    arm1B0,arm1B1,arm1B2,arm1B3,arm1B4,arm1B5,arm1B6,arm1B7,  // 1B0
    arm1B0,arm_UI,arm1B2,arm1BB,arm1B4,arm1BD,arm1B6,arm1BF,  // 1B8
    arm1C0,arm1C1,arm1C2,arm1C3,arm1C4,arm1C5,arm1C6,arm1C7,  // 1C0
    arm1C0,arm_UI,arm1C2,arm1CB,arm1C4,arm_UI,arm1C6,arm_UI,  // 1C8
    arm1D0,arm1D1,arm1D2,arm1D3,arm1D4,arm1D5,arm1D6,arm1D7,  // 1D0
    arm1D0,arm_UI,arm1D2,arm1DB,arm1D4,arm1DD,arm1D6,arm1DF,  // 1D8
    arm1E0,arm1E1,arm1E2,arm1E3,arm1E4,arm1E5,arm1E6,arm1E7,  // 1E0
    arm1E0,arm_UI,arm1E2,arm1EB,arm1E4,arm_UI,arm1E6,arm_UI,  // 1E8
    arm1F0,arm1F1,arm1F2,arm1F3,arm1F4,arm1F5,arm1F6,arm1F7,  // 1F0
    arm1F0,arm_UI,arm1F2,arm1FB,arm1F4,arm1FD,arm1F6,arm1FF,  // 1F8

    REP16(arm200),REP16(arm210),REP16(arm220),REP16(arm230),  // 200
    REP16(arm240),REP16(arm250),REP16(arm260),REP16(arm270),  // 240
    REP16(arm280),REP16(arm290),REP16(arm2A0),REP16(arm2B0),  // 280
    REP16(arm2C0),REP16(arm2D0),REP16(arm2E0),REP16(arm2F0),  // 2C0
    REP16(arm_UI),REP16(arm310),REP16(arm320),REP16(arm330),  // 300
    REP16(arm_UI),REP16(arm350),REP16(arm360),REP16(arm370),  // 340
    REP16(arm380),REP16(arm390),REP16(arm3A0),REP16(arm3B0),  // 380
    REP16(arm3C0),REP16(arm3D0),REP16(arm3E0),REP16(arm3F0),  // 3C0

    REP16(arm400),REP16(arm410),REP16(arm400),REP16(arm410),  // 400
    REP16(arm440),REP16(arm450),REP16(arm440),REP16(arm450),  // 440
    REP16(arm480),REP16(arm490),REP16(arm480),REP16(arm490),  // 480
    REP16(arm4C0),REP16(arm4D0),REP16(arm4C0),REP16(arm4D0),  // 4C0
    REP16(arm500),REP16(arm510),REP16(arm520),REP16(arm530),  // 500
    REP16(arm540),REP16(arm550),REP16(arm560),REP16(arm570),  // 540
    REP16(arm580),REP16(arm590),REP16(arm5A0),REP16(arm5B0),  // 580
    REP16(arm5C0),REP16(arm5D0),REP16(arm5E0),REP16(arm5F0),  // 5C0

    arm600,arm_UI,arm602,arm_UI,arm604,arm_UI,arm606,arm_UI,  // 600
    arm600,arm_UI,arm602,arm_UI,arm604,arm_UI,arm606,arm_UI,  // 608
    arm610,arm_UI,arm612,arm_UI,arm614,arm_UI,arm616,arm_UI,  // 610
    arm610,arm_UI,arm612,arm_UI,arm614,arm_UI,arm616,arm_UI,  // 618
    arm600,arm_UI,arm602,arm_UI,arm604,arm_UI,arm606,arm_UI,  // 620
    arm600,arm_UI,arm602,arm_UI,arm604,arm_UI,arm606,arm_UI,  // 628
    arm610,arm_UI,arm612,arm_UI,arm614,arm_UI,arm616,arm_UI,  // 630
    arm610,arm_UI,arm612,arm_UI,arm614,arm_UI,arm616,arm_UI,  // 638
    arm640,arm_UI,arm642,arm_UI,arm644,arm_UI,arm646,arm_UI,  // 640
    arm640,arm_UI,arm642,arm_UI,arm644,arm_UI,arm646,arm_UI,  // 648
    arm650,arm_UI,arm652,arm_UI,arm654,arm_UI,arm656,arm_UI,  // 650
    arm650,arm_UI,arm652,arm_UI,arm654,arm_UI,arm656,arm_UI,  // 658
    arm640,arm_UI,arm642,arm_UI,arm644,arm_UI,arm646,arm_UI,  // 660
    arm640,arm_UI,arm642,arm_UI,arm644,arm_UI,arm646,arm_UI,  // 668
    arm650,arm_UI,arm652,arm_UI,arm654,arm_UI,arm656,arm_UI,  // 670
    arm650,arm_UI,arm652,arm_UI,arm654,arm_UI,arm656,arm_UI,  // 678
    arm680,arm_UI,arm682,arm_UI,arm684,arm_UI,arm686,arm_UI,  // 680
    arm680,arm_UI,arm682,arm_UI,arm684,arm_UI,arm686,arm_UI,  // 688
    arm690,arm_UI,arm692,arm_UI,arm694,arm_UI,arm696,arm_UI,  // 690
    arm690,arm_UI,arm692,arm_UI,arm694,arm_UI,arm696,arm_UI,  // 698
    arm680,arm_UI,arm682,arm_UI,arm684,arm_UI,arm686,arm_UI,  // 6A0
    arm680,arm_UI,arm682,arm_UI,arm684,arm_UI,arm686,arm_UI,  // 6A8
    arm690,arm_UI,arm692,arm_UI,arm694,arm_UI,arm696,arm_UI,  // 6B0
    arm690,arm_UI,arm692,arm_UI,arm694,arm_UI,arm696,arm_UI,  // 6B8
    arm6C0,arm_UI,arm6C2,arm_UI,arm6C4,arm_UI,arm6C6,arm_UI,  // 6C0
    arm6C0,arm_UI,arm6C2,arm_UI,arm6C4,arm_UI,arm6C6,arm_UI,  // 6C8
    arm6D0,arm_UI,arm6D2,arm_UI,arm6D4,arm_UI,arm6D6,arm_UI,  // 6D0
    arm6D0,arm_UI,arm6D2,arm_UI,arm6D4,arm_UI,arm6D6,arm_UI,  // 6D8
    arm6C0,arm_UI,arm6C2,arm_UI,arm6C4,arm_UI,arm6C6,arm_UI,  // 6E0
    arm6C0,arm_UI,arm6C2,arm_UI,arm6C4,arm_UI,arm6C6,arm_UI,  // 6E8
    arm6D0,arm_UI,arm6D2,arm_UI,arm6D4,arm_UI,arm6D6,arm_UI,  // 6F0
    arm6D0,arm_UI,arm6D2,arm_UI,arm6D4,arm_UI,arm6D6,arm_UI,  // 6F8

    arm700,arm_UI,arm702,arm_UI,arm704,arm_UI,arm706,arm_UI,  // 700
    arm700,arm_UI,arm702,arm_UI,arm704,arm_UI,arm706,arm_UI,  // 708
    arm710,arm_UI,arm712,arm_UI,arm714,arm_UI,arm716,arm_UI,  // 710
    arm710,arm_UI,arm712,arm_UI,arm714,arm_UI,arm716,arm_UI,  // 718
    arm720,arm_UI,arm722,arm_UI,arm724,arm_UI,arm726,arm_UI,  // 720
    arm720,arm_UI,arm722,arm_UI,arm724,arm_UI,arm726,arm_UI,  // 728
    arm730,arm_UI,arm732,arm_UI,arm734,arm_UI,arm736,arm_UI,  // 730
    arm730,arm_UI,arm732,arm_UI,arm734,arm_UI,arm736,arm_UI,  // 738
    arm740,arm_UI,arm742,arm_UI,arm744,arm_UI,arm746,arm_UI,  // 740
    arm740,arm_UI,arm742,arm_UI,arm744,arm_UI,arm746,arm_UI,  // 748
    arm750,arm_UI,arm752,arm_UI,arm754,arm_UI,arm756,arm_UI,  // 750
    arm750,arm_UI,arm752,arm_UI,arm754,arm_UI,arm756,arm_UI,  // 758
    arm760,arm_UI,arm762,arm_UI,arm764,arm_UI,arm766,arm_UI,  // 760
    arm760,arm_UI,arm762,arm_UI,arm764,arm_UI,arm766,arm_UI,  // 768
    arm770,arm_UI,arm772,arm_UI,arm774,arm_UI,arm776,arm_UI,  // 770
    arm770,arm_UI,arm772,arm_UI,arm774,arm_UI,arm776,arm_UI,  // 778
    arm780,arm_UI,arm782,arm_UI,arm784,arm_UI,arm786,arm_UI,  // 780
    arm780,arm_UI,arm782,arm_UI,arm784,arm_UI,arm786,arm_UI,  // 788
    arm790,arm_UI,arm792,arm_UI,arm794,arm_UI,arm796,arm_UI,  // 790
    arm790,arm_UI,arm792,arm_UI,arm794,arm_UI,arm796,arm_UI,  // 798
    arm7A0,arm_UI,arm7A2,arm_UI,arm7A4,arm_UI,arm7A6,arm_UI,  // 7A0
    arm7A0,arm_UI,arm7A2,arm_UI,arm7A4,arm_UI,arm7A6,arm_UI,  // 7A8
    arm7B0,arm_UI,arm7B2,arm_UI,arm7B4,arm_UI,arm7B6,arm_UI,  // 7B0
    arm7B0,arm_UI,arm7B2,arm_UI,arm7B4,arm_UI,arm7B6,arm_UI,  // 7B8
    arm7C0,arm_UI,arm7C2,arm_UI,arm7C4,arm_UI,arm7C6,arm_UI,  // 7C0
    arm7C0,arm_UI,arm7C2,arm_UI,arm7C4,arm_UI,arm7C6,arm_UI,  // 7C8
    arm7D0,arm_UI,arm7D2,arm_UI,arm7D4,arm_UI,arm7D6,arm_UI,  // 7D0
    arm7D0,arm_UI,arm7D2,arm_UI,arm7D4,arm_UI,arm7D6,arm_UI,  // 7D8
    arm7E0,arm_UI,arm7E2,arm_UI,arm7E4,arm_UI,arm7E6,arm_UI,  // 7E0
    arm7E0,arm_UI,arm7E2,arm_UI,arm7E4,arm_UI,arm7E6,arm_UI,  // 7E8
    arm7F0,arm_UI,arm7F2,arm_UI,arm7F4,arm_UI,arm7F6,arm_UI,  // 7F0
    arm7F0,arm_UI,arm7F2,arm_UI,arm7F4,arm_UI,arm7F6,arm_BP,  // 7F8

    REP16(arm800),REP16(arm810),REP16(arm820),REP16(arm830),  // 800
    REP16(arm840),REP16(arm850),REP16(arm860),REP16(arm870),  // 840
    REP16(arm880),REP16(arm890),REP16(arm8A0),REP16(arm8B0),  // 880
    REP16(arm8C0),REP16(arm8D0),REP16(arm8E0),REP16(arm8F0),  // 8C0
    REP16(arm900),REP16(arm910),REP16(arm920),REP16(arm930),  // 900
    REP16(arm940),REP16(arm950),REP16(arm960),REP16(arm970),  // 940
    REP16(arm980),REP16(arm990),REP16(arm9A0),REP16(arm9B0),  // 980
    REP16(arm9C0),REP16(arm9D0),REP16(arm9E0),REP16(arm9F0),  // 9C0

    REP256(armA00),                                           // A00
    REP256(armB00),                                           // B00
    REP256(arm_UI),                                           // C00
    REP256(arm_UI),                                           // D00

    arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,  // E00
    arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,  // E08
    arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,  // E10
    arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,arm_UI,armE01,  // E18
    REP16(arm_UI),                                            // E20
    REP16(arm_UI),                                            // E30
    REP16(arm_UI),REP16(arm_UI),REP16(arm_UI),REP16(arm_UI),  // E40
    REP16(arm_UI),REP16(arm_UI),REP16(arm_UI),REP16(arm_UI),  // E80
    REP16(arm_UI),REP16(arm_UI),REP16(arm_UI),REP16(arm_UI),  // EC0

    REP256(armF00),                                           // F00
};

// Emulates the Cheat System (m) code
static INLINE void cpuMasterCodeCheck()
{
   if((mastercode) && (mastercode == bus.armNextPC))
   {
      u32 ext = (joy >> 10);
      cpuTotalTicks += cheatsCheckKeys(io_registers[REG_P1]^0x3FF, ext);
   }
}

// Wrapper routine (execution loop) ///////////////////////////////////////
static int armExecute (void)
{
   int ct    = 0;
   bool test = false;
    u32 cond1 = 0;
	u32 cond2 = 0;

	CACHE_PREFETCH(clockTicks);

	do
   {

      clockTicks = 0;

#if USE_CHEATS
      cpuMasterCodeCheck();
#endif

      if ((bus.armNextPC & 0x0803FFFF) == 0x08020000)
         bus.busPrefetchCount = 0x100;

      u32 opcode = cpuPrefetch[0];
      cpuPrefetch[0] = cpuPrefetch[1];

      bus.busPrefetch = false;
      int32_t busprefetch_mask = ((bus.busPrefetchCount & 0xFFFFFE00) | -(bus.busPrefetchCount & 0xFFFFFE00)) >> 31;
      bus.busPrefetchCount = ((0x100 | (bus.busPrefetchCount & 0xFF)) & busprefetch_mask) | (bus.busPrefetchCount & ~busprefetch_mask);
#if 0
      if (bus.busPrefetchCount & 0xFFFFFE00)
         bus.busPrefetchCount = 0x100 | (bus.busPrefetchCount & 0xFF);
#endif


      int oldArmNextPC = bus.armNextPC;

      bus.armNextPC = bus.reg[15].I;
      bus.reg[15].I += 4;
      ARM_PREFETCH_NEXT;

      int cond = opcode >> 28;
      bool cond_res = true;
      if (cond != 0x0E) {  // most opcodes are AL (always)
         switch(cond) {
            case 0x00: // EQ
               cond_res = Z_FLAG;
               break;
            case 0x01: // NE
               cond_res = !Z_FLAG;
               break;
            case 0x02: // CS
               cond_res = C_FLAG;
               break;
            case 0x03: // CC
               cond_res = !C_FLAG;
               break;
            case 0x04: // MI
               cond_res = N_FLAG;
               break;
            case 0x05: // PL
               cond_res = !N_FLAG;
               break;
            case 0x06: // VS
               cond_res = V_FLAG;
               break;
            case 0x07: // VC
               cond_res = !V_FLAG;
               break;
            case 0x08: // HI
               cond_res = C_FLAG && !Z_FLAG;
               break;
            case 0x09: // LS
               cond_res = !C_FLAG || Z_FLAG;
               break;
            case 0x0A: // GE
               cond_res = N_FLAG == V_FLAG;
               break;
            case 0x0B: // LT
               cond_res = N_FLAG != V_FLAG;
               break;
            case 0x0C: // GT
               cond_res = !Z_FLAG &&(N_FLAG == V_FLAG);
               break;
            case 0x0D: // LE
               cond_res = Z_FLAG || (N_FLAG != V_FLAG);
               break;
            case 0x0E: // AL (impossible, checked above)
               cond_res = true;
               break;
            case 0x0F:
            default:
               // ???
               cond_res = false;
               break;
         }
      }

      if (cond_res)
      {
         cond1 = (opcode>>16)&0xFF0;
         cond2 = (opcode>>4)&0x0F;

         (*armInsnTable[(cond1| cond2)])(opcode);

      }
      ct = clockTicks;

      if (ct < 0)
         return 0;

      /// better pipelining

      if (ct == 0)
         clockTicks = 1 + codeTicksAccessSeq32(oldArmNextPC);

      cpuTotalTicks += clockTicks;

      test = cpuTotalTicks < cpuNextEvent && armState && !holdState;
#ifdef USE_SWITICKS
      test = test && !SWITicks;
#endif
   }while (test);

	return 1;
}

/*============================================================
	GBA THUMB CORE
============================================================ */

static  void thumbUnknownInsn(u32 opcode)
{
	u32 PC = bus.reg[15].I;
	bool savedArmState = armState;
	if(armMode != 0x1b)
		CPUSwitchMode(0x1b, true, false);
	bus.reg[14].I = PC - (savedArmState ? 4 : 2);
	bus.reg[15].I = 0x04;
	armState = true;
	armIrqEnable = false;
	bus.armNextPC = 0x04;
	ARM_PREFETCH;
	bus.reg[15].I += 4;
}

#define NEG(i) ((i) >> 31)
#define POS(i) ((~(i)) >> 31)

// C core
#ifndef ADDCARRY
 #define ADDCARRY(a, b, c) \
  C_FLAG = ((NEG(a) & NEG(b)) |\
            (NEG(a) & POS(c)) |\
            (NEG(b) & POS(c))) ? true : false;
#endif

#ifndef ADDOVERFLOW
 #define ADDOVERFLOW(a, b, c) \
  V_FLAG = ((NEG(a) & NEG(b) & POS(c)) |\
            (POS(a) & POS(b) & NEG(c))) ? true : false;
#endif

#ifndef SUBCARRY
 #define SUBCARRY(a, b, c) \
  C_FLAG = ((NEG(a) & POS(b)) |\
            (NEG(a) & POS(c)) |\
            (POS(b) & POS(c))) ? true : false;
#endif

#ifndef SUBOVERFLOW
 #define SUBOVERFLOW(a, b, c)\
  V_FLAG = ((NEG(a) & POS(b) & POS(c)) |\
            (POS(a) & NEG(b) & NEG(c))) ? true : false;
#endif

#ifndef ADD_RD_RS_RN
 #define ADD_RD_RS_RN(N) \
   {\
     u32 lhs = bus.reg[source].I;\
     u32 rhs = bus.reg[N].I;\
     u32 res = lhs + rhs;\
     bus.reg[dest].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     ADDCARRY(lhs, rhs, res);\
     ADDOVERFLOW(lhs, rhs, res);\
   }
#endif

#ifndef ADD_RD_RS_O3
 #define ADD_RD_RS_O3(N) \
   {\
     u32 lhs = bus.reg[source].I;\
     u32 rhs = N;\
     u32 res = lhs + rhs;\
     bus.reg[dest].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     ADDCARRY(lhs, rhs, res);\
     ADDOVERFLOW(lhs, rhs, res);\
   }
#endif

#ifndef ADD_RD_RS_O3_0
# define ADD_RD_RS_O3_0 ADD_RD_RS_O3
#endif

#ifndef ADD_RN_O8
 #define ADD_RN_O8(d) \
   {\
     u32 lhs = bus.reg[(d)].I;\
     u32 rhs = (opcode & 255);\
     u32 res = lhs + rhs;\
     bus.reg[(d)].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     ADDCARRY(lhs, rhs, res);\
     ADDOVERFLOW(lhs, rhs, res);\
   }
#endif

#ifndef CMN_RD_RS
 #define CMN_RD_RS \
   {\
     u32 lhs = bus.reg[dest].I;\
     u32 rhs = value;\
     u32 res = lhs + rhs;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     ADDCARRY(lhs, rhs, res);\
     ADDOVERFLOW(lhs, rhs, res);\
   }
#endif

#ifndef ADC_RD_RS
 #define ADC_RD_RS \
   {\
     u32 lhs = bus.reg[dest].I;\
     u32 rhs = value;\
     u32 res = lhs + rhs + (u32)C_FLAG;\
     bus.reg[dest].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     ADDCARRY(lhs, rhs, res);\
     ADDOVERFLOW(lhs, rhs, res);\
   }
#endif

#ifndef SUB_RD_RS_RN
 #define SUB_RD_RS_RN(N) \
   {\
     u32 lhs = bus.reg[source].I;\
     u32 rhs = bus.reg[N].I;\
     u32 res = lhs - rhs;\
     bus.reg[dest].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     SUBCARRY(lhs, rhs, res);\
     SUBOVERFLOW(lhs, rhs, res);\
   }
#endif

#ifndef SUB_RD_RS_O3
 #define SUB_RD_RS_O3(N) \
   {\
     u32 lhs = bus.reg[source].I;\
     u32 rhs = N;\
     u32 res = lhs - rhs;\
     bus.reg[dest].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     SUBCARRY(lhs, rhs, res);\
     SUBOVERFLOW(lhs, rhs, res);\
   }
#endif

#ifndef SUB_RD_RS_O3_0
# define SUB_RD_RS_O3_0 SUB_RD_RS_O3
#endif
#ifndef SUB_RN_O8
 #define SUB_RN_O8(d) \
   {\
     u32 lhs = bus.reg[(d)].I;\
     u32 rhs = (opcode & 255);\
     u32 res = lhs - rhs;\
     bus.reg[(d)].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     SUBCARRY(lhs, rhs, res);\
     SUBOVERFLOW(lhs, rhs, res);\
   }
#endif
#ifndef MOV_RN_O8
 #define MOV_RN_O8(d) \
   {\
     u32 val;\
	 val = (opcode & 255);\
     bus.reg[d].I = val;\
     N_FLAG = false;\
     Z_FLAG = (val ? false : true);\
   }
#endif
#ifndef CMP_RN_O8
 #define CMP_RN_O8(d) \
   {\
     u32 lhs = bus.reg[(d)].I;\
     u32 rhs = (opcode & 255);\
     u32 res = lhs - rhs;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     SUBCARRY(lhs, rhs, res);\
     SUBOVERFLOW(lhs, rhs, res);\
   }
#endif
#ifndef SBC_RD_RS
 #define SBC_RD_RS \
   {\
     u32 lhs = bus.reg[dest].I;\
     u32 rhs = value;\
     u32 res = lhs - rhs - !((u32)C_FLAG);\
     bus.reg[dest].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     SUBCARRY(lhs, rhs, res);\
     SUBOVERFLOW(lhs, rhs, res);\
   }
#endif
#ifndef LSL_RD_RM_I5
 #define LSL_RD_RM_I5 \
   {\
     C_FLAG = (bus.reg[source].I >> (32 - shift)) & 1 ? true : false;\
     value = bus.reg[source].I << shift;\
   }
#endif
#ifndef LSL_RD_RS
 #define LSL_RD_RS \
   {\
     C_FLAG = (bus.reg[dest].I >> (32 - value)) & 1 ? true : false;\
     value = bus.reg[dest].I << value;\
   }
#endif
#ifndef LSR_RD_RM_I5
 #define LSR_RD_RM_I5 \
   {\
     C_FLAG = (bus.reg[source].I >> (shift - 1)) & 1 ? true : false;\
     value = bus.reg[source].I >> shift;\
   }
#endif
#ifndef LSR_RD_RS
 #define LSR_RD_RS \
   {\
     C_FLAG = (bus.reg[dest].I >> (value - 1)) & 1 ? true : false;\
     value = bus.reg[dest].I >> value;\
   }
#endif
#ifndef ASR_RD_RM_I5
 #define ASR_RD_RM_I5 \
   {\
     C_FLAG = ((s32)bus.reg[source].I >> (int)(shift - 1)) & 1 ? true : false;\
     value = (s32)bus.reg[source].I >> (int)shift;\
   }
#endif
#ifndef ASR_RD_RS
 #define ASR_RD_RS \
   {\
     C_FLAG = ((s32)bus.reg[dest].I >> (int)(value - 1)) & 1 ? true : false;\
     value = (s32)bus.reg[dest].I >> (int)value;\
   }
#endif
#ifndef ROR_RD_RS
 #define ROR_RD_RS \
   {\
     C_FLAG = (bus.reg[dest].I >> (value - 1)) & 1 ? true : false;\
     value = ((bus.reg[dest].I << (32 - value)) |\
              (bus.reg[dest].I >> value));\
   }
#endif
#ifndef NEG_RD_RS
 #define NEG_RD_RS \
   {\
     u32 lhs = bus.reg[source].I;\
     u32 rhs = 0;\
     u32 res = rhs - lhs;\
     bus.reg[dest].I = res;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     SUBCARRY(rhs, lhs, res);\
     SUBOVERFLOW(rhs, lhs, res);\
   }
#endif
#ifndef CMP_RD_RS
 #define CMP_RD_RS \
   {\
     u32 lhs = bus.reg[dest].I;\
     u32 rhs = value;\
     u32 res = lhs - rhs;\
     Z_FLAG = (res == 0) ? true : false;\
     N_FLAG = NEG(res) ? true : false;\
     SUBCARRY(lhs, rhs, res);\
     SUBOVERFLOW(lhs, rhs, res);\
   }
#endif
#ifndef IMM5_INSN
 #define IMM5_INSN(OP,N) \
  int dest = opcode & 0x07;\
  int source = (opcode >> 3) & 0x07;\
  u32 value;\
  OP(N);\
  bus.reg[dest].I = value;\
  N_FLAG = (value & 0x80000000 ? true : false);\
  Z_FLAG = (value ? false : true);
 #define IMM5_INSN_0(OP) \
  int dest = opcode & 0x07;\
  int source = (opcode >> 3) & 0x07;\
  u32 value;\
  OP;\
  bus.reg[dest].I = value;\
  N_FLAG = (value & 0x80000000 ? true : false);\
  Z_FLAG = (value ? false : true);
 #define IMM5_LSL(N) \
  int shift = N;\
  LSL_RD_RM_I5;
 #define IMM5_LSL_0 \
  value = bus.reg[source].I;
 #define IMM5_LSR(N) \
  int shift = N;\
  LSR_RD_RM_I5;
 #define IMM5_LSR_0 \
  C_FLAG = bus.reg[source].I & 0x80000000 ? true : false;\
  value = 0;
 #define IMM5_ASR(N) \
  int shift = N;\
  ASR_RD_RM_I5;
 #define IMM5_ASR_0 \
  if(bus.reg[source].I & 0x80000000) {\
    value = 0xFFFFFFFF;\
    C_FLAG = true;\
  } else {\
    value = 0;\
    C_FLAG = false;\
  }
#endif
#ifndef THREEARG_INSN
 #define THREEARG_INSN(OP,N) \
  int dest = opcode & 0x07;          \
  int source = (opcode >> 3) & 0x07; \
  OP(N);
#endif

// Shift instructions /////////////////////////////////////////////////////

#define DEFINE_IMM5_INSN(OP,BASE) \
  static  void thumb##BASE##_00(u32 opcode) { IMM5_INSN_0(OP##_0); } \
  static  void thumb##BASE##_01(u32 opcode) { IMM5_INSN(OP, 1); } \
  static  void thumb##BASE##_02(u32 opcode) { IMM5_INSN(OP, 2); } \
  static  void thumb##BASE##_03(u32 opcode) { IMM5_INSN(OP, 3); } \
  static  void thumb##BASE##_04(u32 opcode) { IMM5_INSN(OP, 4); } \
  static  void thumb##BASE##_05(u32 opcode) { IMM5_INSN(OP, 5); } \
  static  void thumb##BASE##_06(u32 opcode) { IMM5_INSN(OP, 6); } \
  static  void thumb##BASE##_07(u32 opcode) { IMM5_INSN(OP, 7); } \
  static  void thumb##BASE##_08(u32 opcode) { IMM5_INSN(OP, 8); } \
  static  void thumb##BASE##_09(u32 opcode) { IMM5_INSN(OP, 9); } \
  static  void thumb##BASE##_0A(u32 opcode) { IMM5_INSN(OP,10); } \
  static  void thumb##BASE##_0B(u32 opcode) { IMM5_INSN(OP,11); } \
  static  void thumb##BASE##_0C(u32 opcode) { IMM5_INSN(OP,12); } \
  static  void thumb##BASE##_0D(u32 opcode) { IMM5_INSN(OP,13); } \
  static  void thumb##BASE##_0E(u32 opcode) { IMM5_INSN(OP,14); } \
  static  void thumb##BASE##_0F(u32 opcode) { IMM5_INSN(OP,15); } \
  static  void thumb##BASE##_10(u32 opcode) { IMM5_INSN(OP,16); } \
  static  void thumb##BASE##_11(u32 opcode) { IMM5_INSN(OP,17); } \
  static  void thumb##BASE##_12(u32 opcode) { IMM5_INSN(OP,18); } \
  static  void thumb##BASE##_13(u32 opcode) { IMM5_INSN(OP,19); } \
  static  void thumb##BASE##_14(u32 opcode) { IMM5_INSN(OP,20); } \
  static  void thumb##BASE##_15(u32 opcode) { IMM5_INSN(OP,21); } \
  static  void thumb##BASE##_16(u32 opcode) { IMM5_INSN(OP,22); } \
  static  void thumb##BASE##_17(u32 opcode) { IMM5_INSN(OP,23); } \
  static  void thumb##BASE##_18(u32 opcode) { IMM5_INSN(OP,24); } \
  static  void thumb##BASE##_19(u32 opcode) { IMM5_INSN(OP,25); } \
  static  void thumb##BASE##_1A(u32 opcode) { IMM5_INSN(OP,26); } \
  static  void thumb##BASE##_1B(u32 opcode) { IMM5_INSN(OP,27); } \
  static  void thumb##BASE##_1C(u32 opcode) { IMM5_INSN(OP,28); } \
  static  void thumb##BASE##_1D(u32 opcode) { IMM5_INSN(OP,29); } \
  static  void thumb##BASE##_1E(u32 opcode) { IMM5_INSN(OP,30); } \
  static  void thumb##BASE##_1F(u32 opcode) { IMM5_INSN(OP,31); }

// LSL Rd, Rm, #Imm 5
DEFINE_IMM5_INSN(IMM5_LSL,00)
// LSR Rd, Rm, #Imm 5
DEFINE_IMM5_INSN(IMM5_LSR,08)
// ASR Rd, Rm, #Imm 5
DEFINE_IMM5_INSN(IMM5_ASR,10)

// 3-argument ADD/SUB /////////////////////////////////////////////////////

#define DEFINE_REG3_INSN(OP,BASE) \
  static  void thumb##BASE##_0(u32 opcode) { THREEARG_INSN(OP,0); } \
  static  void thumb##BASE##_1(u32 opcode) { THREEARG_INSN(OP,1); } \
  static  void thumb##BASE##_2(u32 opcode) { THREEARG_INSN(OP,2); } \
  static  void thumb##BASE##_3(u32 opcode) { THREEARG_INSN(OP,3); } \
  static  void thumb##BASE##_4(u32 opcode) { THREEARG_INSN(OP,4); } \
  static  void thumb##BASE##_5(u32 opcode) { THREEARG_INSN(OP,5); } \
  static  void thumb##BASE##_6(u32 opcode) { THREEARG_INSN(OP,6); } \
  static  void thumb##BASE##_7(u32 opcode) { THREEARG_INSN(OP,7); }

#define DEFINE_IMM3_INSN(OP,BASE) \
  static  void thumb##BASE##_0(u32 opcode) { THREEARG_INSN(OP##_0,0); } \
  static  void thumb##BASE##_1(u32 opcode) { THREEARG_INSN(OP,1); } \
  static  void thumb##BASE##_2(u32 opcode) { THREEARG_INSN(OP,2); } \
  static  void thumb##BASE##_3(u32 opcode) { THREEARG_INSN(OP,3); } \
  static  void thumb##BASE##_4(u32 opcode) { THREEARG_INSN(OP,4); } \
  static  void thumb##BASE##_5(u32 opcode) { THREEARG_INSN(OP,5); } \
  static  void thumb##BASE##_6(u32 opcode) { THREEARG_INSN(OP,6); } \
  static  void thumb##BASE##_7(u32 opcode) { THREEARG_INSN(OP,7); }

// ADD Rd, Rs, Rn
DEFINE_REG3_INSN(ADD_RD_RS_RN,18)
// SUB Rd, Rs, Rn
DEFINE_REG3_INSN(SUB_RD_RS_RN,1A)
// ADD Rd, Rs, #Offset3
DEFINE_IMM3_INSN(ADD_RD_RS_O3,1C)
// SUB Rd, Rs, #Offset3
DEFINE_IMM3_INSN(SUB_RD_RS_O3,1E)

// MOV/CMP/ADD/SUB immediate //////////////////////////////////////////////

// MOV R0, #Offset8
static  void thumb20(u32 opcode) { MOV_RN_O8(0); }
// MOV R1, #Offset8
static  void thumb21(u32 opcode) { MOV_RN_O8(1); }
// MOV R2, #Offset8
static  void thumb22(u32 opcode) { MOV_RN_O8(2); }
// MOV R3, #Offset8
static  void thumb23(u32 opcode) { MOV_RN_O8(3); }
// MOV R4, #Offset8
static  void thumb24(u32 opcode) { MOV_RN_O8(4); }
// MOV R5, #Offset8
static  void thumb25(u32 opcode) { MOV_RN_O8(5); }
// MOV R6, #Offset8
static  void thumb26(u32 opcode) { MOV_RN_O8(6); }
// MOV R7, #Offset8
static  void thumb27(u32 opcode) { MOV_RN_O8(7); }

// CMP R0, #Offset8
static  void thumb28(u32 opcode) { CMP_RN_O8(0); }
// CMP R1, #Offset8
static  void thumb29(u32 opcode) { CMP_RN_O8(1); }
// CMP R2, #Offset8
static  void thumb2A(u32 opcode) { CMP_RN_O8(2); }
// CMP R3, #Offset8
static  void thumb2B(u32 opcode) { CMP_RN_O8(3); }
// CMP R4, #Offset8
static  void thumb2C(u32 opcode) { CMP_RN_O8(4); }
// CMP R5, #Offset8
static  void thumb2D(u32 opcode) { CMP_RN_O8(5); }
// CMP R6, #Offset8
static  void thumb2E(u32 opcode) { CMP_RN_O8(6); }
// CMP R7, #Offset8
static  void thumb2F(u32 opcode) { CMP_RN_O8(7); }

// ADD R0,#Offset8
static  void thumb30(u32 opcode) { ADD_RN_O8(0); }
// ADD R1,#Offset8
static  void thumb31(u32 opcode) { ADD_RN_O8(1); }
// ADD R2,#Offset8
static  void thumb32(u32 opcode) { ADD_RN_O8(2); }
// ADD R3,#Offset8
static  void thumb33(u32 opcode) { ADD_RN_O8(3); }
// ADD R4,#Offset8
static  void thumb34(u32 opcode) { ADD_RN_O8(4); }
// ADD R5,#Offset8
static  void thumb35(u32 opcode) { ADD_RN_O8(5); }
// ADD R6,#Offset8
static  void thumb36(u32 opcode) { ADD_RN_O8(6); }
// ADD R7,#Offset8
static  void thumb37(u32 opcode) { ADD_RN_O8(7); }

// SUB R0,#Offset8
static  void thumb38(u32 opcode) { SUB_RN_O8(0); }
// SUB R1,#Offset8
static  void thumb39(u32 opcode) { SUB_RN_O8(1); }
// SUB R2,#Offset8
static  void thumb3A(u32 opcode) { SUB_RN_O8(2); }
// SUB R3,#Offset8
static  void thumb3B(u32 opcode) { SUB_RN_O8(3); }
// SUB R4,#Offset8
static  void thumb3C(u32 opcode) { SUB_RN_O8(4); }
// SUB R5,#Offset8
static  void thumb3D(u32 opcode) { SUB_RN_O8(5); }
// SUB R6,#Offset8
static  void thumb3E(u32 opcode) { SUB_RN_O8(6); }
// SUB R7,#Offset8
static  void thumb3F(u32 opcode) { SUB_RN_O8(7); }

// ALU operations /////////////////////////////////////////////////////////

// AND Rd, Rs
static  void thumb40_0(u32 opcode)
{
  int dest = opcode & 7;
  u32 val = (bus.reg[dest].I & bus.reg[(opcode >> 3)&7].I);

  //bus.reg[dest].I &= bus.reg[(opcode >> 3)&7].I;
  N_FLAG = val & 0x80000000 ? true : false;
  Z_FLAG = val ? false : true;

  bus.reg[dest].I = val;

}

// EOR Rd, Rs
static  void thumb40_1(u32 opcode)
{
  int dest = opcode & 7;
  bus.reg[dest].I ^= bus.reg[(opcode >> 3)&7].I;
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
  Z_FLAG = bus.reg[dest].I ? false : true;
}

// LSL Rd, Rs
static  void thumb40_2(u32 opcode)
{
  int dest = opcode & 7;
  u32 value = bus.reg[(opcode >> 3)&7].B.B0;
  u32 val = value;
  if(val) {
    if(val == 32) {
      value = 0;
      C_FLAG = (bus.reg[dest].I & 1 ? true : false);
    } else if(val < 32) {
      LSL_RD_RS;
    } else {
      value = 0;
      C_FLAG = false;
    }
    bus.reg[dest].I = value;
  }
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
  Z_FLAG = bus.reg[dest].I ? false : true;
  clockTicks = codeTicksAccess(bus.armNextPC, BITS_16)+2;
}

// LSR Rd, Rs
static  void thumb40_3(u32 opcode)
{
  int dest = opcode & 7;
  u32 value = bus.reg[(opcode >> 3)&7].B.B0;
  u32 val = value;
  if(val) {
    if(val == 32) {
      value = 0;
      C_FLAG = (bus.reg[dest].I & 0x80000000 ? true : false);
    } else if(val < 32) {
      LSR_RD_RS;
    } else {
      value = 0;
      C_FLAG = false;
    }
    bus.reg[dest].I = value;
  }
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
  Z_FLAG = bus.reg[dest].I ? false : true;
  clockTicks = codeTicksAccess(bus.armNextPC, BITS_16)+2;
}

// ASR Rd, Rs
static  void thumb41_0(u32 opcode)
{
  int dest = opcode & 7;
  u32 value = bus.reg[(opcode >> 3)&7].B.B0;

  if(value) {
    if(value < 32) {
      ASR_RD_RS;
      bus.reg[dest].I = value;
    } else {
      if(bus.reg[dest].I & 0x80000000){
        bus.reg[dest].I = 0xFFFFFFFF;
        C_FLAG = true;
      } else {
        bus.reg[dest].I = 0x00000000;
        C_FLAG = false;
      }
    }
  }
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
  Z_FLAG = bus.reg[dest].I ? false : true;
  clockTicks = codeTicksAccess(bus.armNextPC, BITS_16)+2;
}

// ADC Rd, Rs
static  void thumb41_1(u32 opcode)
{
  int dest = opcode & 0x07;
  u32 value = bus.reg[(opcode >> 3)&7].I;
  ADC_RD_RS;
}

// SBC Rd, Rs
static  void thumb41_2(u32 opcode)
{
  int dest = opcode & 0x07;
  u32 value = bus.reg[(opcode >> 3)&7].I;
  SBC_RD_RS;
}

// ROR Rd, Rs
static  void thumb41_3(u32 opcode)
{
  int dest = opcode & 7;
  u32 value = bus.reg[(opcode >> 3)&7].B.B0;
  u32 val = value;
  if(val) {
    value = value & 0x1f;
    if(val == 0) {
      C_FLAG = (bus.reg[dest].I & 0x80000000 ? true : false);
    } else {
      ROR_RD_RS;
      bus.reg[dest].I = value;
    }
  }
  clockTicks = codeTicksAccess(bus.armNextPC, BITS_16)+2;
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
  Z_FLAG = bus.reg[dest].I ? false : true;
}

// TST Rd, Rs
static  void thumb42_0(u32 opcode)
{
  u32 value = bus.reg[opcode & 7].I & bus.reg[(opcode >> 3) & 7].I;
  N_FLAG = value & 0x80000000 ? true : false;
  Z_FLAG = value ? false : true;
}

// NEG Rd, Rs
static  void thumb42_1(u32 opcode)
{
  int dest = opcode & 7;
  int source = (opcode >> 3) & 7;
  NEG_RD_RS;
}

// CMP Rd, Rs
static  void thumb42_2(u32 opcode)
{
  int dest = opcode & 7;
  u32 value = bus.reg[(opcode >> 3)&7].I;
  CMP_RD_RS;
}

// CMN Rd, Rs
static  void thumb42_3(u32 opcode)
{
  int dest = opcode & 7;
  u32 value = bus.reg[(opcode >> 3)&7].I;
  CMN_RD_RS;
}

// ORR Rd, Rs
static  void thumb43_0(u32 opcode)
{
  int dest = opcode & 7;
  bus.reg[dest].I |= bus.reg[(opcode >> 3) & 7].I;
  Z_FLAG = bus.reg[dest].I ? false : true;
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
}

// MUL Rd, Rs
static  void thumb43_1(u32 opcode)
{
  clockTicks = 1;
  int dest = opcode & 7;
  u32 rm = bus.reg[dest].I;
  bus.reg[dest].I = bus.reg[(opcode >> 3) & 7].I * rm;
  if (((s32)rm) < 0)
    rm = ~rm;
  if ((rm & 0xFFFFFF00) == 0) {
    /* clockTicks += 0; */
  } else if ((rm & 0xFFFF0000) == 0)
    clockTicks += 1;
  else if ((rm & 0xFF000000) == 0)
    clockTicks += 2;
  else
    clockTicks += 3;
  bus.busPrefetchCount = (bus.busPrefetchCount<<clockTicks) | (0xFF>>(8-clockTicks));
  clockTicks += codeTicksAccess(bus.armNextPC, BITS_16) + 1;
  Z_FLAG = bus.reg[dest].I ? false : true;
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
}

// BIC Rd, Rs
static  void thumb43_2(u32 opcode)
{
  int dest = opcode & 7;
  bus.reg[dest].I &= (~bus.reg[(opcode >> 3) & 7].I);
  Z_FLAG = bus.reg[dest].I ? false : true;
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
}

// MVN Rd, Rs
static  void thumb43_3(u32 opcode)
{
  int dest = opcode & 7;
  bus.reg[dest].I = ~bus.reg[(opcode >> 3) & 7].I;
  Z_FLAG = bus.reg[dest].I ? false : true;
  N_FLAG = bus.reg[dest].I & 0x80000000 ? true : false;
}

// High-register instructions and BX //////////////////////////////////////

// ADD Rd, Hs
static  void thumb44_1(u32 opcode)
{
  bus.reg[opcode&7].I += bus.reg[((opcode>>3)&7)+8].I;
}

// ADD Hd, Rs
static  void thumb44_2(u32 opcode)
{
  bus.reg[(opcode&7)+8].I += bus.reg[(opcode>>3)&7].I;
  if((opcode&7) == 7) {
    bus.reg[15].I &= 0xFFFFFFFE;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks = CLOCKTICKS_UPDATE_TYPE16P;
  }
}

// ADD Hd, Hs
static  void thumb44_3(u32 opcode)
{
  bus.reg[(opcode&7)+8].I += bus.reg[((opcode>>3)&7)+8].I;
  if((opcode&7) == 7) {
    bus.reg[15].I &= 0xFFFFFFFE;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks = CLOCKTICKS_UPDATE_TYPE16P;
  }
}

// CMP Rd, Hs
static  void thumb45_1(u32 opcode)
{
  int dest = opcode & 7;
  u32 value = bus.reg[((opcode>>3)&7)+8].I;
  CMP_RD_RS;
}

// CMP Hd, Rs
static  void thumb45_2(u32 opcode)
{
  int dest = (opcode & 7) + 8;
  u32 value = bus.reg[(opcode>>3)&7].I;
  CMP_RD_RS;
}

// CMP Hd, Hs
static  void thumb45_3(u32 opcode)
{
  int dest = (opcode & 7) + 8;
  u32 value = bus.reg[((opcode>>3)&7)+8].I;
  CMP_RD_RS;
}

// MOV Rd, Rs
static  void thumb46_0(u32 opcode)
{
  bus.reg[opcode&7].I = bus.reg[((opcode>>3)&7)].I;
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
}


// MOV Rd, Hs
static  void thumb46_1(u32 opcode)
{
  bus.reg[opcode&7].I = bus.reg[((opcode>>3)&7)+8].I;
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
}

// MOV Hd, Rs
static  void thumb46_2(u32 opcode)
{
  bus.reg[(opcode&7)+8].I = bus.reg[(opcode>>3)&7].I;
  if((opcode&7) == 7) {
    bus.reg[15].I &= 0xFFFFFFFE;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks = CLOCKTICKS_UPDATE_TYPE16P;
  }
}

// MOV Hd, Hs
static  void thumb46_3(u32 opcode)
{
  bus.reg[(opcode&7)+8].I = bus.reg[((opcode>>3)&7)+8].I;
  if((opcode&7) == 7) {
    bus.reg[15].I &= 0xFFFFFFFE;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks = CLOCKTICKS_UPDATE_TYPE16P;
  }
}


// BX Rs
static  void thumb47(u32 opcode)
{
	int base = (opcode >> 3) & 15;
	bus.busPrefetchCount=0;
	bus.reg[15].I = bus.reg[base].I;
	if(bus.reg[base].I & 1) {
		armState = false;
		bus.reg[15].I &= 0xFFFFFFFE;
		bus.armNextPC = bus.reg[15].I;
		bus.reg[15].I += 2;
		THUMB_PREFETCH;
		clockTicks = CLOCKTICKS_UPDATE_TYPE16P;

	} else {
		armState = true;
		bus.reg[15].I &= 0xFFFFFFFC;
		bus.armNextPC = bus.reg[15].I;
		bus.reg[15].I += 4;
		ARM_PREFETCH;
		clockTicks = CLOCKTICKS_UPDATE_TYPE32P;
	}
}

// Load/store instructions ////////////////////////////////////////////////

// LDR R0~R7,[PC, #Imm]
static  void thumb48(u32 opcode)
{
	u8 regist = (opcode >> 8) & 7;
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = (bus.reg[15].I & 0xFFFFFFFC) + ((opcode & 0xFF) << 2);
	bus.reg[regist].I = CPUReadMemoryQuick(address);
	bus.busPrefetchCount=0;
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// STR Rd, [Rs, Rn]
static  void thumb50(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode>>6)&7].I;
	CPUWriteMemory(address, bus.reg[opcode & 7].I);
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
}

// STRH Rd, [Rs, Rn]
static  void thumb52(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode>>6)&7].I;
	CPUWriteHalfWord(address, bus.reg[opcode&7].W.W0);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
}

// STRB Rd, [Rs, Rn]
static  void thumb54(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode >>6)&7].I;
	CPUWriteByte(address, bus.reg[opcode & 7].B.B0);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
}

// LDSB Rd, [Rs, Rn]
static  void thumb56(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode>>6)&7].I;
	bus.reg[opcode&7].I = (s8)CPUReadByte(address);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// LDR Rd, [Rs, Rn]
static  void thumb58(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode>>6)&7].I;
	bus.reg[opcode&7].I = CPUReadMemory(address);
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// LDRH Rd, [Rs, Rn]
static  void thumb5A(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode>>6)&7].I;
	bus.reg[opcode&7].I = CPUReadHalfWord(address);
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// LDRB Rd, [Rs, Rn]
static  void thumb5C(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode>>6)&7].I;
	bus.reg[opcode&7].I = CPUReadByte(address);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// LDSH Rd, [Rs, Rn]
static  void thumb5E(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + bus.reg[(opcode>>6)&7].I;
	bus.reg[opcode&7].I = (s16)CPUReadHalfWordSigned(address);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// STR Rd, [Rs, #Imm]
static  void thumb60(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + (((opcode>>6)&31)<<2);
	CPUWriteMemory(address, bus.reg[opcode&7].I);
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
}

// LDR Rd, [Rs, #Imm]
static  void thumb68(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + (((opcode>>6)&31)<<2);
	bus.reg[opcode&7].I = CPUReadMemory(address);
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// STRB Rd, [Rs, #Imm]
static  void thumb70(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + (((opcode>>6)&31));
	CPUWriteByte(address, bus.reg[opcode&7].B.B0);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
}

// LDRB Rd, [Rs, #Imm]
static  void thumb78(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + (((opcode>>6)&31));
	bus.reg[opcode&7].I = CPUReadByte(address);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// STRH Rd, [Rs, #Imm]
static  void thumb80(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + (((opcode>>6)&31)<<1);
	CPUWriteHalfWord(address, bus.reg[opcode&7].W.W0);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
}

// LDRH Rd, [Rs, #Imm]
static  void thumb88(u32 opcode)
{
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[(opcode>>3)&7].I + (((opcode>>6)&31)<<1);
	bus.reg[opcode&7].I = CPUReadHalfWord(address);
	int dataticks_value = DATATICKS_ACCESS_16BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// STR R0~R7, [SP, #Imm]
static  void thumb90(u32 opcode)
{
	u8 regist = (opcode >> 8) & 7;
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[13].I + ((opcode&255)<<2);
	CPUWriteMemory(address, bus.reg[regist].I);
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
}

// LDR R0~R7, [SP, #Imm]
static  void thumb98(u32 opcode)
{
	u8 regist = (opcode >> 8) & 7;
	if (bus.busPrefetchCount == 0)
		bus.busPrefetch = bus.busPrefetchEnable;
	u32 address = bus.reg[13].I + ((opcode&255)<<2);
	bus.reg[regist].I = CPUReadMemoryQuick(address);
	int dataticks_value = DATATICKS_ACCESS_32BIT(address);
	DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
	clockTicks = 3 + dataticks_value + codeTicksAccess(bus.armNextPC, BITS_16);
}

// PC/stack-related ///////////////////////////////////////////////////////

// ADD R0~R7, PC, Imm
static  void thumbA0(u32 opcode)
{
  u8 regist = (opcode >> 8) & 7;
  bus.reg[regist].I = (bus.reg[15].I & 0xFFFFFFFC) + ((opcode&255)<<2);
  clockTicks = 1 + codeTicksAccess(bus.armNextPC, BITS_16);
}

// ADD R0~R7, SP, Imm
static  void thumbA8(u32 opcode)
{
  u8 regist = (opcode >> 8) & 7;
  bus.reg[regist].I = bus.reg[13].I + ((opcode&255)<<2);
  clockTicks = 1 + codeTicksAccess(bus.armNextPC, BITS_16);
}

// ADD SP, Imm
static  void thumbB0(u32 opcode)
{
  int offset = (opcode & 127) << 2;
  if(opcode & 0x80)
    offset = -offset;
  bus.reg[13].I += offset;
  clockTicks = 1 + codeTicksAccess(bus.armNextPC, BITS_16);
}

// Push and pop ///////////////////////////////////////////////////////////

#define PUSH_REG(val, r)                                    \
  if (opcode & (val)) {                                     \
    CPUWriteMemory(address, bus.reg[(r)].I);                    \
    int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
    DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
    clockTicks += 1 + dataticks_value;				\
    count++;                                                \
    address += 4;                                           \
  }

#define POP_REG(val, r)                                     \
  if (opcode & (val)) {                                     \
    bus.reg[(r)].I = CPUReadMemory(address);                    \
    int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
    DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value); \
    clockTicks += 1 + dataticks_value; \
    count++;                                                \
    address += 4;                                           \
  }

// PUSH {Rlist}
static  void thumbB4(u32 opcode)
{
  if (bus.busPrefetchCount == 0)
    bus.busPrefetch = bus.busPrefetchEnable;
  int count = 0;
  u32 temp = bus.reg[13].I - 4 * cpuBitsSet[opcode & 0xff];
  u32 address = temp & 0xFFFFFFFC;
  PUSH_REG(1, 0);
  PUSH_REG(2, 1);
  PUSH_REG(4, 2);
  PUSH_REG(8, 3);
  PUSH_REG(16, 4);
  PUSH_REG(32, 5);
  PUSH_REG(64, 6);
  PUSH_REG(128, 7);
  clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_16);
  bus.reg[13].I = temp;
}

// PUSH {Rlist, LR}
static  void thumbB5(u32 opcode)
{
  if (bus.busPrefetchCount == 0)
    bus.busPrefetch = bus.busPrefetchEnable;
  int count = 0;
  u32 temp = bus.reg[13].I - 4 - 4 * cpuBitsSet[opcode & 0xff];
  u32 address = temp & 0xFFFFFFFC;
  PUSH_REG(1, 0);
  PUSH_REG(2, 1);
  PUSH_REG(4, 2);
  PUSH_REG(8, 3);
  PUSH_REG(16, 4);
  PUSH_REG(32, 5);
  PUSH_REG(64, 6);
  PUSH_REG(128, 7);
  PUSH_REG(256, 14);
  clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_16);
  bus.reg[13].I = temp;
}

// POP {Rlist}
static  void thumbBC(u32 opcode)
{
  if (bus.busPrefetchCount == 0)
    bus.busPrefetch = bus.busPrefetchEnable;
  int count = 0;
  u32 address = bus.reg[13].I & 0xFFFFFFFC;
  u32 temp = bus.reg[13].I + 4*cpuBitsSet[opcode & 0xFF];
  POP_REG(1, 0);
  POP_REG(2, 1);
  POP_REG(4, 2);
  POP_REG(8, 3);
  POP_REG(16, 4);
  POP_REG(32, 5);
  POP_REG(64, 6);
  POP_REG(128, 7);
  bus.reg[13].I = temp;
  clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_16);
}

// POP {Rlist, PC}
static  void thumbBD(u32 opcode)
{
  if (bus.busPrefetchCount == 0)
    bus.busPrefetch = bus.busPrefetchEnable;
  int count = 0;
  u32 address = bus.reg[13].I & 0xFFFFFFFC;
  u32 temp = bus.reg[13].I + 4 + 4*cpuBitsSet[opcode & 0xFF];
  POP_REG(1, 0);
  POP_REG(2, 1);
  POP_REG(4, 2);
  POP_REG(8, 3);
  POP_REG(16, 4);
  POP_REG(32, 5);
  POP_REG(64, 6);
  POP_REG(128, 7);
  bus.reg[15].I = (CPUReadMemory(address) & 0xFFFFFFFE);
  int dataticks_value = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address);
  DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_value);
  clockTicks += 1 + dataticks_value;
  count++;
  bus.armNextPC = bus.reg[15].I;
  bus.reg[15].I += 2;
  bus.reg[13].I = temp;
  THUMB_PREFETCH;
  bus.busPrefetchCount = 0;
  clockTicks += 3 + (codeTicksAccess(bus.armNextPC, BITS_16) << 1);
}

// Load/store multiple ////////////////////////////////////////////////////

#define THUMB_STM_REG(val,r,b)                              \
  if(opcode & (val)) {                                      \
    CPUWriteMemory(address, bus.reg[(r)].I);                    \
    bus.reg[(b)].I = temp;                                      \
    int dataticks_val = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
    DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_val); \
    clockTicks += 1 + dataticks_val; \
    count++;                                                \
    address += 4;                                           \
  }

#define THUMB_LDM_REG(val,r)                                \
  if(opcode & (val)) {                                      \
    bus.reg[(r)].I = CPUReadMemory(address);                    \
    int dataticks_val = count ? DATATICKS_ACCESS_32BIT_SEQ(address) : DATATICKS_ACCESS_32BIT(address); \
    DATATICKS_ACCESS_BUS_PREFETCH(address, dataticks_val); \
    clockTicks += 1 + dataticks_val; \
    count++;                                                \
    address += 4;                                           \
  }

// STM R0~7!, {Rlist}
static  void thumbC0(u32 opcode)
{
  u8 regist = (opcode >> 8) & 7;
  if (bus.busPrefetchCount == 0)
    bus.busPrefetch = bus.busPrefetchEnable;
  u32 address = bus.reg[regist].I & 0xFFFFFFFC;
  u32 temp = bus.reg[regist].I + 4*cpuBitsSet[opcode & 0xff];
  int count = 0;
  // store
  THUMB_STM_REG(1, 0, regist);
  THUMB_STM_REG(2, 1, regist);
  THUMB_STM_REG(4, 2, regist);
  THUMB_STM_REG(8, 3, regist);
  THUMB_STM_REG(16, 4, regist);
  THUMB_STM_REG(32, 5, regist);
  THUMB_STM_REG(64, 6, regist);
  THUMB_STM_REG(128, 7, regist);
  clockTicks += 1 + codeTicksAccess(bus.armNextPC, BITS_16);
}

// LDM R0~R7!, {Rlist}
static  void thumbC8(u32 opcode)
{
  u8 regist = (opcode >> 8) & 7;
  if (bus.busPrefetchCount == 0)
    bus.busPrefetch = bus.busPrefetchEnable;
  u32 address = bus.reg[regist].I & 0xFFFFFFFC;
  u32 temp = bus.reg[regist].I + 4*cpuBitsSet[opcode & 0xFF];
  int count = 0;
  // load
  THUMB_LDM_REG(1, 0);
  THUMB_LDM_REG(2, 1);
  THUMB_LDM_REG(4, 2);
  THUMB_LDM_REG(8, 3);
  THUMB_LDM_REG(16, 4);
  THUMB_LDM_REG(32, 5);
  THUMB_LDM_REG(64, 6);
  THUMB_LDM_REG(128, 7);
  clockTicks += 2 + codeTicksAccess(bus.armNextPC, BITS_16);
  if(!(opcode & (1<<regist)))
    bus.reg[regist].I = temp;
}

// Conditional branches ///////////////////////////////////////////////////

// BEQ offset
static  void thumbD0(u32 opcode)
{
#if !USE_TWEAK_SPEEDHACK
	clockTicks = CLOCKTICKS_UPDATE_TYPE16;
#endif
	if(Z_FLAG)
	{
		bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
		bus.armNextPC = bus.reg[15].I;
		bus.reg[15].I += 2;
		THUMB_PREFETCH;
#if USE_TWEAK_SPEEDHACK
		clockTicks = 30;
#else
        clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
#endif
		bus.busPrefetchCount=0;
	}
}

// BNE offset
static  void thumbD1(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(!Z_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BCS offset
static  void thumbD2(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(C_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BCC offset
static  void thumbD3(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(!C_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BMI offset
static  void thumbD4(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(N_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BPL offset
static  void thumbD5(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(!N_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BVS offset
static  void thumbD6(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(V_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BVC offset
static  void thumbD7(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(!V_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BHI offset
static  void thumbD8(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(C_FLAG && !Z_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BLS offset
static  void thumbD9(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(!C_FLAG || Z_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BGE offset
static  void thumbDA(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(N_FLAG == V_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BLT offset
static  void thumbDB(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(N_FLAG != V_FLAG) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BGT offset
static  void thumbDC(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(!Z_FLAG && (N_FLAG == V_FLAG)) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// BLE offset
static  void thumbDD(u32 opcode)
{
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
  if(Z_FLAG || (N_FLAG != V_FLAG)) {
    bus.reg[15].I += ((s8)(opcode & 0xFF)) << 1;
    bus.armNextPC = bus.reg[15].I;
    bus.reg[15].I += 2;
    THUMB_PREFETCH;
    clockTicks += codeTicksAccessSeq16(bus.armNextPC) + codeTicksAccess(bus.armNextPC, BITS_16) + 2;
    bus.busPrefetchCount=0;
  }
}

// SWI, B, BL /////////////////////////////////////////////////////////////

// SWI #comment
static  void thumbDF(u32 opcode)
{
  clockTicks = 3;
  bus.busPrefetchCount=0;
  CPUSoftwareInterrupt(opcode & 0xFF);
}

// B offset
static  void thumbE0(u32 opcode)
{
  int offset = (opcode & 0x3FF) << 1;
  if(opcode & 0x0400)
    offset |= 0xFFFFF800;
  bus.reg[15].I += offset;
  bus.armNextPC = bus.reg[15].I;
  bus.reg[15].I += 2;
  THUMB_PREFETCH;
  clockTicks = CLOCKTICKS_UPDATE_TYPE16P;
  bus.busPrefetchCount=0;
}

// BLL #offset (forward)
static  void thumbF0(u32 opcode)
{
  int offset = (opcode & 0x7FF);
  bus.reg[14].I = bus.reg[15].I + (offset << 12);
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
}

// BLL #offset (backward)
static  void thumbF4(u32 opcode)
{
  int offset = (opcode & 0x7FF);
  bus.reg[14].I = bus.reg[15].I + ((offset << 12) | 0xFF800000);
  clockTicks = CLOCKTICKS_UPDATE_TYPE16;
}

// BLH #offset
static  void thumbF8(u32 opcode)
{
  int offset = (opcode & 0x7FF);
  u32 temp = bus.reg[15].I-2;
  bus.reg[15].I = (bus.reg[14].I + (offset<<1))&0xFFFFFFFE;
  bus.armNextPC = bus.reg[15].I;
  bus.reg[15].I += 2;
  bus.reg[14].I = temp|1;
  THUMB_PREFETCH;
  clockTicks = CLOCKTICKS_UPDATE_TYPE16P;
  bus.busPrefetchCount = 0;
}

// Instruction table //////////////////////////////////////////////////////

typedef  void (*insnfunc_t)(u32 opcode);
#define thumbUI thumbUnknownInsn
#define thumbBP thumbUnknownInsn

static insnfunc_t thumbInsnTable[1024] =
{
  thumb00_00,thumb00_01,thumb00_02,thumb00_03,thumb00_04,thumb00_05,thumb00_06,thumb00_07,  // 00
  thumb00_08,thumb00_09,thumb00_0A,thumb00_0B,thumb00_0C,thumb00_0D,thumb00_0E,thumb00_0F,
  thumb00_10,thumb00_11,thumb00_12,thumb00_13,thumb00_14,thumb00_15,thumb00_16,thumb00_17,
  thumb00_18,thumb00_19,thumb00_1A,thumb00_1B,thumb00_1C,thumb00_1D,thumb00_1E,thumb00_1F,
  thumb08_00,thumb08_01,thumb08_02,thumb08_03,thumb08_04,thumb08_05,thumb08_06,thumb08_07,  // 08
  thumb08_08,thumb08_09,thumb08_0A,thumb08_0B,thumb08_0C,thumb08_0D,thumb08_0E,thumb08_0F,
  thumb08_10,thumb08_11,thumb08_12,thumb08_13,thumb08_14,thumb08_15,thumb08_16,thumb08_17,
  thumb08_18,thumb08_19,thumb08_1A,thumb08_1B,thumb08_1C,thumb08_1D,thumb08_1E,thumb08_1F,
  thumb10_00,thumb10_01,thumb10_02,thumb10_03,thumb10_04,thumb10_05,thumb10_06,thumb10_07,  // 10
  thumb10_08,thumb10_09,thumb10_0A,thumb10_0B,thumb10_0C,thumb10_0D,thumb10_0E,thumb10_0F,
  thumb10_10,thumb10_11,thumb10_12,thumb10_13,thumb10_14,thumb10_15,thumb10_16,thumb10_17,
  thumb10_18,thumb10_19,thumb10_1A,thumb10_1B,thumb10_1C,thumb10_1D,thumb10_1E,thumb10_1F,
  thumb18_0,thumb18_1,thumb18_2,thumb18_3,thumb18_4,thumb18_5,thumb18_6,thumb18_7,          // 18
  thumb1A_0,thumb1A_1,thumb1A_2,thumb1A_3,thumb1A_4,thumb1A_5,thumb1A_6,thumb1A_7,
  thumb1C_0,thumb1C_1,thumb1C_2,thumb1C_3,thumb1C_4,thumb1C_5,thumb1C_6,thumb1C_7,
  thumb1E_0,thumb1E_1,thumb1E_2,thumb1E_3,thumb1E_4,thumb1E_5,thumb1E_6,thumb1E_7,
  thumb20,thumb20,thumb20,thumb20,thumb21,thumb21,thumb21,thumb21,  // 20
  thumb22,thumb22,thumb22,thumb22,thumb23,thumb23,thumb23,thumb23,
  thumb24,thumb24,thumb24,thumb24,thumb25,thumb25,thumb25,thumb25,
  thumb26,thumb26,thumb26,thumb26,thumb27,thumb27,thumb27,thumb27,
  thumb28,thumb28,thumb28,thumb28,thumb29,thumb29,thumb29,thumb29,  // 28
  thumb2A,thumb2A,thumb2A,thumb2A,thumb2B,thumb2B,thumb2B,thumb2B,
  thumb2C,thumb2C,thumb2C,thumb2C,thumb2D,thumb2D,thumb2D,thumb2D,
  thumb2E,thumb2E,thumb2E,thumb2E,thumb2F,thumb2F,thumb2F,thumb2F,
  thumb30,thumb30,thumb30,thumb30,thumb31,thumb31,thumb31,thumb31,  // 30
  thumb32,thumb32,thumb32,thumb32,thumb33,thumb33,thumb33,thumb33,
  thumb34,thumb34,thumb34,thumb34,thumb35,thumb35,thumb35,thumb35,
  thumb36,thumb36,thumb36,thumb36,thumb37,thumb37,thumb37,thumb37,
  thumb38,thumb38,thumb38,thumb38,thumb39,thumb39,thumb39,thumb39,  // 38
  thumb3A,thumb3A,thumb3A,thumb3A,thumb3B,thumb3B,thumb3B,thumb3B,
  thumb3C,thumb3C,thumb3C,thumb3C,thumb3D,thumb3D,thumb3D,thumb3D,
  thumb3E,thumb3E,thumb3E,thumb3E,thumb3F,thumb3F,thumb3F,thumb3F,
  thumb40_0,thumb40_1,thumb40_2,thumb40_3,thumb41_0,thumb41_1,thumb41_2,thumb41_3,  // 40
  thumb42_0,thumb42_1,thumb42_2,thumb42_3,thumb43_0,thumb43_1,thumb43_2,thumb43_3,
  thumbUI,thumb44_1,thumb44_2,thumb44_3,thumbUI,thumb45_1,thumb45_2,thumb45_3,
  thumb46_0,thumb46_1,thumb46_2,thumb46_3,thumb47,thumb47,thumbUI,thumbUI,
  thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,  // 48
  thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,
  thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,
  thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,thumb48,
  thumb50,thumb50,thumb50,thumb50,thumb50,thumb50,thumb50,thumb50,  // 50
  thumb52,thumb52,thumb52,thumb52,thumb52,thumb52,thumb52,thumb52,
  thumb54,thumb54,thumb54,thumb54,thumb54,thumb54,thumb54,thumb54,
  thumb56,thumb56,thumb56,thumb56,thumb56,thumb56,thumb56,thumb56,
  thumb58,thumb58,thumb58,thumb58,thumb58,thumb58,thumb58,thumb58,  // 58
  thumb5A,thumb5A,thumb5A,thumb5A,thumb5A,thumb5A,thumb5A,thumb5A,
  thumb5C,thumb5C,thumb5C,thumb5C,thumb5C,thumb5C,thumb5C,thumb5C,
  thumb5E,thumb5E,thumb5E,thumb5E,thumb5E,thumb5E,thumb5E,thumb5E,
  thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,  // 60
  thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,
  thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,
  thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,thumb60,
  thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,  // 68
  thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,
  thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,
  thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,thumb68,
  thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,  // 70
  thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,
  thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,
  thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,thumb70,
  thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,  // 78
  thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,
  thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,
  thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,thumb78,
  thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,  // 80
  thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,
  thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,
  thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,thumb80,
  thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,  // 88
  thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,
  thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,
  thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,thumb88,
  thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,  // 90
  thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,
  thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,
  thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,thumb90,
  thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,  // 98
  thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,
  thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,
  thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,thumb98,
  thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,  // A0
  thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,
  thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,
  thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,thumbA0,
  thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,  // A8
  thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,
  thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,
  thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,thumbA8,
  thumbB0,thumbB0,thumbB0,thumbB0,thumbUI,thumbUI,thumbUI,thumbUI,  // B0
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,
  thumbB4,thumbB4,thumbB4,thumbB4,thumbB5,thumbB5,thumbB5,thumbB5,
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,  // B8
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,
  thumbBC,thumbBC,thumbBC,thumbBC,thumbBD,thumbBD,thumbBD,thumbBD,
  thumbBP,thumbBP,thumbBP,thumbBP,thumbUI,thumbUI,thumbUI,thumbUI,
  thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,  // C0
  thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,
  thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,
  thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,thumbC0,
  thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,  // C8
  thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,
  thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,
  thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,thumbC8,
  thumbD0,thumbD0,thumbD0,thumbD0,thumbD1,thumbD1,thumbD1,thumbD1,  // D0
  thumbD2,thumbD2,thumbD2,thumbD2,thumbD3,thumbD3,thumbD3,thumbD3,
  thumbD4,thumbD4,thumbD4,thumbD4,thumbD5,thumbD5,thumbD5,thumbD5,
  thumbD6,thumbD6,thumbD6,thumbD6,thumbD7,thumbD7,thumbD7,thumbD7,
  thumbD8,thumbD8,thumbD8,thumbD8,thumbD9,thumbD9,thumbD9,thumbD9,  // D8
  thumbDA,thumbDA,thumbDA,thumbDA,thumbDB,thumbDB,thumbDB,thumbDB,
  thumbDC,thumbDC,thumbDC,thumbDC,thumbDD,thumbDD,thumbDD,thumbDD,
  thumbUI,thumbUI,thumbUI,thumbUI,thumbDF,thumbDF,thumbDF,thumbDF,
  thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,  // E0
  thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,
  thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,
  thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,thumbE0,
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,  // E8
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,
  thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,thumbUI,
  thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,  // F0
  thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,thumbF0,
  thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,
  thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,thumbF4,
  thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,  // F8
  thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,
  thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,
  thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,thumbF8,
};

// Wrapper routine (execution loop) ///////////////////////////////////////


static int thumbExecute (void)
{
   int ct    = 0;
   bool test = false;

   CACHE_PREFETCH(clockTicks);

   do
   {
      clockTicks = 0;

#if USE_CHEATS
      cpuMasterCodeCheck();
#endif

#if 0
      if ((bus.armNextPC & 0x0803FFFF) == 0x08020000)
         bus.busPrefetchCount=0x100;
#endif

      u32 opcode = cpuPrefetch[0];
      cpuPrefetch[0] = cpuPrefetch[1];

      bus.busPrefetch = false;
#if 0
      if (bus.busPrefetchCount & 0xFFFFFF00)
         bus.busPrefetchCount = 0x100 | (bus.busPrefetchCount & 0xFF);
#endif

      u32 oldArmNextPC = bus.armNextPC;

      bus.armNextPC = bus.reg[15].I;
      bus.reg[15].I += 2;
      THUMB_PREFETCH_NEXT;

      (*thumbInsnTable[opcode>>6])(opcode);

      ct = clockTicks;

      if (ct < 0)
         return 0;

      /// better pipelining
      if (ct==0)
         clockTicks = codeTicksAccessSeq16(oldArmNextPC) + 1;

      cpuTotalTicks += clockTicks;


      test = cpuTotalTicks < cpuNextEvent && !armState && !holdState;
#ifdef USE_SWITICKS
      test = test && !SWITicks;
#endif
   }while (test);

   return 1;
}

/*============================================================
	GBA GFX
============================================================ */

static u32 map_widths[] = { 256, 512, 256, 512 };
static u32 map_heights[] = { 256, 256, 512, 512 };

#ifdef TILED_RENDERING
#ifdef _MSC_VER
union u8h
{
   __pragma( pack(push, 1));
   struct
   {
#ifdef MSB_FIRST
      /* 4*/	unsigned char hi:4;
      /* 0*/	unsigned char lo:4;
#else
      /* 0*/	unsigned char lo:4;
      /* 4*/	unsigned char hi:4;
#endif
   }
   __pragma(pack(pop));
   u8 val;
};
#else
union u8h
{
   struct
   {
#ifdef MSB_FIRST
      /* 4*/	unsigned char hi:4;
      /* 0*/	unsigned char lo:4;
#else
      /* 0*/	unsigned char lo:4;
      /* 4*/	unsigned char hi:4;
#endif
   } __attribute__ ((packed));
   u8 val;
};
#endif

union TileEntry
{
   struct
   {
#ifdef MSB_FIRST
      /*14*/	unsigned palette:4;
      /*13*/	unsigned vFlip:1;
      /*12*/	unsigned hFlip:1;
      /* 0*/	unsigned tileNum:10;
#else
      /* 0*/	unsigned tileNum:10;
      /*12*/	unsigned hFlip:1;
      /*13*/	unsigned vFlip:1;
      /*14*/	unsigned palette:4;
#endif
   };
   u16 val;
};

struct TileLine
{
   u32 pixels[8];
};

typedef const TileLine (*TileReader) (const u16 *, const int, const u8 *, u16 *, const u32);

static inline void gfxDrawPixel(u32 *dest, const u8 color, const u16 *palette, const u32 prio)
{
   *dest = color ? (READ16LE(&palette[color]) | prio): 0x80000000;
}

inline const TileLine gfxReadTile(const u16 *screenSource, const int yyy, const u8 *charBase, u16 *palette, const u32 prio)
{
   TileEntry tile;
   tile.val = READ16LE(screenSource);

   int tileY = yyy & 7;
   if (tile.vFlip) tileY = 7 - tileY;
   TileLine tileLine;

   const u8 *tileBase = &charBase[tile.tileNum * 64 + tileY * 8];

   if (!tile.hFlip)
   {
      gfxDrawPixel(&tileLine.pixels[0], tileBase[0], palette, prio);
      gfxDrawPixel(&tileLine.pixels[1], tileBase[1], palette, prio);
      gfxDrawPixel(&tileLine.pixels[2], tileBase[2], palette, prio);
      gfxDrawPixel(&tileLine.pixels[3], tileBase[3], palette, prio);
      gfxDrawPixel(&tileLine.pixels[4], tileBase[4], palette, prio);
      gfxDrawPixel(&tileLine.pixels[5], tileBase[5], palette, prio);
      gfxDrawPixel(&tileLine.pixels[6], tileBase[6], palette, prio);
      gfxDrawPixel(&tileLine.pixels[7], tileBase[7], palette, prio);
   }
   else
   {
      gfxDrawPixel(&tileLine.pixels[0], tileBase[7], palette, prio);
      gfxDrawPixel(&tileLine.pixels[1], tileBase[6], palette, prio);
      gfxDrawPixel(&tileLine.pixels[2], tileBase[5], palette, prio);
      gfxDrawPixel(&tileLine.pixels[3], tileBase[4], palette, prio);
      gfxDrawPixel(&tileLine.pixels[4], tileBase[3], palette, prio);
      gfxDrawPixel(&tileLine.pixels[5], tileBase[2], palette, prio);
      gfxDrawPixel(&tileLine.pixels[6], tileBase[1], palette, prio);
      gfxDrawPixel(&tileLine.pixels[7], tileBase[0], palette, prio);
   }

   return tileLine;
}

inline const TileLine gfxReadTilePal(const u16 *screenSource, const int yyy, const u8 *charBase, u16 *palette, const u32 prio)
{
   TileEntry tile;
   tile.val = READ16LE(screenSource);

   int tileY = yyy & 7;
   if (tile.vFlip) tileY = 7 - tileY;
   palette += tile.palette * 16;
   TileLine tileLine;

   const u8h *tileBase = (u8h*) &charBase[tile.tileNum * 32 + tileY * 4];

   if (!tile.hFlip)
   {
      gfxDrawPixel(&tileLine.pixels[0], tileBase[0].lo, palette, prio);
      gfxDrawPixel(&tileLine.pixels[1], tileBase[0].hi, palette, prio);
      gfxDrawPixel(&tileLine.pixels[2], tileBase[1].lo, palette, prio);
      gfxDrawPixel(&tileLine.pixels[3], tileBase[1].hi, palette, prio);
      gfxDrawPixel(&tileLine.pixels[4], tileBase[2].lo, palette, prio);
      gfxDrawPixel(&tileLine.pixels[5], tileBase[2].hi, palette, prio);
      gfxDrawPixel(&tileLine.pixels[6], tileBase[3].lo, palette, prio);
      gfxDrawPixel(&tileLine.pixels[7], tileBase[3].hi, palette, prio);
   }
   else
   {
      gfxDrawPixel(&tileLine.pixels[0], tileBase[3].hi, palette, prio);
      gfxDrawPixel(&tileLine.pixels[1], tileBase[3].lo, palette, prio);
      gfxDrawPixel(&tileLine.pixels[2], tileBase[2].hi, palette, prio);
      gfxDrawPixel(&tileLine.pixels[3], tileBase[2].lo, palette, prio);
      gfxDrawPixel(&tileLine.pixels[4], tileBase[1].hi, palette, prio);
      gfxDrawPixel(&tileLine.pixels[5], tileBase[1].lo, palette, prio);
      gfxDrawPixel(&tileLine.pixels[6], tileBase[0].hi, palette, prio);
      gfxDrawPixel(&tileLine.pixels[7], tileBase[0].lo, palette, prio);
   }

   return tileLine;
}

static inline void gfxDrawTile(const TileLine &tileLine, u32* _line)
{
#if HAVE_NEON
   neon_memcpy(_line, tileLine.pixels, sizeof(tileLine.pixels));
#else
   memcpy(_line, tileLine.pixels, sizeof(tileLine.pixels));
#endif
}

static inline void gfxDrawTileClipped(const TileLine &tileLine, u32* _line, const int start, int w)
{
#if HAVE_NEON
   neon_memcpy(_line, tileLine.pixels + start, w * sizeof(u32));
#else
   memcpy(_line, tileLine.pixels + start, w * sizeof(u32));
#endif
}

template<TileReader readTile, int layer, int renderer_idx>
static void gfxDrawTextScreen(u16 control, u16 hofs, u16 vofs)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

   u16 *palette = (u16 *)RENDERER_PALETTE;
   u8 *charBase = &vram[((control >> 2) & 0x03) * 0x4000];
   u16 *screenBase = (u16 *)&vram[((control >> 8) & 0x1f) * 0x800];
   u32 prio = ((control & 3)<<25) + 0x1000000;
   int sizeX = 256;
   int sizeY = 256;
   switch ((control >> 14) & 3)
   {
      case 0:
         break;
      case 1:
         sizeX = 512;
         break;
      case 2:
         sizeY = 512;
         break;
      case 3:
         sizeX = 512;
         sizeY = 512;
         break;
   }

   int maskX = sizeX-1;
   int maskY = sizeY-1;

   bool mosaicOn = (control & 0x40) ? true : false;

   int xxx = hofs & maskX;
   int yyy = (vofs + RENDERER_R_VCOUNT) & maskY;
   int mosaicX = (RENDERER_MOSAIC & 0x000F)+1;
   int mosaicY = ((RENDERER_MOSAIC & 0x00F0)>>4)+1;

   if (mosaicOn)
   {
      if ((RENDERER_R_VCOUNT % mosaicY) != 0)
      {
         mosaicY = RENDERER_R_VCOUNT - (RENDERER_R_VCOUNT % mosaicY);
         yyy = (vofs + mosaicY) & maskY;
      }
   }

   if (yyy > 255 && sizeY > 256)
   {
      yyy &= 255;
      screenBase += 0x400;
      if (sizeX > 256)
         screenBase += 0x400;
   }

   int yshift = ((yyy>>3)<<5);

   u16 *screenSource = screenBase + 0x400 * (xxx>>8) + ((xxx & 255)>>3) + yshift;
   int x = 0;
   const int firstTileX = xxx & 7;

   // First tile, if clipped
   if (firstTileX)
   {
      gfxDrawTileClipped(readTile(screenSource, yyy, charBase, palette, prio), &RENDERER_LINE[layer][x], firstTileX, 8 - firstTileX);
      screenSource++;
      x += 8 - firstTileX;
      xxx += 8 - firstTileX;

      if (xxx == 256 && sizeX > 256)
      {
         screenSource = screenBase + 0x400 + yshift;
      }
      else if (xxx >= sizeX)
      {
         xxx = 0;
         screenSource = screenBase + yshift;
      }
   }

   // Middle tiles, full
   while (x < 240 - firstTileX)
   {
      gfxDrawTile(readTile(screenSource, yyy, charBase, palette, prio), &RENDERER_LINE[layer][x]);
      screenSource++;
      xxx += 8;
      x += 8;

      if (xxx == 256 && sizeX > 256)
      {
         screenSource = screenBase + 0x400 + yshift;
      }
      else if (xxx >= sizeX)
      {
         xxx = 0;
         screenSource = screenBase + yshift;
      }
   }

   // Last tile, if clipped
   if (firstTileX)
   {
      gfxDrawTileClipped(readTile(screenSource, yyy, charBase, palette, prio), &RENDERER_LINE[layer][x], 0, firstTileX);
   }

   if (mosaicOn)
   {
      if (mosaicX > 1)
      {
		 MOSAIC_LOOP(layer, mosaicX);
      }
   }
}

template<int layer, int renderer_idx>
void gfxDrawTextScreen(u16 control, u16 hofs, u16 vofs)
{
   if (control & 0x80) // 1 pal / 256 col
      gfxDrawTextScreen<gfxReadTile, layer, renderer_idx>(control, hofs, vofs);
   else // 16 pal / 16 col
      gfxDrawTextScreen<gfxReadTilePal, layer, renderer_idx>(control, hofs, vofs);
}
#else

template<int layer, int renderer_idx>
static inline void gfxDrawTextScreen(u16 control, u16 hofs, u16 vofs)
{
  u16 *palette = (u16 *)RENDERER_PALETTE;
  u8 *charBase = &vram[((control >> 2) & 0x03) * 0x4000];
  u16 *screenBase = (u16 *)&vram[((control >> 8) & 0x1f) * 0x800];
  u32 prio = ((control & 3)<<25) + 0x1000000;
  int sizeX = 256;
  int sizeY = 256;
  switch((control >> 14) & 3) {
  case 0:
    break;
  case 1:
    sizeX = 512;
    break;
  case 2:
    sizeY = 512;
    break;
  case 3:
    sizeX = 512;
    sizeY = 512;
    break;
  }

  int maskX = sizeX-1;
  int maskY = sizeY-1;

  bool mosaicOn = (control & 0x40) ? true : false;

  int xxx = hofs & maskX;
  int yyy = (vofs + RENDERER_R_VCOUNT) & maskY;
  int mosaicX = (RENDERER_MOSAIC & 0x000F)+1;
  int mosaicY = ((RENDERER_MOSAIC & 0x00F0)>>4)+1;

  if(mosaicOn) {
    if((RENDERER_R_VCOUNT % mosaicY) != 0) {
      mosaicY = RENDERER_R_VCOUNT - (RENDERER_R_VCOUNT % mosaicY);
      yyy = (vofs + mosaicY) & maskY;
    }
  }

  if(yyy > 255 && sizeY > 256) {
    yyy &= 255;
    screenBase += 0x400;
    if(sizeX > 256)
      screenBase += 0x400;
  }

  int yshift = ((yyy>>3)<<5);
  if((control) & 0x80) {
    u16 *screenSource = screenBase + 0x400 * (xxx>>8) + ((xxx & 255)>>3) + yshift;
    for(int x = 0; x < 240; x++) {
      u16 data = READ16LE(screenSource);

      int tile = data & 0x3FF;
      int tileX = (xxx & 7);
      int tileY = yyy & 7;

      if(tileX == 7)
        screenSource++;

      if(data & 0x0400)
        tileX = 7 - tileX;
      if(data & 0x0800)
        tileY = 7 - tileY;

      u8 color = charBase[tile * 64 + tileY * 8 + tileX];

      RENDERER_LINE[layer][x] = color ? (READ16LE(&palette[color]) | prio): 0x80000000;

      xxx++;
      if(xxx == 256) {
        if(sizeX > 256)
          screenSource = screenBase + 0x400 + yshift;
        else {
          screenSource = screenBase + yshift;
          xxx = 0;
        }
      } else if(xxx >= sizeX) {
        xxx = 0;
        screenSource = screenBase + yshift;
      }
    }
  } else {
    u16 *screenSource = screenBase + 0x400*(xxx>>8)+((xxx&255)>>3) +
      yshift;
    for(int x = 0; x < 240; x++) {
      u16 data = READ16LE(screenSource);

      int tile = data & 0x3FF;
      int tileX = (xxx & 7);
      int tileY = yyy & 7;

      if(tileX == 7)
        screenSource++;

      if(data & 0x0400)
        tileX = 7 - tileX;
      if(data & 0x0800)
        tileY = 7 - tileY;

      u8 color = charBase[(tile<<5) + (tileY<<2) + (tileX>>1)];

      if(tileX & 1) {
        color = (color >> 4);
      } else {
        color &= 0x0F;
      }

      int pal = (data>>8) & 0xF0;
      RENDERER_LINE[layer][x] = color ? (READ16LE(&palette[pal + color])|prio): 0x80000000;

      xxx++;
      if(xxx == 256) {
        if(sizeX > 256)
          screenSource = screenBase + 0x400 + yshift;
        else {
          screenSource = screenBase + yshift;
          xxx = 0;
        }
      } else if(xxx >= sizeX) {
        xxx = 0;
        screenSource = screenBase + yshift;
      }
    }
  }
  if(mosaicOn) {
    if(mosaicX > 1) {
      MOSAIC_LOOP(layer, mosaicX);
    }
  }
}
#endif

static u32 map_sizes_rot[] = { 128, 256, 512, 1024 };

#if THREADED_RENDERER
static INLINE void fetchDrawRotScreen(u16 control, u16 x_l, u16 x_h, u16 y_l, u16 y_h, u16 pa, u16 pb, u16 pc, u16 pd, int& currentX, int& currentY, int changed)
{
#ifdef BRANCHLESS_GBA_GFX
	int dx = pa & 0x7FFF;
	int dmx = pb & 0x7FFF;
	int dy = pc & 0x7FFF;
	int dmy = pd & 0x7FFF;

	dx |= isel(-(pa & 0x8000), 0, 0xFFFF8000);

	dmx |= isel(-(pb & 0x8000), 0, 0xFFFF8000);

	dy |= isel(-(pc & 0x8000), 0, 0xFFFF8000);

	dmy |= isel(-(pd & 0x8000), 0, 0xFFFF8000);
#else
	int dx = pa & 0x7FFF;
	if(pa & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = pb & 0x7FFF;
	if(pb & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = pc & 0x7FFF;
	if(pc & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = pd & 0x7FFF;
	if(pd & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(io_registers[REG_VCOUNT] == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (x_l) | ((x_h & 0x07FF)<<16);
		if(x_h & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (y_l) | ((y_h & 0x07FF)<<16);
		if(y_h & 0x0800)
			currentY |= 0xF8000000;
	}
}

static INLINE void fetchDrawRotScreen16Bit( int& currentX,  int& currentY, int changed)
{
#ifdef BRANCHLESS_GBA_GFX
	int dx = io_registers[REG_BG2PA] & 0x7FFF;
	dx |= isel(-(io_registers[REG_BG2PA] & 0x8000), 0, 0xFFFF8000);

	int dmx = io_registers[REG_BG2PB] & 0x7FFF;
	dmx |= isel(-(io_registers[REG_BG2PB] & 0x8000), 0, 0xFFFF8000);

	int dy = io_registers[REG_BG2PC] & 0x7FFF;
	dy |= isel(-(io_registers[REG_BG2PC] & 0x8000), 0, 0xFFFF8000);

	int dmy = io_registers[REG_BG2PD] & 0x7FFF;
	dmy |= isel(-(io_registers[REG_BG2PD] & 0x8000), 0, 0xFFFF8000);
#else
	int dx = io_registers[REG_BG2PA] & 0x7FFF;
	if(io_registers[REG_BG2PA] & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = io_registers[REG_BG2PB] & 0x7FFF;
	if(io_registers[REG_BG2PB] & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = io_registers[REG_BG2PC] & 0x7FFF;
	if(io_registers[REG_BG2PC] & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = io_registers[REG_BG2PD] & 0x7FFF;
	if(io_registers[REG_BG2PD] & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(io_registers[REG_VCOUNT] == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
		if(BG2X_H & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
		if(BG2Y_H & 0x0800)
			currentY |= 0xF8000000;
	}
}

static INLINE void fetchDrawRotScreen256(int &currentX, int& currentY, int changed)
{
#ifdef BRANCHLESS_GBA_GFX
	int dx = io_registers[REG_BG2PA] & 0x7FFF;
	dx |= isel(-(io_registers[REG_BG2PA] & 0x8000), 0, 0xFFFF8000);

	int dmx = io_registers[REG_BG2PB] & 0x7FFF;
	dmx |= isel(-(io_registers[REG_BG2PB] & 0x8000), 0, 0xFFFF8000);

	int dy = io_registers[REG_BG2PC] & 0x7FFF;
	dy |= isel(-(io_registers[REG_BG2PC] & 0x8000), 0, 0xFFFF8000);

	int dmy = io_registers[REG_BG2PD] & 0x7FFF;
	dmy |= isel(-(io_registers[REG_BG2PD] & 0x8000), 0, 0xFFFF8000);
#else
	int dx = io_registers[REG_BG2PA] & 0x7FFF;
	if(io_registers[REG_BG2PA] & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = io_registers[REG_BG2PB] & 0x7FFF;
	if(io_registers[REG_BG2PB] & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = io_registers[REG_BG2PC] & 0x7FFF;
	if(io_registers[REG_BG2PC] & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = io_registers[REG_BG2PD] & 0x7FFF;
	if(io_registers[REG_BG2PD] & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(io_registers[REG_VCOUNT] == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
		if(BG2X_H & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
		if(BG2Y_H & 0x0800)
			currentY |= 0xF8000000;
	}
}

static INLINE void fetchDrawRotScreen16Bit160(int& currentX, int& currentY, int changed)
{
#ifdef BRANCHLESS_GBA_GFX
	int dx = io_registers[REG_BG2PA] & 0x7FFF;
	dx |= isel(-(io_registers[REG_BG2PA] & 0x8000), 0, 0xFFFF8000);

	int dmx = io_registers[REG_BG2PB] & 0x7FFF;
	dmx |= isel(-(io_registers[REG_BG2PB] & 0x8000), 0, 0xFFFF8000);

	int dy = io_registers[REG_BG2PC] & 0x7FFF;
	dy |= isel(-(io_registers[REG_BG2PC] & 0x8000), 0, 0xFFFF8000);

	int dmy = io_registers[REG_BG2PD] & 0x7FFF;
	dmy |= isel(-(io_registers[REG_BG2PD] & 0x8000), 0, 0xFFFF8000);
#else
	int dx = io_registers[REG_BG2PA] & 0x7FFF;
	if(io_registers[REG_BG2PA] & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = io_registers[REG_BG2PB] & 0x7FFF;
	if(io_registers[REG_BG2PB] & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = io_registers[REG_BG2PC] & 0x7FFF;
	if(io_registers[REG_BG2PC] & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = io_registers[REG_BG2PD] & 0x7FFF;
	if(io_registers[REG_BG2PD] & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(io_registers[REG_VCOUNT] == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
		if(BG2X_H & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
		if(BG2Y_H & 0x0800)
			currentY |= 0xF8000000;
	}
}
#endif

template<int layer, int renderer_idx>
static INLINE void gfxDrawRotScreen(u16 control, u16 x_l, u16 x_h, u16 y_l, u16 y_h,
u16 pa,  u16 pb, u16 pc,  u16 pd, int& currentX, int& currentY, int changed)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

	u16 *palette = (u16 *)RENDERER_PALETTE;
	u8 *charBase = &vram[((control >> 2) & 0x03) << 14];
	u8 *screenBase = (u8 *)&vram[((control >> 8) & 0x1f) << 11];
	int prio = ((control & 3) << 25) + 0x1000000;

	u32 map_size = (control >> 14) & 3;
	u32 sizeX = map_sizes_rot[map_size];
	u32 sizeY = map_sizes_rot[map_size];

	int maskX = sizeX-1;
	int maskY = sizeY-1;

	int yshift = ((control >> 14) & 3)+4;

#ifdef BRANCHLESS_GBA_GFX
	int dx = pa & 0x7FFF;
	int dmx = pb & 0x7FFF;
	int dy = pc & 0x7FFF;
	int dmy = pd & 0x7FFF;

	dx |= isel(-(pa & 0x8000), 0, 0xFFFF8000);

	dmx |= isel(-(pb & 0x8000), 0, 0xFFFF8000);

	dy |= isel(-(pc & 0x8000), 0, 0xFFFF8000);

	dmy |= isel(-(pd & 0x8000), 0, 0xFFFF8000);
#else
	int dx = pa & 0x7FFF;
	if(pa & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = pb & 0x7FFF;
	if(pb & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = pc & 0x7FFF;
	if(pc & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = pd & 0x7FFF;
	if(pd & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(RENDERER_R_VCOUNT == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (x_l) | ((x_h & 0x07FF)<<16);
		if(x_h & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (y_l) | ((y_h & 0x07FF)<<16);
		if(y_h & 0x0800)
			currentY |= 0xF8000000;
	}

	int realX = currentX;
	int realY = currentY;

	if(control & 0x40)
	{
		int mosaicY = ((RENDERER_MOSAIC & 0xF0)>>4) + 1;
		int y = (RENDERER_R_VCOUNT % mosaicY);
		realX -= y*dmx;
		realY -= y*dmy;
	}

	memset(RENDERER_LINE[layer], -1, 240 * sizeof(u32));
	if(control & 0x2000) // Wraparound
	{
		if(dx > 0 && dy == 0) // Common subcase: no rotation or flipping
		{
			unsigned yyy = (realY >> 8) & maskY;
			unsigned yyyshift = (yyy>>3)<<yshift;
			unsigned tileY = yyy & 7;
			unsigned tileYshift = (tileY<<3);

			for(u32 x = 0; x < 240u; ++x)
			{
				unsigned xxx = (realX >> 8) & maskX;

				unsigned tile = screenBase[(xxx>>3) | yyyshift];

				unsigned tileX = (xxx & 7);

				u8 color = charBase[(tile<<6) | tileYshift | tileX];

				if(color) RENDERER_LINE[layer][x] = (READ16LE(&palette[color])|prio);

				realX += dx;
			}
		}
		else
			for(u32 x = 0; x < 240u; ++x)
			{
				unsigned xxx = (realX >> 8) & maskX;
				unsigned yyy = (realY >> 8) & maskY;

				unsigned tile = screenBase[(xxx>>3) | ((yyy>>3)<<yshift)];

				unsigned tileX = (xxx & 7);
				unsigned tileY = yyy & 7;

				u8 color = charBase[(tile<<6) | (tileY<<3) | tileX];

				if(color) RENDERER_LINE[layer][x] = (READ16LE(&palette[color])|prio);

				realX += dx;
				realY += dy;
			}
	}
	else // Culling
	{
		if(dx > 0 && dy == 0) // Common subcase: no rotation or flipping
		{
			unsigned yyy = (realY >> 8);
			if (yyy >= sizeY)
				goto skipLine;
			unsigned yyyshift = (yyy>>3)<<yshift;
			unsigned tileY = yyy & 7;
			unsigned tileYshift = (tileY<<3);

			s32 x0 = max(  0, (s32)(             + (-realX + dx - 1)) / dx);
			s32 x1 = min(240, (s32)((sizeX << 8) + (-realX + dx - 1)) / dx);

			realX += dx * x0;

			for(s32 x = x0; x < x1; ++x)
			{
				unsigned xxx = (realX >> 8);

				unsigned tile = screenBase[(xxx>>3) | yyyshift];

				unsigned tileX = (xxx & 7);

				u8 color = charBase[(tile<<6) | tileYshift | tileX];

				if(color) RENDERER_LINE[layer][x] = (READ16LE(&palette[color])|prio);

				realX += dx;
			}
		}
		else
			for(u32 x = 0; x < 240u; ++x)
			{
				unsigned xxx = (realX >> 8);
				unsigned yyy = (realY >> 8);

				if(xxx < sizeX && yyy < sizeY)
				{
					unsigned tile = screenBase[(xxx>>3) | ((yyy>>3)<<yshift)];

					unsigned tileX = (xxx & 7);
					unsigned tileY = yyy & 7;

					u8 color = charBase[(tile<<6) | (tileY<<3) | tileX];

					if(color) RENDERER_LINE[layer][x] = (READ16LE(&palette[color])|prio);
				}

				realX += dx;
				realY += dy;
			}
	}
	skipLine:

	if(control & 0x40)
	{
		int mosaicX = (RENDERER_MOSAIC & 0xF) + 1;
		if(mosaicX > 1)
		{
			MOSAIC_LOOP(layer, mosaicX);
		}
	}
}

template<int renderer_idx>
static INLINE void gfxDrawRotScreen16Bit( int& currentX,  int& currentY, int changed)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

	u16 *screenBase = (u16 *)&vram[0];
	int prio = ((RENDERER_IO_REGISTERS[REG_BG2CNT] & 3) << 25) + 0x1000000;

	u32 sizeX = 240;
	u32 sizeY = 160;

	int startX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
	if(BG2X_H & 0x0800)
		startX |= 0xF8000000;
	int startY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
	if(BG2Y_H & 0x0800)
		startY |= 0xF8000000;

#ifdef BRANCHLESS_GBA_GFX
	int dx = RENDERER_IO_REGISTERS[REG_BG2PA] & 0x7FFF;
	dx |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PA] & 0x8000), 0, 0xFFFF8000);

	int dmx = RENDERER_IO_REGISTERS[REG_BG2PB] & 0x7FFF;
	dmx |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PB] & 0x8000), 0, 0xFFFF8000);

	int dy = RENDERER_IO_REGISTERS[REG_BG2PC] & 0x7FFF;
	dy |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PC] & 0x8000), 0, 0xFFFF8000);

	int dmy = RENDERER_IO_REGISTERS[REG_BG2PD] & 0x7FFF;
	dmy |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PD] & 0x8000), 0, 0xFFFF8000);
#else
	int dx = RENDERER_IO_REGISTERS[REG_BG2PA] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PA] & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = RENDERER_IO_REGISTERS[REG_BG2PB] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PB] & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = RENDERER_IO_REGISTERS[REG_BG2PC] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PC] & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = RENDERER_IO_REGISTERS[REG_BG2PD] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PD] & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(RENDERER_R_VCOUNT == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
		if(BG2X_H & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
		if(BG2Y_H & 0x0800)
			currentY |= 0xF8000000;
	}

	int realX = currentX;
	int realY = currentY;

	if(RENDERER_IO_REGISTERS[REG_BG2CNT] & 0x40) {
		int mosaicY = ((RENDERER_MOSAIC & 0xF0)>>4) + 1;
		int y = (RENDERER_R_VCOUNT % mosaicY);
		realX -= y*dmx;
		realY -= y*dmy;
	}

	unsigned xxx = (realX >> 8);
	unsigned yyy = (realY >> 8);

	memset(RENDERER_LINE[Layer_BG2], -1, 240 * sizeof(u32));
	for(u32 x = 0; x < 240u; ++x)
	{
		if(xxx < sizeX && yyy < sizeY)
			RENDERER_LINE[Layer_BG2][x] = (READ16LE(&screenBase[yyy * sizeX + xxx]) | prio);

		realX += dx;
		realY += dy;

		xxx = (realX >> 8);
		yyy = (realY >> 8);
	}

	if(RENDERER_IO_REGISTERS[REG_BG2CNT] & 0x40) {
		int mosaicX = (MOSAIC & 0xF) + 1;
		if(mosaicX > 1) {
			MOSAIC_LOOP(Layer_BG2, mosaicX);
		}
	}
}

template<int renderer_idx>
static INLINE void gfxDrawRotScreen256(int &currentX, int& currentY, int changed)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

	u16 *palette = (u16 *)RENDERER_PALETTE;
	u8 *screenBase = (RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x0010) ? &vram[0xA000] : &vram[0x0000];
	int prio = ((RENDERER_IO_REGISTERS[REG_BG2CNT] & 3) << 25) + 0x1000000;
	u32 sizeX = 240;
	u32 sizeY = 160;

	int startX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
	if(BG2X_H & 0x0800)
		startX |= 0xF8000000;
	int startY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
	if(BG2Y_H & 0x0800)
		startY |= 0xF8000000;

#ifdef BRANCHLESS_GBA_GFX
	int dx = RENDERER_IO_REGISTERS[REG_BG2PA] & 0x7FFF;
	dx |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PA] & 0x8000), 0, 0xFFFF8000);

	int dmx = RENDERER_IO_REGISTERS[REG_BG2PB] & 0x7FFF;
	dmx |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PB] & 0x8000), 0, 0xFFFF8000);

	int dy = RENDERER_IO_REGISTERS[REG_BG2PC] & 0x7FFF;
	dy |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PC] & 0x8000), 0, 0xFFFF8000);

	int dmy = RENDERER_IO_REGISTERS[REG_BG2PD] & 0x7FFF;
	dmy |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PD] & 0x8000), 0, 0xFFFF8000);
#else
	int dx = RENDERER_IO_REGISTERS[REG_BG2PA] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PA] & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = RENDERER_IO_REGISTERS[REG_BG2PB] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PB] & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = RENDERER_IO_REGISTERS[REG_BG2PC] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PC] & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = RENDERER_IO_REGISTERS[REG_BG2PD] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PD] & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(RENDERER_R_VCOUNT == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
		if(BG2X_H & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
		if(BG2Y_H & 0x0800)
			currentY |= 0xF8000000;
	}

	int realX = currentX;
	int realY = currentY;

	if(RENDERER_IO_REGISTERS[REG_BG2CNT] & 0x40) {
		int mosaicY = ((RENDERER_MOSAIC & 0xF0)>>4) + 1;
		int y = RENDERER_R_VCOUNT - (RENDERER_R_VCOUNT % mosaicY);
		realX = startX + y*dmx;
		realY = startY + y*dmy;
	}

	int xxx = (realX >> 8);
	int yyy = (realY >> 8);

	memset(RENDERER_LINE[Layer_BG2], -1, 240 * sizeof(u32));
	for(u32 x = 0; x < 240; ++x)
	{
		if(unsigned(xxx) < sizeX && unsigned(yyy) < sizeY) {
			u8 color = screenBase[yyy * 240 + xxx];
			if (color) RENDERER_LINE[Layer_BG2][x] = (READ16LE(&palette[color]) | prio);
		}
		realX += dx;
		realY += dy;

		xxx = (realX >> 8);
		yyy = (realY >> 8);
	}

	if(RENDERER_IO_REGISTERS[REG_BG2CNT] & 0x40)
	{
		int mosaicX = (RENDERER_MOSAIC & 0xF) + 1;
		if(mosaicX > 1)
		{
			MOSAIC_LOOP(Layer_BG2, mosaicX);
		}
	}
}

template<int renderer_idx>
static INLINE void gfxDrawRotScreen16Bit160(int& currentX, int& currentY, int changed)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

	u16 *screenBase = (RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x0010) ? (u16 *)&vram[0xa000] :
		(u16 *)&vram[0];
	int prio = ((RENDERER_IO_REGISTERS[REG_BG2CNT] & 3) << 25) + 0x1000000;
	u32 sizeX = 160;
	u32 sizeY = 128;

	int startX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
	if(BG2X_H & 0x0800)
		startX |= 0xF8000000;
	int startY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
	if(BG2Y_H & 0x0800)
		startY |= 0xF8000000;

#ifdef BRANCHLESS_GBA_GFX
	int dx = RENDERER_IO_REGISTERS[REG_BG2PA] & 0x7FFF;
	dx |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PA] & 0x8000), 0, 0xFFFF8000);

	int dmx = RENDERER_IO_REGISTERS[REG_BG2PB] & 0x7FFF;
	dmx |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PB] & 0x8000), 0, 0xFFFF8000);

	int dy = RENDERER_IO_REGISTERS[REG_BG2PC] & 0x7FFF;
	dy |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PC] & 0x8000), 0, 0xFFFF8000);

	int dmy = RENDERER_IO_REGISTERS[REG_BG2PD] & 0x7FFF;
	dmy |= isel(-(RENDERER_IO_REGISTERS[REG_BG2PD] & 0x8000), 0, 0xFFFF8000);
#else
	int dx = RENDERER_IO_REGISTERS[REG_BG2PA] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PA] & 0x8000)
		dx |= 0xFFFF8000;
	int dmx = RENDERER_IO_REGISTERS[REG_BG2PB] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PB] & 0x8000)
		dmx |= 0xFFFF8000;
	int dy = RENDERER_IO_REGISTERS[REG_BG2PC] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PC] & 0x8000)
		dy |= 0xFFFF8000;
	int dmy = RENDERER_IO_REGISTERS[REG_BG2PD] & 0x7FFF;
	if(RENDERER_IO_REGISTERS[REG_BG2PD] & 0x8000)
		dmy |= 0xFFFF8000;
#endif

	if(RENDERER_R_VCOUNT == 0)
		changed = 3;

	currentX += dmx;
	currentY += dmy;

	if(changed & 1)
	{
		currentX = (BG2X_L) | ((BG2X_H & 0x07FF)<<16);
		if(BG2X_H & 0x0800)
			currentX |= 0xF8000000;
	}

	if(changed & 2)
	{
		currentY = (BG2Y_L) | ((BG2Y_H & 0x07FF)<<16);
		if(BG2Y_H & 0x0800)
			currentY |= 0xF8000000;
	}

	int realX = currentX;
	int realY = currentY;

	if(RENDERER_IO_REGISTERS[REG_BG2CNT] & 0x40) {
		int mosaicY = ((RENDERER_MOSAIC & 0xF0)>>4) + 1;
		int y = RENDERER_R_VCOUNT - (RENDERER_R_VCOUNT % mosaicY);
		realX = startX + y*dmx;
		realY = startY + y*dmy;
	}

	int xxx = (realX >> 8);
	int yyy = (realY >> 8);

	memset(RENDERER_LINE[Layer_BG2], -1, 240 * sizeof(u32));
	for(u32 x = 0; x < 240u; ++x)
	{
		if(unsigned(xxx) < sizeX && unsigned(yyy) < sizeY)
			RENDERER_LINE[Layer_BG2][x] = (READ16LE(&screenBase[yyy * sizeX + xxx]) | prio);

		realX += dx;
		realY += dy;

		xxx = (realX >> 8);
		yyy = (realY >> 8);
	}


	int mosaicX = (RENDERER_MOSAIC & 0xF) + 1;
	if(RENDERER_IO_REGISTERS[REG_BG2CNT] & 0x40 && (mosaicX > 1))
	{
		MOSAIC_LOOP(Layer_BG2, mosaicX);
	}
}

/* lineOBJpix is used to keep track of the drawn OBJs
   and to stop drawing them if the 'maximum number of OBJ per line'
   has been reached. */

template<int renderer_idx>
static void gfxDrawSprites (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

	unsigned lineOBJpix, m;

	lineOBJpix = (RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x20) ? 954 : 1226;
	m = 0;

	u16 *sprites = (u16 *)RENDERER_OAM;
	u16 *spritePalette = &((u16 *)RENDERER_PALETTE)[256];
	int mosaicY = ((RENDERER_MOSAIC & 0xF000)>>12) + 1;
	int mosaicX = ((RENDERER_MOSAIC & 0xF00)>>8) + 1;
	for(u32 x = 0; x < 128; x++)
	{
		u16 a0 = READ16LE(sprites++);
		u16 a1 = READ16LE(sprites++);
		u16 a2 = READ16LE(sprites++);
		++sprites;

		RENDERER_LINE_OBJ_PIX_LEFT[x]=lineOBJpix;

		lineOBJpix-=2;
		if (lineOBJpix<=0)
			return;

		if ((a0 & 0x0c00) == 0x0c00)
			a0 &=0xF3FF;

		u16 a0val = a0>>14;

		if (a0val == 3)
		{
			a0 &= 0x3FFF;
			a1 &= 0x3FFF;
		}

		u32 sizeX = 8<<(a1>>14);
		u32 sizeY = sizeX;


		if (a0val & 1)
		{
#ifdef BRANCHLESS_GBA_GFX
			sizeX <<= isel(-(sizeX & (~31u)), 1, 0);
			sizeY >>= isel(-(sizeY>8), 0, 1);
#else
			if (sizeX<32)
				sizeX<<=1;
			if (sizeY>8)
				sizeY>>=1;
#endif
		}
		else if (a0val & 2)
		{
#ifdef BRANCHLESS_GBA_GFX
			sizeX >>= isel(-(sizeX>8), 0, 1);
			sizeY <<= isel(-(sizeY & (~31u)), 1, 0);
#else
			if (sizeX>8)
				sizeX>>=1;
			if (sizeY<32)
				sizeY<<=1;
#endif

		}


		int sy = (a0 & 255);
		int sx = (a1 & 0x1FF);

		// computes ticks used by OBJ-WIN if OBJWIN is enabled
		if (((a0 & 0x0c00) == 0x0800) && (RENDERER_R_DISPCNT_OBJ_Window_Display))
		{
			if ((a0 & 0x0300) == 0x0300)
			{
				sizeX<<=1;
				sizeY<<=1;
			}

#ifdef BRANCHLESS_GBA_GFX
			sy -= isel(256 - sy - sizeY, 0, 256);
			sx -= isel(512 - sx - sizeX, 0, 512);
#else
			if((sy+sizeY) > 256)
				sy -= 256;
			if ((sx+sizeX)> 512)
				sx -= 512;
#endif

			if (sx < 0)
			{
				sizeX+=sx;
				sx = 0;
			}
			else if ((sx+sizeX)>240)
				sizeX=240-sx;

			if ((RENDERER_R_VCOUNT>=sy) && (RENDERER_R_VCOUNT<sy+sizeY) && (sx<240))
			{
				lineOBJpix -= (sizeX-2);

				if (a0 & 0x0100)
					lineOBJpix -= (10+sizeX);
			}
			continue;
		}

		// else ignores OBJ-WIN if OBJWIN is disabled, and ignored disabled OBJ
		else if(((a0 & 0x0c00) == 0x0800) || ((a0 & 0x0300) == 0x0200))
			continue;

		if(a0 & 0x0100)
		{
			u32 fieldX = sizeX;
			u32 fieldY = sizeY;
			if(a0 & 0x0200)
			{
				fieldX <<= 1;
				fieldY <<= 1;
			}
			if((sy+fieldY) > 256)
				sy -= 256;
			int t = RENDERER_R_VCOUNT - sy;
			if(unsigned(t) < fieldY)
			{
				u32 startpix = 0;
				if ((sx+fieldX)> 512)
					startpix=512-sx;

				if (lineOBJpix && ((sx < 240) || startpix))
				{
					lineOBJpix-=8;
					int rot = (((a1 >> 9) & 0x1F) << 4);
					u16 *OAM = (u16 *)RENDERER_OAM;
					int dx = READ16LE(&OAM[3 + rot]);
					if(dx & 0x8000)
						dx |= 0xFFFF8000;
					int dmx = READ16LE(&OAM[7 + rot]);
					if(dmx & 0x8000)
						dmx |= 0xFFFF8000;
					int dy = READ16LE(&OAM[11 + rot]);
					if(dy & 0x8000)
						dy |= 0xFFFF8000;
					int dmy = READ16LE(&OAM[15 + rot]);
					if(dmy & 0x8000)
						dmy |= 0xFFFF8000;

					if(a0 & 0x1000)
						t -= (t % mosaicY);

					int realX = ((sizeX) << 7) - (fieldX >> 1)*dx + ((t - (fieldY>>1))* dmx);
					int realY = ((sizeY) << 7) - (fieldX >> 1)*dy + ((t - (fieldY>>1))* dmy);

					u32 prio = (((a2 >> 10) & 3) << 25) | ((a0 & 0x0c00)<<6);

					int c = (a2 & 0x3FF);
					if(RENDERER_R_DISPCNT_Video_Mode > 2 && (c < 512))
						continue;

					if(a0 & 0x2000)
					{
						int inc = 32;
						if(RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x40)
							inc = sizeX >> 2;
						else
							c &= 0x3FE;
						for(u32 x = 0; x < fieldX; x++)
						{
							if (x >= startpix)
								lineOBJpix-=2;
							unsigned xxx = realX >> 8;
							unsigned yyy = realY >> 8;
							if(xxx < sizeX && yyy < sizeY && sx < 240)
							{

								u32 color = vram[0x10000 + ((((c + (yyy>>3) * inc)<<5)
								+ ((yyy & 7)<<3) + ((xxx >> 3)<<6) + (xxx & 7))&0x7FFF)];

								if ((color==0) && (((prio >> 25)&3) < ((RENDERER_LINE[Layer_OBJ][sx]>>25)&3)))
								{
									RENDERER_LINE[Layer_OBJ][sx] = (RENDERER_LINE[Layer_OBJ][sx] & 0xF9FFFFFF) | prio;
									if((a0 & 0x1000) && m)
										RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
								}
								else if((color) && (prio < (RENDERER_LINE[Layer_OBJ][sx]&0xFF000000)))
								{
									RENDERER_LINE[Layer_OBJ][sx] = READ16LE(&spritePalette[color]) | prio;
									if((a0 & 0x1000) && m)
										RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
								}

								if ((a0 & 0x1000) && ((m+1) == mosaicX))
									m = 0;
							}
							sx = (sx+1)&511;
							realX += dx;
							realY += dy;
						}
					}
					else
					{
						int inc = 32;
						if(RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x40)
							inc = sizeX >> 3;
						int palette = (a2 >> 8) & 0xF0;
						for(u32 x = 0; x < fieldX; ++x)
						{
							if (x >= startpix)
								lineOBJpix-=2;
							unsigned xxx = realX >> 8;
							unsigned yyy = realY >> 8;
							if(xxx < sizeX && yyy < sizeY && sx < 240)
							{

								u32 color = vram[0x10000 + ((((c + (yyy>>3) * inc)<<5)
											+ ((yyy & 7)<<2) + ((xxx >> 3)<<5)
											+ ((xxx & 7)>>1))&0x7FFF)];
								if(xxx & 1)
									color >>= 4;
								else
									color &= 0x0F;

								if ((color==0) && (((prio >> 25)&3) <
											((RENDERER_LINE[Layer_OBJ][sx]>>25)&3)))
								{
									RENDERER_LINE[Layer_OBJ][sx] = (RENDERER_LINE[Layer_OBJ][sx] & 0xF9FFFFFF) | prio;
									if((a0 & 0x1000) && m)
										RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
								}
								else if((color) && (prio < (RENDERER_LINE[Layer_OBJ][sx]&0xFF000000)))
								{
									RENDERER_LINE[Layer_OBJ][sx] = READ16LE(&spritePalette[palette+color]) | prio;
									if((a0 & 0x1000) && m)
										RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
								}
							}
							if((a0 & 0x1000) && m)
							{
								if (++m==mosaicX)
									m=0;
							}

							sx = (sx+1)&511;
							realX += dx;
							realY += dy;

						}
					}
				}
			}
		}
		else
		{
			if(sy+sizeY > 256)
				sy -= 256;
			int t = RENDERER_R_VCOUNT - sy;
			if(unsigned(t) < sizeY)
			{
				u32 startpix = 0;
				if ((sx+sizeX)> 512)
					startpix=512-sx;

				if((sx < 240) || startpix)
				{
					lineOBJpix+=2;

					if(a1 & 0x2000)
						t = sizeY - t - 1;

					int c = (a2 & 0x3FF);
					if(RENDERER_R_DISPCNT_Video_Mode > 2 && (c < 512))
						continue;

					int inc = 32;
					int xxx = 0;
					if(a1 & 0x1000)
						xxx = sizeX-1;

					if(a0 & 0x1000)
						t -= (t % mosaicY);

					if(a0 & 0x2000)
					{
						if(RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x40)
							inc = sizeX >> 2;
						else
							c &= 0x3FE;

						int address = 0x10000 + ((((c+ (t>>3) * inc) << 5)
									+ ((t & 7) << 3) + ((xxx>>3)<<6) + (xxx & 7)) & 0x7FFF);

						if(a1 & 0x1000)
							xxx = 7;
						u32 prio = (((a2 >> 10) & 3) << 25) | ((a0 & 0x0c00)<<6);

						for(u32 xx = 0; xx < sizeX; xx++)
						{
							if (xx >= startpix)
								--lineOBJpix;
							if(sx < 240)
							{
								u8 color = vram[address];
								if ((color==0) && (((prio >> 25)&3) <
											((RENDERER_LINE[Layer_OBJ][sx]>>25)&3)))
								{
									RENDERER_LINE[Layer_OBJ][sx] = (RENDERER_LINE[Layer_OBJ][sx] & 0xF9FFFFFF) | prio;
									if((a0 & 0x1000) && m)
										RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
								}
								else if((color) && (prio < (RENDERER_LINE[Layer_OBJ][sx]&0xFF000000)))
								{
									RENDERER_LINE[Layer_OBJ][sx] = READ16LE(&spritePalette[color]) | prio;
									if((a0 & 0x1000) && m)
										RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
								}

								if ((a0 & 0x1000) && ((m+1) == mosaicX))
									m = 0;
							}

							sx = (sx+1) & 511;
							if(a1 & 0x1000)
							{
								--address;
								if(--xxx == -1)
								{
									address -= 56;
									xxx = 7;
								}
								if(address < 0x10000)
									address += 0x8000;
							}
							else
							{
								++address;
								if(++xxx == 8)
								{
									address += 56;
									xxx = 0;
								}
								if(address > 0x17fff)
									address -= 0x8000;
							}
						}
					}
					else
					{
						if(RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x40)
							inc = sizeX >> 3;

						int address = 0x10000 + ((((c + (t>>3) * inc)<<5)
									+ ((t & 7)<<2) + ((xxx>>3)<<5) + ((xxx & 7) >> 1))&0x7FFF);

						u32 prio = (((a2 >> 10) & 3) << 25) | ((a0 & 0x0c00)<<6);
						int palette = (a2 >> 8) & 0xF0;
						if(a1 & 0x1000)
						{
							xxx = 7;
							int xx = sizeX - 1;
							do
							{
								if (xx >= (int)(startpix))
									--lineOBJpix;
								//if (lineOBJpix<0)
								//  continue;
								if(sx < 240)
								{
									u8 color = vram[address];
									if(xx & 1)
										color >>= 4;
									else
										color &= 0x0F;

									if ((color==0) && (((prio >> 25)&3) <
												((RENDERER_LINE[Layer_OBJ][sx]>>25)&3)))
									{
										RENDERER_LINE[Layer_OBJ][sx] = (RENDERER_LINE[Layer_OBJ][sx] & 0xF9FFFFFF) | prio;
										if((a0 & 0x1000) && m)
											RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
									}
									else if((color) && (prio < (RENDERER_LINE[Layer_OBJ][sx]&0xFF000000)))
									{
										RENDERER_LINE[Layer_OBJ][sx] = READ16LE(&spritePalette[palette + color]) | prio;
										if((a0 & 0x1000) && m)
											RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
									}
								}

								if ((a0 & 0x1000) && ((m+1) == mosaicX))
									m=0;

								sx = (sx+1) & 511;
								if(!(xx & 1))
									--address;
								if(--xxx == -1)
								{
									xxx = 7;
									address -= 28;
								}
								if(address < 0x10000)
									address += 0x8000;
							}while(--xx >= 0);
						}
						else
						{
							for(u32 xx = 0; xx < sizeX; ++xx)
							{
								if (xx >= startpix)
									--lineOBJpix;
								//if (lineOBJpix<0)
								//  continue;
								if(sx < 240)
								{
									u8 color = vram[address];
									if(xx & 1)
										color >>= 4;
									else
										color &= 0x0F;

									if ((color==0) && (((prio >> 25)&3) <
												((RENDERER_LINE[Layer_OBJ][sx]>>25)&3)))
									{
										RENDERER_LINE[Layer_OBJ][sx] = (RENDERER_LINE[Layer_OBJ][sx] & 0xF9FFFFFF) | prio;
										if((a0 & 0x1000) && m)
											RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;
									}
									else if((color) && (prio < (RENDERER_LINE[Layer_OBJ][sx]&0xFF000000)))
									{
										RENDERER_LINE[Layer_OBJ][sx] = READ16LE(&spritePalette[palette + color]) | prio;
										if((a0 & 0x1000) && m)
											RENDERER_LINE[Layer_OBJ][sx]=(RENDERER_LINE[Layer_OBJ][sx-1] & 0xF9FFFFFF) | prio;

									}
								}
								if ((a0 & 0x1000) && ((m+1) == mosaicX))
									m=0;

								sx = (sx+1) & 511;
								if(xx & 1)
									++address;
								if(++xxx == 8)
								{
									address += 28;
									xxx = 0;
								}
								if(address > 0x17fff)
									address -= 0x8000;
							}
						}
					}
				}
			}
		}
	}
}

template<int renderer_idx>
static void gfxDrawOBJWin (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

	u16 *sprites = (u16 *)RENDERER_OAM;
	for(int x = 0; x < 128 ; x++)
	{
		int lineOBJpix = RENDERER_LINE_OBJ_PIX_LEFT[x];
		u16 a0 = READ16LE(sprites++);
		u16 a1 = READ16LE(sprites++);
		u16 a2 = READ16LE(sprites++);
		sprites++;

		if (lineOBJpix<=0)
			return;

		// ignores non OBJ-WIN and disabled OBJ-WIN
		if(((a0 & 0x0c00) != 0x0800) || ((a0 & 0x0300) == 0x0200))
			continue;

		u16 a0val = a0>>14;

		if ((a0 & 0x0c00) == 0x0c00)
			a0 &=0xF3FF;

		if (a0val == 3)
		{
			a0 &= 0x3FFF;
			a1 &= 0x3FFF;
		}

		int sizeX = 8<<(a1>>14);
		int sizeY = sizeX;

		if (a0val & 1)
		{
#ifdef BRANCHLESS_GBA_GFX
			sizeX <<= isel(-(sizeX & (~31u)), 1, 0);
			sizeY >>= isel(-(sizeY>8), 0, 1);
#else
			if (sizeX<32)
				sizeX<<=1;
			if (sizeY>8)
				sizeY>>=1;
#endif
		}
		else if (a0val & 2)
		{
#ifdef BRANCHLESS_GBA_GFX
			sizeX >>= isel(-(sizeX>8), 0, 1);
			sizeY <<= isel(-(sizeY & (~31u)), 1, 0);
#else
			if (sizeX>8)
				sizeX>>=1;
			if (sizeY<32)
				sizeY<<=1;
#endif

		}

		int sy = (a0 & 255);

		if(a0 & 0x0100)
		{
			int fieldX = sizeX;
			int fieldY = sizeY;
			if(a0 & 0x0200)
			{
				fieldX <<= 1;
				fieldY <<= 1;
			}
			if((sy+fieldY) > 256)
				sy -= 256;
			int t = RENDERER_R_VCOUNT - sy;
			if((t >= 0) && (t < fieldY))
			{
				int sx = (a1 & 0x1FF);
				int startpix = 0;
				if ((sx+fieldX)> 512)
					startpix=512-sx;

				if((sx < 240) || startpix)
				{
					lineOBJpix-=8;
					// int t2 = t - (fieldY >> 1);
					int rot = (a1 >> 9) & 0x1F;
					u16 *OAM = (u16 *)RENDERER_OAM;
					int dx = READ16LE(&OAM[3 + (rot << 4)]);
					if(dx & 0x8000)
						dx |= 0xFFFF8000;
					int dmx = READ16LE(&OAM[7 + (rot << 4)]);
					if(dmx & 0x8000)
						dmx |= 0xFFFF8000;
					int dy = READ16LE(&OAM[11 + (rot << 4)]);
					if(dy & 0x8000)
						dy |= 0xFFFF8000;
					int dmy = READ16LE(&OAM[15 + (rot << 4)]);
					if(dmy & 0x8000)
						dmy |= 0xFFFF8000;

					int realX = ((sizeX) << 7) - (fieldX >> 1)*dx - (fieldY>>1)*dmx
						+ t * dmx;
					int realY = ((sizeY) << 7) - (fieldX >> 1)*dy - (fieldY>>1)*dmy
						+ t * dmy;

					int c = (a2 & 0x3FF);
					if(RENDERER_R_DISPCNT_Video_Mode > 2 && (c < 512))
						continue;

					int inc = 32;
					bool condition1 = a0 & 0x2000;

					if(RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x40)
						inc = sizeX >> 3;

					for(int x = 0; x < fieldX; x++)
					{
						bool cont = true;
						if (x >= startpix)
							lineOBJpix-=2;
						if (lineOBJpix<0)
							continue;
						int xxx = realX >> 8;
						int yyy = realY >> 8;

						if(xxx < 0 || xxx >= sizeX || yyy < 0 || yyy >= sizeY || sx >= 240)
							cont = false;

						if(cont)
						{
							u32 color;
							if(condition1)
								color = vram[0x10000 + ((((c + (yyy>>3) * inc)<<5)
											+ ((yyy & 7)<<3) + ((xxx >> 3)<<6) +
											(xxx & 7))&0x7fff)];
							else
							{
								color = vram[0x10000 + ((((c + (yyy>>3) * inc)<<5)
											+ ((yyy & 7)<<2) + ((xxx >> 3)<<5) +
											((xxx & 7)>>1))&0x7fff)];
								if(xxx & 1)
									color >>= 4;
								else
									color &= 0x0F;
							}

							if(color)
								RENDERER_LINE[Layer_WIN_OBJ][sx] = 1;
						}
						sx = (sx+1)&511;
						realX += dx;
						realY += dy;
					}
				}
			}
		}
		else
		{
			if((sy+sizeY) > 256)
				sy -= 256;
			int t = RENDERER_R_VCOUNT - sy;
			if((t >= 0) && (t < sizeY))
			{
				int sx = (a1 & 0x1FF);
				int startpix = 0;
				if ((sx+sizeX)> 512)
					startpix=512-sx;

				if((sx < 240) || startpix)
				{
					lineOBJpix+=2;
					if(a1 & 0x2000)
						t = sizeY - t - 1;
					int c = (a2 & 0x3FF);
					if(RENDERER_R_DISPCNT_Video_Mode > 2 && (c < 512))
						continue;
					if(a0 & 0x2000)
					{

						int inc = 32;
						if(RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x40)
							inc = sizeX >> 2;
						else
							c &= 0x3FE;

						int xxx = 0;
						if(a1 & 0x1000)
							xxx = sizeX-1;
						int address = 0x10000 + ((((c+ (t>>3) * inc) << 5)
									+ ((t & 7) << 3) + ((xxx>>3)<<6) + (xxx & 7))&0x7fff);
						if(a1 & 0x1000)
							xxx = 7;
						for(int xx = 0; xx < sizeX; xx++)
						{
							if (xx >= startpix)
								lineOBJpix--;
							if (lineOBJpix<0)
								continue;
							if(sx < 240)
							{
								u8 color = vram[address];
								if(color)
									RENDERER_LINE[Layer_WIN_OBJ][sx] = 1;
							}

							sx = (sx+1) & 511;
							if(a1 & 0x1000) {
								xxx--;
								address--;
								if(xxx == -1) {
									address -= 56;
									xxx = 7;
								}
								if(address < 0x10000)
									address += 0x8000;
							} else {
								xxx++;
								address++;
								if(xxx == 8) {
									address += 56;
									xxx = 0;
								}
								if(address > 0x17fff)
									address -= 0x8000;
							}
						}
					}
					else
					{
						int inc = 32;
						if(RENDERER_IO_REGISTERS[REG_DISPCNT] & 0x40)
							inc = sizeX >> 3;
						int xxx = 0;
						if(a1 & 0x1000)
							xxx = sizeX - 1;
						int address = 0x10000 + ((((c + (t>>3) * inc)<<5)
									+ ((t & 7)<<2) + ((xxx>>3)<<5) + ((xxx & 7) >> 1))&0x7fff);
						// u32 prio = (((a2 >> 10) & 3) << 25) | ((a0 & 0x0c00)<<6);
						// int palette = (a2 >> 8) & 0xF0;
						if(a1 & 0x1000)
						{
							xxx = 7;
							for(int xx = sizeX - 1; xx >= 0; xx--)
							{
								if (xx >= startpix)
									lineOBJpix--;
								if (lineOBJpix<0)
									continue;
								if(sx < 240)
								{
									u8 color = vram[address];
									if(xx & 1)
										color = (color >> 4);
									else
										color &= 0x0F;

									if(color)
										RENDERER_LINE[Layer_WIN_OBJ][sx] = 1;
								}
								sx = (sx+1) & 511;
								xxx--;
								if(!(xx & 1))
									address--;
								if(xxx == -1) {
									xxx = 7;
									address -= 28;
								}
								if(address < 0x10000)
									address += 0x8000;
							}
						}
						else
						{
							for(int xx = 0; xx < sizeX; xx++)
							{
								if (xx >= startpix)
									lineOBJpix--;
								if (lineOBJpix<0)
									continue;
								if(sx < 240)
								{
									u8 color = vram[address];
									if(xx & 1)
										color = (color >> 4);
									else
										color &= 0x0F;

									if(color)
										RENDERER_LINE[Layer_WIN_OBJ][sx] = 1;
								}
								sx = (sx+1) & 511;
								xxx++;
								if(xx & 1)
									address++;
								if(xxx == 8) {
									address += 28;
									xxx = 0;
								}
								if(address > 0x17fff)
									address -= 0x8000;
							}
						}
					}
				}
			}
		}
	}
}

/*============================================================
	GBA.CPP
============================================================ */
int saveType = 0;
bool useBios = false;
bool skipBios = false;
bool cpuIsMultiBoot = false;
int cpuSaveType = 0;
bool enableRtc = false;
bool mirroringEnable = false;
bool skipSaveGameBattery = false;

#ifdef USE_SWITICKS
int SWITicks = 0;
#endif

bool cpuSramEnabled = true;
bool cpuFlashEnabled = true;
bool cpuEEPROMEnabled = true;

#ifdef MSB_FIRST
bool cpuBiosSwapped = false;
#endif

uint32_t myROM[] = {
0xEA000006,
0xEA000093,
0xEA000006,
0x00000000,
0x00000000,
0x00000000,
0xEA000088,
0x00000000,
0xE3A00302,
0xE1A0F000,
0xE92D5800,
0xE55EC002,
0xE28FB03C,
0xE79BC10C,
0xE14FB000,
0xE92D0800,
0xE20BB080,
0xE38BB01F,
0xE129F00B,
0xE92D4004,
0xE1A0E00F,
0xE12FFF1C,
0xE8BD4004,
0xE3A0C0D3,
0xE129F00C,
0xE8BD0800,
0xE169F00B,
0xE8BD5800,
0xE1B0F00E,
0x0000009C,
0x0000009C,
0x0000009C,
0x0000009C,
0x000001F8,
0x000001F0,
0x000000AC,
0x000000A0,
0x000000FC,
0x00000168,
0xE12FFF1E,
0xE1A03000,
0xE1A00001,
0xE1A01003,
0xE2113102,
0x42611000,
0xE033C040,
0x22600000,
0xE1B02001,
0xE15200A0,
0x91A02082,
0x3AFFFFFC,
0xE1500002,
0xE0A33003,
0x20400002,
0xE1320001,
0x11A020A2,
0x1AFFFFF9,
0xE1A01000,
0xE1A00003,
0xE1B0C08C,
0x22600000,
0x42611000,
0xE12FFF1E,
0xE92D0010,
0xE1A0C000,
0xE3A01001,
0xE1500001,
0x81A000A0,
0x81A01081,
0x8AFFFFFB,
0xE1A0000C,
0xE1A04001,
0xE3A03000,
0xE1A02001,
0xE15200A0,
0x91A02082,
0x3AFFFFFC,
0xE1500002,
0xE0A33003,
0x20400002,
0xE1320001,
0x11A020A2,
0x1AFFFFF9,
0xE0811003,
0xE1B010A1,
0xE1510004,
0x3AFFFFEE,
0xE1A00004,
0xE8BD0010,
0xE12FFF1E,
0xE0010090,
0xE1A01741,
0xE2611000,
0xE3A030A9,
0xE0030391,
0xE1A03743,
0xE2833E39,
0xE0030391,
0xE1A03743,
0xE2833C09,
0xE283301C,
0xE0030391,
0xE1A03743,
0xE2833C0F,
0xE28330B6,
0xE0030391,
0xE1A03743,
0xE2833C16,
0xE28330AA,
0xE0030391,
0xE1A03743,
0xE2833A02,
0xE2833081,
0xE0030391,
0xE1A03743,
0xE2833C36,
0xE2833051,
0xE0030391,
0xE1A03743,
0xE2833CA2,
0xE28330F9,
0xE0000093,
0xE1A00840,
0xE12FFF1E,
0xE3A00001,
0xE3A01001,
0xE92D4010,
0xE3A03000,
0xE3A04001,
0xE3500000,
0x1B000004,
0xE5CC3301,
0xEB000002,
0x0AFFFFFC,
0xE8BD4010,
0xE12FFF1E,
0xE3A0C301,
0xE5CC3208,
0xE15C20B8,
0xE0110002,
0x10222000,
0x114C20B8,
0xE5CC4208,
0xE12FFF1E,
0xE92D500F,
0xE3A00301,
0xE1A0E00F,
0xE510F004,
0xE8BD500F,
0xE25EF004,
0xE59FD044,
0xE92D5000,
0xE14FC000,
0xE10FE000,
0xE92D5000,
0xE3A0C302,
0xE5DCE09C,
0xE35E00A5,
0x1A000004,
0x05DCE0B4,
0x021EE080,
0xE28FE004,
0x159FF018,
0x059FF018,
0xE59FD018,
0xE8BD5000,
0xE169F00C,
0xE8BD5000,
0xE25EF004,
0x03007FF0,
0x09FE2000,
0x09FFC000,
0x03007FE0
};

static variable_desc saveGameStruct[] = {
	{ &io_registers[REG_DISPCNT]  , sizeof(uint16_t) },
	{ &io_registers[REG_DISPSTAT] , sizeof(uint16_t) },
	{ &io_registers[REG_VCOUNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_BG0CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_BG1CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_BG2CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_BG3CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_BG0HOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG0VOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG1HOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG1VOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG2HOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG2VOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG3HOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG3VOFS]  , sizeof(uint16_t) },
	{ &io_registers[REG_BG2PA]    , sizeof(uint16_t) },
	{ &io_registers[REG_BG2PB]    , sizeof(uint16_t) },
	{ &io_registers[REG_BG2PC]    , sizeof(uint16_t) },
	{ &io_registers[REG_BG2PD]    , sizeof(uint16_t) },
	{ &BG2X_L   , sizeof(uint16_t) },
	{ &BG2X_H   , sizeof(uint16_t) },
	{ &BG2Y_L   , sizeof(uint16_t) },
	{ &BG2Y_H   , sizeof(uint16_t) },
	{ &io_registers[REG_BG3PA]    , sizeof(uint16_t) },
	{ &io_registers[REG_BG3PB]    , sizeof(uint16_t) },
	{ &io_registers[REG_BG3PC]    , sizeof(uint16_t) },
	{ &io_registers[REG_BG3PD]    , sizeof(uint16_t) },
	{ &BG3X_L   , sizeof(uint16_t) },
	{ &BG3X_H   , sizeof(uint16_t) },
	{ &BG3Y_L   , sizeof(uint16_t) },
	{ &BG3Y_H   , sizeof(uint16_t) },
	{ &io_registers[REG_WIN0H]    , sizeof(uint16_t) },
	{ &io_registers[REG_WIN1H]    , sizeof(uint16_t) },
	{ &io_registers[REG_WIN0V]    , sizeof(uint16_t) },
	{ &io_registers[REG_WIN1V]    , sizeof(uint16_t) },
	{ &io_registers[REG_WININ]    , sizeof(uint16_t) },
	{ &io_registers[REG_WINOUT]   , sizeof(uint16_t) },
	{ &MOSAIC   , sizeof(uint16_t) },
	{ &BLDMOD   , sizeof(uint16_t) },
	{ &COLEV    , sizeof(uint16_t) },
	{ &COLY     , sizeof(uint16_t) },
	{ &DM0SAD_L , sizeof(uint16_t) },
	{ &DM0SAD_H , sizeof(uint16_t) },
	{ &DM0DAD_L , sizeof(uint16_t) },
	{ &DM0DAD_H , sizeof(uint16_t) },
	{ &DM0CNT_L , sizeof(uint16_t) },
	{ &DM0CNT_H , sizeof(uint16_t) },
	{ &DM1SAD_L , sizeof(uint16_t) },
	{ &DM1SAD_H , sizeof(uint16_t) },
	{ &DM1DAD_L , sizeof(uint16_t) },
	{ &DM1DAD_H , sizeof(uint16_t) },
	{ &DM1CNT_L , sizeof(uint16_t) },
	{ &DM1CNT_H , sizeof(uint16_t) },
	{ &DM2SAD_L , sizeof(uint16_t) },
	{ &DM2SAD_H , sizeof(uint16_t) },
	{ &DM2DAD_L , sizeof(uint16_t) },
	{ &DM2DAD_H , sizeof(uint16_t) },
	{ &DM2CNT_L , sizeof(uint16_t) },
	{ &DM2CNT_H , sizeof(uint16_t) },
	{ &DM3SAD_L , sizeof(uint16_t) },
	{ &DM3SAD_H , sizeof(uint16_t) },
	{ &DM3DAD_L , sizeof(uint16_t) },
	{ &DM3DAD_H , sizeof(uint16_t) },
	{ &DM3CNT_L , sizeof(uint16_t) },
	{ &DM3CNT_H , sizeof(uint16_t) },
	{ &io_registers[REG_TM0D]     , sizeof(uint16_t) },
	{ &io_registers[REG_TM0CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_TM1D]     , sizeof(uint16_t) },
	{ &io_registers[REG_TM1CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_TM2D]     , sizeof(uint16_t) },
	{ &io_registers[REG_TM2CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_TM3D]     , sizeof(uint16_t) },
	{ &io_registers[REG_TM3CNT]   , sizeof(uint16_t) },
	{ &io_registers[REG_P1]       , sizeof(uint16_t) },
	{ &io_registers[REG_IE]       , sizeof(uint16_t) },
	{ &io_registers[REG_IF]       , sizeof(uint16_t) },
	{ &io_registers[REG_IME]      , sizeof(uint16_t) },
	{ &holdState, sizeof(bool) },
	{ &graphics.lcdTicks, sizeof(int) },
	{ &timer0On , sizeof(bool) },
	{ &timer0Ticks , sizeof(int) },
	{ &timer0Reload , sizeof(int) },
	{ &timer0ClockReload  , sizeof(int) },
	{ &timer1On , sizeof(bool) },
	{ &timer1Ticks , sizeof(int) },
	{ &timer1Reload , sizeof(int) },
	{ &timer1ClockReload  , sizeof(int) },
	{ &timer2On , sizeof(bool) },
	{ &timer2Ticks , sizeof(int) },
	{ &timer2Reload , sizeof(int) },
	{ &timer2ClockReload  , sizeof(int) },
	{ &timer3On , sizeof(bool) },
	{ &timer3Ticks , sizeof(int) },
	{ &timer3Reload , sizeof(int) },
	{ &timer3ClockReload  , sizeof(int) },
	{ &dma0Source , sizeof(uint32_t) },
	{ &dma0Dest , sizeof(uint32_t) },
	{ &dma1Source , sizeof(uint32_t) },
	{ &dma1Dest , sizeof(uint32_t) },
	{ &dma2Source , sizeof(uint32_t) },
	{ &dma2Dest , sizeof(uint32_t) },
	{ &dma3Source , sizeof(uint32_t) },
	{ &dma3Dest , sizeof(uint32_t) },
	{ &fxOn, sizeof(bool) },
	{ &windowOn, sizeof(bool) },
	{ &N_FLAG , sizeof(bool) },
	{ &C_FLAG , sizeof(bool) },
	{ &Z_FLAG , sizeof(bool) },
	{ &V_FLAG , sizeof(bool) },
	{ &armState , sizeof(bool) },
	{ &armIrqEnable , sizeof(bool) },
	{ &bus.armNextPC , sizeof(uint32_t) },
	{ &armMode , sizeof(int) },
	{ &saveType , sizeof(int) },
	{ NULL, 0 }
};

static INLINE int CPUUpdateTicks (void)
{
	int cpuLoopTicks = graphics.lcdTicks;

	if(soundTicks < cpuLoopTicks)
		cpuLoopTicks = soundTicks;

	if(timer0On && (timer0Ticks < cpuLoopTicks))
		cpuLoopTicks = timer0Ticks;

	if(timer1On && !(io_registers[REG_TM1CNT] & 4) && (timer1Ticks < cpuLoopTicks))
		cpuLoopTicks = timer1Ticks;

	if(timer2On && !(io_registers[REG_TM2CNT] & 4) && (timer2Ticks < cpuLoopTicks))
		cpuLoopTicks = timer2Ticks;

	if(timer3On && !(io_registers[REG_TM3CNT] & 4) && (timer3Ticks < cpuLoopTicks))
		cpuLoopTicks = timer3Ticks;

#ifdef USE_SWITICKS
	if (SWITicks)
	{
		if (SWITicks < cpuLoopTicks)
			cpuLoopTicks = SWITicks;
	}
#endif

	if (IRQTicks)
	{
		if (IRQTicks < cpuLoopTicks)
			cpuLoopTicks = IRQTicks;
	}

	return cpuLoopTicks;
}

#if THREADED_RENDERER

	#define CPUUpdateWindow0() \
	{ \
	  int x00_window0 = R_WIN_Window0_X1; \
	  int x01_window0 = R_WIN_Window0_X2; \
	  int x00_lte_x01 = x00_window0 <= x01_window0; \
	  for(int i = 0; i < 240; i++) \
		  gfxInWin[0][i] = ((i >= x00_window0 && i < x01_window0) & x00_lte_x01) | ((i >= x00_window0 || i < x01_window0) & ~x00_lte_x01); \
	  ++threaded_gfxinwin_ver[0]; \
	}

	#define CPUUpdateWindow1() \
	{ \
	  int x00_window1 = R_WIN_Window1_X1; \
	  int x01_window1 = R_WIN_Window1_X2; \
	  int x00_lte_x01 = x00_window1 <= x01_window1; \
	  for(int i = 0; i < 240; i++) \
	   gfxInWin[1][i] = ((i >= x00_window1 && i < x01_window1) & x00_lte_x01) | ((i >= x00_window1 || i < x01_window1) & ~x00_lte_x01); \
	  ++threaded_gfxinwin_ver[1]; \
	}

#else

	#define CPUUpdateWindow0() \
	{ \
	  int x00_window0 = R_WIN_Window0_X1; \
	  int x01_window0 = R_WIN_Window0_X2; \
	  int x00_lte_x01 = x00_window0 <= x01_window0; \
	  for(int i = 0; i < 240; i++) \
		  gfxInWin[0][i] = ((i >= x00_window0 && i < x01_window0) & x00_lte_x01) | ((i >= x00_window0 || i < x01_window0) & ~x00_lte_x01); \
	}

	#define CPUUpdateWindow1() \
	{ \
	  int x00_window1 = R_WIN_Window1_X1; \
	  int x01_window1 = R_WIN_Window1_X2; \
	  int x00_lte_x01 = x00_window1 <= x01_window1; \
	  for(int i = 0; i < 240; i++) \
	   gfxInWin[1][i] = ((i >= x00_window1 && i < x01_window1) & x00_lte_x01) | ((i >= x00_window1 || i < x01_window1) & ~x00_lte_x01); \
	}

#endif

#define CPUCompareVCOUNT() \
  if(R_VCOUNT == (io_registers[REG_DISPSTAT] >> 8)) \
  { \
    io_registers[REG_DISPSTAT] |= 4; \
    UPDATE_REG(0x04, io_registers[REG_DISPSTAT]); \
    if(io_registers[REG_DISPSTAT] & 0x20) \
    { \
      io_registers[REG_IF] |= 4; \
      UPDATE_REG(0x202, io_registers[REG_IF]); \
    } \
  } \
  else \
  { \
    io_registers[REG_DISPSTAT] &= 0xFFFB; \
    UPDATE_REG(0x4, io_registers[REG_DISPSTAT]); \
  } \
  if (graphics.layerEnableDelay > 0) \
  { \
      graphics.layerEnableDelay--; \
      if (graphics.layerEnableDelay == 1) \
          graphics.layerEnable = io_registers[REG_DISPCNT]; \
  }


unsigned CPUWriteState(uint8_t* data, unsigned size)
{
	uint8_t *orig = data;

	utilWriteIntMem(data, SAVE_GAME_VERSION);
	utilWriteMem(data, &rom[0xa0], 16);
	utilWriteIntMem(data, useBios);
	utilWriteMem(data, &bus.reg[0], sizeof(bus.reg));

	utilWriteDataMem(data, saveGameStruct);

	utilWriteIntMem(data, stopState);
	utilWriteIntMem(data, IRQTicks);

	utilWriteMem(data, internalRAM, 0x8000);
	utilWriteMem(data, paletteRAM, 0x400);
	utilWriteMem(data, workRAM, 0x40000);
	utilWriteMem(data, vram, 0x20000);
	utilWriteMem(data, oam, 0x400);
	utilWriteMem(data, pix, 4 * PIX_BUFFER_SCREEN_WIDTH * 160);
	utilWriteMem(data, ioMem, 0x400);

	eepromSaveGameMem(data);
	flashSaveGameMem(data);
	soundSaveGameMem(data);
	rtcSaveGameMem(data);

	return (ptrdiff_t)data - (ptrdiff_t)orig;
}

bool CPUWriteBatteryFile(const char *fileName)
{
	if(gbaSaveType == 0)
	{
		if(eepromInUse)
			gbaSaveType = 3;
		else
			switch(saveType)
			{
				case 1:
					gbaSaveType = 1;
					break;
				case 2:
					gbaSaveType = 2;
					break;
			}
	}

	if((gbaSaveType) && (gbaSaveType!=5))
	{
		FILE *file = fopen(fileName, "wb");

		if(!file) {
			systemMessage("Error creating file %s", fileName);
			return false;
		}

		// only save if Flash/Sram in use or EEprom in use
		if(gbaSaveType != 3) {
			if(gbaSaveType == 2) {
				if(fwrite(flashSaveMemory, 1, flashSize, file) != (size_t)flashSize) {
					fclose(file);
					return false;
				}
			} else {
				if(fwrite(flashSaveMemory, 1, 0x10000, file) != 0x10000) {
					fclose(file);
					return false;
				}
			}
		} else {
			if(fwrite(eepromData, 1, eepromSize, file) != (size_t)eepromSize) {
				fclose(file);
				return false;
			}
		}
		fclose(file);
	}
	return true;
}

bool CPUReadBatteryFile(const char *fileName)
{
	FILE *file = fopen(fileName, "rb");

	if(!file)
		return false;

	// check file size to know what we should read
	fseek(file, 0, SEEK_END);

	long size = ftell(file);
	fseek(file, 0, SEEK_SET);

	if(size == 512 || size == 0x2000) {
		if(fread(eepromData, 1, size, file) != (size_t)size) {
			fclose(file);
			return false;
		}
	} else {
		if(size == 0x20000) {
			if(fread(flashSaveMemory, 1, 0x20000, file) != 0x20000) {
				fclose(file);
				return false;
			}
			flashSetSize(0x20000);
		} else {
			if(fread(flashSaveMemory, 1, 0x10000, file) != 0x10000) {
				fclose(file);
				return false;
			}
			flashSetSize(0x10000);
		}
	}
	fclose(file);
	return true;
}

#ifdef HAVE_HLE_BIOS
static bool CPUIsGBABios(const char * file)
{
	if(strlen(file) > 4)
	{
		const char * p = strrchr(file,'.');

		if(p != NULL)
		{
			if(strcasecmp(p, ".gba") == 0)
				return true;
			if(strcasecmp(p, ".agb") == 0)
				return true;
			if(strcasecmp(p, ".bin") == 0)
				return true;
			if(strcasecmp(p, ".bios") == 0)
				return true;
			if(strcasecmp(p, ".rom") == 0)
				return true;
		}
	}

	return false;
}
#endif

#ifdef ELF
static bool CPUIsELF(const char *file)
{
	if(file == NULL)
		return false;

	if(strlen(file) > 4)
	{
		const char * p = strrchr(file,'.');

		if(p != NULL)
		{
			if(strcasecmp(p, ".elf") == 0)
				return true;
		}
	}
	return false;
}
#endif

void CPUCleanUp (void)
{
	if(rom != NULL) {
		memalign_free(rom);
		rom = NULL;
	}

	if(vram != NULL) {
		memalign_free(vram);
		vram = NULL;
	}

	if(paletteRAM != NULL) {
		memalign_free(paletteRAM);
		paletteRAM = NULL;
	}

	if(internalRAM != NULL) {
		memalign_free(internalRAM);
		internalRAM = NULL;
	}

	if(workRAM != NULL) {
		memalign_free(workRAM);
		workRAM = NULL;
	}

	if(bios != NULL) {
		memalign_free(bios);
		bios = NULL;
	}

	if(pix != NULL) {
		memalign_free(pix);
		pix = NULL;
	}

	if(oam != NULL) {
		memalign_free(oam);
		oam = NULL;
	}

	if(ioMem != NULL) {
		memalign_free(ioMem);
		ioMem = NULL;
	}

}

bool CPUSetupBuffers()
{
	romSize = 0x2000000;
	if(rom != NULL)
		CPUCleanUp();

	//systemSaveUpdateCounter = SYSTEM_SAVE_NOT_UPDATED;

	rom = (uint8_t *)memalign_alloc_aligned(0x2000000);
	workRAM = (uint8_t *)memalign_alloc_aligned(0x40000);
	bios = (uint8_t *)memalign_alloc_aligned(0x4000);
	internalRAM = (uint8_t *)memalign_alloc_aligned(0x8000);
	paletteRAM = (uint8_t *)memalign_alloc_aligned(0x400);
	vram = (uint8_t *)memalign_alloc_aligned(0x20000);
	oam = (uint8_t *)memalign_alloc_aligned(0x400);
	pix = (uint16_t *)memalign_alloc_aligned(4 * PIX_BUFFER_SCREEN_WIDTH * 160);
	ioMem = (uint8_t *)memalign_alloc_aligned(0x400);

	memset(rom, 0, 0x2000000);
	memset(workRAM, 1, 0x40000);
	memset(bios, 1, 0x4000);
	memset(internalRAM, 1, 0x8000);
	memset(paletteRAM, 1, 0x400);
	memset(vram, 1, 0x20000);
	memset(oam, 1, 0x400);
	memset(pix, 1, 4 * PIX_BUFFER_SCREEN_WIDTH * 160);
	memset(ioMem, 1, 0x400);

	if(rom == NULL || workRAM == NULL || bios == NULL ||
	   internalRAM == NULL || paletteRAM == NULL ||
	   vram == NULL || oam == NULL || pix == NULL || ioMem == NULL) {
		CPUCleanUp();
		return false;
	}

	flashInit();
	eepromInit();

	//CPUUpdateRenderBuffers(true);
#if !THREADED_RENDERER
	memset(line[Layer_BG0], -1, 240 * sizeof(u32));
	memset(line[Layer_BG1], -1, 240 * sizeof(u32));
	memset(line[Layer_BG2], -1, 240 * sizeof(u32));
	memset(line[Layer_BG3], -1, 240 * sizeof(u32));
#endif

	return true;
}

static void applyCartridgeOverride(char* code) {
#if USE_MOTION_SENSOR
	hardware.sensor = HARDWARE_SENSOR_NONE;

	do {
		// Koro Koro Puzzle - Happy Panechu!
		if(memcmp(code, "KHPJ", 4) == 0) {
			hardware.sensor = HARDWARE_SENSOR_TILT;
			break;
		}

		// Yoshi's Universal Gravitation
		if(memcmp(code, "KYGJ", 4) == 0 || memcmp(code, "KYGE", 4) == 0 || memcmp(code, "KYGP", 4) == 0) {
			hardware.sensor = HARDWARE_SENSOR_TILT;
			break;
		}

		// Wario Ware Twisted
		if(memcmp(code, "RZWJ", 4) == 0 || memcmp(code, "RZWE", 4) == 0 || memcmp(code, "RZWP", 4) == 0) {
			hardware.sensor = HARDWARE_SENSOR_GYRO;
			break;
		}
	} while(0);

	systemSetSensorState(hardware.sensor);

	if(hardware.sensor) {
		hardware.tilt_x = 0xFFF;
		hardware.tilt_y = 0xFFF;
	}

	//if(hardware.sensor) while(1);
#endif
}

int CPULoadRom(const char * file)
{
	if (!CPUSetupBuffers()) return 0;

	uint8_t *whereToLoad = cpuIsMultiBoot ? workRAM : rom;

	if(file != NULL)
	{
		if(!utilLoad(file,
					utilIsGBAImage,
					whereToLoad,
					romSize)) {
			memalign_free(rom);
			rom = NULL;
			memalign_free(workRAM);
			workRAM = NULL;
			return 0;
		}
	}

	//load cartridge code
	memcpy(cartridgeCode, whereToLoad + 0xAC, 4);
	applyCartridgeOverride(cartridgeCode);

	uint16_t *temp = (uint16_t *)(rom+((romSize+1)&~1));
	int i;

	for(i = (romSize+1)&~1; i < 0x2000000; i+=2) {
		WRITE16LE(temp, (i >> 1) & 0xFFFF);
		temp++;
	}

	return romSize;
}

int CPULoadRomData(const char *data, int size)
{
	if (!CPUSetupBuffers()) return 0;

	uint8_t *whereToLoad = cpuIsMultiBoot ? workRAM : rom;

	romSize = size % 2 == 0 ? size : size + 1;
	memcpy(whereToLoad, data, size);

	//load cartridge code
	memcpy(cartridgeCode, whereToLoad + 0xAC, 4);
	applyCartridgeOverride(cartridgeCode);

	uint16_t *temp = (u16 *)(rom+((romSize+1)&~1));
	int i;

	for(i = (romSize+1)&~1; i < 0x2000000; i+=2) {
		WRITE16LE(temp, (i >> 1) & 0xFFFF);
		temp++;
	}

	return romSize;
}

void doMirroring (bool b)
{
	uint32_t mirroredRomSize = (((romSize)>>20) & 0x3F)<<20;
	uint32_t mirroredRomAddress = romSize;
	if ((mirroredRomSize <=0x800000) && (b))
	{
		mirroredRomAddress = mirroredRomSize;
		if (mirroredRomSize==0)
			mirroredRomSize=0x100000;
		while (mirroredRomAddress<0x01000000)
		{
			memcpy((uint16_t *)(rom+mirroredRomAddress), (uint16_t *)(rom), mirroredRomSize);
			mirroredRomAddress+=mirroredRomSize;
		}
	}
}

#if THREADED_RENDERER
void ThreadedRendererStart() {
	for(int u = 0; u < THREADED_RENDERER_COUNT; ++u) {
		init_renderer_context(threaded_renderer_contexts[u]);
		threaded_renderer_contexts[u].renderer_control = 1;

		threaded_renderer_contexts[u].renderer_thread_id =
			thread_run((u == 0) ? threaded_renderer_loop0 : threaded_renderer_loop, reinterpret_cast<void*>(intptr_t(u)),
#if VITA
				(u == 0) ? THREAD_PRIORITY_NORMAL : THREAD_PRIORITY_LOW);
#else
				THREAD_PRIORITY_NORMAL);
#endif
	}
}

void ThreadedRendererStop() {
	for(int u = 0; u < THREADED_RENDERER_COUNT; ++u) {
		threaded_renderer_contexts[u].renderer_control = 2;
	}
_join:;
	for(int u = 0; u < THREADED_RENDERER_COUNT; ++u) {
		if(threaded_renderer_contexts[u].renderer_control == 2) goto _join;
	}
}
#endif

/* we only use 16bit color depth */
#if THREADED_RENDERER
	#define GET_LINE_MIX (pix + PIX_BUFFER_SCREEN_WIDTH * RENDERER_R_VCOUNT)
#else
	#define GET_LINE_MIX (pix + PIX_BUFFER_SCREEN_WIDTH * R_VCOUNT)
#endif

template<int renderer_idx>
static void mode0RenderLine (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE0
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 0: Render Line\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG0) {
		gfxDrawTextScreen<Layer_BG0, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG0CNT], RENDERER_IO_REGISTERS[REG_BG0HOFS], RENDERER_IO_REGISTERS[REG_BG0VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG1) {
		gfxDrawTextScreen<Layer_BG1, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG1CNT], RENDERER_IO_REGISTERS[REG_BG1HOFS], RENDERER_IO_REGISTERS[REG_BG1VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawTextScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_IO_REGISTERS[REG_BG2HOFS], RENDERER_IO_REGISTERS[REG_BG2VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG3) {
		gfxDrawTextScreen<Layer_BG3, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG3CNT], RENDERER_IO_REGISTERS[REG_BG3HOFS], RENDERER_IO_REGISTERS[REG_BG3VOFS]);
	}

	for(int x = 0; x < 240; x++)
	{
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG0][x] < color) {
			color = RENDERER_LINE[Layer_BG0][x];
			top = SpecialEffectTarget_BG0;
		}

		if((uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_BG1][x];
			top = SpecialEffectTarget_BG1;
		}

		if((uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_BG3][x];
			top = SpecialEffectTarget_BG3;
		}

		if((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;

			if(color & 0x00010000) {
				// semi-transparent OBJ
				uint32_t back = backdrop;
				uint8_t top2 = SpecialEffectTarget_BD;

				if((uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24) < (uint8_t)(back >> 24)) {
					back = RENDERER_LINE[Layer_BG0][x];
					top2 = SpecialEffectTarget_BG0;
				}

				if((uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(back >> 24)) {
					back = RENDERER_LINE[Layer_BG1][x];
					top2 = SpecialEffectTarget_BG1;
				}

				if((uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(back >> 24)) {
					back = RENDERER_LINE[Layer_BG2][x];
					top2 = SpecialEffectTarget_BG2;
				}

				if((uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(back >> 24)) {
					back = RENDERER_LINE[Layer_BG3][x];
					top2 = SpecialEffectTarget_BG3;
				}

				alpha_blend_brightness_switch();
			}
		}


		lineMix[x] = CONVERT_COLOR(color);
	}
}

template<int renderer_idx>
static void mode0RenderLineNoWindow (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE0
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 0: Render Line No Window\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG0) {
		gfxDrawTextScreen<Layer_BG0, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG0CNT], RENDERER_IO_REGISTERS[REG_BG0HOFS], RENDERER_IO_REGISTERS[REG_BG0VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG1) {
		gfxDrawTextScreen<Layer_BG1, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG1CNT], RENDERER_IO_REGISTERS[REG_BG1HOFS], RENDERER_IO_REGISTERS[REG_BG1VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawTextScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_IO_REGISTERS[REG_BG2HOFS], RENDERER_IO_REGISTERS[REG_BG2VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG3) {
		gfxDrawTextScreen<Layer_BG3, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG3CNT], RENDERER_IO_REGISTERS[REG_BG3HOFS], RENDERER_IO_REGISTERS[REG_BG3VOFS]);
	}

	for(int x = 0; x < 240; x++) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG0][x] < color) {
			color = RENDERER_LINE[Layer_BG0][x];
			top = SpecialEffectTarget_BG0;
		}

		if(RENDERER_LINE[Layer_BG1][x] < (color & 0xFF000000)) {
			color = RENDERER_LINE[Layer_BG1][x];
			top = SpecialEffectTarget_BG1;
		}

		if(RENDERER_LINE[Layer_BG2][x] < (color & 0xFF000000)) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if(RENDERER_LINE[Layer_BG3][x] < (color & 0xFF000000)) {
			color = RENDERER_LINE[Layer_BG3][x];
			top = SpecialEffectTarget_BG3;
		}

		if(RENDERER_LINE[Layer_OBJ][x] < (color & 0xFF000000)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(!(color & 0x00010000)) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;
						if((RENDERER_LINE[Layer_BG0][x] < back) && (top != SpecialEffectTarget_BG0))
						{
							back = RENDERER_LINE[Layer_BG0][x];
							top2 = SpecialEffectTarget_BG0;
						}

						if((RENDERER_LINE[Layer_BG1][x] < (back & 0xFF000000)) && (top != SpecialEffectTarget_BG1))
						{
							back = RENDERER_LINE[Layer_BG1][x];
							top2 = SpecialEffectTarget_BG1;
						}

						if((RENDERER_LINE[Layer_BG2][x] < (back & 0xFF000000)) && (top != SpecialEffectTarget_BG2))
						{
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((RENDERER_LINE[Layer_BG3][x] < (back & 0xFF000000)) && (top != SpecialEffectTarget_BG3))
						{
							back = RENDERER_LINE[Layer_BG3][x];
							top2 = SpecialEffectTarget_BG3;
						}

						if((RENDERER_LINE[Layer_OBJ][x] < (back & 0xFF000000)) && (top != SpecialEffectTarget_OBJ))
						{
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}

					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		} else {
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			if(RENDERER_LINE[Layer_BG0][x] < back) {
				back = RENDERER_LINE[Layer_BG0][x];
				top2 = SpecialEffectTarget_BG0;
			}

			if(RENDERER_LINE[Layer_BG1][x] < (back & 0xFF000000)) {
				back = RENDERER_LINE[Layer_BG1][x];
				top2 = SpecialEffectTarget_BG1;
			}

			if(RENDERER_LINE[Layer_BG2][x] < (back & 0xFF000000)) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			if(RENDERER_LINE[Layer_BG3][x] < (back & 0xFF000000)) {
				back = RENDERER_LINE[Layer_BG3][x];
				top2 = SpecialEffectTarget_BG3;
			}

			alpha_blend_brightness_switch();
		}

		lineMix[x] = CONVERT_COLOR(color);
	}
}

template<int renderer_idx>
static void mode0RenderLineAll (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE0
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 0: Render Line All\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	bool inWindow0 = false;
	bool inWindow1 = false;

	if(RENDERER_R_DISPCNT_Window_0_Display) {
		uint8_t v0 = RENDERER_R_WIN_Window0_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window0_Y2;
		inWindow0 = ((v0 == v1) && (v0 >= 0xe8));
		if(v1 >= v0)
			inWindow0 |= (RENDERER_R_VCOUNT >= v0 && RENDERER_R_VCOUNT < v1);
		else
			inWindow0 |= (RENDERER_R_VCOUNT >= v0 || RENDERER_R_VCOUNT < v1);
	}
	if(RENDERER_R_DISPCNT_Window_1_Display) {
		uint8_t v0 = RENDERER_R_WIN_Window1_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window1_Y2;
		inWindow1 = ((v0 == v1) && (v0 >= 0xe8));
		if(v1 >= v0)
			inWindow1 |= (RENDERER_R_VCOUNT >= v0 && RENDERER_R_VCOUNT < v1);
		else
			inWindow1 |= (RENDERER_R_VCOUNT >= v0 || RENDERER_R_VCOUNT < v1);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG0) {
		gfxDrawTextScreen<Layer_BG0, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG0CNT], RENDERER_IO_REGISTERS[REG_BG0HOFS], RENDERER_IO_REGISTERS[REG_BG0VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG1) {
		gfxDrawTextScreen<Layer_BG1, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG1CNT], RENDERER_IO_REGISTERS[REG_BG1HOFS], RENDERER_IO_REGISTERS[REG_BG1VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawTextScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_IO_REGISTERS[REG_BG2HOFS], RENDERER_IO_REGISTERS[REG_BG2VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG3) {
		gfxDrawTextScreen<Layer_BG3, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG3CNT], RENDERER_IO_REGISTERS[REG_BG3HOFS], RENDERER_IO_REGISTERS[REG_BG3VOFS]);
	}

	uint8_t inWin0Mask = RENDERER_R_WIN_Window0_Mask;
	uint8_t inWin1Mask = RENDERER_R_WIN_Window1_Mask;
	uint8_t outMask = RENDERER_R_WIN_Outside_Mask;

	for(int x = 0; x < 240; x++) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;
		uint8_t mask = outMask;

		if(!(RENDERER_LINE[Layer_WIN_OBJ][x] & 0x80000000)) {
			mask = RENDERER_R_WIN_OBJ_Mask;
		}

		mask = SELECT(inWindow1 && RENDERER_GFX_IN_WIN[1][x], inWin1Mask, mask);
		mask = SELECT(inWindow0 && RENDERER_GFX_IN_WIN[0][x], inWin0Mask, mask);

		if((mask & LayerMask_BG0) && (RENDERER_LINE[Layer_BG0][x] < color)) {
			color = RENDERER_LINE[Layer_BG0][x];
			top = SpecialEffectTarget_BG0;
		}

		if((mask & LayerMask_BG1) && ((uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(color >> 24))) {
			color = RENDERER_LINE[Layer_BG1][x];
			top = SpecialEffectTarget_BG1;
		}

		if((mask & LayerMask_BG2) && ((uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(color >> 24))) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((mask & LayerMask_BG3) && ((uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(color >> 24))) {
			color = RENDERER_LINE[Layer_BG3][x];
			top = SpecialEffectTarget_BG3;
		}

		if((mask & LayerMask_OBJ) && ((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >> 24))) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(color & 0x00010000)
		{
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			if((mask & LayerMask_BG0) && ((uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24) < (uint8_t)(back >> 24))) {
				back = RENDERER_LINE[Layer_BG0][x];
				top2 = SpecialEffectTarget_BG0;
			}

			if((mask & LayerMask_BG1) && ((uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(back >> 24))) {
				back = RENDERER_LINE[Layer_BG1][x];
				top2 = SpecialEffectTarget_BG1;
			}

			if((mask & LayerMask_BG2) && ((uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(back >> 24))) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			if((mask & LayerMask_BG3) && ((uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(back >> 24))) {
				back = RENDERER_LINE[Layer_BG3][x];
				top2 = SpecialEffectTarget_BG3;
			}

			alpha_blend_brightness_switch();
		}
		else if((mask & LayerMask_SFX) && (RENDERER_R_BLDCNT_IsTarget1(top)))
		{
			// special FX on in the window
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;
						if(((mask & LayerMask_BG0) && (uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24) < (uint8_t)(back >> 24)) && top != SpecialEffectTarget_BG0)
						{
							back = RENDERER_LINE[Layer_BG0][x];
							top2 = SpecialEffectTarget_BG0;
						}

						if(((mask & LayerMask_BG1) && (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(back >> 24)) && top != SpecialEffectTarget_BG1)
						{
							back = RENDERER_LINE[Layer_BG1][x];
							top2 = SpecialEffectTarget_BG1;
						}

						if(((mask & LayerMask_BG2) && (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(back >> 24)) && top != SpecialEffectTarget_BG2)
						{
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if(((mask & LayerMask_BG3) && (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(back >> 24)) && top != SpecialEffectTarget_BG3)
						{
							back = RENDERER_LINE[Layer_BG3][x];
							top2 = SpecialEffectTarget_BG3;
						}

						if(((mask & LayerMask_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) && top != SpecialEffectTarget_OBJ) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}
}

/*
Mode 1 is a tiled graphics mode, but with background layer 2 supporting scaling and rotation.
There is no layer 3 in this mode.
Layers 0 and 1 can be either 16 colours (with 16 different palettes) or 256 colours.
There are 1024 tiles available.
Layer 2 is 256 colours and allows only 256 tiles.

These routines only render a single line at a time, because of the way the GBA does events.
*/

template<int renderer_idx>
static void mode1RenderLine (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE1
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 1: Render Line\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG0) {
		gfxDrawTextScreen<Layer_BG0, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG0CNT], RENDERER_IO_REGISTERS[REG_BG0HOFS], RENDERER_IO_REGISTERS[REG_BG0VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG1) {
		gfxDrawTextScreen<Layer_BG1, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG1CNT], RENDERER_IO_REGISTERS[REG_BG1HOFS], RENDERER_IO_REGISTERS[REG_BG1VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_BG2X_L, RENDERER_BG2X_H, RENDERER_BG2Y_L, RENDERER_BG2Y_H,
				RENDERER_IO_REGISTERS[REG_BG2PA], RENDERER_IO_REGISTERS[REG_BG2PB], RENDERER_IO_REGISTERS[REG_BG2PC], RENDERER_IO_REGISTERS[REG_BG2PD],
				RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(uint32_t x = 0; x < 240u; ++x) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		uint8_t li1 = (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24);
		uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);
		uint8_t li4 = (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24);

		uint8_t r = 	(li2 < li1) ? (li2) : (li1);

		if(li4 < r){
			r = 	(li4);
		}

		if(RENDERER_LINE[Layer_BG0][x] < backdrop) {
			color = RENDERER_LINE[Layer_BG0][x];
			top = SpecialEffectTarget_BG0;
		}

		if(r < (uint8_t)(color >> 24)) {
			if(r == li1){
				color = RENDERER_LINE[Layer_BG1][x];
				top = SpecialEffectTarget_BG1;
			}else if(r == li2){
				color = RENDERER_LINE[Layer_BG2][x];
				top = SpecialEffectTarget_BG2;
			}else if(r == li4){
				color = RENDERER_LINE[Layer_OBJ][x];
				top = SpecialEffectTarget_OBJ;
				if((color & 0x00010000))
				{
					// semi-transparent OBJ
					uint32_t back = backdrop;
					uint8_t top2 = SpecialEffectTarget_BD;

					uint8_t li0 = (uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24);
					uint8_t li1 = (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24);
					uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);
					uint8_t r = 	(li1 < li0) ? (li1) : (li0);

					if(li2 < r) {
						r =  (li2);
					}

					if(r < (uint8_t)(back >> 24)) {
						if(r == li0){
							back = RENDERER_LINE[Layer_BG0][x];
							top2 = SpecialEffectTarget_BG0;
						}else if(r == li1){
							back = RENDERER_LINE[Layer_BG1][x];
							top2 = SpecialEffectTarget_BG1;
						}else if(r == li2){
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}
					}

					alpha_blend_brightness_switch();
				}
			}
		}


		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode1RenderLineNoWindow (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE1
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 1: Render Line No Window\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG0) {
		gfxDrawTextScreen<Layer_BG0, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG0CNT], RENDERER_IO_REGISTERS[REG_BG0HOFS], RENDERER_IO_REGISTERS[REG_BG0VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG1) {
		gfxDrawTextScreen<Layer_BG1, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG1CNT], RENDERER_IO_REGISTERS[REG_BG1HOFS], RENDERER_IO_REGISTERS[REG_BG1VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_BG2X_L, RENDERER_BG2X_H, RENDERER_BG2Y_L, RENDERER_BG2Y_H,
				RENDERER_IO_REGISTERS[REG_BG2PA], RENDERER_IO_REGISTERS[REG_BG2PB], RENDERER_IO_REGISTERS[REG_BG2PC], RENDERER_IO_REGISTERS[REG_BG2PD],
				RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(int x = 0; x < 240; ++x) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		uint8_t li1 = (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24);
		uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);
		uint8_t li4 = (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24);

		uint8_t r = 	(li2 < li1) ? (li2) : (li1);

		if(li4 < r){
			r = 	(li4);
		}

		if(RENDERER_LINE[Layer_BG0][x] < backdrop) {
			color = RENDERER_LINE[Layer_BG0][x];
			top = SpecialEffectTarget_BG0;
		}

		if(r < (uint8_t)(color >> 24)) {
			if(r == li1){
				color = RENDERER_LINE[Layer_BG1][x];
				top = SpecialEffectTarget_BG1;
			}else if(r == li2){
				color = RENDERER_LINE[Layer_BG2][x];
				top = SpecialEffectTarget_BG2;
			}else if(r == li4){
				color = RENDERER_LINE[Layer_OBJ][x];
				top = SpecialEffectTarget_OBJ;
			}
		}

		if(!(color & 0x00010000)) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((top != SpecialEffectTarget_BG0) && (uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG0][x];
							top2 = SpecialEffectTarget_BG0;
						}

						if((top != SpecialEffectTarget_BG1) && (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG1][x];
							top2 = SpecialEffectTarget_BG1;
						}

						if((top != SpecialEffectTarget_BG2) && (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		} else {
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			uint8_t li0 = (uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24);
			uint8_t li1 = (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24);
			uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);

			uint8_t r = 	(li1 < li0) ? (li1) : (li0);

			if(li2 < r) {
				r =  (li2);
			}

			if(r < (uint8_t)(back >> 24))
			{
				if(r == li0)
				{
					back = RENDERER_LINE[Layer_BG0][x];
					top2 = SpecialEffectTarget_BG0;
				}
				else if(r == li1)
				{
					back = RENDERER_LINE[Layer_BG1][x];
					top2 = SpecialEffectTarget_BG1;
				}
				else if(r == li2)
				{
					back = RENDERER_LINE[Layer_BG2][x];
					top2 = SpecialEffectTarget_BG2;
				}
			}

			alpha_blend_brightness_switch();
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode1RenderLineAll (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE1
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 1: Render Line All\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	bool inWindow0 = false;
	bool inWindow1 = false;

	if(RENDERER_R_DISPCNT_Window_0_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window0_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window0_Y2;
		inWindow0 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}
	if(RENDERER_R_DISPCNT_Window_1_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window1_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window1_Y2;
		inWindow1 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG0) {
		gfxDrawTextScreen<Layer_BG0, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG0CNT], RENDERER_IO_REGISTERS[REG_BG0HOFS], RENDERER_IO_REGISTERS[REG_BG0VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG1) {
		gfxDrawTextScreen<Layer_BG1, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG1CNT], RENDERER_IO_REGISTERS[REG_BG1HOFS], RENDERER_IO_REGISTERS[REG_BG1VOFS]);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_BG2X_L, RENDERER_BG2X_H, RENDERER_BG2Y_L, RENDERER_BG2Y_H,
				RENDERER_IO_REGISTERS[REG_BG2PA], RENDERER_IO_REGISTERS[REG_BG2PB], RENDERER_IO_REGISTERS[REG_BG2PC], RENDERER_IO_REGISTERS[REG_BG2PD],
				RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	uint8_t inWin0Mask = RENDERER_R_WIN_Window0_Mask;
	uint8_t inWin1Mask = RENDERER_R_WIN_Window1_Mask;
	uint8_t outMask = RENDERER_R_WIN_Outside_Mask;

	for(int x = 0; x < 240; ++x) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;
		uint8_t mask = outMask;

		if(!(RENDERER_LINE[Layer_WIN_OBJ][x] & 0x80000000)) {
			mask = RENDERER_R_WIN_OBJ_Mask;
		}

		mask = SELECT(inWindow1 && RENDERER_GFX_IN_WIN[1][x], inWin1Mask, mask);
		mask = SELECT(inWindow0 && RENDERER_GFX_IN_WIN[0][x], inWin0Mask, mask);

		// At the very least, move the inexpensive 'mask' operation up front
		if((mask & LayerMask_BG0) && RENDERER_LINE[Layer_BG0][x] < backdrop) {
			color = RENDERER_LINE[Layer_BG0][x];
			top = SpecialEffectTarget_BG0;
		}

		if((mask & LayerMask_BG1) && (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_BG1][x];
			top = SpecialEffectTarget_BG1;
		}

		if((mask & LayerMask_BG2) && (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((mask & LayerMask_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(color & 0x00010000) {
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			if((mask & LayerMask_BG0) && (uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24) < (uint8_t)(backdrop >> 24)) {
				back = RENDERER_LINE[Layer_BG0][x];
				top2 = SpecialEffectTarget_BG0;
			}

			if((mask & LayerMask_BG1) && (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(back >> 24)) {
				back = RENDERER_LINE[Layer_BG1][x];
				top2 = SpecialEffectTarget_BG1;
			}

			if((mask & LayerMask_BG2) && (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(back >> 24)) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			alpha_blend_brightness_switch();
		} else if(mask & LayerMask_SFX) {
			// special FX on the window
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((mask & LayerMask_BG0) && (top != SpecialEffectTarget_BG0) && (uint8_t)(RENDERER_LINE[Layer_BG0][x]>>24) < (uint8_t)(backdrop >> 24)) {
							back = RENDERER_LINE[Layer_BG0][x];
							top2 = SpecialEffectTarget_BG0;
						}

						if((mask & LayerMask_BG1) && (top != SpecialEffectTarget_BG1) && (uint8_t)(RENDERER_LINE[Layer_BG1][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG1][x];
							top2 = SpecialEffectTarget_BG1;
						}

						if((mask & LayerMask_BG2) && (top != SpecialEffectTarget_BG2) && (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((mask & LayerMask_OBJ) && (top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

/*
Mode 2 is a 256 colour tiled graphics mode which supports scaling and rotation.
There is no background layer 0 or 1 in this mode. Only background layers 2 and 3.
There are 256 tiles available.
It does not support flipping.

These routines only render a single line at a time, because of the way the GBA does events.
*/

template<int renderer_idx>
static void mode2RenderLine (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE2
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 2: Render Line\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_BG2X_L, RENDERER_BG2X_H, RENDERER_BG2Y_L, RENDERER_BG2Y_H,
				RENDERER_IO_REGISTERS[REG_BG2PA], RENDERER_IO_REGISTERS[REG_BG2PB], RENDERER_IO_REGISTERS[REG_BG2PC], RENDERER_IO_REGISTERS[REG_BG2PD],
				RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG3) {
		gfxDrawRotScreen<Layer_BG3, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG3CNT], RENDERER_BG3X_L, RENDERER_BG3X_H, RENDERER_BG3Y_L, RENDERER_BG3Y_H,
				RENDERER_IO_REGISTERS[REG_BG3PA], RENDERER_IO_REGISTERS[REG_BG3PB], RENDERER_IO_REGISTERS[REG_BG3PC], RENDERER_IO_REGISTERS[REG_BG3PD],
				RENDERER_BG3X, RENDERER_BG3Y, RENDERER_BG3C);
	}

	for(int x = 0; x < 240; ++x) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);
		uint8_t li3 = (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24);
		uint8_t li4 = (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24);

		uint8_t r = 	(li3 < li2) ? (li3) : (li2);

		if(li4 < r){
			r = 	(li4);
		}

		if(r < (uint8_t)(color >> 24)) {
			if(r == li2){
				color = RENDERER_LINE[Layer_BG2][x];
				top = SpecialEffectTarget_BG2;
			}else if(r == li3){
				color = RENDERER_LINE[Layer_BG3][x];
				top = SpecialEffectTarget_BG3;
			}else if(r == li4){
				color = RENDERER_LINE[Layer_OBJ][x];
				top = SpecialEffectTarget_OBJ;

				if(color & 0x00010000) {
					// semi-transparent OBJ
					uint32_t back = backdrop;
					uint8_t top2 = SpecialEffectTarget_BD;

					uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);
					uint8_t li3 = (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24);
					uint8_t r = 	(li3 < li2) ? (li3) : (li2);

					if(r < (uint8_t)(back >> 24)) {
						if(r == li2){
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}else if(r == li3){
							back = RENDERER_LINE[Layer_BG3][x];
							top2 = SpecialEffectTarget_BG3;
						}
					}

					alpha_blend_brightness_switch();
				}
			}
		}


		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
	RENDERER_BG3C = 0;
#endif
}

template<int renderer_idx>
static void mode2RenderLineNoWindow (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE2
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 2: Render Line No Window\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_BG2X_L, RENDERER_BG2X_H, RENDERER_BG2Y_L, RENDERER_BG2Y_H,
				RENDERER_IO_REGISTERS[REG_BG2PA], RENDERER_IO_REGISTERS[REG_BG2PB], RENDERER_IO_REGISTERS[REG_BG2PC], RENDERER_IO_REGISTERS[REG_BG2PD],
				RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG3) {
		gfxDrawRotScreen<Layer_BG3, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG3CNT], RENDERER_BG3X_L, RENDERER_BG3X_H, RENDERER_BG3Y_L, RENDERER_BG3Y_H,
				RENDERER_IO_REGISTERS[REG_BG3PA], RENDERER_IO_REGISTERS[REG_BG3PB], RENDERER_IO_REGISTERS[REG_BG3PC], RENDERER_IO_REGISTERS[REG_BG3PD],
				RENDERER_BG3X, RENDERER_BG3Y, RENDERER_BG3C);
	}

	for(int x = 0; x < 240; ++x) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);
		uint8_t li3 = (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24);
		uint8_t li4 = (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24);

		uint8_t r = 	(li3 < li2) ? (li3) : (li2);

		if(li4 < r){
			r = 	(li4);
		}

		if(r < (uint8_t)(color >> 24)) {
			if(r == li2){
				color = RENDERER_LINE[Layer_BG2][x];
				top = SpecialEffectTarget_BG2;
			}else if(r == li3){
				color = RENDERER_LINE[Layer_BG3][x];
				top = SpecialEffectTarget_BG3;
			}else if(r == li4){
				color = RENDERER_LINE[Layer_OBJ][x];
				top = SpecialEffectTarget_OBJ;
			}
		}

		if(!(color & 0x00010000)) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((top != SpecialEffectTarget_BG2) && (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((top != SpecialEffectTarget_BG3) && (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG3][x];
							top2 = SpecialEffectTarget_BG3;
						}

						if((top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		} else {
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			uint8_t li2 = (uint8_t)(RENDERER_LINE[Layer_BG2][x]>>24);
			uint8_t li3 = (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24);
			uint8_t r = 	(li3 < li2) ? (li3) : (li2);

			if(r < (uint8_t)(back >> 24)) {
				if(r == li2){
					back = RENDERER_LINE[Layer_BG2][x];
					top2 = SpecialEffectTarget_BG2;
				}else if(r == li3){
					back = RENDERER_LINE[Layer_BG3][x];
					top2 = SpecialEffectTarget_BG3;
				}
			}

			alpha_blend_brightness_switch();
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
	RENDERER_BG3C = 0;
#endif
}

template<int renderer_idx>
static void mode2RenderLineAll (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE2
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 2: Render Line All\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;

	uint32_t backdrop = RENDERER_BACKDROP;

	bool inWindow0 = false;
	bool inWindow1 = false;

	if(RENDERER_R_DISPCNT_Window_0_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window0_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window0_Y2;
		inWindow0 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}
	if(RENDERER_R_DISPCNT_Window_1_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window1_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window1_Y2;
		inWindow1 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen<Layer_BG2, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG2CNT], RENDERER_BG2X_L, RENDERER_BG2X_H, RENDERER_BG2Y_L, RENDERER_BG2Y_H,
				RENDERER_IO_REGISTERS[REG_BG2PA], RENDERER_IO_REGISTERS[REG_BG2PB], RENDERER_IO_REGISTERS[REG_BG2PC], RENDERER_IO_REGISTERS[REG_BG2PD],
				RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG3) {
		gfxDrawRotScreen<Layer_BG3, renderer_idx>(RENDERER_IO_REGISTERS[REG_BG3CNT], RENDERER_BG3X_L, RENDERER_BG3X_H, RENDERER_BG3Y_L, RENDERER_BG3Y_H,
				RENDERER_IO_REGISTERS[REG_BG3PA], RENDERER_IO_REGISTERS[REG_BG3PB], RENDERER_IO_REGISTERS[REG_BG3PC], RENDERER_IO_REGISTERS[REG_BG3PD],
				RENDERER_BG3X, RENDERER_BG3Y, RENDERER_BG3C);
	}

	uint8_t inWin0Mask = RENDERER_R_WIN_Window0_Mask;
	uint8_t inWin1Mask = RENDERER_R_WIN_Window1_Mask;
	uint8_t outMask = RENDERER_R_WIN_Outside_Mask;

	for(int x = 0; x < 240; x++) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;
		uint8_t mask = outMask;

		if(!(RENDERER_LINE[Layer_WIN_OBJ][x] & 0x80000000)) {
			mask = RENDERER_R_WIN_OBJ_Mask;
		}

		mask = SELECT(inWindow1 && RENDERER_GFX_IN_WIN[1][x], inWin1Mask, mask);
		mask = SELECT(inWindow0 && RENDERER_GFX_IN_WIN[0][x], inWin0Mask, mask);

		if((mask & LayerMask_BG2) && RENDERER_LINE[Layer_BG2][x] < color) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((mask & LayerMask_BG3) && (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_BG3][x];
			top = SpecialEffectTarget_BG3;
		}

		if((mask & LayerMask_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(color & 0x00010000) {
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			if((mask & LayerMask_BG2) && RENDERER_LINE[Layer_BG2][x] < back) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			if((mask & LayerMask_BG3) && (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(back >> 24)) {
				back = RENDERER_LINE[Layer_BG3][x];
				top2 = SpecialEffectTarget_BG3;
			}

			alpha_blend_brightness_switch();
		} else if(mask & LayerMask_SFX) {
			// special FX on the window
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((mask & LayerMask_BG2) && (top != SpecialEffectTarget_BG2) && RENDERER_LINE[Layer_BG2][x] < back) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((mask & LayerMask_BG3) && (top != SpecialEffectTarget_BG3) && (uint8_t)(RENDERER_LINE[Layer_BG3][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_BG3][x];
							top2 = SpecialEffectTarget_BG3;
						}

						if((mask & LayerMask_OBJ) && (top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
	RENDERER_BG3C = 0;
#endif
}

/*
Mode 3 is a 15-bit (32768) colour bitmap graphics mode.
It has a single layer, background layer 2, the same size as the screen.
It doesn't support paging, scrolling, flipping, rotation or tiles.

These routines only render a single line at a time, because of the way the GBA does events.
*/

template<int renderer_idx>
static void mode3RenderLine (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE3
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 3: Render Line\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t background = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen16Bit<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(int x = 0; x < 240; ++x) {
		uint32_t color = background;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG2][x] < color) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >>24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;

			if(color & 0x00010000) {
				// semi-transparent OBJ
				uint32_t back = background;
				uint8_t top2 = SpecialEffectTarget_BD;

				if(RENDERER_LINE[Layer_BG2][x] < background) {
					back = RENDERER_LINE[Layer_BG2][x];
					top2 = SpecialEffectTarget_BG2;
				}

				alpha_blend_brightness_switch();
			}
		}


		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode3RenderLineNoWindow (void)
{
INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE3
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 3: Render Line No Window\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t background = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen16Bit<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(int x = 0; x < 240; ++x) {
		uint32_t color = background;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG2][x] < background) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >>24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(!(color & 0x00010000)) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = background;
						uint8_t top2 = SpecialEffectTarget_BD;

						if(top != SpecialEffectTarget_BG2 && (RENDERER_LINE[Layer_BG2][x] < background) ) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if(top != SpecialEffectTarget_OBJ && ((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24))) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}

					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		} else {
			// semi-transparent OBJ
			uint32_t back = background;
			uint8_t top2 = SpecialEffectTarget_BD;

			if(RENDERER_LINE[Layer_BG2][x] < background) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			alpha_blend_brightness_switch();
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode3RenderLineAll (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE3
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 3: Render Line All\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t background = RENDERER_BACKDROP;

	bool inWindow0 = false;
	bool inWindow1 = false;

	if(RENDERER_R_DISPCNT_Window_0_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window0_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window0_Y2;
		inWindow0 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	if(RENDERER_R_DISPCNT_Window_1_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window1_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window1_Y2;
		inWindow1 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen16Bit<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	uint8_t inWin0Mask = RENDERER_R_WIN_Window0_Mask;
	uint8_t inWin1Mask = RENDERER_R_WIN_Window1_Mask;
	uint8_t outMask = RENDERER_R_WIN_Outside_Mask;

	for(int x = 0; x < 240; ++x) {
		uint32_t color = background;
		uint8_t top = SpecialEffectTarget_BD;
		uint8_t mask = outMask;

		if(!(RENDERER_LINE[Layer_WIN_OBJ][x] & 0x80000000)) {
			mask = RENDERER_R_WIN_OBJ_Mask;
		}

		mask = SELECT(inWindow1 && RENDERER_GFX_IN_WIN[1][x], inWin1Mask, mask);
		mask = SELECT(inWindow0 && RENDERER_GFX_IN_WIN[0][x], inWin0Mask, mask);

		if((mask & LayerMask_BG2) && RENDERER_LINE[Layer_BG2][x] < background) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((mask & LayerMask_OBJ) && ((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >>24))) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(color & 0x00010000) {
			// semi-transparent OBJ
			uint32_t back = background;
			uint8_t top2 = SpecialEffectTarget_BD;

			if((mask & LayerMask_BG2) && RENDERER_LINE[Layer_BG2][x] < background) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			alpha_blend_brightness_switch();
		} else if(mask & LayerMask_SFX) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = background;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((mask & LayerMask_BG2) && (top != SpecialEffectTarget_BG2) && RENDERER_LINE[Layer_BG2][x] < back) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((mask & LayerMask_OBJ) && (top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

/*
Mode 4 is a 256 colour bitmap graphics mode with 2 swappable pages.
It has a single layer, background layer 2, the same size as the screen.
It doesn't support scrolling, flipping, rotation or tiles.

These routines only render a single line at a time, because of the way the GBA does events.
*/

template<int renderer_idx>
static void mode4RenderLine (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE4
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 4: Render Line\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen256<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(int x = 0; x < 240; ++x)
	{
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG2][x] < backdrop) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;

			if(color & 0x00010000) {
				// semi-transparent OBJ
				uint32_t back = backdrop;
				uint8_t top2 = SpecialEffectTarget_BD;

				if(RENDERER_LINE[Layer_BG2][x] < backdrop) {
					back = RENDERER_LINE[Layer_BG2][x];
					top2 = SpecialEffectTarget_BG2;
				}

				alpha_blend_brightness_switch();
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode4RenderLineNoWindow (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE4
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 4: Render Line No Window\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t backdrop = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen256<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(int x = 0; x < 240; ++x)
	{
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG2][x] < backdrop) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >> 24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(!(color & 0x00010000)) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((top != SpecialEffectTarget_BG2) && RENDERER_LINE[Layer_BG2][x] < backdrop) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		} else {
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			if(RENDERER_LINE[Layer_BG2][x] < back) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			alpha_blend_brightness_switch();
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode4RenderLineAll (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE4
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 4: Render Line All\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t backdrop = RENDERER_BACKDROP;

	bool inWindow0 = false;
	bool inWindow1 = false;

	if(RENDERER_R_DISPCNT_Window_0_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window0_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window0_Y2;
		inWindow0 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	if(RENDERER_R_DISPCNT_Window_1_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window1_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window1_Y2;
		inWindow1 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen256<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	uint8_t inWin0Mask = RENDERER_R_WIN_Window0_Mask;
	uint8_t inWin1Mask = RENDERER_R_WIN_Window1_Mask;
	uint8_t outMask = RENDERER_R_WIN_Outside_Mask;

	for(int x = 0; x < 240; ++x) {
		uint32_t color = backdrop;
		uint8_t top = SpecialEffectTarget_BD;
		uint8_t mask = outMask;

		if(!(RENDERER_LINE[Layer_WIN_OBJ][x] & 0x80000000))
			mask = RENDERER_R_WIN_OBJ_Mask;

		mask = SELECT(inWindow1 && RENDERER_GFX_IN_WIN[1][x], inWin1Mask, mask);
		mask = SELECT(inWindow0 && RENDERER_GFX_IN_WIN[0][x], inWin0Mask, mask);

		if((mask & LayerMask_BG2) && (RENDERER_LINE[Layer_BG2][x] < backdrop))
		{
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((mask & LayerMask_OBJ) && ((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >>24)))
		{
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(color & 0x00010000) {
			// semi-transparent OBJ
			uint32_t back = backdrop;
			uint8_t top2 = SpecialEffectTarget_BD;

			if((mask & LayerMask_BG2) && RENDERER_LINE[Layer_BG2][x] < back) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			alpha_blend_brightness_switch();
		} else if(mask & LayerMask_SFX) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = backdrop;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((mask & LayerMask_BG2) && (top != SpecialEffectTarget_BG2) && (RENDERER_LINE[Layer_BG2][x] < backdrop)) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((mask & LayerMask_OBJ) && (top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

/*
Mode 5 is a low resolution (160x128) 15-bit colour bitmap graphics mode
with 2 swappable pages!
It has a single layer, background layer 2, lower resolution than the screen.
It doesn't support scrolling, flipping, rotation or tiles.

These routines only render a single line at a time, because of the way the GBA does events.
*/

template<int renderer_idx>
static void mode5RenderLine (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE5
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 5: Render Line\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t background = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen16Bit160<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(int x = 0; x < 240; ++x) {
		uint32_t color = background;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG2][x] < background) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >>24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;

			if(color & 0x00010000) {
				// semi-transparent OBJ
				uint32_t back = background;
				uint8_t top2 = SpecialEffectTarget_BD;

				if(RENDERER_LINE[Layer_BG2][x] < back) {
					back = RENDERER_LINE[Layer_BG2][x];
					top2 = SpecialEffectTarget_BG2;
				}

				alpha_blend_brightness_switch();
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode5RenderLineNoWindow (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE5
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 5: Render Line No Window\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t background = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen16Bit160<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	for(int x = 0; x < 240; ++x) {
		uint32_t color = background;
		uint8_t top = SpecialEffectTarget_BD;

		if(RENDERER_LINE[Layer_BG2][x] < background) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >>24)) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(!(color & 0x00010000)) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = background;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((top != SpecialEffectTarget_BG2) && RENDERER_LINE[Layer_BG2][x] < background) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}

					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		} else {
			// semi-transparent OBJ
			uint32_t back = background;
			uint8_t top2 = SpecialEffectTarget_BD;

			if(RENDERER_LINE[Layer_BG2][x] < back) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			alpha_blend_brightness_switch();
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

template<int renderer_idx>
static void mode5RenderLineAll (void)
{
	INIT_RENDERER_CONTEXT(renderer_idx);

#if !DEBUG_RENDERER_MODE5
	return;
#endif
#ifdef REPORT_VIDEO_MODES
	fprintf(stderr, "MODE 5: Render Line All\n");
#endif
	uint16_t* lineMix = GET_LINE_MIX;
	uint32_t background = RENDERER_BACKDROP;

	if(RENDERER_R_DISPCNT_Screen_Display_BG2) {
		gfxDrawRotScreen16Bit160<renderer_idx>(RENDERER_BG2X, RENDERER_BG2Y, RENDERER_BG2C);
	}

	bool inWindow0 = false;
	bool inWindow1 = false;

	if(RENDERER_R_DISPCNT_Window_0_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window0_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window0_Y2;
		inWindow0 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	if(RENDERER_R_DISPCNT_Window_1_Display)
	{
		uint8_t v0 = RENDERER_R_WIN_Window1_Y1;
		uint8_t v1 = RENDERER_R_WIN_Window1_Y2;
		inWindow1 = (uint8_t)(RENDERER_R_VCOUNT - v0) < (uint8_t)(v1 - v0) || ((v0 == v1) && (v0 >= 0xe8));
	}

	uint8_t inWin0Mask = RENDERER_R_WIN_Window0_Mask;
	uint8_t inWin1Mask = RENDERER_R_WIN_Window1_Mask;
	uint8_t outMask = RENDERER_R_WIN_Outside_Mask;

	for(int x = 0; x < 240; ++x) {
		uint32_t color = background;
		uint8_t top = SpecialEffectTarget_BD;
		uint8_t mask = outMask;

		if(!(RENDERER_LINE[Layer_WIN_OBJ][x] & 0x80000000)) {
			mask = RENDERER_R_WIN_OBJ_Mask;
		}

		mask = SELECT(inWindow1 && RENDERER_GFX_IN_WIN[1][x], inWin1Mask, mask);
		mask = SELECT(inWindow0 && RENDERER_GFX_IN_WIN[0][x], inWin0Mask, mask);

		if((mask & LayerMask_BG2) && (RENDERER_LINE[Layer_BG2][x] < background)) {
			color = RENDERER_LINE[Layer_BG2][x];
			top = SpecialEffectTarget_BG2;
		}

		if((mask & LayerMask_OBJ) && ((uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(color >>24))) {
			color = RENDERER_LINE[Layer_OBJ][x];
			top = SpecialEffectTarget_OBJ;
		}

		if(color & 0x00010000) {
			// semi-transparent OBJ
			uint32_t back = background;
			uint8_t top2 = SpecialEffectTarget_BD;

			if((mask & LayerMask_BG2) && RENDERER_LINE[Layer_BG2][x] < back) {
				back = RENDERER_LINE[Layer_BG2][x];
				top2 = SpecialEffectTarget_BG2;
			}

			alpha_blend_brightness_switch();
		} else if(mask & LayerMask_SFX) {
			switch(RENDERER_R_BLDCNT_Color_Special_Effect)
			{
				case SpecialEffect_None:
					break;
				case SpecialEffect_Alpha_Blending:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
					{
						uint32_t back = background;
						uint8_t top2 = SpecialEffectTarget_BD;

						if((mask & LayerMask_BG2) && (top != SpecialEffectTarget_BG2) && (RENDERER_LINE[Layer_BG2][x] < background)) {
							back = RENDERER_LINE[Layer_BG2][x];
							top2 = SpecialEffectTarget_BG2;
						}

						if((mask & LayerMask_OBJ) && (top != SpecialEffectTarget_OBJ) && (uint8_t)(RENDERER_LINE[Layer_OBJ][x]>>24) < (uint8_t)(back >> 24)) {
							back = RENDERER_LINE[Layer_OBJ][x];
							top2 = SpecialEffectTarget_OBJ;
						}

						if(RENDERER_R_BLDCNT_IsTarget2(top2) && color < 0x80000000)
						{
							GFX_ALPHA_BLEND(color, back, coeff[COLEV & 0x1F], coeff[(COLEV >> 8) & 0x1F]);
						}
					}
					break;
				case SpecialEffect_Brightness_Increase:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxIncreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
				case SpecialEffect_Brightness_Decrease:
					if(RENDERER_R_BLDCNT_IsTarget1(top))
						color = gfxDecreaseBrightness(color, coeff[COLY & 0x1F]);
					break;
			}
		}

		lineMix[x] = CONVERT_COLOR(color);
	}

#if !THREADED_RENDERER
	RENDERER_BG2C = 0;
#endif
}

#if THREADED_RENDERER
#define threaded_renderer_loop_impl() \
do { \
	if(renderer_ctx.renderer_state == 0) continue; \
	\
	if(renderer_ctx.background_ver < threaded_background_ver) { \
		renderer_ctx.background_ver = threaded_background_ver; \
		if(!RENDERER_R_DISPCNT_Screen_Display_BG0) \
			memset(renderer_ctx.line[Layer_BG0], -1, 240 * sizeof(u32)); \
		if(!RENDERER_R_DISPCNT_Screen_Display_BG1) \
			memset(renderer_ctx.line[Layer_BG1], -1, 240 * sizeof(u32)); \
		if(!RENDERER_R_DISPCNT_Screen_Display_BG2) \
			memset(renderer_ctx.line[Layer_BG2], -1, 240 * sizeof(u32)); \
		if(!RENDERER_R_DISPCNT_Screen_Display_BG3) \
			memset(renderer_ctx.line[Layer_BG3], -1, 240 * sizeof(u32)); \
	} \
	\
	memset(RENDERER_LINE[Layer_OBJ], -1, 240 * sizeof(u32)); \
	if(renderer_ctx.draw_sprites) (*drawSprites)(); \
	\
	if(renderer_ctx.renderfunc_type == 2) { \
		memset(RENDERER_LINE[Layer_WIN_OBJ], -1, 240 * sizeof(u32)); \
		if(renderer_ctx.draw_objwin) (*drawOBJWin)(); \
	} \
	\
	(*getRenderFunc)(renderer_ctx.renderfunc_mode, renderer_ctx.renderfunc_type)(); \
	\
	renderer_ctx.renderer_state = 0;\
} while (0)

static void threaded_renderer_loop0(void* p) {
	int renderer_idx = 0;
	INIT_RENDERER_CONTEXT(renderer_idx);

	renderfunc_t drawSprites = gfxDrawSprites<0>;
	renderfunc_t drawOBJWin = gfxDrawOBJWin<0>;
	renderfunc_t (*getRenderFunc)(int, int) = GetRenderFunc<0>;

	while(renderer_ctx.renderer_control == 1) {
		if(threaded_renderer_ready) {
			threaded_renderer_ready = 0;
			systemDrawScreen();
		}
		threaded_renderer_loop_impl();
	}

	renderer_ctx.renderer_control = 0; //loop is terminated.
}

static void threaded_renderer_loop(void* p) {
	int renderer_idx = reinterpret_cast<intptr_t>(p);
	INIT_RENDERER_CONTEXT(renderer_idx);

	renderfunc_t drawSprites = NULL;
	renderfunc_t drawOBJWin = NULL;
	renderfunc_t (*getRenderFunc)(int, int) = NULL;

	switch(renderer_idx) {
	case 1:
		drawSprites = gfxDrawSprites<1>;
		drawOBJWin = gfxDrawOBJWin<1>;
		getRenderFunc = GetRenderFunc<1>;
		break;
	case 2:
		drawSprites = gfxDrawSprites<2>;
		drawOBJWin = gfxDrawOBJWin<2>;
		getRenderFunc = GetRenderFunc<2>;
		break;
	case 3:
		drawSprites = gfxDrawSprites<3>;
		drawOBJWin = gfxDrawOBJWin<3>;
		getRenderFunc = GetRenderFunc<3>;
		break;
	default:
		return;
	}

	while(renderer_ctx.renderer_control == 1)
		threaded_renderer_loop_impl();

	renderer_ctx.renderer_control = 0; //loop is terminated.
}

static void fetchBackgroundOffset(int video_mode) {
	//update gfxBG2X, gfxBG2Y, gfxBG3X, gfxBG3Y
	switch(video_mode) {
	case 0:
		break;
	case 1:
		fetchDrawRotScreen(io_registers[REG_BG2CNT], BG2X_L, BG2X_H, BG2Y_L, BG2Y_H,
			io_registers[REG_BG2PA], io_registers[REG_BG2PB], io_registers[REG_BG2PC], io_registers[REG_BG2PD],
			gfxBG2X, gfxBG2Y, gfxBG2Changed);
		break;
	case 2:
		fetchDrawRotScreen(io_registers[REG_BG2CNT], BG2X_L, BG2X_H, BG2Y_L, BG2Y_H,
			io_registers[REG_BG2PA], io_registers[REG_BG2PB], io_registers[REG_BG2PC], io_registers[REG_BG2PD],
			gfxBG2X, gfxBG2Y, gfxBG2Changed);
		fetchDrawRotScreen(io_registers[REG_BG3CNT], BG3X_L, BG3X_H, BG3Y_L, BG3Y_H,
			io_registers[REG_BG3PA], io_registers[REG_BG3PB], io_registers[REG_BG3PC], io_registers[REG_BG3PD],
			gfxBG3X, gfxBG3Y, gfxBG3Changed);
		break;
	case 3:
		fetchDrawRotScreen16Bit(gfxBG2X, gfxBG2Y, gfxBG2Changed);
		break;
	case 4:
		fetchDrawRotScreen256(gfxBG2X, gfxBG2Y, gfxBG2Changed);
		break;
	case 5:
		fetchDrawRotScreen16Bit160(gfxBG2X, gfxBG2Y, gfxBG2Changed);
		break;
	default:
		return;
	}
}

static void postRender() {

	int video_mode = R_DISPCNT_Video_Mode;
	bool draw_objwin = (graphics.layerEnable & 0x9000) == 0x9000;
	bool draw_sprites = R_DISPCNT_Screen_Display_OBJ;

#if DEBUG_RENDERER_NOSYNC
	if (threaded_renderer_contexts[threaded_renderer_idx].renderer_state) return;
#else
	while(threaded_renderer_contexts[threaded_renderer_idx].renderer_state);
#endif

	INIT_RENDERER_CONTEXT(threaded_renderer_idx);

	renderer_ctx.renderfunc_mode = renderfunc_mode;
	renderer_ctx.renderfunc_type = renderfunc_type;
	renderer_ctx.draw_objwin = draw_objwin;
	renderer_ctx.draw_sprites = draw_sprites;
	renderer_ctx.layers = graphics.layerEnable;
	renderer_ctx.mosaic = MOSAIC;
	renderer_ctx.bldmod = BLDMOD;
	renderer_ctx.vcount = io_registers[REG_VCOUNT];

	renderer_ctx.io_registers[REG_DISPCNT] = io_registers[REG_DISPCNT];
	renderer_ctx.io_registers[REG_DISPSTAT] = io_registers[REG_DISPSTAT];
	renderer_ctx.io_registers[REG_VCOUNT] = io_registers[REG_VCOUNT];

	renderer_ctx.io_registers[REG_BG0CNT] = io_registers[REG_BG0CNT];
	renderer_ctx.io_registers[REG_BG1CNT] = io_registers[REG_BG1CNT];
	renderer_ctx.io_registers[REG_BG2CNT] = io_registers[REG_BG2CNT];
	renderer_ctx.io_registers[REG_BG3CNT] = io_registers[REG_BG3CNT];

	renderer_ctx.io_registers[REG_BG0HOFS] = io_registers[REG_BG0HOFS];
	renderer_ctx.io_registers[REG_BG1HOFS] = io_registers[REG_BG1HOFS];
	renderer_ctx.io_registers[REG_BG2HOFS] = io_registers[REG_BG2HOFS];
	renderer_ctx.io_registers[REG_BG3HOFS] = io_registers[REG_BG3HOFS];
	renderer_ctx.io_registers[REG_BG0VOFS] = io_registers[REG_BG0VOFS];
	renderer_ctx.io_registers[REG_BG1VOFS] = io_registers[REG_BG1VOFS];
	renderer_ctx.io_registers[REG_BG2VOFS] = io_registers[REG_BG2VOFS];
	renderer_ctx.io_registers[REG_BG3VOFS] = io_registers[REG_BG3VOFS];

	renderer_ctx.io_registers[REG_BG2PA] = io_registers[REG_BG2PA];
	renderer_ctx.io_registers[REG_BG2PB] = io_registers[REG_BG2PB];
	renderer_ctx.io_registers[REG_BG2PC] = io_registers[REG_BG2PC];
	renderer_ctx.io_registers[REG_BG2PD] = io_registers[REG_BG2PD];
	renderer_ctx.io_registers[REG_BG3PA] = io_registers[REG_BG3PA];
	renderer_ctx.io_registers[REG_BG3PB] = io_registers[REG_BG3PB];
	renderer_ctx.io_registers[REG_BG3PC] = io_registers[REG_BG3PC];
	renderer_ctx.io_registers[REG_BG3PD] = io_registers[REG_BG3PD];

	renderer_ctx.io_registers[REG_BG2X_L] = io_registers[REG_BG2X_L];
	renderer_ctx.io_registers[REG_BG2X_H] = io_registers[REG_BG2X_H];
	renderer_ctx.io_registers[REG_BG2Y_L] = io_registers[REG_BG2Y_L];
	renderer_ctx.io_registers[REG_BG2Y_H] = io_registers[REG_BG2Y_H];
	renderer_ctx.io_registers[REG_BG3X_L] = io_registers[REG_BG3X_L];
	renderer_ctx.io_registers[REG_BG3X_H] = io_registers[REG_BG3X_H];
	renderer_ctx.io_registers[REG_BG3Y_L] = io_registers[REG_BG3Y_L];
	renderer_ctx.io_registers[REG_BG3Y_H] = io_registers[REG_BG3Y_H];

	renderer_ctx.io_registers[REG_WIN0H] = io_registers[REG_WIN0H];
	renderer_ctx.io_registers[REG_WIN1H] = io_registers[REG_WIN1H];
	renderer_ctx.io_registers[REG_WIN0V] = io_registers[REG_WIN0V];
	renderer_ctx.io_registers[REG_WIN1V] = io_registers[REG_WIN1V];
	renderer_ctx.io_registers[REG_WININ] = io_registers[REG_WININ];
	renderer_ctx.io_registers[REG_WINOUT] = io_registers[REG_WINOUT];

	renderer_ctx.io_registers[REG_BLDCNT] = io_registers[REG_BLDCNT];
	renderer_ctx.io_registers[REG_BLDALPHA] = io_registers[REG_BLDALPHA];
	renderer_ctx.io_registers[REG_BLDY] = io_registers[REG_BLDY];

	renderer_ctx.io_registers[REG_TM0D] = io_registers[REG_TM0D];
	renderer_ctx.io_registers[REG_TM1D] = io_registers[REG_TM1D];
	renderer_ctx.io_registers[REG_TM2D] = io_registers[REG_TM2D];
	renderer_ctx.io_registers[REG_TM3D] = io_registers[REG_TM3D];

	renderer_ctx.io_registers[REG_TM0CNT] = io_registers[REG_TM0CNT];
	renderer_ctx.io_registers[REG_TM1CNT] = io_registers[REG_TM1CNT];
	renderer_ctx.io_registers[REG_TM2CNT] = io_registers[REG_TM2CNT];
	renderer_ctx.io_registers[REG_TM3CNT] = io_registers[REG_TM3CNT];

	renderer_ctx.io_registers[REG_P1] = io_registers[REG_P1];
	renderer_ctx.io_registers[REG_P1CNT] = io_registers[REG_P1CNT];
	renderer_ctx.io_registers[REG_RCNT] = io_registers[REG_RCNT];
	renderer_ctx.io_registers[REG_IE] = io_registers[REG_IE];
	renderer_ctx.io_registers[REG_IF] = io_registers[REG_IF];
	renderer_ctx.io_registers[REG_IME] = io_registers[REG_IME];
	renderer_ctx.io_registers[REG_HALTCNT] = io_registers[REG_HALTCNT];

	renderer_ctx.bg2c = gfxBG2Changed;
	renderer_ctx.bg2x = gfxBG2X;
	renderer_ctx.bg2y = gfxBG2Y;
	renderer_ctx.bg2x_l = BG2X_L;
	renderer_ctx.bg2x_h = BG2X_H;
	renderer_ctx.bg2y_l = BG2Y_L;
	renderer_ctx.bg2y_h = BG2Y_H;

	if(video_mode == 2) {
		renderer_ctx.bg3c = gfxBG3Changed;
		renderer_ctx.bg3x = gfxBG3X;
		renderer_ctx.bg3y = gfxBG3Y;
		renderer_ctx.bg3x_l = BG3X_L;
		renderer_ctx.bg3x_h = BG3X_H;
		renderer_ctx.bg3y_l = BG3Y_L;
		renderer_ctx.bg3y_h = BG3Y_H;
	}

	for(int u = 0; u < 2; ++u) {
		if(renderer_ctx.gfxinwin_ver[u] < threaded_gfxinwin_ver[u]) {
			renderer_ctx.gfxinwin_ver[u] = threaded_gfxinwin_ver[u];
#if HAVE_NEON
			neon_memcpy(renderer_ctx.gfxInWin[u], gfxInWin[u], sizeof(gfxInWin) / 2);
#else
			memcpy(renderer_ctx.gfxInWin[u], gfxInWin[u], sizeof(gfxInWin) / 2);
#endif
		}
	}

	fetchBackgroundOffset(video_mode);

	gfxBG2Changed = 0;
	if(video_mode == 2)	gfxBG3Changed = 0;

	//buffer is ready.
	renderer_ctx.renderer_state = 1;

	//notify screen is done.
	if(renderer_ctx.vcount == 159) threaded_renderer_ready = 1;

	threaded_renderer_idx = (threaded_renderer_idx + 1) % THREADED_RENDERER_COUNT;
}

#endif

#define CPUUpdateRender() { \
  	renderfunc_mode = R_DISPCNT_Video_Mode; \
    if((!fxOn && !windowOn && !R_DISPCNT_OBJ_Window_Display)) \
      	renderfunc_type = 0; \
    else if(fxOn && !windowOn && !R_DISPCNT_OBJ_Window_Display) \
      	renderfunc_type = 1; \
    else \
      	renderfunc_type = 2; \
}

template<int renderer_idx>
renderfunc_t GetRenderFunc(int mode, int type) {
	switch((mode << 4) | type) {
		case 0x00: return mode0RenderLine<renderer_idx>;
		case 0x01: return mode0RenderLineNoWindow<renderer_idx>;
		case 0x02: return mode0RenderLineAll<renderer_idx>;
		case 0x10: return mode1RenderLine<renderer_idx>;
		case 0x11: return mode1RenderLineNoWindow<renderer_idx>;
		case 0x12: return mode1RenderLineAll<renderer_idx>;
		case 0x20: return mode2RenderLine<renderer_idx>;
		case 0x21: return mode2RenderLineNoWindow<renderer_idx>;
		case 0x22: return mode2RenderLineAll<renderer_idx>;
		case 0x30: return mode3RenderLine<renderer_idx>;
		case 0x31: return mode3RenderLineNoWindow<renderer_idx>;
		case 0x32: return mode3RenderLineAll<renderer_idx>;
		case 0x40: return mode4RenderLine<renderer_idx>;
		case 0x41: return mode4RenderLineNoWindow<renderer_idx>;
		case 0x42: return mode4RenderLineAll<renderer_idx>;
		case 0x50: return mode5RenderLine<renderer_idx>;
		case 0x51: return mode5RenderLineNoWindow<renderer_idx>;
		case 0x52: return mode5RenderLineAll<renderer_idx>;
		default: return NULL;
	}
}

bool CPUReadState(const uint8_t* data, unsigned size)
{
	// Don't really care about version.
	int version = utilReadIntMem(data);
	if (version != SAVE_GAME_VERSION)
		return false;

	char romname[16];
	utilReadMem(romname, data, 16);
	if (memcmp(&rom[0xa0], romname, 16) != 0)
		return false;

	// Don't care about use bios ...
	utilReadIntMem(data);

	utilReadMem(&bus.reg[0], data, sizeof(bus.reg));

	utilReadDataMem(data, saveGameStruct);

	stopState = utilReadIntMem(data) ? true : false;

	IRQTicks = utilReadIntMem(data);
	if (IRQTicks > 0)
		intState = true;
	else
	{
		intState = false;
		IRQTicks = 0;
	}

	utilReadMem(internalRAM, data, 0x8000);
	utilReadMem(paletteRAM, data, 0x400);
	utilReadMem(workRAM, data, 0x40000);
	utilReadMem(vram, data, 0x20000);
	utilReadMem(oam, data, 0x400);
	utilReadMem(pix, data, 4 * PIX_BUFFER_SCREEN_WIDTH * 160);
	utilReadMem(ioMem, data, 0x400);

	eepromReadGameMem(data, version);
	flashReadGameMem(data, version);
	soundReadGameMem(data, version);
	rtcReadGameMem(data);

	//// Copypasta stuff ...
	// set pointers!
	graphics.layerEnable = io_registers[REG_DISPCNT];

	CPUUpdateRender();

#if !THREADED_RENDERER
	memset(line[Layer_BG0], -1, 240 * sizeof(u32));
	memset(line[Layer_BG1], -1, 240 * sizeof(u32));
	memset(line[Layer_BG2], -1, 240 * sizeof(u32));
	memset(line[Layer_BG3], -1, 240 * sizeof(u32));
#endif

	CPUUpdateWindow0();
	CPUUpdateWindow1();
	gbaSaveType = 0;
	switch(saveType) {
		case 0:
			cpuSaveGameFunc = flashSaveDecide;
			break;
		case 1:
			cpuSaveGameFunc = sramWrite;
			gbaSaveType = 1;
			break;
		case 2:
			cpuSaveGameFunc = flashWrite;
			gbaSaveType = 2;
			break;
		case 3:
			break;
		case 5:
			gbaSaveType = 5;
			break;
		default:
			break;
	}
	if(eepromInUse)
		gbaSaveType = 3;

	if(armState) {
		ARM_PREFETCH;
	} else {
		THUMB_PREFETCH;
	}

	CPUUpdateRegister(0x204, CPUReadHalfWordQuick(0x4000204));

	return true;
}


#define CPUSwap(a, b) \
a ^= b; \
b ^= a; \
a ^= b;

static void CPUSwitchMode(int mode, bool saveState, bool breakLoop)
{
	CPU_UPDATE_CPSR();

	switch(armMode) {
		case 0x10:
		case 0x1F:
			bus.reg[R13_USR].I = bus.reg[13].I;
			bus.reg[R14_USR].I = bus.reg[14].I;
			bus.reg[17].I = bus.reg[16].I;
			break;
		case 0x11:
			CPUSwap(bus.reg[R8_FIQ].I, bus.reg[8].I);
			CPUSwap(bus.reg[R9_FIQ].I, bus.reg[9].I);
			CPUSwap(bus.reg[R10_FIQ].I, bus.reg[10].I);
			CPUSwap(bus.reg[R11_FIQ].I, bus.reg[11].I);
			CPUSwap(bus.reg[R12_FIQ].I, bus.reg[12].I);
			bus.reg[R13_FIQ].I = bus.reg[13].I;
			bus.reg[R14_FIQ].I = bus.reg[14].I;
			bus.reg[SPSR_FIQ].I = bus.reg[17].I;
			break;
		case 0x12:
			bus.reg[R13_IRQ].I  = bus.reg[13].I;
			bus.reg[R14_IRQ].I  = bus.reg[14].I;
			bus.reg[SPSR_IRQ].I =  bus.reg[17].I;
			break;
		case 0x13:
			bus.reg[R13_SVC].I  = bus.reg[13].I;
			bus.reg[R14_SVC].I  = bus.reg[14].I;
			bus.reg[SPSR_SVC].I =  bus.reg[17].I;
			break;
		case 0x17:
			bus.reg[R13_ABT].I  = bus.reg[13].I;
			bus.reg[R14_ABT].I  = bus.reg[14].I;
			bus.reg[SPSR_ABT].I =  bus.reg[17].I;
			break;
		case 0x1b:
			bus.reg[R13_UND].I  = bus.reg[13].I;
			bus.reg[R14_UND].I  = bus.reg[14].I;
			bus.reg[SPSR_UND].I =  bus.reg[17].I;
			break;
	}

	uint32_t CPSR = bus.reg[16].I;
	uint32_t SPSR = bus.reg[17].I;

	switch(mode) {
		case 0x10:
		case 0x1F:
			bus.reg[13].I = bus.reg[R13_USR].I;
			bus.reg[14].I = bus.reg[R14_USR].I;
			bus.reg[16].I = SPSR;
			break;
		case 0x11:
			CPUSwap(bus.reg[8].I, bus.reg[R8_FIQ].I);
			CPUSwap(bus.reg[9].I, bus.reg[R9_FIQ].I);
			CPUSwap(bus.reg[10].I, bus.reg[R10_FIQ].I);
			CPUSwap(bus.reg[11].I, bus.reg[R11_FIQ].I);
			CPUSwap(bus.reg[12].I, bus.reg[R12_FIQ].I);
			bus.reg[13].I = bus.reg[R13_FIQ].I;
			bus.reg[14].I = bus.reg[R14_FIQ].I;
			if(saveState)
				bus.reg[17].I = CPSR; else
				bus.reg[17].I = bus.reg[SPSR_FIQ].I;
			break;
		case 0x12:
			bus.reg[13].I = bus.reg[R13_IRQ].I;
			bus.reg[14].I = bus.reg[R14_IRQ].I;
			bus.reg[16].I = SPSR;
			if(saveState)
				bus.reg[17].I = CPSR;
			else
				bus.reg[17].I = bus.reg[SPSR_IRQ].I;
			break;
		case 0x13:
			bus.reg[13].I = bus.reg[R13_SVC].I;
			bus.reg[14].I = bus.reg[R14_SVC].I;
			bus.reg[16].I = SPSR;
			if(saveState)
				bus.reg[17].I = CPSR;
			else
				bus.reg[17].I = bus.reg[SPSR_SVC].I;
			break;
		case 0x17:
			bus.reg[13].I = bus.reg[R13_ABT].I;
			bus.reg[14].I = bus.reg[R14_ABT].I;
			bus.reg[16].I = SPSR;
			if(saveState)
				bus.reg[17].I = CPSR;
			else
				bus.reg[17].I = bus.reg[SPSR_ABT].I;
			break;
		case 0x1b:
			bus.reg[13].I = bus.reg[R13_UND].I;
			bus.reg[14].I = bus.reg[R14_UND].I;
			bus.reg[16].I = SPSR;
			if(saveState)
				bus.reg[17].I = CPSR;
			else
				bus.reg[17].I = bus.reg[SPSR_UND].I;
			break;
		default:
			break;
	}
	armMode = mode;
	CPUUpdateFlags(breakLoop);
	CPU_UPDATE_CPSR();
}



void doDMA(uint32_t &s, uint32_t &d, uint32_t si, uint32_t di, uint32_t c, int transfer32)
{
	int sm = s >> 24;
	int dm = d >> 24;
	int sw = 0;
	int dw = 0;
	int sc = c;

	cpuDmaRunning = true;
	cpuDmaPC = bus.reg[15].I;
	cpuDmaCount = c;

	// This is done to get the correct waitstates.
	int32_t sm_gt_15_mask = ((sm>15) | -(sm>15)) >> 31;
	int32_t dm_gt_15_mask = ((dm>15) | -(dm>15)) >> 31;
	sm = ((((15) & sm_gt_15_mask) | ((((sm) & ~(sm_gt_15_mask))))));
	dm = ((((15) & dm_gt_15_mask) | ((((dm) & ~(dm_gt_15_mask))))));

	//if ((sm>=0x05) && (sm<=0x07) || (dm>=0x05) && (dm <=0x07))
	//    blank = (((io_registers[REG_DISPSTAT] | ((io_registers[REG_DISPSTAT] >> 1)&1))==1) ?  true : false);

	if(transfer32)
	{
		s &= 0xFFFFFFFC;
		if(s < 0x02000000 && (bus.reg[15].I >> 24))
		{
			while(c != 0)
			{
				CPUWriteMemory(d, 0);
				d += di;
				c--;
			};
		}
		else
		{
			while(c != 0)
			{
				cpuDmaLast = CPUReadMemory(s);
				CPUWriteMemory(d, CPUReadMemory(s));
				d += di;
				s += si;
				c--;
			};
		}
	}
	else
	{
		s &= 0xFFFFFFFE;
		si = (int)si >> 1;
		di = (int)di >> 1;
		if(s < 0x02000000 && (bus.reg[15].I >> 24))
		{
			while(c != 0)
			{
				CPUWriteHalfWord(d, 0);
				d += di;
				c--;
			};
		}
		else
		{
			while(c != 0)
			{
				cpuDmaLast = CPUReadHalfWord(s);
				CPUWriteHalfWord(d, cpuDmaLast);
				cpuDmaLast |= cpuDmaLast << 16;
				d += di;
				s += si;
				c--;
			};
		}
	}

	cpuDmaCount = 0;
	cpuDmaRunning = false;

	if(transfer32)
	{
		sw = 1+memoryWaitSeq32[sm & 15];
		dw = 1+memoryWaitSeq32[dm & 15];
		cpuDmaTicksToUpdate += (sw+dw)*(sc-1) + 6 + memoryWait32[sm & 15] + memoryWaitSeq32[dm & 15];
	}
	else
	{
		sw = 1+memoryWaitSeq[sm & 15];
		dw = 1+memoryWaitSeq[dm & 15];
		cpuDmaTicksToUpdate += (sw+dw)*(sc-1) + 6 + memoryWait[sm & 15] + memoryWaitSeq[dm & 15];
	}
}


void CPUCheckDMA(int reason, int dmamask)
{
	uint32_t arrayval[] = {4, (uint32_t)-4, 0, 4};
	// DMA 0
	if((DM0CNT_H & 0x8000) && (dmamask & 1))
	{
		if(((DM0CNT_H >> 12) & 3) == reason)
		{
			uint32_t sourceIncrement, destIncrement;
			uint32_t condition1 = ((DM0CNT_H >> 7) & 3);
			uint32_t condition2 = ((DM0CNT_H >> 5) & 3);
			sourceIncrement = arrayval[condition1];
			destIncrement = arrayval[condition2];
			doDMA(dma0Source, dma0Dest, sourceIncrement, destIncrement,
					DM0CNT_L ? DM0CNT_L : 0x4000,
					DM0CNT_H & 0x0400);

			if(DM0CNT_H & 0x4000)
			{
				io_registers[REG_IF] |= 0x0100;
				UPDATE_REG(0x202, io_registers[REG_IF]);
				cpuNextEvent = cpuTotalTicks;
			}

			if(((DM0CNT_H >> 5) & 3) == 3) {
				dma0Dest = DM0DAD_L | (DM0DAD_H << 16);
			}

			if(!(DM0CNT_H & 0x0200) || (reason == 0)) {
				DM0CNT_H &= 0x7FFF;
				UPDATE_REG(0xBA, DM0CNT_H);
			}
		}
	}

	// DMA 1
	if((DM1CNT_H & 0x8000) && (dmamask & 2)) {
		if(((DM1CNT_H >> 12) & 3) == reason) {
			uint32_t sourceIncrement, destIncrement;
			uint32_t condition1 = ((DM1CNT_H >> 7) & 3);
			uint32_t condition2 = ((DM1CNT_H >> 5) & 3);
			sourceIncrement = arrayval[condition1];
			destIncrement = arrayval[condition2];
			uint32_t di_value, c_value, transfer_value;
			if(reason == 3)
			{
				di_value = 0;
				c_value = 4;
				transfer_value = 0x0400;
			}
			else
			{
				di_value = destIncrement;
				c_value = DM1CNT_L ? DM1CNT_L : 0x4000;
				transfer_value = DM1CNT_H & 0x0400;
			}
			doDMA(dma1Source, dma1Dest, sourceIncrement, di_value, c_value, transfer_value);

			if(DM1CNT_H & 0x4000) {
				io_registers[REG_IF] |= 0x0200;
				UPDATE_REG(0x202, io_registers[REG_IF]);
				cpuNextEvent = cpuTotalTicks;
			}

			if(((DM1CNT_H >> 5) & 3) == 3) {
				dma1Dest = DM1DAD_L | (DM1DAD_H << 16);
			}

			if(!(DM1CNT_H & 0x0200) || (reason == 0)) {
				DM1CNT_H &= 0x7FFF;
				UPDATE_REG(0xC6, DM1CNT_H);
			}
		}
	}

	// DMA 2
	if((DM2CNT_H & 0x8000) && (dmamask & 4)) {
		if(((DM2CNT_H >> 12) & 3) == reason) {
			uint32_t sourceIncrement, destIncrement;
			uint32_t condition1 = ((DM2CNT_H >> 7) & 3);
			uint32_t condition2 = ((DM2CNT_H >> 5) & 3);
			sourceIncrement = arrayval[condition1];
			destIncrement = arrayval[condition2];
			uint32_t di_value, c_value, transfer_value;
			if(reason == 3)
			{
				di_value = 0;
				c_value = 4;
				transfer_value = 0x0400;
			}
			else
			{
				di_value = destIncrement;
				c_value = DM2CNT_L ? DM2CNT_L : 0x4000;
				transfer_value = DM2CNT_H & 0x0400;
			}
			doDMA(dma2Source, dma2Dest, sourceIncrement, di_value, c_value, transfer_value);

			if(DM2CNT_H & 0x4000) {
				io_registers[REG_IF] |= 0x0400;
				UPDATE_REG(0x202, io_registers[REG_IF]);
				cpuNextEvent = cpuTotalTicks;
			}

			if(((DM2CNT_H >> 5) & 3) == 3) {
				dma2Dest = DM2DAD_L | (DM2DAD_H << 16);
			}

			if(!(DM2CNT_H & 0x0200) || (reason == 0)) {
				DM2CNT_H &= 0x7FFF;
				UPDATE_REG(0xD2, DM2CNT_H);
			}
		}
	}

	// DMA 3
	if((DM3CNT_H & 0x8000) && (dmamask & 8))
	{
		if(((DM3CNT_H >> 12) & 3) == reason)
		{
			uint32_t sourceIncrement, destIncrement;
			uint32_t condition1 = ((DM3CNT_H >> 7) & 3);
			uint32_t condition2 = ((DM3CNT_H >> 5) & 3);
			sourceIncrement = arrayval[condition1];
			destIncrement = arrayval[condition2];
			doDMA(dma3Source, dma3Dest, sourceIncrement, destIncrement,
					DM3CNT_L ? DM3CNT_L : 0x10000,
					DM3CNT_H & 0x0400);
			if(DM3CNT_H & 0x4000) {
				io_registers[REG_IF] |= 0x0800;
				UPDATE_REG(0x202, io_registers[REG_IF]);
				cpuNextEvent = cpuTotalTicks;
			}

			if(((DM3CNT_H >> 5) & 3) == 3) {
				dma3Dest = DM3DAD_L | (DM3DAD_H << 16);
			}

			if(!(DM3CNT_H & 0x0200) || (reason == 0)) {
				DM3CNT_H &= 0x7FFF;
				UPDATE_REG(0xDE, DM3CNT_H);
			}
		}
	}
}

static uint16_t *address_lut[0x300];

void CPUUpdateRegister(uint32_t address, uint16_t value)
{
	switch(address)
	{
		case 0x00: /* DISPCNT */
			{
				if((value & 7) > 5) // display modes above 0-5 are prohibited
					io_registers[REG_DISPCNT] = (value & 7);

				bool change = (0 != ((io_registers[REG_DISPCNT] ^ value) & 0x80));
				bool changeBG = (0 != ((io_registers[REG_DISPCNT] ^ value) & 0x0F00));
				uint16_t changeBGon = ((~io_registers[REG_DISPCNT]) & value) & 0x0F00; // these layers are being activated

				io_registers[REG_DISPCNT] = (value & 0xFFF7); // bit 3 can only be accessed by the BIOS to enable GBC mode
				UPDATE_REG(0x00, io_registers[REG_DISPCNT]);

				graphics.layerEnable = value;

				if(changeBGon)
				{
					graphics.layerEnableDelay = 4;
					graphics.layerEnable &= ~changeBGon;
				}

				windowOn = (graphics.layerEnable & 0x6000) ? true : false;
				if(change && !((value & 0x80)))
				{
					if(!(io_registers[REG_DISPSTAT] & 1))
					{
						graphics.lcdTicks = 1008;
						io_registers[REG_DISPSTAT] &= 0xFFFC;
						UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
						CPUCompareVCOUNT();
					}
				}

				CPUUpdateRender();

				// we only care about changes in BG0-BG3
				if(changeBG)
				{
#if THREADED_RENDERER
					++threaded_background_ver;
#else
					if(!R_DISPCNT_Screen_Display_BG0)
						memset(line[Layer_BG0], -1, 240 * sizeof(u32));
					if(!R_DISPCNT_Screen_Display_BG1)
						memset(line[Layer_BG1], -1, 240 * sizeof(u32));
					if(!R_DISPCNT_Screen_Display_BG2)
						memset(line[Layer_BG2], -1, 240 * sizeof(u32));
					if(!R_DISPCNT_Screen_Display_BG3)
						memset(line[Layer_BG3], -1, 240 * sizeof(u32));
#endif
				}
				break;
			}
		case 0x04: /* DISPSTAT */
			io_registers[REG_DISPSTAT] = (value & 0xFF38) | (io_registers[REG_DISPSTAT] & 7);
			UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
			break;
		case 0x06:
			// not writable
			break;
		case 0x08: /* BG0CNT */
		case 0x0A: /* BG1CNT */
			*address_lut[address] = (value & 0xDFCF);
			UPDATE_REG(address, *address_lut[address]);
			break;
		case 0x0C: /* BG2CNT */
		case 0x0E: /* BG3CNT */
			*address_lut[address] = (value & 0xFFCF);
			UPDATE_REG(address, *address_lut[address]);
			break;
		case 0x10: /* BG0HOFS */
		case 0x12: /* BG0VOFS */
		case 0x14: /* BG1HOFS */
		case 0x16: /* BG1VOFS */
		case 0x18: /* BG2HOFS */
		case 0x1A: /* BG2VOFS */
		case 0x1C: /* BG3HOFS */
		case 0x1E: /* BG3VOFS */
			*address_lut[address] = value & 511;
			UPDATE_REG(address, *address_lut[address]);
			break;
		case 0x20: /* BG2PA */
		case 0x22: /* BG2PB */
		case 0x24: /* BG2PC */
		case 0x26: /* BG2PD */
			*address_lut[address] = value;
			UPDATE_REG(address, *address_lut[address]);
			break;
		case 0x28:
			BG2X_L = value;
			UPDATE_REG(0x28, BG2X_L);
			gfxBG2Changed |= 1;
			break;
		case 0x2A:
			BG2X_H = (value & 0xFFF);
			UPDATE_REG(0x2A, BG2X_H);
			gfxBG2Changed |= 1;
			break;
		case 0x2C:
			BG2Y_L = value;
			UPDATE_REG(0x2C, BG2Y_L);
			gfxBG2Changed |= 2;
			break;
		case 0x2E:
			BG2Y_H = value & 0xFFF;
			UPDATE_REG(0x2E, BG2Y_H);
			gfxBG2Changed |= 2;
			break;
		case 0x30: /* BG3PA */
		case 0x32: /* BG3PB */
		case 0x34: /* BG3PC */
		case 0x36: /* BG3PD */
			*address_lut[address] = value;
			UPDATE_REG(address, *address_lut[address]);
			break;
		case 0x38:
			BG3X_L = value;
			UPDATE_REG(0x38, BG3X_L);
			gfxBG3Changed |= 1;
			break;
		case 0x3A:
			BG3X_H = value & 0xFFF;
			UPDATE_REG(0x3A, BG3X_H);
			gfxBG3Changed |= 1;
			break;
		case 0x3C:
			BG3Y_L = value;
			UPDATE_REG(0x3C, BG3Y_L);
			gfxBG3Changed |= 2;
			break;
		case 0x3E:
			BG3Y_H = value & 0xFFF;
			UPDATE_REG(0x3E, BG3Y_H);
			gfxBG3Changed |= 2;
			break;
		case 0x40:
			io_registers[REG_WIN0H] = value;
			UPDATE_REG(0x40, io_registers[REG_WIN0H]);
			CPUUpdateWindow0();
			break;
		case 0x42:
			io_registers[REG_WIN1H] = value;
			UPDATE_REG(0x42, io_registers[REG_WIN1H]);
			CPUUpdateWindow1();
			break;
		case 0x44:
		case 0x46:
			*address_lut[address] = value;
			UPDATE_REG(address, *address_lut[address]);
			break;
		case 0x48: /* WININ */
		case 0x4A: /* WINOUT */
			*address_lut[address] = value & 0x3F3F;
			UPDATE_REG(address, *address_lut[address]);
			break;
		case 0x4C:
			MOSAIC = value;
			UPDATE_REG(0x4C, MOSAIC);
			break;
		case 0x50:
			BLDMOD = value & 0x3FFF;
			UPDATE_REG(0x50, BLDMOD);
			fxOn = ((BLDMOD>>6)&3) != 0;
			CPUUpdateRender();
			break;
		case 0x52:
			COLEV = value & 0x1F1F;
			UPDATE_REG(0x52, COLEV);
			break;
		case 0x54:
			COLY = value & 0x1F;
			UPDATE_REG(0x54, COLY);
			break;
		case 0x60:
		case 0x62:
		case 0x64:
		case 0x68:
		case 0x6c:
		case 0x70:
		case 0x72:
		case 0x74:
		case 0x78:
		case 0x7c:
		case 0x80:
		case 0x84:
			soundEvent_u8(table[(int32_t)(address & 0xFF) - 0x60], (uint32_t)(address & 0xFF), (uint8_t)(value & 0xFF));
			soundEvent_u8(table[(int32_t)((address & 0xFF) + 1) - 0x60], (uint32_t)((address & 0xFF) + 1), (uint8_t)(value >> 8));
			break;
		case 0x82:
		case 0x88:
		case 0xa0:
		case 0xa2:
		case 0xa4:
		case 0xa6:
		case 0x90:
		case 0x92:
		case 0x94:
		case 0x96:
		case 0x98:
		case 0x9a:
		case 0x9c:
		case 0x9e:
			soundEvent_u16(address&0xFF, value);
			break;
		case 0xB0:
			DM0SAD_L = value;
			UPDATE_REG(0xB0, DM0SAD_L);
			break;
		case 0xB2:
			DM0SAD_H = value & 0x07FF;
			UPDATE_REG(0xB2, DM0SAD_H);
			break;
		case 0xB4:
			DM0DAD_L = value;
			UPDATE_REG(0xB4, DM0DAD_L);
			break;
		case 0xB6:
			DM0DAD_H = value & 0x07FF;
			UPDATE_REG(0xB6, DM0DAD_H);
			break;
		case 0xB8:
			DM0CNT_L = value & 0x3FFF;
			UPDATE_REG(0xB8, 0);
			break;
		case 0xBA:
			{
				bool start = ((DM0CNT_H ^ value) & 0x8000) ? true : false;
				value &= 0xF7E0;

				DM0CNT_H = value;
				UPDATE_REG(0xBA, DM0CNT_H);

				if(start && (value & 0x8000))
				{
					dma0Source = DM0SAD_L | (DM0SAD_H << 16);
					dma0Dest = DM0DAD_L | (DM0DAD_H << 16);
					CPUCheckDMA(0, 1);
				}
			}
			break;
		case 0xBC:
			DM1SAD_L = value;
			UPDATE_REG(0xBC, DM1SAD_L);
			break;
		case 0xBE:
			DM1SAD_H = value & 0x0FFF;
			UPDATE_REG(0xBE, DM1SAD_H);
			break;
		case 0xC0:
			DM1DAD_L = value;
			UPDATE_REG(0xC0, DM1DAD_L);
			break;
		case 0xC2:
			DM1DAD_H = value & 0x07FF;
			UPDATE_REG(0xC2, DM1DAD_H);
			break;
		case 0xC4:
			DM1CNT_L = value & 0x3FFF;
			UPDATE_REG(0xC4, 0);
			break;
		case 0xC6:
			{
				bool start = ((DM1CNT_H ^ value) & 0x8000) ? true : false;
				value &= 0xF7E0;

				DM1CNT_H = value;
				UPDATE_REG(0xC6, DM1CNT_H);

				if(start && (value & 0x8000))
				{
					dma1Source = DM1SAD_L | (DM1SAD_H << 16);
					dma1Dest = DM1DAD_L | (DM1DAD_H << 16);
					CPUCheckDMA(0, 2);
				}
			}
			break;
		case 0xC8:
			DM2SAD_L = value;
			UPDATE_REG(0xC8, DM2SAD_L);
			break;
		case 0xCA:
			DM2SAD_H = value & 0x0FFF;
			UPDATE_REG(0xCA, DM2SAD_H);
			break;
		case 0xCC:
			DM2DAD_L = value;
			UPDATE_REG(0xCC, DM2DAD_L);
			break;
		case 0xCE:
			DM2DAD_H = value & 0x07FF;
			UPDATE_REG(0xCE, DM2DAD_H);
			break;
		case 0xD0:
			DM2CNT_L = value & 0x3FFF;
			UPDATE_REG(0xD0, 0);
			break;
		case 0xD2:
			{
				bool start = ((DM2CNT_H ^ value) & 0x8000) ? true : false;

				value &= 0xF7E0;

				DM2CNT_H = value;
				UPDATE_REG(0xD2, DM2CNT_H);

				if(start && (value & 0x8000)) {
					dma2Source = DM2SAD_L | (DM2SAD_H << 16);
					dma2Dest = DM2DAD_L | (DM2DAD_H << 16);

					CPUCheckDMA(0, 4);
				}
			}
			break;
		case 0xD4:
			DM3SAD_L = value;
			UPDATE_REG(0xD4, DM3SAD_L);
			break;
		case 0xD6:
			DM3SAD_H = value & 0x0FFF;
			UPDATE_REG(0xD6, DM3SAD_H);
			break;
		case 0xD8:
			DM3DAD_L = value;
			UPDATE_REG(0xD8, DM3DAD_L);
			break;
		case 0xDA:
			DM3DAD_H = value & 0x0FFF;
			UPDATE_REG(0xDA, DM3DAD_H);
			break;
		case 0xDC:
			DM3CNT_L = value;
			UPDATE_REG(0xDC, 0);
			break;
		case 0xDE:
			{
				bool start = ((DM3CNT_H ^ value) & 0x8000) ? true : false;

				value &= 0xFFE0;

				DM3CNT_H = value;
				UPDATE_REG(0xDE, DM3CNT_H);

				if(start && (value & 0x8000)) {
					dma3Source = DM3SAD_L | (DM3SAD_H << 16);
					dma3Dest = DM3DAD_L | (DM3DAD_H << 16);
					CPUCheckDMA(0,8);
				}
			}
			break;
		case 0x100:
			timer0Reload = value;
			break;
		case 0x102:
			timer0Value = value;
			timerOnOffDelay|=1;
			cpuNextEvent = cpuTotalTicks;
			break;
		case 0x104:
			timer1Reload = value;
			break;
		case 0x106:
			timer1Value = value;
			timerOnOffDelay|=2;
			cpuNextEvent = cpuTotalTicks;
			break;
		case 0x108:
			timer2Reload = value;
			break;
		case 0x10A:
			timer2Value = value;
			timerOnOffDelay|=4;
			cpuNextEvent = cpuTotalTicks;
			break;
		case 0x10C:
			timer3Reload = value;
			break;
		case 0x10E:
			timer3Value = value;
			timerOnOffDelay|=8;
			cpuNextEvent = cpuTotalTicks;
			break;
		case 0x130:
			io_registers[REG_P1] |= (value & 0x3FF);
			UPDATE_REG(0x130, io_registers[REG_P1]);
			break;
		case 0x132:
			UPDATE_REG(0x132, value & 0xC3FF);
			break;
		case 0x200:
			io_registers[REG_IE] = value & 0x3FFF;
			UPDATE_REG(0x200, io_registers[REG_IE]);
			if ((io_registers[REG_IME] & 1) && (io_registers[REG_IF] & io_registers[REG_IE]) && armIrqEnable)
				cpuNextEvent = cpuTotalTicks;
			break;
		case 0x202:
			io_registers[REG_IF] ^= (value & io_registers[REG_IF]);
			UPDATE_REG(0x202, io_registers[REG_IF]);
			break;
		case 0x204:
		    memoryWait[0x0e] = memoryWaitSeq[0x0e] = gamepakRamWaitState[value & 3];

#if  USE_TWEAK_SPEEDHACK
            memoryWait[0x08] = memoryWait[0x09] = 3;
            memoryWaitSeq[0x08] = memoryWaitSeq[0x09] = 1;
            memoryWait[0x0a] = memoryWait[0x0b] = 3;
            memoryWaitSeq[0x0a] = memoryWaitSeq[0x0b] = 1;
            memoryWait[0x0c] = memoryWait[0x0d] = 3;
            memoryWaitSeq[0x0c] = memoryWaitSeq[0x0d] = 1;
#else
            memoryWait[0x08] = memoryWait[0x09] = gamepakWaitState[(value >> 2) & 3];
            memoryWaitSeq[0x08] = memoryWaitSeq[0x09] = gamepakWaitState0[(value >> 4) & 1];
            memoryWait[0x0a] = memoryWait[0x0b] = gamepakWaitState[(value >> 5) & 3];
            memoryWaitSeq[0x0a] = memoryWaitSeq[0x0b] = gamepakWaitState1[(value >> 7) & 1];
            memoryWait[0x0c] = memoryWait[0x0d] = gamepakWaitState[(value >> 8) & 3];
            memoryWaitSeq[0x0c] = memoryWaitSeq[0x0d] = gamepakWaitState2[(value >> 10) & 1];
#endif

			memoryWait32[8] = memoryWait[8] + memoryWaitSeq[8] + 1;
			memoryWaitSeq32[8] = (memoryWaitSeq[8] << 1) + 1;
			memoryWait32[9] = memoryWait[9] + memoryWaitSeq[9] + 1;
			memoryWaitSeq32[9] = (memoryWaitSeq[9] << 1) + 1;
			memoryWait32[10] = memoryWait[10] + memoryWaitSeq[10] + 1;
			memoryWaitSeq32[10] = (memoryWaitSeq[10] << 1) + 1;
			memoryWait32[11] = memoryWait[11] + memoryWaitSeq[11] + 1;
			memoryWaitSeq32[11] = (memoryWaitSeq[11] << 1) + 1;
			memoryWait32[12] = memoryWait[12] + memoryWaitSeq[12] + 1;
			memoryWaitSeq32[12] = (memoryWaitSeq[12] << 1) + 1;
			memoryWait32[13] = memoryWait[13] + memoryWaitSeq[13] + 1;
			memoryWaitSeq32[13] = (memoryWaitSeq[13] << 1) + 1;
			memoryWait32[14] = memoryWait[14] + memoryWaitSeq[14] + 1;
			memoryWaitSeq32[14] = (memoryWaitSeq[14] << 1) + 1;

			if((value & 0x4000) == 0x4000)
				bus.busPrefetchEnable = true;
			else
				bus.busPrefetchEnable = false;

			bus.busPrefetch = false;
			bus.busPrefetchCount = 0;

			UPDATE_REG(0x204, value & 0x7FFF);
			break;
		case 0x208:
			io_registers[REG_IME] = value & 1;
			UPDATE_REG(0x208, io_registers[REG_IME]);
			if ((io_registers[REG_IME] & 1) && (io_registers[REG_IF] & io_registers[REG_IE]) && armIrqEnable)
				cpuNextEvent = cpuTotalTicks;
			break;
		case 0x300:
			if(value != 0)
				value &= 0xFFFE;
			UPDATE_REG(0x300, value);
			break;
		default:
			UPDATE_REG(address&0x3FE, value);
			break;
	}
}

void CPUInit(const char *biosFileName, bool useBiosFile)
{
#ifdef MSB_FIRST
	if(!cpuBiosSwapped)
   {
		for(unsigned int i = 0; i < sizeof(myROM)/4; i++)
      {
			WRITE32LE(&myROM[i], myROM[i]);
		}
		cpuBiosSwapped = true;
	}
#endif
	gbaSaveType = 0;
	eepromInUse = 0;
	saveType = 0;
	useBios = false;

#ifdef HAVE_HLE_BIOS
	if(useBiosFile)
	{
		int size = 0x4000;
		if(utilLoad(biosFileName, CPUIsGBABios, bios, size))
		{
			if(size == 0x4000)
				useBios = true;
		}
	}
#endif

#ifdef HAVE_HLE_BIOS
	if(!useBios)
#endif
		memcpy(bios, myROM, sizeof(myROM));

	int i = 0;

	biosProtected[0] = 0x00;
	biosProtected[1] = 0xf0;
	biosProtected[2] = 0x29;
	biosProtected[3] = 0xe1;

	for(i = 0; i < 256; i++)
	{
		int count = 0;
		int j;
		for(j = 0; j < 8; j++)
			if(i & (1 << j))
				count++;
		cpuBitsSet[i] = count;

		for(j = 0; j < 8; j++)
			if(i & (1 << j))
				break;
	}

	for(i = 0; i < 0x400; i++)
		ioReadable[i] = true;
	for(i = 0x10; i < 0x48; i++)
		ioReadable[i] = false;
	for(i = 0x4c; i < 0x50; i++)
		ioReadable[i] = false;
	for(i = 0x54; i < 0x60; i++)
		ioReadable[i] = false;
	for(i = 0x8c; i < 0x90; i++)
		ioReadable[i] = false;
	for(i = 0xa0; i < 0xb8; i++)
		ioReadable[i] = false;
	for(i = 0xbc; i < 0xc4; i++)
		ioReadable[i] = false;
	for(i = 0xc8; i < 0xd0; i++)
		ioReadable[i] = false;
	for(i = 0xd4; i < 0xdc; i++)
		ioReadable[i] = false;
	for(i = 0xe0; i < 0x100; i++)
		ioReadable[i] = false;
	for(i = 0x110; i < 0x120; i++)
		ioReadable[i] = false;
	for(i = 0x12c; i < 0x130; i++)
		ioReadable[i] = false;
	for(i = 0x138; i < 0x140; i++)
		ioReadable[i] = false;
	for(i = 0x144; i < 0x150; i++)
		ioReadable[i] = false;
	for(i = 0x15c; i < 0x200; i++)
		ioReadable[i] = false;
	for(i = 0x20c; i < 0x300; i++)
		ioReadable[i] = false;
	for(i = 0x304; i < 0x400; i++)
		ioReadable[i] = false;

	if(romSize < 0x1fe2000) {
		*((uint16_t *)&rom[0x1fe209c]) = 0xdffa; // SWI 0xFA
		*((uint16_t *)&rom[0x1fe209e]) = 0x4770; // BX LR
	}

	graphics.layerEnable = 0xff00;
	graphics.layerEnableDelay = 1;
	io_registers[REG_DISPCNT] = 0x0080;
	io_registers[REG_DISPSTAT] = 0;
	graphics.lcdTicks = (useBios && !skipBios) ? 1008 : 208;

	/* address lut for use in CPUUpdateRegister */
	address_lut[0x08] = &io_registers[REG_BG0CNT];
	address_lut[0x0A] = &io_registers[REG_BG1CNT];
	address_lut[0x0C] = &io_registers[REG_BG2CNT];
	address_lut[0x0E] = &io_registers[REG_BG3CNT];
	address_lut[0x10] = &io_registers[REG_BG0HOFS];
	address_lut[0x12] = &io_registers[REG_BG0VOFS];
	address_lut[0x14] = &io_registers[REG_BG1HOFS];
	address_lut[0x16] = &io_registers[REG_BG1VOFS];
	address_lut[0x18] = &io_registers[REG_BG2HOFS];
	address_lut[0x1A] = &io_registers[REG_BG2VOFS];
	address_lut[0x1C] = &io_registers[REG_BG3HOFS];
	address_lut[0x1E] = &io_registers[REG_BG3VOFS];
	address_lut[0x20] = &io_registers[REG_BG2PA];
	address_lut[0x22] = &io_registers[REG_BG2PB];
	address_lut[0x24] = &io_registers[REG_BG2PC];
	address_lut[0x26] = &io_registers[REG_BG2PD];
	address_lut[0x48] = &io_registers[REG_WININ];
	address_lut[0x4A] = &io_registers[REG_WINOUT];
	address_lut[0x30] = &io_registers[REG_BG3PA];
	address_lut[0x32] = &io_registers[REG_BG3PB];
	address_lut[0x34] = &io_registers[REG_BG3PC];
	address_lut[0x36] = &io_registers[REG_BG3PD];
        address_lut[0x40] = &io_registers[REG_WIN0H];
        address_lut[0x42] = &io_registers[REG_WIN1H];
        address_lut[0x44] = &io_registers[REG_WIN0V];
        address_lut[0x46] = &io_registers[REG_WIN1V];
}

void CPUReset (void)
{
	if(gbaSaveType == 0)
	{
		if(eepromInUse)
			gbaSaveType = 3;
		else
			switch(saveType)
			{
				case 1:
					gbaSaveType = 1;
					break;
				case 2:
					gbaSaveType = 2;
					break;
			}
	}
	rtcReset();
#if USE_MOTION_SENSOR
	hardware_reset();
#endif
	memset(&bus.reg[0], 0, sizeof(bus.reg));	// clean registers
	memset(oam, 0, 0x400);				// clean OAM
	memset(paletteRAM, 0, 0x400);		// clean palette
	memset(pix, 0, 4 * 160 * 240);		// clean picture
	memset(vram, 0, 0x20000);			// clean vram
	memset(ioMem, 0, 0x400);			// clean io memory

	io_registers[REG_DISPCNT]  = 0x0080;
	io_registers[REG_DISPSTAT] = 0x0000;
	io_registers[REG_VCOUNT]   = (useBios && !skipBios) ? 0 :0x007E;
	io_registers[REG_BG0CNT]   = 0x0000;
	io_registers[REG_BG1CNT]   = 0x0000;
	io_registers[REG_BG2CNT]   = 0x0000;
	io_registers[REG_BG3CNT]   = 0x0000;
	io_registers[REG_BG0HOFS]  = 0x0000;
	io_registers[REG_BG0VOFS]  = 0x0000;
	io_registers[REG_BG1HOFS]  = 0x0000;
	io_registers[REG_BG1VOFS]  = 0x0000;
	io_registers[REG_BG2HOFS]  = 0x0000;
	io_registers[REG_BG2VOFS]  = 0x0000;
	io_registers[REG_BG3HOFS]  = 0x0000;
	io_registers[REG_BG3VOFS]  = 0x0000;
	io_registers[REG_BG2PA]    = 0x0100;
	io_registers[REG_BG2PB]    = 0x0000;
	io_registers[REG_BG2PC]    = 0x0000;
	io_registers[REG_BG2PD]    = 0x0100;
	BG2X_L   = 0x0000;
	BG2X_H   = 0x0000;
	BG2Y_L   = 0x0000;
	BG2Y_H   = 0x0000;
	io_registers[REG_BG3PA]    = 0x0100;
	io_registers[REG_BG3PB]    = 0x0000;
	io_registers[REG_BG3PC]    = 0x0000;
	io_registers[REG_BG3PD]    = 0x0100;
	BG3X_L   = 0x0000;
	BG3X_H   = 0x0000;
	BG3Y_L   = 0x0000;
	BG3Y_H   = 0x0000;
	io_registers[REG_WIN0H]    = 0x0000;
	io_registers[REG_WIN1H]    = 0x0000;
	io_registers[REG_WIN0V]    = 0x0000;
	io_registers[REG_WIN1V]    = 0x0000;
	io_registers[REG_WININ]    = 0x0000;
	io_registers[REG_WINOUT]   = 0x0000;
	MOSAIC   = 0x0000;
	BLDMOD   = 0x0000;
	COLEV    = 0x0000;
	COLY     = 0x0000;
	DM0SAD_L = 0x0000;
	DM0SAD_H = 0x0000;
	DM0DAD_L = 0x0000;
	DM0DAD_H = 0x0000;
	DM0CNT_L = 0x0000;
	DM0CNT_H = 0x0000;
	DM1SAD_L = 0x0000;
	DM1SAD_H = 0x0000;
	DM1DAD_L = 0x0000;
	DM1DAD_H = 0x0000;
	DM1CNT_L = 0x0000;
	DM1CNT_H = 0x0000;
	DM2SAD_L = 0x0000;
	DM2SAD_H = 0x0000;
	DM2DAD_L = 0x0000;
	DM2DAD_H = 0x0000;
	DM2CNT_L = 0x0000;
	DM2CNT_H = 0x0000;
	DM3SAD_L = 0x0000;
	DM3SAD_H = 0x0000;
	DM3DAD_L = 0x0000;
	DM3DAD_H = 0x0000;
	DM3CNT_L = 0x0000;
	DM3CNT_H = 0x0000;
	io_registers[REG_TM0D]     = 0x0000;
	io_registers[REG_TM0CNT]   = 0x0000;
	io_registers[REG_TM1D]     = 0x0000;
	io_registers[REG_TM1CNT]   = 0x0000;
	io_registers[REG_TM2D]     = 0x0000;
	io_registers[REG_TM2CNT]   = 0x0000;
	io_registers[REG_TM3D]     = 0x0000;
	io_registers[REG_TM3CNT]   = 0x0000;
	io_registers[REG_P1]       = 0x03FF;
	io_registers[REG_IE]       = 0x0000;
	io_registers[REG_IF]       = 0x0000;
	io_registers[REG_IME]      = 0x0000;

	armMode = 0x1F;

	if(cpuIsMultiBoot) {
		bus.reg[13].I = 0x03007F00;
		bus.reg[15].I = 0x02000000;
		bus.reg[16].I = 0x00000000;
		bus.reg[R13_IRQ].I = 0x03007FA0;
		bus.reg[R13_SVC].I = 0x03007FE0;
		armIrqEnable = true;
	} else {
#ifdef HAVE_HLE_BIOS
		if(useBios && !skipBios)
		{
			bus.reg[15].I = 0x00000000;
			armMode = 0x13;
			armIrqEnable = false;
		}
		else
		{
#endif
			bus.reg[13].I = 0x03007F00;
			bus.reg[15].I = 0x08000000;
			bus.reg[16].I = 0x00000000;
			bus.reg[R13_IRQ].I = 0x03007FA0;
			bus.reg[R13_SVC].I = 0x03007FE0;
			armIrqEnable = true;
#ifdef HAVE_HLE_BIOS
		}
#endif
	}

	armState = true;
	C_FLAG = V_FLAG = N_FLAG = Z_FLAG = false;
	UPDATE_REG(0x00, io_registers[REG_DISPCNT]);
	UPDATE_REG(0x06, io_registers[REG_VCOUNT]);
	UPDATE_REG(0x20, io_registers[REG_BG2PA]);
	UPDATE_REG(0x26, io_registers[REG_BG2PD]);
	UPDATE_REG(0x30, io_registers[REG_BG3PA]);
	UPDATE_REG(0x36, io_registers[REG_BG3PD]);
	UPDATE_REG(0x130, io_registers[REG_P1]);
	UPDATE_REG(0x88, 0x200);

	// disable FIQ
	bus.reg[16].I |= 0x40;

	CPU_UPDATE_CPSR();

	bus.armNextPC = bus.reg[15].I;
	bus.reg[15].I += 4;

	// reset internal state
	holdState = false;

	biosProtected[0] = 0x00;
	biosProtected[1] = 0xf0;
	biosProtected[2] = 0x29;
	biosProtected[3] = 0xe1;

	graphics.lcdTicks = (useBios && !skipBios) ? 1008 : 208;
	timer0On = false;
	timer0Ticks = 0;
	timer0Reload = 0;
	timer0ClockReload  = 0;
	timer1On = false;
	timer1Ticks = 0;
	timer1Reload = 0;
	timer1ClockReload  = 0;
	timer2On = false;
	timer2Ticks = 0;
	timer2Reload = 0;
	timer2ClockReload  = 0;
	timer3On = false;
	timer3Ticks = 0;
	timer3Reload = 0;
	timer3ClockReload  = 0;
	dma0Source = 0;
	dma0Dest = 0;
	dma1Source = 0;
	dma1Dest = 0;
	dma2Source = 0;
	dma2Dest = 0;
	dma3Source = 0;
	dma3Dest = 0;
	cpuSaveGameFunc = flashSaveDecide;
	fxOn = false;
	windowOn = false;
	saveType = 0;
	graphics.layerEnable = io_registers[REG_DISPCNT];

#if !THREADED_RENDERER
	memset(line[Layer_BG0], -1, 240 * sizeof(u32));
	memset(line[Layer_BG1], -1, 240 * sizeof(u32));
	memset(line[Layer_BG2], -1, 240 * sizeof(u32));
	memset(line[Layer_BG3], -1, 240 * sizeof(u32));
#endif

	for(int i = 0; i < 256; i++) {
		map[i].address = 0;
		map[i].mask = 0;
	}

	map[0].address = bios;
	map[0].mask = 0x3FFF;
	map[2].address = workRAM;
	map[2].mask = 0x3FFFF;
	map[3].address = internalRAM;
	map[3].mask = 0x7FFF;
	map[4].address = ioMem;
	map[4].mask = 0x3FF;
	map[5].address = paletteRAM;
	map[5].mask = 0x3FF;
	map[6].address = vram;
	map[6].mask = 0x1FFFF;
	map[7].address = oam;
	map[7].mask = 0x3FF;
	map[8].address = rom;
	map[8].mask = 0x1FFFFFF;
	map[9].address = rom;
	map[9].mask = 0x1FFFFFF;
	map[10].address = rom;
	map[10].mask = 0x1FFFFFF;
	map[12].address = rom;
	map[12].mask = 0x1FFFFFF;
	map[14].address = flashSaveMemory;
	map[14].mask = 0xFFFF;

	eepromReset();
	flashReset();

	soundReset();

	CPUUpdateWindow0();
	CPUUpdateWindow1();

	// make sure registers are correctly initialized if not using BIOS
	if(cpuIsMultiBoot)
		BIOS_RegisterRamReset(0xfe);
	else if(!useBios && !cpuIsMultiBoot)
		BIOS_RegisterRamReset(0xff);

	switch(cpuSaveType) {
		case 0: // automatic
			cpuSramEnabled = true;
			cpuFlashEnabled = true;
			cpuEEPROMEnabled = true;
			saveType = gbaSaveType = 0;
			break;
		case 1: // EEPROM
			cpuSramEnabled = false;
			cpuFlashEnabled = false;
			cpuEEPROMEnabled = true;
			saveType = gbaSaveType = 3;
			// EEPROM usage is automatically detected
			break;
		case 2: // SRAM
			cpuSramEnabled = true;
			cpuFlashEnabled = false;
			cpuEEPROMEnabled = false;
			cpuSaveGameFunc = sramDelayedWrite; // to insure we detect the write
			saveType = gbaSaveType = 1;
			break;
		case 3: // FLASH
			cpuSramEnabled = false;
			cpuFlashEnabled = true;
			cpuEEPROMEnabled = false;
			cpuSaveGameFunc = flashDelayedWrite; // to insure we detect the write
			saveType = gbaSaveType = 2;
			break;
		case 4: // EEPROM+Sensor
			cpuSramEnabled = false;
			cpuFlashEnabled = false;
			cpuEEPROMEnabled = true;
			// EEPROM usage is automatically detected
			saveType = gbaSaveType = 3;
			break;
		case 5: // NONE
			cpuSramEnabled = false;
			cpuFlashEnabled = false;
			cpuEEPROMEnabled = false;
			// no save at all
			saveType = gbaSaveType = 5;
			break;
	}

	ARM_PREFETCH;

#ifdef USE_SWITICKS
	SWITicks = 0;
#endif

	cpuDmaLast = 0;
	cpuDmaRunning = false;
}

static void CPUInterrupt(void)
{
	uint32_t PC = bus.reg[15].I;
	bool savedState = armState;

	if(armMode != 0x12 )
		CPUSwitchMode(0x12, true, false);

	bus.reg[14].I = PC;
	if(!savedState)
		bus.reg[14].I += 2;
	bus.reg[15].I = 0x18;
	armState = true;
	armIrqEnable = false;

	bus.armNextPC = bus.reg[15].I;
	bus.reg[15].I += 4;
	ARM_PREFETCH;

	//  if(!holdState)
	biosProtected[0] = 0x02;
	biosProtected[1] = 0xc0;
	biosProtected[2] = 0x5e;
	biosProtected[3] = 0xe5;
}

void UpdateJoypad(void)
{
   /* update joystick information */
   io_registers[REG_P1] = 0x03FF ^ (joy & 0x3FF);
#if USE_MOTION_SENSOR
	if(hardware.sensor) {
		systemUpdateMotionSensor();
		hardware.tilt_x = (systemGetAccelX() >> 21) + 0x3A0;
		hardware.tilt_y = (systemGetAccelY() >> 21) + 0x3A0;
	}
#endif
   UPDATE_REG(0x130, io_registers[REG_P1]);
   io_registers[REG_P1CNT] = READ16LE(((uint16_t *)&ioMem[0x132]));

   // this seems wrong, but there are cases where the game
   // can enter the stop state without requesting an IRQ from
   // the joypad.
   if((io_registers[REG_P1CNT] & 0x4000) || stopState) {
      uint16_t p1 = (0x3FF ^ io_registers[REG_P1CNT]) & 0x3FF;
      if(io_registers[REG_P1CNT] & 0x8000) {
         if(p1 == (io_registers[REG_P1CNT] & 0x3FF)) {
            io_registers[REG_IF] |= 0x1000;
            UPDATE_REG(0x202, io_registers[REG_IF]);
         }
      } else {
         if(p1 & io_registers[REG_P1CNT]) {
            io_registers[REG_IF] |= 0x1000;
            UPDATE_REG(0x202, io_registers[REG_IF]);
         }
      }
   }
}

void CPULoop (void)
{
	bool framedone;
	int timerOverflow = 0;
	int ticks = 300000;

	bus.busPrefetchCount = 0;
	// variable used by the CPU core
	cpuTotalTicks = 0;

	cpuNextEvent = CPUUpdateTicks();
	if(cpuNextEvent > ticks)
	cpuNextEvent = ticks;

	framedone = false;

	do
	{
		if(!holdState)
		{
			if(armState)
			{
				if (!armExecute())
					return;
			}
			else
			{
				if (!thumbExecute())
					return;
			}
			clockTicks = 0;
		}
		else
			clockTicks = CPUUpdateTicks();

		cpuTotalTicks += clockTicks;

		if(cpuTotalTicks >= cpuNextEvent) {
			int remainingTicks = cpuTotalTicks - cpuNextEvent;

#ifdef USE_SWITICKS
			if (SWITicks) {
				SWITicks-=clockTicks;
				if (SWITicks<0)
					SWITicks = 0;
			}
#endif

			clockTicks = cpuNextEvent;
			cpuTotalTicks = 0;

updateLoop:

			if (IRQTicks) {
				IRQTicks -= clockTicks;
				if (IRQTicks<0)
					IRQTicks = 0;
			}

			graphics.lcdTicks -= clockTicks;

			if(graphics.lcdTicks <= 0)
			{
				if(io_registers[REG_DISPSTAT] & 1)
				{ // V-BLANK
					// if in V-Blank mode, keep computing...
					if(io_registers[REG_DISPSTAT] & 2)
					{
						graphics.lcdTicks += 1008;
						R_VCOUNT += 1;
						UPDATE_REG(0x06, R_VCOUNT);
						io_registers[REG_DISPSTAT] &= 0xFFFD;
						UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
						CPUCompareVCOUNT();
					}
					else
					{
						graphics.lcdTicks += 224;
						io_registers[REG_DISPSTAT] |= 2;
						UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
						if(io_registers[REG_DISPSTAT] & 16)
						{
							io_registers[REG_IF] |= 2;
							UPDATE_REG(0x202, io_registers[REG_IF]);
						}
					}

					if(R_VCOUNT >= 228)
					{
						//Reaching last line
						io_registers[REG_DISPSTAT] &= 0xFFFC;
						UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
						R_VCOUNT = 0;
						UPDATE_REG(0x06, R_VCOUNT);
						CPUCompareVCOUNT();
					}
				}
				else if(io_registers[REG_DISPSTAT] & 2)
				{
					// if in H-Blank, leave it and move to drawing mode
					R_VCOUNT += 1;
					UPDATE_REG(0x06, R_VCOUNT);

					graphics.lcdTicks += 1008;
					io_registers[REG_DISPSTAT] &= 0xFFFD;

					if(R_VCOUNT == 160)
		        	{
		            	uint32_t ext = (joy >> 10);
		            	// If no (m) code is enabled, apply the cheats at each LCDline
#if USE_CHEATS
		            	if(mastercode == 0)
		                	remainingTicks += cheatsCheckKeys(io_registers[REG_P1] ^ 0x3FF, ext);
#endif
		            	io_registers[REG_DISPSTAT] |= 1;
		            	io_registers[REG_DISPSTAT] &= 0xFFFD;
		            	UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
		            	if(io_registers[REG_DISPSTAT] & 0x0008)
		            	{
		                	io_registers[REG_IF] |= 1;
		                	UPDATE_REG(0x202, io_registers[REG_IF]);
		            	}
		            	CPUCheckDMA(1, 0x0f);

#if !THREADED_RENDERER
		            	systemDrawScreen();
#endif

#if USE_FRAME_SKIP
						++fs_count;

						if(fs_type_b == 0) {
							fs_draw = true;
						} else {
							if(fs_type_a > 0) {
								fs_draw = (fs_count % (fs_type_b + 1));
							} else {
								fs_draw = ((fs_count % (fs_type_b + 1)) == 0);
							}
						}
#endif
		            	framedone = true;
		        	}

					UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
					CPUCompareVCOUNT();
				}
				else
				{
#if USE_FRAME_SKIP
					if(fs_draw) {
#endif
#if THREADED_RENDERER
						postRender();
#else
						bool draw_objwin = (graphics.layerEnable & 0x9000) == 0x9000;
						bool draw_sprites = R_DISPCNT_Screen_Display_OBJ;

						memset(RENDERER_LINE[Layer_OBJ], -1, 240 * sizeof(u32));	// erase all sprites
						if(draw_sprites) gfxDrawSprites<0>();

						if(renderfunc_type == 2) {
							memset(RENDERER_LINE[Layer_WIN_OBJ], -1, 240 * sizeof(u32));	// erase all OBJ Win
							if(draw_objwin) gfxDrawOBJWin<0>();
						}

						GetRenderFunc<0>(renderfunc_mode, renderfunc_type)();
#endif
#if USE_FRAME_SKIP
					}
#endif

					// entering H-Blank
					io_registers[REG_DISPSTAT] |= 2;
					UPDATE_REG(0x04, io_registers[REG_DISPSTAT]);
					graphics.lcdTicks += 224;
					CPUCheckDMA(2, 0x0f);
					if(io_registers[REG_DISPSTAT] & 16)
					{
						io_registers[REG_IF] |= 2;
						UPDATE_REG(0x202, io_registers[REG_IF]);
					}
				}
			}

			// we shouldn't be doing sound in stop state, but we lose synchronization
			// if sound is disabled, so in stop state, soundTick will just produce
			// mute sound
			soundTicks -= clockTicks;
			if(!soundTicks)
			{
				process_sound_tick_fn();
				soundTicks += SOUND_CLOCK_TICKS;
			}

			if(!stopState) {
				if(timer0On) {
					timer0Ticks -= clockTicks;
					if(timer0Ticks <= 0) {
						timer0Ticks += (0x10000 - timer0Reload) << timer0ClockReload;
						timerOverflow |= 1;
						soundTimerOverflow(0);
						if(io_registers[REG_TM0CNT] & 0x40) {
							io_registers[REG_IF] |= 0x08;
							UPDATE_REG(0x202, io_registers[REG_IF]);
						}
					}
					io_registers[REG_TM0D] = 0xFFFF - (timer0Ticks >> timer0ClockReload);
					UPDATE_REG(0x100, io_registers[REG_TM0D]);
				}

				if(timer1On) {
					if(io_registers[REG_TM1CNT] & 4) {
						if(timerOverflow & 1) {
							io_registers[REG_TM1D]++;
							if(io_registers[REG_TM1D] == 0) {
								io_registers[REG_TM1D] += timer1Reload;
								timerOverflow |= 2;
								soundTimerOverflow(1);
								if(io_registers[REG_TM1CNT] & 0x40) {
									io_registers[REG_IF] |= 0x10;
									UPDATE_REG(0x202, io_registers[REG_IF]);
								}
							}
							UPDATE_REG(0x104, io_registers[REG_TM1D]);
						}
					} else {
						timer1Ticks -= clockTicks;
						if(timer1Ticks <= 0) {
							timer1Ticks += (0x10000 - timer1Reload) << timer1ClockReload;
							timerOverflow |= 2;
							soundTimerOverflow(1);
							if(io_registers[REG_TM1CNT] & 0x40) {
								io_registers[REG_IF] |= 0x10;
								UPDATE_REG(0x202, io_registers[REG_IF]);
							}
						}
						io_registers[REG_TM1D] = 0xFFFF - (timer1Ticks >> timer1ClockReload);
						UPDATE_REG(0x104, io_registers[REG_TM1D]);
					}
				}

				if(timer2On) {
					if(io_registers[REG_TM2CNT] & 4) {
						if(timerOverflow & 2) {
							io_registers[REG_TM2D]++;
							if(io_registers[REG_TM2D] == 0) {
								io_registers[REG_TM2D] += timer2Reload;
								timerOverflow |= 4;
								if(io_registers[REG_TM2CNT] & 0x40) {
									io_registers[REG_IF] |= 0x20;
									UPDATE_REG(0x202, io_registers[REG_IF]);
								}
							}
							UPDATE_REG(0x108, io_registers[REG_TM2D]);
						}
					} else {
						timer2Ticks -= clockTicks;
						if(timer2Ticks <= 0) {
							timer2Ticks += (0x10000 - timer2Reload) << timer2ClockReload;
							timerOverflow |= 4;
							if(io_registers[REG_TM2CNT] & 0x40) {
								io_registers[REG_IF] |= 0x20;
								UPDATE_REG(0x202, io_registers[REG_IF]);
							}
						}
						io_registers[REG_TM2D] = 0xFFFF - (timer2Ticks >> timer2ClockReload);
						UPDATE_REG(0x108, io_registers[REG_TM2D]);
					}
				}

				if(timer3On) {
					if(io_registers[REG_TM3CNT] & 4) {
						if(timerOverflow & 4) {
							io_registers[REG_TM3D]++;
							if(io_registers[REG_TM3D] == 0) {
								io_registers[REG_TM3D] += timer3Reload;
								if(io_registers[REG_TM3CNT] & 0x40) {
									io_registers[REG_IF] |= 0x40;
									UPDATE_REG(0x202, io_registers[REG_IF]);
								}
							}
							UPDATE_REG(0x10C, io_registers[REG_TM3D]);
						}
					} else {
						timer3Ticks -= clockTicks;
						if(timer3Ticks <= 0) {
							timer3Ticks += (0x10000 - timer3Reload) << timer3ClockReload;
							if(io_registers[REG_TM3CNT] & 0x40) {
								io_registers[REG_IF] |= 0x40;
								UPDATE_REG(0x202, io_registers[REG_IF]);
							}
						}
						io_registers[REG_TM3D] = 0xFFFF - (timer3Ticks >> timer3ClockReload);
						UPDATE_REG(0x10C, io_registers[REG_TM3D]);
					}
				}
			}

			timerOverflow = 0;
			ticks -= clockTicks;
			cpuNextEvent = CPUUpdateTicks();

			if(cpuDmaTicksToUpdate > 0)
			{
				if(cpuDmaTicksToUpdate > cpuNextEvent)
					clockTicks = cpuNextEvent;
				else
					clockTicks = cpuDmaTicksToUpdate;
				cpuDmaTicksToUpdate -= clockTicks;
				if(cpuDmaTicksToUpdate < 0)
					cpuDmaTicksToUpdate = 0;
				goto updateLoop;
			}

			if(io_registers[REG_IF] && (io_registers[REG_IME] & 1) && armIrqEnable)
			{
				int res = io_registers[REG_IF] & io_registers[REG_IE];
				if(stopState)
					res &= 0x3080;
				if(res)
				{
					if (intState)
					{
						if (!IRQTicks)
						{
							CPUInterrupt();
							intState = false;
							holdState = false;
							stopState = false;
						}
					}
					else
					{
						if (!holdState)
						{
							intState = true;
							IRQTicks=7;
							if (cpuNextEvent> IRQTicks)
								cpuNextEvent = IRQTicks;
						}
						else
						{
							CPUInterrupt();
							holdState = false;
							stopState = false;
						}
					}

#ifdef USE_SWITICKS
					// Stops the SWI Ticks emulation if an IRQ is executed
					//(to avoid problems with nested IRQ/SWI)
					if (SWITicks)
						SWITicks = 0;
#endif
				}
			}

			if(remainingTicks > 0) {
				if(remainingTicks > cpuNextEvent)
					clockTicks = cpuNextEvent;
				else
					clockTicks = remainingTicks;
				remainingTicks -= clockTicks;
				if(remainingTicks < 0)
					remainingTicks = 0;
				goto updateLoop;
			}

			if (timerOnOffDelay)
			{
				// Apply Timer
				if (timerOnOffDelay & 1)
				{
					timer0ClockReload = TIMER_TICKS[timer0Value & 3];
					if(!timer0On && (timer0Value & 0x80)) {
						// reload the counter
						io_registers[REG_TM0D] = timer0Reload;
						timer0Ticks = (0x10000 - io_registers[REG_TM0D]) << timer0ClockReload;
						UPDATE_REG(0x100, io_registers[REG_TM0D]);
					}
					timer0On = timer0Value & 0x80 ? true : false;
					io_registers[REG_TM0CNT] = timer0Value & 0xC7;
					UPDATE_REG(0x102, io_registers[REG_TM0CNT]);
				}
				if (timerOnOffDelay & 2)
				{
					timer1ClockReload = TIMER_TICKS[timer1Value & 3];
					if(!timer1On && (timer1Value & 0x80)) {
						// reload the counter
						io_registers[REG_TM1D] = timer1Reload;
						timer1Ticks = (0x10000 - io_registers[REG_TM1D]) << timer1ClockReload;
						UPDATE_REG(0x104, io_registers[REG_TM1D]);
					}
					timer1On = timer1Value & 0x80 ? true : false;
					io_registers[REG_TM1CNT] = timer1Value & 0xC7;
					UPDATE_REG(0x106, io_registers[REG_TM1CNT]);
				}
				if (timerOnOffDelay & 4)
				{
					timer2ClockReload = TIMER_TICKS[timer2Value & 3];
					if(!timer2On && (timer2Value & 0x80)) {
						// reload the counter
						io_registers[REG_TM2D] = timer2Reload;
						timer2Ticks = (0x10000 - io_registers[REG_TM2D]) << timer2ClockReload;
						UPDATE_REG(0x108, io_registers[REG_TM2D]);
					}
					timer2On = timer2Value & 0x80 ? true : false;
					io_registers[REG_TM2CNT] = timer2Value & 0xC7;
					UPDATE_REG(0x10A, io_registers[REG_TM2CNT]);
				}
				if (timerOnOffDelay & 8)
				{
					timer3ClockReload = TIMER_TICKS[timer3Value & 3];
					if(!timer3On && (timer3Value & 0x80)) {
						// reload the counter
						io_registers[REG_TM3D] = timer3Reload;
						timer3Ticks = (0x10000 - io_registers[REG_TM3D]) << timer3ClockReload;
						UPDATE_REG(0x10C, io_registers[REG_TM3D]);
					}
					timer3On = timer3Value & 0x80 ? true : false;
					io_registers[REG_TM3CNT] = timer3Value & 0xC7;
					UPDATE_REG(0x10E, io_registers[REG_TM3CNT]);
				}
				cpuNextEvent = CPUUpdateTicks();
				timerOnOffDelay = 0;
				// End of Apply Timer
			}

			if(cpuNextEvent > ticks)
				cpuNextEvent = ticks;

			if(ticks <= 0 || framedone)
				break;
		}
	} while(1);
}

/* GBA CHEATS */

/**
 * Gameshark code types: (based on AR v1.0)
 *
 * NNNNNNNN 001DC0DE - ID code for the game (game 4 character name) from ROM
 * DEADFACE XXXXXXXX - changes decryption seeds // Not supported by VBA.
 * 0AAAAAAA 000000YY - 8-bit constant write
 * 1AAAAAAA 0000YYYY - 16-bit constant write
 * 2AAAAAAA YYYYYYYY - 32-bit constant write
 * 30XXAAAA YYYYYYYY - 32bit Group Write, 8/16/32bit Sub/Add (depending on the XX value).
 * 6AAAAAAA Z000YYYY - 16-bit ROM Patch (address >> 1). Z selects the Rom Patching register.
 *                   - AR v1/2 hardware only supports Z=0.
 *                   - AR v3 hardware should support Z=0,1,2 or 3.
 * 8A1AAAAA 000000YY - 8-bit button write
 * 8A2AAAAA 0000YYYY - 16-bit button write
 * 8A4AAAAA YYYYYYYY - 32-bit button write // BUGGY ! Only writes 00000000 on the AR v1.0.
 * 80F00000 0000YYYY - button slow motion
 * DAAAAAAA 00Z0YYYY - Z = 0 : if 16-bit value at address != YYYY skip next line
 *                   - Z = 1 : if 16-bit value at address == YYYY skip next line
 *                   - Z = 2 : if 16-bit value at address > YYYY (Unsigned) skip next line
 *                   - Z = 3 : if 16-bit value at address < YYYY (Unsigned) skip next line
 * E0CCYYYY ZAAAAAAA - Z = 0 : if 16-bit value at address != YYYY skip CC lines
 *                   - Z = 1 : if 16-bit value at address == YYYY skip CC lines
 *                   - Z = 2 : if 16-bit value at address > YYYY (Unsigned) skip CC lines
 *                   - Z = 3 : if 16-bit value at address < YYYY (Unsigned) skip CC lines
 * FAAAAAAA 0000YYYY - Master code function
 *
 *
 *
 * CodeBreaker codes types: (based on the CBA clone "Cheatcode S" v1.1)
 *
 * 0000AAAA 000Y - Game CRC (Y are flags: 8 - CRC, 2 - DI)
 * 1AAAAAAA YYYY - Master Code function (store address at ((YYYY << 0x16)
 *                 + 0x08000100))
 * 2AAAAAAA YYYY - 16-bit or
 * 3AAAAAAA YYYY - 8-bit constant write
 * 4AAAAAAA YYYY - Slide code
 * XXXXCCCC IIII   (C is count and I is address increment, X is value incr.)
 * 5AAAAAAA CCCC - Super code (Write bytes to address, 2*CCCC is count)
 * BBBBBBBB BBBB
 * 6AAAAAAA YYYY - 16-bit and
 * 7AAAAAAA YYYY - if address contains 16-bit value enable next code
 * 8AAAAAAA YYYY - 16-bit constant write
 * 9AAAAAAA YYYY - change decryption (when first code only?)
 * AAAAAAAA YYYY - if address does not contain 16-bit value enable next code
 * BAAAAAAA YYYY - if 16-bit value at address  <= YYYY skip next code
 * CAAAAAAA YYYY - if 16-bit value at address  >= YYYY skip next code
 * D00000X0 YYYY - if button keys ... enable next code (else skip next code)
 * EAAAAAAA YYYY - increase 16/32bit value stored in address
 * FAAAAAAA YYYY - if 16-bit value at address AND YYYY = 0 then skip next code
 **/

#define UNKNOWN_CODE                  -1
#define INT_8_BIT_WRITE               0
#define INT_16_BIT_WRITE              1
#define INT_32_BIT_WRITE              2
#define GSA_16_BIT_ROM_PATCH          3
#define GSA_8_BIT_GS_WRITE            4
#define GSA_16_BIT_GS_WRITE           5
#define GSA_32_BIT_GS_WRITE           6
#define CBA_IF_KEYS_PRESSED           7
#define CBA_IF_TRUE                   8
#define CBA_SLIDE_CODE                9
#define CBA_IF_FALSE                  10
#define CBA_AND                       11
#define GSA_8_BIT_GS_WRITE2           12
#define GSA_16_BIT_GS_WRITE2          13
#define GSA_32_BIT_GS_WRITE2          14
#define GSA_16_BIT_ROM_PATCH2C        15
#define GSA_8_BIT_SLIDE               16
#define GSA_16_BIT_SLIDE              17
#define GSA_32_BIT_SLIDE              18
#define GSA_8_BIT_IF_TRUE             19
#define GSA_32_BIT_IF_TRUE            20
#define GSA_8_BIT_IF_FALSE            21
#define GSA_32_BIT_IF_FALSE           22
#define GSA_8_BIT_FILL                23
#define GSA_16_BIT_FILL               24
#define GSA_8_BIT_IF_TRUE2            25
#define GSA_16_BIT_IF_TRUE2           26
#define GSA_32_BIT_IF_TRUE2           27
#define GSA_8_BIT_IF_FALSE2           28
#define GSA_16_BIT_IF_FALSE2          29
#define GSA_32_BIT_IF_FALSE2          30
#define GSA_SLOWDOWN                  31
#define CBA_ADD                       32
#define CBA_OR                        33
#define CBA_LT                        34
#define CBA_GT                        35
#define CBA_SUPER                     36
#define GSA_8_BIT_POINTER             37
#define GSA_16_BIT_POINTER            38
#define GSA_32_BIT_POINTER            39
#define GSA_8_BIT_ADD                 40
#define GSA_16_BIT_ADD                41
#define GSA_32_BIT_ADD                42
#define GSA_8_BIT_IF_LOWER_U          43
#define GSA_16_BIT_IF_LOWER_U         44
#define GSA_32_BIT_IF_LOWER_U         45
#define GSA_8_BIT_IF_HIGHER_U         46
#define GSA_16_BIT_IF_HIGHER_U        47
#define GSA_32_BIT_IF_HIGHER_U        48
#define GSA_8_BIT_IF_AND              49
#define GSA_16_BIT_IF_AND             50
#define GSA_32_BIT_IF_AND             51
#define GSA_8_BIT_IF_LOWER_U2         52
#define GSA_16_BIT_IF_LOWER_U2        53
#define GSA_32_BIT_IF_LOWER_U2        54
#define GSA_8_BIT_IF_HIGHER_U2        55
#define GSA_16_BIT_IF_HIGHER_U2       56
#define GSA_32_BIT_IF_HIGHER_U2       57
#define GSA_8_BIT_IF_AND2             58
#define GSA_16_BIT_IF_AND2            59
#define GSA_32_BIT_IF_AND2            60
#define GSA_ALWAYS                    61
#define GSA_ALWAYS2                   62
#define GSA_8_BIT_IF_LOWER_S          63
#define GSA_16_BIT_IF_LOWER_S         64
#define GSA_32_BIT_IF_LOWER_S         65
#define GSA_8_BIT_IF_HIGHER_S         66
#define GSA_16_BIT_IF_HIGHER_S        67
#define GSA_32_BIT_IF_HIGHER_S        68
#define GSA_8_BIT_IF_LOWER_S2         69
#define GSA_16_BIT_IF_LOWER_S2        70
#define GSA_32_BIT_IF_LOWER_S2        71
#define GSA_8_BIT_IF_HIGHER_S2        72
#define GSA_16_BIT_IF_HIGHER_S2       73
#define GSA_32_BIT_IF_HIGHER_S2       74
#define GSA_16_BIT_WRITE_IOREGS       75
#define GSA_32_BIT_WRITE_IOREGS       76
#define GSA_CODES_ON                  77
#define GSA_8_BIT_IF_TRUE3            78
#define GSA_16_BIT_IF_TRUE3           79
#define GSA_32_BIT_IF_TRUE3           80
#define GSA_8_BIT_IF_FALSE3           81
#define GSA_16_BIT_IF_FALSE3          82
#define GSA_32_BIT_IF_FALSE3          83
#define GSA_8_BIT_IF_LOWER_S3         84
#define GSA_16_BIT_IF_LOWER_S3        85
#define GSA_32_BIT_IF_LOWER_S3        86
#define GSA_8_BIT_IF_HIGHER_S3        87
#define GSA_16_BIT_IF_HIGHER_S3       88
#define GSA_32_BIT_IF_HIGHER_S3       89
#define GSA_8_BIT_IF_LOWER_U3         90
#define GSA_16_BIT_IF_LOWER_U3        91
#define GSA_32_BIT_IF_LOWER_U3        92
#define GSA_8_BIT_IF_HIGHER_U3        93
#define GSA_16_BIT_IF_HIGHER_U3       94
#define GSA_32_BIT_IF_HIGHER_U3       95
#define GSA_8_BIT_IF_AND3             96
#define GSA_16_BIT_IF_AND3            97
#define GSA_32_BIT_IF_AND3            98
#define GSA_ALWAYS3                   99
#define GSA_16_BIT_ROM_PATCH2D        100
#define GSA_16_BIT_ROM_PATCH2E        101
#define GSA_16_BIT_ROM_PATCH2F        102
#define GSA_GROUP_WRITE               103
#define GSA_32_BIT_ADD2               104
#define GSA_32_BIT_SUB2               105
#define GSA_16_BIT_IF_LOWER_OR_EQ_U   106
#define GSA_16_BIT_IF_HIGHER_OR_EQ_U  107
#define GSA_16_BIT_MIF_TRUE           108
#define GSA_16_BIT_MIF_FALSE          109
#define GSA_16_BIT_MIF_LOWER_OR_EQ_U  110
#define GSA_16_BIT_MIF_HIGHER_OR_EQ_U 111
#define MASTER_CODE                   112
#define CHEATS_16_BIT_WRITE           114
#define CHEATS_32_BIT_WRITE           115

CheatsData cheatsList[100];
int cheatsNumber = 0;
u32 rompatch2addr [4];
u16 rompatch2val [4];
u16 rompatch2oldval [4];

u8 cheatsCBASeedBuffer[0x30];
u32 cheatsCBASeed[4];
u32 cheatsCBATemporaryValue = 0;
u16 cheatsCBATable[256];
bool cheatsCBATableGenerated = false;
u16 super = 0;
extern u32 mastercode;

#if (0)
extern GameStorage xStorage;
#endif

u8 cheatsCBACurrentSeed[12] = {
  0x00, 0x00, 0x00, 0x00,
  0x00, 0x00, 0x00, 0x00,
  0x00, 0x00, 0x00, 0x00
};

u32 seeds_v1[4];
u32 seeds_v3[4];

u32 seed_gen(u8 upper, u8 seed, u8 *deadtable1, u8 *deadtable2);

//seed tables for AR v1
u8 v1_deadtable1[256] = {
	0x31, 0x1C, 0x23, 0xE5, 0x89, 0x8E, 0xA1, 0x37, 0x74, 0x6D, 0x67, 0xFC, 0x1F, 0xC0, 0xB1, 0x94,
	0x3B, 0x05, 0x56, 0x86, 0x00, 0x24, 0xF0, 0x17, 0x72, 0xA2, 0x3D, 0x1B, 0xE3, 0x17, 0xC5, 0x0B,
	0xB9, 0xE2, 0xBD, 0x58, 0x71, 0x1B, 0x2C, 0xFF, 0xE4, 0xC9, 0x4C, 0x5E, 0xC9, 0x55, 0x33, 0x45,
	0x7C, 0x3F, 0xB2, 0x51, 0xFE, 0x10, 0x7E, 0x75, 0x3C, 0x90, 0x8D, 0xDA, 0x94, 0x38, 0xC3, 0xE9,
	0x95, 0xEA, 0xCE, 0xA6, 0x06, 0xE0, 0x4F, 0x3F, 0x2A, 0xE3, 0x3A, 0xE4, 0x43, 0xBD, 0x7F, 0xDA,
	0x55, 0xF0, 0xEA, 0xCB, 0x2C, 0xA8, 0x47, 0x61, 0xA0, 0xEF, 0xCB, 0x13, 0x18, 0x20, 0xAF, 0x3E,
	0x4D, 0x9E, 0x1E, 0x77, 0x51, 0xC5, 0x51, 0x20, 0xCF, 0x21, 0xF9, 0x39, 0x94, 0xDE, 0xDD, 0x79,
	0x4E, 0x80, 0xC4, 0x9D, 0x94, 0xD5, 0x95, 0x01, 0x27, 0x27, 0xBD, 0x6D, 0x78, 0xB5, 0xD1, 0x31,
	0x6A, 0x65, 0x74, 0x74, 0x58, 0xB3, 0x7C, 0xC9, 0x5A, 0xED, 0x50, 0x03, 0xC4, 0xA2, 0x94, 0x4B,
	0xF0, 0x58, 0x09, 0x6F, 0x3E, 0x7D, 0xAE, 0x7D, 0x58, 0xA0, 0x2C, 0x91, 0xBB, 0xE1, 0x70, 0xEB,
	0x73, 0xA6, 0x9A, 0x44, 0x25, 0x90, 0x16, 0x62, 0x53, 0xAE, 0x08, 0xEB, 0xDC, 0xF0, 0xEE, 0x77,
	0xC2, 0xDE, 0x81, 0xE8, 0x30, 0x89, 0xDB, 0xFE, 0xBC, 0xC2, 0xDF, 0x26, 0xE9, 0x8B, 0xD6, 0x93,
	0xF0, 0xCB, 0x56, 0x90, 0xC0, 0x46, 0x68, 0x15, 0x43, 0xCB, 0xE9, 0x98, 0xE3, 0xAF, 0x31, 0x25,
	0x4D, 0x7B, 0xF3, 0xB1, 0x74, 0xE2, 0x64, 0xAC, 0xD9, 0xF6, 0xA0, 0xD5, 0x0B, 0x9B, 0x49, 0x52,
	0x69, 0x3B, 0x71, 0x00, 0x2F, 0xBB, 0xBA, 0x08, 0xB1, 0xAE, 0xBB, 0xB3, 0xE1, 0xC9, 0xA6, 0x7F,
	0x17, 0x97, 0x28, 0x72, 0x12, 0x6E, 0x91, 0xAE, 0x3A, 0xA2, 0x35, 0x46, 0x27, 0xF8, 0x12, 0x50
};
u8 v1_deadtable2[256] = {
	0xD8, 0x65, 0x04, 0xC2, 0x65, 0xD5, 0xB0, 0x0C, 0xDF, 0x9D, 0xF0, 0xC3, 0x9A, 0x17, 0xC9, 0xA6,
	0xE1, 0xAC, 0x0D, 0x14, 0x2F, 0x3C, 0x2C, 0x87, 0xA2, 0xBF, 0x4D, 0x5F, 0xAC, 0x2D, 0x9D, 0xE1,
	0x0C, 0x9C, 0xE7, 0x7F, 0xFC, 0xA8, 0x66, 0x59, 0xAC, 0x18, 0xD7, 0x05, 0xF0, 0xBF, 0xD1, 0x8B,
	0x35, 0x9F, 0x59, 0xB4, 0xBA, 0x55, 0xB2, 0x85, 0xFD, 0xB1, 0x72, 0x06, 0x73, 0xA4, 0xDB, 0x48,
	0x7B, 0x5F, 0x67, 0xA5, 0x95, 0xB9, 0xA5, 0x4A, 0xCF, 0xD1, 0x44, 0xF3, 0x81, 0xF5, 0x6D, 0xF6,
	0x3A, 0xC3, 0x57, 0x83, 0xFA, 0x8E, 0x15, 0x2A, 0xA2, 0x04, 0xB2, 0x9D, 0xA8, 0x0D, 0x7F, 0xB8,
	0x0F, 0xF6, 0xAC, 0xBE, 0x97, 0xCE, 0x16, 0xE6, 0x31, 0x10, 0x60, 0x16, 0xB5, 0x83, 0x45, 0xEE,
	0xD7, 0x5F, 0x2C, 0x08, 0x58, 0xB1, 0xFD, 0x7E, 0x79, 0x00, 0x34, 0xAD, 0xB5, 0x31, 0x34, 0x39,
	0xAF, 0xA8, 0xDD, 0x52, 0x6A, 0xB0, 0x60, 0x35, 0xB8, 0x1D, 0x52, 0xF5, 0xF5, 0x30, 0x00, 0x7B,
	0xF4, 0xBA, 0x03, 0xCB, 0x3A, 0x84, 0x14, 0x8A, 0x6A, 0xEF, 0x21, 0xBD, 0x01, 0xD8, 0xA0, 0xD4,
	0x43, 0xBE, 0x23, 0xE7, 0x76, 0x27, 0x2C, 0x3F, 0x4D, 0x3F, 0x43, 0x18, 0xA7, 0xC3, 0x47, 0xA5,
	0x7A, 0x1D, 0x02, 0x55, 0x09, 0xD1, 0xFF, 0x55, 0x5E, 0x17, 0xA0, 0x56, 0xF4, 0xC9, 0x6B, 0x90,
	0xB4, 0x80, 0xA5, 0x07, 0x22, 0xFB, 0x22, 0x0D, 0xD9, 0xC0, 0x5B, 0x08, 0x35, 0x05, 0xC1, 0x75,
	0x4F, 0xD0, 0x51, 0x2D, 0x2E, 0x5E, 0x69, 0xE7, 0x3B, 0xC2, 0xDA, 0xFF, 0xF6, 0xCE, 0x3E, 0x76,
	0xE8, 0x36, 0x8C, 0x39, 0xD8, 0xF3, 0xE9, 0xA6, 0x42, 0xE6, 0xC1, 0x4C, 0x05, 0xBE, 0x17, 0xF2,
	0x5C, 0x1B, 0x19, 0xDB, 0x0F, 0xF3, 0xF8, 0x49, 0xEB, 0x36, 0xF6, 0x40, 0x6F, 0xAD, 0xC1, 0x8C
};

//seed tables for AR v3
u8 v3_deadtable1[256] = {
    0xD0, 0xFF, 0xBA, 0xE5, 0xC1, 0xC7, 0xDB, 0x5B, 0x16, 0xE3, 0x6E, 0x26, 0x62, 0x31, 0x2E, 0x2A,
    0xD1, 0xBB, 0x4A, 0xE6, 0xAE, 0x2F, 0x0A, 0x90, 0x29, 0x90, 0xB6, 0x67, 0x58, 0x2A, 0xB4, 0x45,
    0x7B, 0xCB, 0xF0, 0x73, 0x84, 0x30, 0x81, 0xC2, 0xD7, 0xBE, 0x89, 0xD7, 0x4E, 0x73, 0x5C, 0xC7,
    0x80, 0x1B, 0xE5, 0xE4, 0x43, 0xC7, 0x46, 0xD6, 0x6F, 0x7B, 0xBF, 0xED, 0xE5, 0x27, 0xD1, 0xB5,
    0xD0, 0xD8, 0xA3, 0xCB, 0x2B, 0x30, 0xA4, 0xF0, 0x84, 0x14, 0x72, 0x5C, 0xFF, 0xA4, 0xFB, 0x54,
    0x9D, 0x70, 0xE2, 0xFF, 0xBE, 0xE8, 0x24, 0x76, 0xE5, 0x15, 0xFB, 0x1A, 0xBC, 0x87, 0x02, 0x2A,
    0x58, 0x8F, 0x9A, 0x95, 0xBD, 0xAE, 0x8D, 0x0C, 0xA5, 0x4C, 0xF2, 0x5C, 0x7D, 0xAD, 0x51, 0xFB,
    0xB1, 0x22, 0x07, 0xE0, 0x29, 0x7C, 0xEB, 0x98, 0x14, 0xC6, 0x31, 0x97, 0xE4, 0x34, 0x8F, 0xCC,
    0x99, 0x56, 0x9F, 0x78, 0x43, 0x91, 0x85, 0x3F, 0xC2, 0xD0, 0xD1, 0x80, 0xD1, 0x77, 0xA7, 0xE2,
    0x43, 0x99, 0x1D, 0x2F, 0x8B, 0x6A, 0xE4, 0x66, 0x82, 0xF7, 0x2B, 0x0B, 0x65, 0x14, 0xC0, 0xC2,
    0x1D, 0x96, 0x78, 0x1C, 0xC4, 0xC3, 0xD2, 0xB1, 0x64, 0x07, 0xD7, 0x6F, 0x02, 0xE9, 0x44, 0x31,
    0xDB, 0x3C, 0xEB, 0x93, 0xED, 0x9A, 0x57, 0x05, 0xB9, 0x0E, 0xAF, 0x1F, 0x48, 0x11, 0xDC, 0x35,
    0x6C, 0xB8, 0xEE, 0x2A, 0x48, 0x2B, 0xBC, 0x89, 0x12, 0x59, 0xCB, 0xD1, 0x18, 0xEA, 0x72, 0x11,
    0x01, 0x75, 0x3B, 0xB5, 0x56, 0xF4, 0x8B, 0xA0, 0x41, 0x75, 0x86, 0x7B, 0x94, 0x12, 0x2D, 0x4C,
    0x0C, 0x22, 0xC9, 0x4A, 0xD8, 0xB1, 0x8D, 0xF0, 0x55, 0x2E, 0x77, 0x50, 0x1C, 0x64, 0x77, 0xAA,
    0x3E, 0xAC, 0xD3, 0x3D, 0xCE, 0x60, 0xCA, 0x5D, 0xA0, 0x92, 0x78, 0xC6, 0x51, 0xFE, 0xF9, 0x30
};
u8 v3_deadtable2[256] = {
    0xAA, 0xAF, 0xF0, 0x72, 0x90, 0xF7, 0x71, 0x27, 0x06, 0x11, 0xEB, 0x9C, 0x37, 0x12, 0x72, 0xAA,
    0x65, 0xBC, 0x0D, 0x4A, 0x76, 0xF6, 0x5C, 0xAA, 0xB0, 0x7A, 0x7D, 0x81, 0xC1, 0xCE, 0x2F, 0x9F,
    0x02, 0x75, 0x38, 0xC8, 0xFC, 0x66, 0x05, 0xC2, 0x2C, 0xBD, 0x91, 0xAD, 0x03, 0xB1, 0x88, 0x93,
    0x31, 0xC6, 0xAB, 0x40, 0x23, 0x43, 0x76, 0x54, 0xCA, 0xE7, 0x00, 0x96, 0x9F, 0xD8, 0x24, 0x8B,
    0xE4, 0xDC, 0xDE, 0x48, 0x2C, 0xCB, 0xF7, 0x84, 0x1D, 0x45, 0xE5, 0xF1, 0x75, 0xA0, 0xED, 0xCD,
    0x4B, 0x24, 0x8A, 0xB3, 0x98, 0x7B, 0x12, 0xB8, 0xF5, 0x63, 0x97, 0xB3, 0xA6, 0xA6, 0x0B, 0xDC,
    0xD8, 0x4C, 0xA8, 0x99, 0x27, 0x0F, 0x8F, 0x94, 0x63, 0x0F, 0xB0, 0x11, 0x94, 0xC7, 0xE9, 0x7F,
    0x3B, 0x40, 0x72, 0x4C, 0xDB, 0x84, 0x78, 0xFE, 0xB8, 0x56, 0x08, 0x80, 0xDF, 0x20, 0x2F, 0xB9,
    0x66, 0x2D, 0x60, 0x63, 0xF5, 0x18, 0x15, 0x1B, 0x86, 0x85, 0xB9, 0xB4, 0x68, 0x0E, 0xC6, 0xD1,
    0x8A, 0x81, 0x2B, 0xB3, 0xF6, 0x48, 0xF0, 0x4F, 0x9C, 0x28, 0x1C, 0xA4, 0x51, 0x2F, 0xD7, 0x4B,
    0x17, 0xE7, 0xCC, 0x50, 0x9F, 0xD0, 0xD1, 0x40, 0x0C, 0x0D, 0xCA, 0x83, 0xFA, 0x5E, 0xCA, 0xEC,
    0xBF, 0x4E, 0x7C, 0x8F, 0xF0, 0xAE, 0xC2, 0xD3, 0x28, 0x41, 0x9B, 0xC8, 0x04, 0xB9, 0x4A, 0xBA,
    0x72, 0xE2, 0xB5, 0x06, 0x2C, 0x1E, 0x0B, 0x2C, 0x7F, 0x11, 0xA9, 0x26, 0x51, 0x9D, 0x3F, 0xF8,
    0x62, 0x11, 0x2E, 0x89, 0xD2, 0x9D, 0x35, 0xB1, 0xE4, 0x0A, 0x4D, 0x93, 0x01, 0xA7, 0xD1, 0x2D,
    0x00, 0x87, 0xE2, 0x2D, 0xA4, 0xE9, 0x0A, 0x06, 0x66, 0xF8, 0x1F, 0x44, 0x75, 0xB5, 0x6B, 0x1C,
    0xFC, 0x31, 0x09, 0x48, 0xA3, 0xFF, 0x92, 0x12, 0x58, 0xE9, 0xFA, 0xAE, 0x4F, 0xE2, 0xB4, 0xCC
};

#define debuggerReadMemory(addr) \
  READ32LE((&map[(addr)>>24].address[(addr) & map[(addr)>>24].mask]))

#define debuggerReadHalfWord(addr) \
  READ16LE((&map[(addr)>>24].address[(addr) & map[(addr)>>24].mask]))

#define debuggerReadByte(addr) \
  map[(addr)>>24].address[(addr) & map[(addr)>>24].mask]

#define debuggerWriteMemory(addr, value) \
  WRITE32LE(&map[(addr)>>24].address[(addr) & map[(addr)>>24].mask], value)

#define debuggerWriteHalfWord(addr, value) \
  WRITE16LE(&map[(addr)>>24].address[(addr) & map[(addr)>>24].mask], value)

#define debuggerWriteByte(addr, value) \
  map[(addr)>>24].address[(addr) & map[(addr)>>24].mask] = (value)


#define CHEAT_IS_HEX(a) ( ((a)>='A' && (a) <='F') || ((a) >='0' && (a) <= '9'))

#define CHEAT_PATCH_ROM_16BIT(a,v) \
  WRITE16LE(((u16 *)&rom[(a) & 0x1ffffff]), v);

#define CHEAT_PATCH_ROM_32BIT(a,v) \
  WRITE32LE(((u32 *)&rom[(a) & 0x1ffffff]), v);

static bool isMultilineWithData(int i)
{
  // we consider it a multiline code if it has more than one line of data
  // otherwise, it can still be considered a single code
  // (Only CBA codes can be true multilines !!!)
  if(i < cheatsNumber && i >= 0)
    switch(cheatsList[i].size) {
    case INT_8_BIT_WRITE:
    case INT_16_BIT_WRITE:
    case INT_32_BIT_WRITE:
    case GSA_16_BIT_ROM_PATCH:
    case GSA_8_BIT_GS_WRITE:
    case GSA_16_BIT_GS_WRITE:
    case GSA_32_BIT_GS_WRITE:
    case CBA_AND:
    case CBA_IF_KEYS_PRESSED:
    case CBA_IF_TRUE:
    case CBA_IF_FALSE:
    case GSA_8_BIT_IF_TRUE:
    case GSA_32_BIT_IF_TRUE:
    case GSA_8_BIT_IF_FALSE:
    case GSA_32_BIT_IF_FALSE:
    case GSA_8_BIT_FILL:
    case GSA_16_BIT_FILL:
    case GSA_8_BIT_IF_TRUE2:
    case GSA_16_BIT_IF_TRUE2:
    case GSA_32_BIT_IF_TRUE2:
    case GSA_8_BIT_IF_FALSE2:
    case GSA_16_BIT_IF_FALSE2:
    case GSA_32_BIT_IF_FALSE2:
    case GSA_SLOWDOWN:
    case CBA_ADD:
    case CBA_OR:
    case CBA_LT:
    case CBA_GT:
    case GSA_8_BIT_POINTER:
    case GSA_16_BIT_POINTER:
    case GSA_32_BIT_POINTER:
    case GSA_8_BIT_ADD:
    case GSA_16_BIT_ADD:
    case GSA_32_BIT_ADD:
    case GSA_8_BIT_IF_LOWER_U:
    case GSA_16_BIT_IF_LOWER_U:
    case GSA_32_BIT_IF_LOWER_U:
    case GSA_8_BIT_IF_HIGHER_U:
    case GSA_16_BIT_IF_HIGHER_U:
    case GSA_32_BIT_IF_HIGHER_U:
    case GSA_8_BIT_IF_AND:
    case GSA_16_BIT_IF_AND:
    case GSA_32_BIT_IF_AND:
    case GSA_8_BIT_IF_LOWER_U2:
    case GSA_16_BIT_IF_LOWER_U2:
    case GSA_32_BIT_IF_LOWER_U2:
    case GSA_8_BIT_IF_HIGHER_U2:
    case GSA_16_BIT_IF_HIGHER_U2:
    case GSA_32_BIT_IF_HIGHER_U2:
    case GSA_8_BIT_IF_AND2:
    case GSA_16_BIT_IF_AND2:
    case GSA_32_BIT_IF_AND2:
    case GSA_ALWAYS:
    case GSA_ALWAYS2:
    case GSA_8_BIT_IF_LOWER_S:
    case GSA_16_BIT_IF_LOWER_S:
    case GSA_32_BIT_IF_LOWER_S:
    case GSA_8_BIT_IF_HIGHER_S:
    case GSA_16_BIT_IF_HIGHER_S:
    case GSA_32_BIT_IF_HIGHER_S:
    case GSA_8_BIT_IF_LOWER_S2:
    case GSA_16_BIT_IF_LOWER_S2:
    case GSA_32_BIT_IF_LOWER_S2:
    case GSA_8_BIT_IF_HIGHER_S2:
    case GSA_16_BIT_IF_HIGHER_S2:
    case GSA_32_BIT_IF_HIGHER_S2:
    case GSA_16_BIT_WRITE_IOREGS:
    case GSA_32_BIT_WRITE_IOREGS:
    case GSA_CODES_ON:
    case GSA_8_BIT_IF_TRUE3:
    case GSA_16_BIT_IF_TRUE3:
    case GSA_32_BIT_IF_TRUE3:
    case GSA_8_BIT_IF_FALSE3:
    case GSA_16_BIT_IF_FALSE3:
    case GSA_32_BIT_IF_FALSE3:
    case GSA_8_BIT_IF_LOWER_S3:
    case GSA_16_BIT_IF_LOWER_S3:
    case GSA_32_BIT_IF_LOWER_S3:
    case GSA_8_BIT_IF_HIGHER_S3:
    case GSA_16_BIT_IF_HIGHER_S3:
    case GSA_32_BIT_IF_HIGHER_S3:
    case GSA_8_BIT_IF_LOWER_U3:
    case GSA_16_BIT_IF_LOWER_U3:
    case GSA_32_BIT_IF_LOWER_U3:
    case GSA_8_BIT_IF_HIGHER_U3:
    case GSA_16_BIT_IF_HIGHER_U3:
    case GSA_32_BIT_IF_HIGHER_U3:
    case GSA_8_BIT_IF_AND3:
    case GSA_16_BIT_IF_AND3:
    case GSA_32_BIT_IF_AND3:
    case GSA_ALWAYS3:
    case GSA_8_BIT_GS_WRITE2:
    case GSA_16_BIT_GS_WRITE2:
    case GSA_32_BIT_GS_WRITE2:
    case GSA_16_BIT_ROM_PATCH2C:
    case GSA_16_BIT_ROM_PATCH2D:
    case GSA_16_BIT_ROM_PATCH2E:
    case GSA_16_BIT_ROM_PATCH2F:
    case GSA_8_BIT_SLIDE:
    case GSA_16_BIT_SLIDE:
    case GSA_32_BIT_SLIDE:
    case GSA_GROUP_WRITE:
    case GSA_32_BIT_ADD2:
    case GSA_32_BIT_SUB2:
    case GSA_16_BIT_IF_LOWER_OR_EQ_U:
    case GSA_16_BIT_IF_HIGHER_OR_EQ_U:
    case GSA_16_BIT_MIF_TRUE:
    case GSA_16_BIT_MIF_FALSE:
    case GSA_16_BIT_MIF_LOWER_OR_EQ_U:
    case GSA_16_BIT_MIF_HIGHER_OR_EQ_U:
    case MASTER_CODE:
    case CHEATS_16_BIT_WRITE:
    case CHEATS_32_BIT_WRITE:
      return false;
      // the codes below have two lines of data
    case CBA_SLIDE_CODE:
    case CBA_SUPER:
      return true;
    }
  return false;
}

static int getCodeLength(int num)
{
  if(num >= cheatsNumber || num < 0)
    return 1;

  // this is for all the codes that are true multiline
  switch(cheatsList[num].size) {
  case INT_8_BIT_WRITE:
  case INT_16_BIT_WRITE:
  case INT_32_BIT_WRITE:
  case GSA_16_BIT_ROM_PATCH:
  case GSA_8_BIT_GS_WRITE:
  case GSA_16_BIT_GS_WRITE:
  case GSA_32_BIT_GS_WRITE:
  case CBA_AND:
  case GSA_8_BIT_FILL:
  case GSA_16_BIT_FILL:
  case GSA_SLOWDOWN:
  case CBA_ADD:
  case CBA_OR:
  case GSA_8_BIT_POINTER:
  case GSA_16_BIT_POINTER:
  case GSA_32_BIT_POINTER:
  case GSA_8_BIT_ADD:
  case GSA_16_BIT_ADD:
  case GSA_32_BIT_ADD:
  case GSA_CODES_ON:
  case GSA_8_BIT_IF_TRUE3:
  case GSA_16_BIT_IF_TRUE3:
  case GSA_32_BIT_IF_TRUE3:
  case GSA_8_BIT_IF_FALSE3:
  case GSA_16_BIT_IF_FALSE3:
  case GSA_32_BIT_IF_FALSE3:
  case GSA_8_BIT_IF_LOWER_S3:
  case GSA_16_BIT_IF_LOWER_S3:
  case GSA_32_BIT_IF_LOWER_S3:
  case GSA_8_BIT_IF_HIGHER_S3:
  case GSA_16_BIT_IF_HIGHER_S3:
  case GSA_32_BIT_IF_HIGHER_S3:
  case GSA_8_BIT_IF_LOWER_U3:
  case GSA_16_BIT_IF_LOWER_U3:
  case GSA_32_BIT_IF_LOWER_U3:
  case GSA_8_BIT_IF_HIGHER_U3:
  case GSA_16_BIT_IF_HIGHER_U3:
  case GSA_32_BIT_IF_HIGHER_U3:
  case GSA_8_BIT_IF_AND3:
  case GSA_16_BIT_IF_AND3:
  case GSA_32_BIT_IF_AND3:
  case GSA_8_BIT_IF_LOWER_U:
  case GSA_16_BIT_IF_LOWER_U:
  case GSA_32_BIT_IF_LOWER_U:
  case GSA_8_BIT_IF_HIGHER_U:
  case GSA_16_BIT_IF_HIGHER_U:
  case GSA_32_BIT_IF_HIGHER_U:
  case GSA_8_BIT_IF_AND:
  case GSA_16_BIT_IF_AND:
  case GSA_32_BIT_IF_AND:
  case GSA_ALWAYS:
  case GSA_8_BIT_IF_LOWER_S:
  case GSA_16_BIT_IF_LOWER_S:
  case GSA_32_BIT_IF_LOWER_S:
  case GSA_8_BIT_IF_HIGHER_S:
  case GSA_16_BIT_IF_HIGHER_S:
  case GSA_32_BIT_IF_HIGHER_S:
  case GSA_16_BIT_WRITE_IOREGS:
  case GSA_32_BIT_WRITE_IOREGS:
  case GSA_8_BIT_GS_WRITE2:
  case GSA_16_BIT_GS_WRITE2:
  case GSA_32_BIT_GS_WRITE2:
  case GSA_16_BIT_ROM_PATCH2C:
  case GSA_16_BIT_ROM_PATCH2D:
  case GSA_16_BIT_ROM_PATCH2E:
  case GSA_16_BIT_ROM_PATCH2F:
  case GSA_8_BIT_SLIDE:
  case GSA_16_BIT_SLIDE:
  case GSA_32_BIT_SLIDE:
  case GSA_8_BIT_IF_TRUE:
  case GSA_32_BIT_IF_TRUE:
  case GSA_8_BIT_IF_FALSE:
  case GSA_32_BIT_IF_FALSE:
  case CBA_LT:
  case CBA_GT:
  case CBA_IF_TRUE:
  case CBA_IF_FALSE:
  case GSA_8_BIT_IF_TRUE2:
  case GSA_16_BIT_IF_TRUE2:
  case GSA_32_BIT_IF_TRUE2:
  case GSA_8_BIT_IF_FALSE2:
  case GSA_16_BIT_IF_FALSE2:
  case GSA_32_BIT_IF_FALSE2:
  case GSA_8_BIT_IF_LOWER_U2:
  case GSA_16_BIT_IF_LOWER_U2:
  case GSA_32_BIT_IF_LOWER_U2:
  case GSA_8_BIT_IF_HIGHER_U2:
  case GSA_16_BIT_IF_HIGHER_U2:
  case GSA_32_BIT_IF_HIGHER_U2:
  case GSA_8_BIT_IF_AND2:
  case GSA_16_BIT_IF_AND2:
  case GSA_32_BIT_IF_AND2:
  case GSA_ALWAYS2:
  case GSA_8_BIT_IF_LOWER_S2:
  case GSA_16_BIT_IF_LOWER_S2:
  case GSA_32_BIT_IF_LOWER_S2:
  case GSA_8_BIT_IF_HIGHER_S2:
  case GSA_16_BIT_IF_HIGHER_S2:
  case GSA_32_BIT_IF_HIGHER_S2:
  case GSA_GROUP_WRITE:
  case GSA_32_BIT_ADD2:
  case GSA_32_BIT_SUB2:
  case GSA_16_BIT_IF_LOWER_OR_EQ_U:
  case GSA_16_BIT_IF_HIGHER_OR_EQ_U:
  case GSA_16_BIT_MIF_TRUE:
  case GSA_16_BIT_MIF_FALSE:
  case GSA_16_BIT_MIF_LOWER_OR_EQ_U:
  case GSA_16_BIT_MIF_HIGHER_OR_EQ_U:
  case MASTER_CODE:
  case CHEATS_16_BIT_WRITE:
  case CHEATS_32_BIT_WRITE:
  case UNKNOWN_CODE:
    return 1;
  case CBA_IF_KEYS_PRESSED:
  case CBA_SLIDE_CODE:
    return 2;
  case CBA_SUPER:
    return ((((cheatsList[num].value-1) & 0xFFFF)/3) + 1);
  }
  return 1;
}

int cheatsCheckKeys(u32 keys, u32 extended)
{
  bool onoff = true;
  int ticks = 0;
  int i;
  mastercode = 0;

  for (i = 0; i<4; i++)
    if (rompatch2addr [i] != 0) {
      CHEAT_PATCH_ROM_16BIT(rompatch2addr [i],rompatch2oldval [i]);
      rompatch2addr [i] = 0;
    }

  for (i = 0; i < cheatsNumber; i++) {
    if(!cheatsList[i].enabled) {
      // make sure we skip other lines in this code
      i += getCodeLength(i)-1;
      continue;
    }
    switch(cheatsList[i].size) {
    case GSA_CODES_ON:
      onoff = true;
      break;
    case GSA_SLOWDOWN:
      // check if button was pressed and released, if so toggle our state
      if((cheatsList[i].status & 4) && !(extended & 4))
        cheatsList[i].status ^= 1;
      if(extended & 4)
        cheatsList[i].status |= 4;
      else
        cheatsList[i].status &= ~4;

      if(cheatsList[i].status & 1)
        ticks += ((cheatsList[i].value  & 0xFFFF) * 7);
      break;
    case GSA_8_BIT_SLIDE:
      i++;
      if(i < cheatsNumber) {
        u32 addr = cheatsList[i-1].value;
        u8 value = cheatsList[i].rawaddress;
        int vinc = (cheatsList[i].value >> 24) & 255;
        int count = (cheatsList[i].value >> 16) & 255;
        int ainc = (cheatsList[i].value & 0xffff);
        while(count > 0) {
          CPUWriteByte(addr, value);
          value += vinc;
          addr += ainc;
          count--;
        }
      }
      break;
    case GSA_16_BIT_SLIDE:
      i++;
      if(i < cheatsNumber) {
        u32 addr = cheatsList[i-1].value;
        u16 value = cheatsList[i].rawaddress;
        int vinc = (cheatsList[i].value >> 24) & 255;
        int count = (cheatsList[i].value >> 16) & 255;
        int ainc = (cheatsList[i].value & 0xffff)*2;
        while(count > 0) {
          CPUWriteHalfWord(addr, value);
          value += vinc;
          addr += ainc;
          count--;
        }
      }
      break;
    case GSA_32_BIT_SLIDE:
      i++;
      if(i < cheatsNumber) {
        u32 addr = cheatsList[i-1].value;
        u32 value = cheatsList[i].rawaddress;
        int vinc = (cheatsList[i].value >> 24) & 255;
        int count = (cheatsList[i].value >> 16) & 255;
        int ainc = (cheatsList[i].value & 0xffff)*4;
        while(count > 0) {
          CPUWriteMemory(addr, value);
          value += vinc;
          addr += ainc;
          count--;
        }
      }
      break;
    case GSA_8_BIT_GS_WRITE2:
      i++;
      if(i < cheatsNumber) {
        if(extended & 4) {
          CPUWriteByte(cheatsList[i-1].value, cheatsList[i].address);
        }
      }
      break;
    case GSA_16_BIT_GS_WRITE2:
      i++;
      if(i < cheatsNumber) {
        if(extended & 4) {
          CPUWriteHalfWord(cheatsList[i-1].value, cheatsList[i].address);
        }
      }
      break;
    case GSA_32_BIT_GS_WRITE2:
      i++;
      if(i < cheatsNumber) {
        if(extended & 4) {
          CPUWriteMemory(cheatsList[i-1].value, cheatsList[i].address);
        }
      }
      break;
      case GSA_16_BIT_ROM_PATCH:
        if((cheatsList[i].status & 1) == 0) {
          if(CPUReadHalfWord(cheatsList[i].address) != cheatsList[i].value) {
            cheatsList[i].oldValue = CPUReadHalfWord(cheatsList[i].address);
            cheatsList[i].status |= 1;
            CHEAT_PATCH_ROM_16BIT(cheatsList[i].address, cheatsList[i].value);
          }
        }
        break;
    case GSA_16_BIT_ROM_PATCH2C:
      i++;
      if(i < cheatsNumber) {
		  rompatch2addr [0] = ((cheatsList[i-1].value & 0x00FFFFFF) << 1) + 0x8000000;
		  rompatch2oldval [0] = CPUReadHalfWord(rompatch2addr [0]);
		  rompatch2val [0] = cheatsList[i].rawaddress & 0xFFFF;
      }
      break;
    case GSA_16_BIT_ROM_PATCH2D:
      i++;
      if(i < cheatsNumber) {
		  rompatch2addr [1] = ((cheatsList[i-1].value & 0x00FFFFFF) << 1) + 0x8000000;
		  rompatch2oldval [1] = CPUReadHalfWord(rompatch2addr [1]);
		  rompatch2val [1] = cheatsList[i].rawaddress & 0xFFFF;
      }
      break;
    case GSA_16_BIT_ROM_PATCH2E:
      i++;
      if(i < cheatsNumber) {
		  rompatch2addr [2] = ((cheatsList[i-1].value & 0x00FFFFFF) << 1) + 0x8000000;
		  rompatch2oldval [2] = CPUReadHalfWord(rompatch2addr [2]);
		  rompatch2val [2] = cheatsList[i].rawaddress & 0xFFFF;
      }
      break;
    case GSA_16_BIT_ROM_PATCH2F:
      i++;
      if(i < cheatsNumber) {
		  rompatch2addr [3] = ((cheatsList[i-1].value & 0x00FFFFFF) << 1) + 0x8000000;
		  rompatch2oldval [3] = CPUReadHalfWord(rompatch2addr [3]);
		  rompatch2val [3] = cheatsList[i].rawaddress & 0xFFFF;
      }
      break;
    case MASTER_CODE:
        mastercode = cheatsList[i].address;
      break;
    }
    if (onoff) {
      switch(cheatsList[i].size) {
      case INT_8_BIT_WRITE:
        CPUWriteByte(cheatsList[i].address, cheatsList[i].value);
        break;
      case INT_16_BIT_WRITE:
        CPUWriteHalfWord(cheatsList[i].address, cheatsList[i].value);
        break;
      case INT_32_BIT_WRITE:
        CPUWriteMemory(cheatsList[i].address, cheatsList[i].value);
        break;
      case GSA_8_BIT_GS_WRITE:
        if(extended & 4) {
          CPUWriteByte(cheatsList[i].address, cheatsList[i].value);
        }
        break;
      case GSA_16_BIT_GS_WRITE:
        if(extended & 4) {
          CPUWriteHalfWord(cheatsList[i].address, cheatsList[i].value);
        }
        break;
      case GSA_32_BIT_GS_WRITE:
        if(extended & 4) {
          CPUWriteMemory(cheatsList[i].address, cheatsList[i].value);
        }
        break;
      case CBA_IF_KEYS_PRESSED:
        {
          u16 value = cheatsList[i].value;
          u32 addr = cheatsList[i].address;
          if((addr & 0xF0) == 0x20) {
            if((keys & value) == 0) {
              i++;
			}
		  } else if((addr & 0xF0) == 0x10) {
            if((keys & value) == value) {
              i++;
			}
		  } else if((addr & 0xF0) == 0x00) {
            if(((~keys) & 0x3FF) == value) {
              i++;
			}
		  }
		}
        break;
      case CBA_IF_TRUE:
        if(CPUReadHalfWord(cheatsList[i].address) != cheatsList[i].value) {
          i++;
        }
        break;
      case CBA_SLIDE_CODE:
		{
          u32 address = cheatsList[i].address;
          u16 value = cheatsList[i].value;
          i++;
          if(i < cheatsNumber) {
            int count = ((cheatsList[i].address - 1) & 0xFFFF);
            u16 vinc = (cheatsList[i].address >> 16) & 0xFFFF;
            int inc = cheatsList[i].value;
            for(int x = 0; x <= count ; x++) {
              CPUWriteHalfWord(address, value);
              address += inc;
              value += vinc;
			}
		  }
		}
        break;
      case CBA_IF_FALSE:
        if(CPUReadHalfWord(cheatsList[i].address) == cheatsList[i].value){
          i++;
        }
      break;
      case CBA_AND:
        CPUWriteHalfWord(cheatsList[i].address,
                         CPUReadHalfWord(cheatsList[i].address) &
                         cheatsList[i].value);
        break;
      case GSA_8_BIT_IF_TRUE:
        if(CPUReadByte(cheatsList[i].address) != cheatsList[i].value) {
          i++;
        }
        break;
      case GSA_32_BIT_IF_TRUE:
        if(CPUReadMemory(cheatsList[i].address) != cheatsList[i].value) {
          i++;
        }
        break;
      case GSA_8_BIT_IF_FALSE:
        if(CPUReadByte(cheatsList[i].address) == cheatsList[i].value) {
          i++;
        }
        break;
      case GSA_32_BIT_IF_FALSE:
        if(CPUReadMemory(cheatsList[i].address) == cheatsList[i].value) {
          i++;
        }
        break;
      case GSA_8_BIT_FILL:
		{
          u32 addr = cheatsList[i].address;
          u8 v = cheatsList[i].value & 0xff;
          u32 end = addr + (cheatsList[i].value >> 8);
          do {
            CPUWriteByte(addr, v);
            addr++;
		  } while (addr <= end);
		}
        break;
      case GSA_16_BIT_FILL:
		{
          u32 addr = cheatsList[i].address;
          u16 v = cheatsList[i].value & 0xffff;
          u32 end = addr + ((cheatsList[i].value >> 16) << 1);
          do {
            CPUWriteHalfWord(addr, v);
            addr+=2;
		  } while (addr <= end);
		}
        break;
      case GSA_8_BIT_IF_TRUE2:
        if(CPUReadByte(cheatsList[i].address) != cheatsList[i].value) {
          i+=2;
        }
        break;
      case GSA_16_BIT_IF_TRUE2:
        if(CPUReadHalfWord(cheatsList[i].address) != cheatsList[i].value) {
          i+=2;
        }
        break;
      case GSA_32_BIT_IF_TRUE2:
        if(CPUReadMemory(cheatsList[i].address) != cheatsList[i].value) {
          i+=2;
        }
        break;
      case GSA_8_BIT_IF_FALSE2:
        if(CPUReadByte(cheatsList[i].address) == cheatsList[i].value) {
          i+=2;
        }
        break;
      case GSA_16_BIT_IF_FALSE2:
        if(CPUReadHalfWord(cheatsList[i].address) == cheatsList[i].value) {
          i+=2;
        }
        break;
      case GSA_32_BIT_IF_FALSE2:
        if(CPUReadMemory(cheatsList[i].address) == cheatsList[i].value) {
          i+=2;
        }
        break;
      case CBA_ADD:
        if ((cheatsList[i].address & 1) == 0) {
          CPUWriteHalfWord(cheatsList[i].address,
                           CPUReadHalfWord(cheatsList[i].address) +
                           cheatsList[i].value);
        } else {
          CPUWriteMemory(cheatsList[i].address & 0x0FFFFFFE,
                           CPUReadMemory(cheatsList[i].address & 0x0FFFFFFE) +
                           cheatsList[i].value);
        }
        break;
      case CBA_OR:
        CPUWriteHalfWord(cheatsList[i].address,
                         CPUReadHalfWord(cheatsList[i].address) |
                         cheatsList[i].value);
        break;
      case CBA_GT:
        if (!(CPUReadHalfWord(cheatsList[i].address) > cheatsList[i].value)){
          i++;
        }
        break;
      case CBA_LT:
        if (!(CPUReadHalfWord(cheatsList[i].address) < cheatsList[i].value)){
          i++;
        }
        break;
      case CBA_SUPER:
		{
          int count = 2*((cheatsList[i].value -1) & 0xFFFF)+1;
          u32 address = cheatsList[i].address;
          for(int x = 0; x <= count; x++) {
            u8 b;
            int res = x % 6;
		    if (res==0)
		 	  i++;
            if(res < 4)
              b = (cheatsList[i].address >> (24-8*res)) & 0xFF;
            else
              b = (cheatsList[i].value >> (8 - 8*(res-4))) & 0xFF;
            CPUWriteByte(address, b);
            address++;
		  }
		}
        break;
      case GSA_8_BIT_POINTER :
        if (((CPUReadMemory(cheatsList[i].address)>=0x02000000) && (CPUReadMemory(cheatsList[i].address)<0x02040000)) ||
            ((CPUReadMemory(cheatsList[i].address)>=0x03000000) && (CPUReadMemory(cheatsList[i].address)<0x03008000)))
        {
          CPUWriteByte(CPUReadMemory(cheatsList[i].address)+((cheatsList[i].value & 0xFFFFFF00) >> 8),
                       cheatsList[i].value & 0xFF);
        }
        break;
      case GSA_16_BIT_POINTER :
        if (((CPUReadMemory(cheatsList[i].address)>=0x02000000) && (CPUReadMemory(cheatsList[i].address)<0x02040000)) ||
            ((CPUReadMemory(cheatsList[i].address)>=0x03000000) && (CPUReadMemory(cheatsList[i].address)<0x03008000)))
        {
          CPUWriteHalfWord(CPUReadMemory(cheatsList[i].address)+((cheatsList[i].value & 0xFFFF0000) >> 15),
                       cheatsList[i].value & 0xFFFF);
        }
        break;
      case GSA_32_BIT_POINTER :
        if (((CPUReadMemory(cheatsList[i].address)>=0x02000000) && (CPUReadMemory(cheatsList[i].address)<0x02040000)) ||
            ((CPUReadMemory(cheatsList[i].address)>=0x03000000) && (CPUReadMemory(cheatsList[i].address)<0x03008000)))
        {
          CPUWriteMemory(CPUReadMemory(cheatsList[i].address),
                       cheatsList[i].value);
        }
        break;
      case GSA_8_BIT_ADD :
        CPUWriteByte(cheatsList[i].address,
                    (cheatsList[i].value & 0xFF) + (CPUReadMemory(cheatsList[i].address) & 0xFF));
        break;
      case GSA_16_BIT_ADD :
        CPUWriteHalfWord(cheatsList[i].address,
                        (cheatsList[i].value & 0xFFFF) + (CPUReadMemory(cheatsList[i].address) & 0xFFFF));
        break;
      case GSA_32_BIT_ADD :
        CPUWriteMemory(cheatsList[i].address ,
                       cheatsList[i].value + (CPUReadMemory(cheatsList[i].address) & 0xFFFFFFFF));
        break;
      case GSA_8_BIT_IF_LOWER_U:
        if (!(CPUReadByte(cheatsList[i].address) < (cheatsList[i].value & 0xFF))) {
          i++;
        }
        break;
      case GSA_16_BIT_IF_LOWER_U:
        if (!(CPUReadHalfWord(cheatsList[i].address) < (cheatsList[i].value & 0xFFFF))) {
          i++;
        }
        break;
      case GSA_32_BIT_IF_LOWER_U:
        if (!(CPUReadMemory(cheatsList[i].address) < cheatsList[i].value)) {
          i++;
        }
        break;
      case GSA_8_BIT_IF_HIGHER_U:
        if (!(CPUReadByte(cheatsList[i].address) > (cheatsList[i].value & 0xFF))) {
          i++;
        }
        break;
      case GSA_16_BIT_IF_HIGHER_U:
        if (!(CPUReadHalfWord(cheatsList[i].address) > (cheatsList[i].value & 0xFFFF))) {
          i++;
        }
        break;
      case GSA_32_BIT_IF_HIGHER_U:
        if (!(CPUReadMemory(cheatsList[i].address) > cheatsList[i].value)) {
          i++;
        }
        break;
      case GSA_8_BIT_IF_AND:
        if (!(CPUReadByte(cheatsList[i].address) & (cheatsList[i].value & 0xFF))) {
          i++;
        }
        break;
      case GSA_16_BIT_IF_AND:
        if (!(CPUReadHalfWord(cheatsList[i].address) & (cheatsList[i].value & 0xFFFF))) {
          i++;
        }
        break;
      case GSA_32_BIT_IF_AND:
        if (!(CPUReadMemory(cheatsList[i].address) & cheatsList[i].value)) {
          i++;
        }
        break;
      case GSA_8_BIT_IF_LOWER_U2:
        if (!(CPUReadByte(cheatsList[i].address) < (cheatsList[i].value & 0xFF))) {
          i+=2;
        }
        break;
      case GSA_16_BIT_IF_LOWER_U2:
        if (!(CPUReadHalfWord(cheatsList[i].address) < (cheatsList[i].value & 0xFFFF))) {
          i+=2;
        }
        break;
      case GSA_32_BIT_IF_LOWER_U2:
        if (!(CPUReadMemory(cheatsList[i].address) < cheatsList[i].value)) {
          i+=2;
        }
        break;
      case GSA_8_BIT_IF_HIGHER_U2:
        if (!(CPUReadByte(cheatsList[i].address) > (cheatsList[i].value & 0xFF))) {
          i+=2;
        }
        break;
      case GSA_16_BIT_IF_HIGHER_U2:
        if (!(CPUReadHalfWord(cheatsList[i].address) > (cheatsList[i].value & 0xFFFF))) {
          i+=2;
        }
        break;
      case GSA_32_BIT_IF_HIGHER_U2:
        if (!(CPUReadMemory(cheatsList[i].address) > cheatsList[i].value)) {
          i+=2;
        }
        break;
      case GSA_8_BIT_IF_AND2:
        if (!(CPUReadByte(cheatsList[i].address) & (cheatsList[i].value & 0xFF))) {
          i+=2;
        }
        break;
      case GSA_16_BIT_IF_AND2:
        if (!(CPUReadHalfWord(cheatsList[i].address) & (cheatsList[i].value & 0xFFFF))) {
          i+=2;
        }
        break;
      case GSA_32_BIT_IF_AND2:
        if (!(CPUReadMemory(cheatsList[i].address) & cheatsList[i].value)) {
          i+=2;
        }
        break;
      case GSA_ALWAYS:
        i++;
        break;
      case GSA_ALWAYS2:
        i+=2;
        break;
      case GSA_8_BIT_IF_LOWER_S:
        if (!((s8)CPUReadByte(cheatsList[i].address) < ((s8)cheatsList[i].value & 0xFF))) {
          i++;
        }
        break;
      case GSA_16_BIT_IF_LOWER_S:
        if (!((s16)CPUReadHalfWord(cheatsList[i].address) < ((s16)cheatsList[i].value & 0xFFFF))) {
          i++;
        }
        break;
      case GSA_32_BIT_IF_LOWER_S:
        if (!((s32)CPUReadMemory(cheatsList[i].address) < (s32)cheatsList[i].value)) {
          i++;
        }
        break;
      case GSA_8_BIT_IF_HIGHER_S:
        if (!((s8)CPUReadByte(cheatsList[i].address) > ((s8)cheatsList[i].value & 0xFF))) {
          i++;
        }
        break;
      case GSA_16_BIT_IF_HIGHER_S:
        if (!((s16)CPUReadHalfWord(cheatsList[i].address) > ((s16)cheatsList[i].value & 0xFFFF))) {
          i++;
        }
        break;
      case GSA_32_BIT_IF_HIGHER_S:
        if (!((s32)CPUReadMemory(cheatsList[i].address) > (s32)cheatsList[i].value)) {
          i++;
        }
        break;
      case GSA_8_BIT_IF_LOWER_S2:
        if (!((s8)CPUReadByte(cheatsList[i].address) < ((s8)cheatsList[i].value & 0xFF))) {
          i+=2;
        }
        break;
      case GSA_16_BIT_IF_LOWER_S2:
        if (!((s16)CPUReadHalfWord(cheatsList[i].address) < ((s16)cheatsList[i].value & 0xFFFF))) {
          i+=2;
        }
        break;
      case GSA_32_BIT_IF_LOWER_S2:
        if (!((s32)CPUReadMemory(cheatsList[i].address) < (s32)cheatsList[i].value)) {
          i+=2;
        }
        break;
      case GSA_8_BIT_IF_HIGHER_S2:
        if (!((s8)CPUReadByte(cheatsList[i].address) > ((s8)cheatsList[i].value & 0xFF))) {
          i+=2;
        }
        break;
      case GSA_16_BIT_IF_HIGHER_S2:
        if (!((s16)CPUReadHalfWord(cheatsList[i].address) > ((s16)cheatsList[i].value & 0xFFFF))) {
          i+=2;
        }
        break;
      case GSA_32_BIT_IF_HIGHER_S2:
        if (!((s32)CPUReadMemory(cheatsList[i].address) > (s32)cheatsList[i].value)) {
          i+=2;
        }
        break;
      case GSA_16_BIT_WRITE_IOREGS:
        if ((cheatsList[i].address <= 0x3FF) && (cheatsList[i].address != 0x6) &&
            (cheatsList[i].address != 0x130))
          ioMem[cheatsList[i].address & 0x3FE]=cheatsList[i].value & 0xFFFF;
        break;
      case GSA_32_BIT_WRITE_IOREGS:
        if (cheatsList[i].address<=0x3FF)
        {
          if (((cheatsList[i].address & 0x3FC) != 0x6) && ((cheatsList[i].address & 0x3FC) != 0x130))
            ioMem[cheatsList[i].address & 0x3FC]= (cheatsList[i].value & 0xFFFF);
          if ((((cheatsList[i].address & 0x3FC)+2) != 0x6) && ((cheatsList[i].address & 0x3FC) +2) != 0x130)
            ioMem[(cheatsList[i].address & 0x3FC) + 2 ]= ((cheatsList[i].value>>16 ) & 0xFFFF);
        }
        break;
      case GSA_8_BIT_IF_TRUE3:
        if(CPUReadByte(cheatsList[i].address) != cheatsList[i].value) {
          onoff=false;
        }
        break;
      case GSA_16_BIT_IF_TRUE3:
        if(CPUReadHalfWord(cheatsList[i].address) != cheatsList[i].value) {
          onoff=false;
        }
        break;
      case GSA_32_BIT_IF_TRUE3:
        if(CPUReadMemory(cheatsList[i].address) != cheatsList[i].value) {
          onoff=false;
        }
        break;
      case GSA_8_BIT_IF_FALSE3:
        if(CPUReadByte(cheatsList[i].address) == cheatsList[i].value) {
          onoff=false;
        }
        break;
      case GSA_16_BIT_IF_FALSE3:
        if(CPUReadHalfWord(cheatsList[i].address) == cheatsList[i].value) {
          onoff=false;
        }
        break;
      case GSA_32_BIT_IF_FALSE3:
        if(CPUReadMemory(cheatsList[i].address) == cheatsList[i].value) {
          onoff=false;
        }
        break;
      case GSA_8_BIT_IF_LOWER_S3:
        if (!((s8)CPUReadByte(cheatsList[i].address) < ((s8)cheatsList[i].value & 0xFF))) {
          onoff=false;
        }
        break;
      case GSA_16_BIT_IF_LOWER_S3:
        if (!((s16)CPUReadHalfWord(cheatsList[i].address) < ((s16)cheatsList[i].value & 0xFFFF))) {
          onoff=false;
        }
        break;
      case GSA_32_BIT_IF_LOWER_S3:
        if (!((s32)CPUReadMemory(cheatsList[i].address) < (s32)cheatsList[i].value)) {
          onoff=false;
        }
        break;
      case GSA_8_BIT_IF_HIGHER_S3:
        if (!((s8)CPUReadByte(cheatsList[i].address) > ((s8)cheatsList[i].value & 0xFF))) {
          onoff=false;
        }
        break;
      case GSA_16_BIT_IF_HIGHER_S3:
        if (!((s16)CPUReadHalfWord(cheatsList[i].address) > ((s16)cheatsList[i].value & 0xFFFF))) {
          onoff=false;
        }
        break;
      case GSA_32_BIT_IF_HIGHER_S3:
        if (!((s32)CPUReadMemory(cheatsList[i].address) > (s32)cheatsList[i].value)) {
          onoff=false;
        }
        break;
      case GSA_8_BIT_IF_LOWER_U3:
        if (!(CPUReadByte(cheatsList[i].address) < (cheatsList[i].value & 0xFF))) {
          onoff=false;
        }
        break;
      case GSA_16_BIT_IF_LOWER_U3:
        if (!(CPUReadHalfWord(cheatsList[i].address) < (cheatsList[i].value & 0xFFFF))) {
          onoff=false;
        }
        break;
      case GSA_32_BIT_IF_LOWER_U3:
        if (!(CPUReadMemory(cheatsList[i].address) < cheatsList[i].value)) {
          onoff=false;
        }
        break;
      case GSA_8_BIT_IF_HIGHER_U3:
        if (!(CPUReadByte(cheatsList[i].address) > (cheatsList[i].value & 0xFF))) {
          onoff=false;
        }
        break;
      case GSA_16_BIT_IF_HIGHER_U3:
        if (!(CPUReadHalfWord(cheatsList[i].address) > (cheatsList[i].value & 0xFFFF))) {
          onoff=false;
        }
        break;
      case GSA_32_BIT_IF_HIGHER_U3:
        if (!(CPUReadMemory(cheatsList[i].address) > cheatsList[i].value)) {
          onoff=false;
        }
        break;
      case GSA_8_BIT_IF_AND3:
        if (!(CPUReadByte(cheatsList[i].address) & (cheatsList[i].value & 0xFF))) {
          onoff=false;
        }
        break;
      case GSA_16_BIT_IF_AND3:
        if (!(CPUReadHalfWord(cheatsList[i].address) & (cheatsList[i].value & 0xFFFF))) {
          onoff=false;
        }
        break;
      case GSA_32_BIT_IF_AND3:
        if (!(CPUReadMemory(cheatsList[i].address) & cheatsList[i].value)) {
          onoff=false;
        }
        break;
      case GSA_ALWAYS3:
        if (!(CPUReadMemory(cheatsList[i].address) & cheatsList[i].value)) {
          onoff=false;
        }
        break;
      case GSA_GROUP_WRITE:
      	{
          int count = ((cheatsList[i].address) & 0xFFFE) +1;
          u32 value = cheatsList[i].value;
		  if (count==0)
			  i++;
		  else
            for (int x = 1; x <= count; x++) {
				if ((x % 2) ==0){
					if (x<count)
						i++;
					CPUWriteMemory(cheatsList[i].rawaddress, value);
				}
				else
					CPUWriteMemory(cheatsList[i].value, value);
			}
		}
		break;
      case GSA_32_BIT_ADD2:
        CPUWriteMemory(cheatsList[i].value ,
                       (CPUReadMemory(cheatsList[i].value) + cheatsList[i+1].rawaddress) & 0xFFFFFFFF);
        i++;
		break;
      case GSA_32_BIT_SUB2:
        CPUWriteMemory(cheatsList[i].value ,
                       (CPUReadMemory(cheatsList[i].value) - cheatsList[i+1].rawaddress) & 0xFFFFFFFF);
        i++;
		break;
      case GSA_16_BIT_IF_LOWER_OR_EQ_U:
        if(CPUReadHalfWord(cheatsList[i].address) > cheatsList[i].value) {
          i++;
        }
        break;
      case GSA_16_BIT_IF_HIGHER_OR_EQ_U:
        if(CPUReadHalfWord(cheatsList[i].address) < cheatsList[i].value) {
          i++;
        }
        break;
      case GSA_16_BIT_MIF_TRUE:
        if(CPUReadHalfWord(cheatsList[i].address) != cheatsList[i].value) {
          i+=((cheatsList[i].rawaddress >> 0x10) & 0xFF);
        }
        break;
      case GSA_16_BIT_MIF_FALSE:
        if(CPUReadHalfWord(cheatsList[i].address) == cheatsList[i].value) {
          i+=(cheatsList[i].rawaddress >> 0x10) & 0xFF;
        }
        break;
      case GSA_16_BIT_MIF_LOWER_OR_EQ_U:
        if(CPUReadHalfWord(cheatsList[i].address) > cheatsList[i].value) {
          i+=(cheatsList[i].rawaddress >> 0x10) & 0xFF;
        }
        break;
      case GSA_16_BIT_MIF_HIGHER_OR_EQ_U:
        if(CPUReadHalfWord(cheatsList[i].address) < cheatsList[i].value) {
          i+=(cheatsList[i].rawaddress >> 0x10) & 0xFF;
        }
        break;
      case CHEATS_16_BIT_WRITE:
        if ((cheatsList[i].address>>24)>=0x08) {
          CHEAT_PATCH_ROM_16BIT(cheatsList[i].address, cheatsList[i].value);
        } else {
          CPUWriteHalfWord(cheatsList[i].address, cheatsList[i].value);
        }
        break;
      case CHEATS_32_BIT_WRITE:
        if ((cheatsList[i].address>>24)>=0x08) {
          CHEAT_PATCH_ROM_32BIT(cheatsList[i].address, cheatsList[i].value);
        } else {
          CPUWriteMemory(cheatsList[i].address, cheatsList[i].value);
        }
        break;
      }
    }
  }
  for (i = 0; i<4; i++)
    if (rompatch2addr [i] != 0)
      CHEAT_PATCH_ROM_16BIT(rompatch2addr [i],rompatch2val [i]);
  return ticks;
}

void cheatsAdd(const char *codeStr,
               const char *desc,
               u32 rawaddress,
               u32 address,
               u32 value,
               int code,
               int size)
{
  if(cheatsNumber < 100) {
    int x = cheatsNumber;
    cheatsList[x].code = code;
    cheatsList[x].size = size;
    cheatsList[x].rawaddress = rawaddress;
    cheatsList[x].address = address;
    cheatsList[x].value = value;
    strcpy(cheatsList[x].codestring, codeStr);
    strcpy(cheatsList[x].desc, desc);
    cheatsList[x].enabled = true;
    cheatsList[x].status = 0;

    // we only store the old value for this simple codes. ROM patching
    // is taken care when it actually patches the ROM
    switch(cheatsList[x].size) {
    case INT_8_BIT_WRITE:
      cheatsList[x].oldValue = CPUReadByte(address);
      break;
    case INT_16_BIT_WRITE:
      cheatsList[x].oldValue = CPUReadHalfWord(address);
      break;
    case INT_32_BIT_WRITE:
      cheatsList[x].oldValue = CPUReadMemory(address);
      break;
    case CHEATS_16_BIT_WRITE:
      cheatsList[x].oldValue = CPUReadHalfWord(address);
      break;
    case CHEATS_32_BIT_WRITE:
      cheatsList[x].oldValue = CPUReadMemory(address);
      break;
    }
    cheatsNumber++;
  }
}

void cheatsDelete(int number, bool restore)
{
  if(number < cheatsNumber && number >= 0) {
    int x = number;

    if(restore) {
      switch(cheatsList[x].size) {
      case INT_8_BIT_WRITE:
        CPUWriteByte(cheatsList[x].address, (u8)cheatsList[x].oldValue);
        break;
      case INT_16_BIT_WRITE:
        CPUWriteHalfWord(cheatsList[x].address, (u16)cheatsList[x].oldValue);
        break;
      case INT_32_BIT_WRITE:
        CPUWriteMemory(cheatsList[x].address, cheatsList[x].oldValue);
        break;
      case CHEATS_16_BIT_WRITE:
        if ((cheatsList[x].address>>24)>=0x08) {
          CHEAT_PATCH_ROM_16BIT(cheatsList[x].address, cheatsList[x].oldValue);
        } else {
          CPUWriteHalfWord(cheatsList[x].address, cheatsList[x].oldValue);
        }
        break;
      case CHEATS_32_BIT_WRITE:
        if ((cheatsList[x].address>>24)>=0x08) {
          CHEAT_PATCH_ROM_32BIT(cheatsList[x].address, cheatsList[x].oldValue);
        } else {
          CPUWriteMemory(cheatsList[x].address, cheatsList[x].oldValue);
        }
      case GSA_16_BIT_ROM_PATCH:
        if(cheatsList[x].status & 1) {
          cheatsList[x].status &= ~1;
          CHEAT_PATCH_ROM_16BIT(cheatsList[x].address,
                                cheatsList[x].oldValue);
        }
        break;
      case GSA_16_BIT_ROM_PATCH2C:
      case GSA_16_BIT_ROM_PATCH2D:
      case GSA_16_BIT_ROM_PATCH2E:
      case GSA_16_BIT_ROM_PATCH2F:
        if(cheatsList[x].status & 1) {
          cheatsList[x].status &= ~1;
        }
        break;
      case MASTER_CODE:
        mastercode=0;
        break;
      }
    }
    if((x+1) <  cheatsNumber) {
      memcpy(&cheatsList[x], &cheatsList[x+1], sizeof(CheatsData)*
             (cheatsNumber-x-1));
    }
    cheatsNumber--;
  }
}

void cheatsDeleteAll(bool restore)
{
  for(int i = cheatsNumber-1; i >= 0; i--) {
    cheatsDelete(i, restore);
  }
}

void cheatsEnable(int i)
{
  if(i >= 0 && i < cheatsNumber) {
    cheatsList[i].enabled = true;
    mastercode = 0;
  }
}

void cheatsDisable(int i)
{
  if(i >= 0 && i < cheatsNumber) {
    switch(cheatsList[i].size) {
    case GSA_16_BIT_ROM_PATCH:
      if(cheatsList[i].status & 1) {
        cheatsList[i].status &= ~1;
        CHEAT_PATCH_ROM_16BIT(cheatsList[i].address,
                              cheatsList[i].oldValue);
      }
      break;
    case GSA_16_BIT_ROM_PATCH2C:
    case GSA_16_BIT_ROM_PATCH2D:
    case GSA_16_BIT_ROM_PATCH2E:
    case GSA_16_BIT_ROM_PATCH2F:
      if(cheatsList[i].status & 1) {
        cheatsList[i].status &= ~1;
      }
      break;
    case MASTER_CODE:
        mastercode=0;
      break;
    }
    cheatsList[i].enabled = false;
  }
}

bool cheatsVerifyCheatCode(const char *code, const char *desc)
{
  size_t len = strlen(code);
  if(len != 11 && len != 13 && len != 17) {
    systemMessage("Invalid cheat code '%s': wrong length", code);
    return false;
  }

  if(code[8] != ':') {
    systemMessage("Invalid cheat code '%s': no colon", code);
    return false;
  }

  size_t i;
  for(i = 0; i < 8; i++) {
    if(!CHEAT_IS_HEX(code[i])) {
      // wrong cheat
      systemMessage("Invalid cheat code '%s': first part is not hex", code);
      return false;
    }
  }
  for(i = 9; i < len; i++) {
    if(!CHEAT_IS_HEX(code[i])) {
      // wrong cheat
      systemMessage("Invalid cheat code '%s' second part is not hex", code);
      return false;
    }
  }

  u32 address = 0;
  u32 value = 0;

  char buffer[10];
  strncpy(buffer, code, 8);
  buffer[8] = 0;
  sscanf(buffer, "%x", &address);

  switch(address >> 24) {
  case 0x02:
  case 0x03:
  case 0x04:
  case 0x05:
  case 0x06:
  case 0x07:
  case 0x08:
  case 0x09:
  case 0x0A:
  case 0x0B:
  case 0x0C:
  case 0x0D:
    break;
  default:
    systemMessage("Invalid cheat code address: %08x",
                  address);
    return false;
  }

  strncpy(buffer, &code[9], 8);
  sscanf(buffer, "%x", &value);
  int type = 0;
  if(len == 13)
    type = 114;
  if(len == 17)
    type = 115;
  cheatsAdd(code, desc, address, address, value, type, type);
  return true;
}

void cheatsAddCheatCode(const char *code, const char *desc)
{
  cheatsVerifyCheatCode(code, desc);
}

u16 cheatsGSAGetDeadface(bool v3)
{
  for(int i = cheatsNumber-1; i >= 0; i--)
    if ((cheatsList[i].address == 0xDEADFACE) && (cheatsList[i].code == (v3 ? 257 : 256)))
      return cheatsList[i].value & 0xFFFF;
	return 0;
}

void cheatsGSAChangeEncryption(u16 value, bool v3) {
	int i;
	u8 *deadtable1, *deadtable2;

	if (v3) {
		deadtable1 = (u8*)(&v3_deadtable1);
		deadtable2 = (u8*)(&v3_deadtable2);
	        for (i = 0; i < 4; i++)
		  seeds_v3[i] = seed_gen(((value & 0xFF00) >> 8), (value & 0xFF) + i, deadtable1, deadtable2);
	}
	else {
		deadtable1 = (u8*)(&v1_deadtable1);
		deadtable2 = (u8*)(&v1_deadtable2);
		for (i = 0; i < 4; i++){
		  seeds_v1[i] = seed_gen(((value & 0xFF00) >> 8), (value & 0xFF) + i, deadtable1, deadtable2);
		}
	}
}

u32 seed_gen(u8 upper, u8 seed, u8 *deadtable1, u8 *deadtable2) {
	int i;
	u32 newseed = 0;

	for (i = 0; i < 4; i++)
		newseed = ((newseed << 8) | ((deadtable1[(i + upper) & 0xFF] + deadtable2[seed]) & 0xFF));

	return newseed;
}

void cheatsDecryptGSACode(u32& address, u32& value, bool v3)
{
  u32 rollingseed = 0xC6EF3720;
  u32 *seeds = v3 ? seeds_v3 : seeds_v1;

  int bitsleft = 32;
  while (bitsleft > 0) {
    value -= ((((address << 4) + seeds[2]) ^ (address + rollingseed)) ^
              ((address >> 5) + seeds[3]));
    address -= ((((value << 4) + seeds[0]) ^ (value + rollingseed)) ^
                ((value >> 5) + seeds[1]));
    rollingseed -= 0x9E3779B9;
    bitsleft--;
  }
}

void cheatsAddGSACode(const char *code, const char *desc, bool v3)
{
  if(strlen(code) != 16) {
    // wrong cheat
    systemMessage("Invalid GSA code. Format is XXXXXXXXYYYYYYYY");
    return;
  }

  int i;
  for(i = 0; i < 16; i++) {
    if(!CHEAT_IS_HEX(code[i])) {
      // wrong cheat
      systemMessage("Invalid GSA code. Format is XXXXXXXXYYYYYYYY");
      return;
    }
  }

  char buffer[10];
  strncpy(buffer, code, 8);
  buffer[8] = 0;
  u32 address;
  sscanf(buffer, "%x", &address);
  strncpy(buffer, &code[8], 8);
  buffer[8] = 0;
  u32 value;
  sscanf(buffer, "%x", &value);
  cheatsGSAChangeEncryption(cheatsGSAGetDeadface (v3), v3);
  cheatsDecryptGSACode(address, value, v3);

  if(value == 0x1DC0DE) {
    u32 gamecode = READ32LE(((u32 *)&rom[0xac]));
    if(gamecode != address) {
      char buffer[5];
      *((u32 *)buffer) = address;
      buffer[4] = 0;
      char buffer2[5];
      *((u32 *)buffer2) = READ32LE(((u32 *)&rom[0xac]));
      buffer2[4] = 0;
      systemMessage("Warning: cheats are for game %s. Current game is %s.\nCodes may not work correctly.",
                    buffer, buffer2);
    }
    cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, v3 ? 257 : 256,
              UNKNOWN_CODE);
    return;
  }
  if(isMultilineWithData(cheatsNumber-1)) {
    cheatsAdd(code, desc, address, address, value, v3 ? 257 : 256, UNKNOWN_CODE);
    return;
  }
  if(v3) {
    int type = ((address >> 25) & 127) | ((address >> 17) & 0x80);
    u32 addr = (address & 0x00F00000) << 4 | (address & 0x0003FFFF);
    u16 mcode = (address>>24 & 0xFF);

    if ((mcode & 0xFE) == 0xC4)
    {
      cheatsAdd(code, desc, address, (address & 0x1FFFFFF) | (0x08000000),
        value, 257, MASTER_CODE);
      mastercode = (address & 0x1FFFFFF) | (0x08000000);
    }
    else
    switch(type) {
    case 0x00:
      if(address == 0) {
        type = (value >> 25) & 127;
        addr = (value & 0x00F00000) << 4 | (value & 0x0003FFFF);
        switch(type) {
        case 0x04:
          cheatsAdd(code, desc, address, 0, value & 0x00FFFFFF, 257, GSA_SLOWDOWN);
          break;
        case 0x08:
          cheatsAdd(code, desc, address, 0, addr, 257, GSA_8_BIT_GS_WRITE2);
          break;
        case 0x09:
          cheatsAdd(code, desc, address, 0, addr, 257, GSA_16_BIT_GS_WRITE2);
          break;
        case 0x0a:
          cheatsAdd(code, desc, address, 0, addr, 257, GSA_32_BIT_GS_WRITE2);
          break;
        case 0x0c:
          cheatsAdd(code, desc, address, 0, value & 0x00FFFFFF, 257, GSA_16_BIT_ROM_PATCH2C);
          break;
        case 0x0d:
          cheatsAdd(code, desc, address, 0, value & 0x00FFFFFF, 257, GSA_16_BIT_ROM_PATCH2D);
          break;
        case 0x0e:
          cheatsAdd(code, desc, address, 0, value & 0x00FFFFFF, 257, GSA_16_BIT_ROM_PATCH2E);
          break;
        case 0x0f:
          cheatsAdd(code, desc, address, 0, value & 0x00FFFFFF, 257, GSA_16_BIT_ROM_PATCH2F);
          break;
        case 0x20:
          cheatsAdd(code, desc, address, 0, addr, 257, GSA_CODES_ON);
          break;
        case 0x40:
          cheatsAdd(code, desc, address, 0, addr, 257, GSA_8_BIT_SLIDE);
          break;
        case 0x41:
          cheatsAdd(code, desc, address, 0, addr, 257, GSA_16_BIT_SLIDE);
          break;
        case 0x42:
          cheatsAdd(code, desc, address, 0, addr, 257, GSA_32_BIT_SLIDE);
          break;
        default:
          cheatsAdd(code, desc, address, address, value, 257, UNKNOWN_CODE);
          break;
        }
      } else
        cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_FILL);
      break;
    case 0x01:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_FILL);
      break;
    case 0x02:
      cheatsAdd(code, desc, address, addr, value, 257, INT_32_BIT_WRITE);
      break;
    case 0x04:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_TRUE);
      break;
    case 0x05:
      cheatsAdd(code, desc, address, addr, value, 257, CBA_IF_TRUE);
      break;
    case 0x06:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_TRUE);
      break;
    case 0x07:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_ALWAYS);
      break;
    case 0x08:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_FALSE);
      break;
    case 0x09:
      cheatsAdd(code, desc, address, addr, value, 257, CBA_IF_FALSE);
      break;
    case 0x0a:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_FALSE);
      break;
    case 0xc:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_LOWER_S);
      break;
    case 0xd:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_LOWER_S);
      break;
    case 0xe:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_LOWER_S);
      break;
    case 0x10:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_HIGHER_S);
      break;
    case 0x11:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_HIGHER_S);
      break;
    case 0x12:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_HIGHER_S);
      break;
    case 0x14:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_LOWER_U);
      break;
    case 0x15:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_LOWER_U);
      break;
    case 0x16:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_LOWER_U);
      break;
    case 0x18:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_HIGHER_U);
      break;
    case 0x19:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_HIGHER_U);
      break;
    case 0x1A:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_HIGHER_U);
      break;
    case 0x1C:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_AND);
      break;
    case 0x1D:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_AND);
      break;
    case 0x1E:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_AND);
      break;
    case 0x20:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_POINTER);
      break;
    case 0x21:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_POINTER);
      break;
    case 0x22:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_POINTER);
      break;
    case 0x24:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_TRUE2);
      break;
    case 0x25:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_TRUE2);
      break;
    case 0x26:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_TRUE2);
      break;
    case 0x27:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_ALWAYS2);
      break;
    case 0x28:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_FALSE2);
      break;
    case 0x29:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_FALSE2);
      break;
    case 0x2a:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_FALSE2);
      break;
    case 0x2c:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_LOWER_S2);
      break;
    case 0x2d:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_LOWER_S2);
      break;
    case 0x2e:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_LOWER_S2);
      break;
    case 0x30:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_HIGHER_S2);
      break;
    case 0x31:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_HIGHER_S2);
      break;
    case 0x32:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_HIGHER_S2);
      break;
    case 0x34:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_LOWER_U2);
      break;
    case 0x35:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_LOWER_U2);
      break;
    case 0x36:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_LOWER_U2);
      break;
    case 0x38:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_HIGHER_U2);
      break;
    case 0x39:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_HIGHER_U2);
      break;
    case 0x3A:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_HIGHER_U2);
      break;
    case 0x3C:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_AND2);
      break;
    case 0x3D:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_AND2);
      break;
    case 0x3E:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_AND2);
      break;
    case 0x40:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_ADD);
      break;
    case 0x41:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_ADD);
      break;
    case 0x42:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_ADD);
      break;
    case 0x44:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_TRUE3);
      break;
    case 0x45:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_TRUE3);
      break;
    case 0x46:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_TRUE3);
      break;
	  case 0x47:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_ALWAYS3);
      break;
    case 0x48:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_FALSE3);
      break;
    case 0x49:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_FALSE3);
      break;
    case 0x4a:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_FALSE3);
      break;
    case 0x4c:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_LOWER_S3);
      break;
    case 0x4d:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_LOWER_S3);
      break;
    case 0x4e:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_LOWER_S3);
      break;
    case 0x50:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_HIGHER_S3);
      break;
    case 0x51:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_HIGHER_S3);
      break;
    case 0x52:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_HIGHER_S3);
      break;
    case 0x54:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_LOWER_U3);
      break;
    case 0x55:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_LOWER_U3);
      break;
    case 0x56:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_LOWER_U3);
      break;
    case 0x58:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_HIGHER_U3);
      break;
    case 0x59:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_HIGHER_U3);
      break;
    case 0x5a:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_HIGHER_U3);
      break;
    case 0x5c:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_8_BIT_IF_AND3);
      break;
    case 0x5d:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_IF_AND3);
      break;
    case 0x5e:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_IF_AND3);
      break;
    case 0x63:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_16_BIT_WRITE_IOREGS);
      break;
    case 0xE3:
      cheatsAdd(code, desc, address, addr, value, 257, GSA_32_BIT_WRITE_IOREGS);
      break;
    default:
      cheatsAdd(code, desc, address, address, value, 257, UNKNOWN_CODE);
      break;
    }
  } else {
    int type = (address >> 28) & 15;
    switch(type) {
    case 0:
    case 1:
    case 2:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, 256, type);
      break;
    case 3:
	  switch ((address >> 0x10) & 0xFF){
	  case 0x00:
        cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, 256, GSA_GROUP_WRITE);
	    break;
	  case 0x10:
	    cheatsAdd(code, desc, address, value & 0x0FFFFFFF, address & 0xFF, 256, GSA_32_BIT_ADD );
	    break;
	  case 0x20:
	    cheatsAdd(code, desc, address, value & 0x0FFFFFFF, (~(address & 0xFF)+1), 256, GSA_32_BIT_ADD );
	    break;
	  case 0x30:
	    cheatsAdd(code, desc, address, value & 0x0FFFFFFF, address & 0xFFFF, 256, GSA_32_BIT_ADD );
	    break;
	  case 0x40:
	    cheatsAdd(code, desc, address, value & 0x0FFFFFFF, (~(address & 0xFFFF)+1), 256, GSA_32_BIT_ADD );
	    break;
	  case 0x50:
	    cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, 256, GSA_32_BIT_ADD2);
	    break;
	  case 0x60:
	    cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, 256, GSA_32_BIT_SUB2);
	    break;
      default:
        // unsupported code
        cheatsAdd(code, desc, address, address, value, 256,
                  UNKNOWN_CODE);
        break;
      }
      break;
    case 6:
      address <<= 1;
      type = (value >> 24) & 0xFF;
      if(type == 0x00) {
        cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value & 0xFFFF, 256,
                  GSA_16_BIT_ROM_PATCH);
        break;
      }
      // unsupported code
      cheatsAdd(code, desc, address, address, value, 256,
                UNKNOWN_CODE);
      break;
    case 8:
      switch((address >> 20) & 15) {
      case 1:
        cheatsAdd(code, desc, address, address & 0x0F0FFFFF, value, 256,
                  GSA_8_BIT_GS_WRITE);
        break;
      case 2:
        cheatsAdd(code, desc, address, address & 0x0F0FFFFF, value, 256,
                  GSA_16_BIT_GS_WRITE);
        break;
      case 4:
		// This code is buggy : the value is always set to 0 !
        cheatsAdd(code, desc, address, address & 0x0F0FFFFF, 0, 256,
                  GSA_32_BIT_GS_WRITE);
        break;
      case 15:
        cheatsAdd(code, desc, address, 0, value & 0xFFFF, 256, GSA_SLOWDOWN);
        break;
      default:
        // unsupported code
        cheatsAdd(code, desc, address, address, value, 256,
                  UNKNOWN_CODE);
        break;
      }
      break;
    case 0x0d:
      if(address != 0xDEADFACE) {
        switch((value >> 20) & 0xF) {
        case 0:
        cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value & 0xFFFF, 256,
                  CBA_IF_TRUE);
          break;
        case 1:
        cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value & 0xFFFF, 256,
                  CBA_IF_FALSE);
          break;
        case 2:
        cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value & 0xFFFF, 256,
                  GSA_16_BIT_IF_LOWER_OR_EQ_U);
          break;
        case 3:
        cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value & 0xFFFF, 256,
                  GSA_16_BIT_IF_HIGHER_OR_EQ_U);
          break;
        default:
        // unsupported code
        cheatsAdd(code, desc, address, address, value, 256,
                  UNKNOWN_CODE);
          break;
		}
      } else
        cheatsAdd(code, desc, address, address, value, 256,
                  UNKNOWN_CODE);
      break;
    case 0x0e:
      switch((value >> 28) & 0xF) {
      case 0:
      cheatsAdd(code, desc, address, value & 0x0FFFFFFF, address & 0xFFFF, 256,
                GSA_16_BIT_MIF_TRUE);
        break;
      case 1:
      cheatsAdd(code, desc, address, value & 0x0FFFFFFF, address & 0xFFFF, 256,
                GSA_16_BIT_MIF_FALSE);
        break;
      case 2:
      cheatsAdd(code, desc, address, value & 0x0FFFFFFF, address & 0xFFFF, 256,
                GSA_16_BIT_MIF_LOWER_OR_EQ_U);
        break;
      case 3:
      cheatsAdd(code, desc, address, value & 0x0FFFFFFF, address & 0xFFFF, 256,
                GSA_16_BIT_MIF_HIGHER_OR_EQ_U);
        break;
      default:
        // unsupported code
        cheatsAdd(code, desc, address, address, value, 256,
                  UNKNOWN_CODE);
        break;
      }
      break;
      case 0x0f:
        cheatsAdd(code, desc, address, (address & 0xFFFFFFF), value, 256, MASTER_CODE);
        mastercode = (address & 0xFFFFFFF);
        break;
      default:
      // unsupported code
      cheatsAdd(code, desc, address, address, value, 256,
                UNKNOWN_CODE);
      break;
    }
  }
}

bool cheatsImportGSACodeFile(const char *name, int game, bool v3)
{
  FILE *f = fopen(name, "rb");
  if(!f)
    return false;

  int games = 0;
  int len = 0;
  fseek(f, 0x1e, SEEK_CUR);
  fread(&games, 1, 4, f);
  bool found = false;
  int g = 0;
  while(games > 0) {
    if(g == game) {
      found = true;
      break;
    }
    fread(&len, 1, 4, f);
    fseek(f,len,SEEK_CUR);
    int codes = 0;
    fread(&codes, 1, 4, f);
    while(codes > 0) {
      fread(&len, 1, 4, f);
      fseek(f, len, SEEK_CUR);
      fseek(f, 8, SEEK_CUR);
      fread(&len, 1, 4, f);
      fseek(f, len*12, SEEK_CUR);
      codes--;
    }
    games--;
    g++;
  }
  if(found) {
    char desc[256];
    char code[17];
    fread(&len, 1, 4, f);
    fseek(f, len, SEEK_CUR);
    int codes = 0;
    fread(&codes, 1, 4, f);
    while(codes > 0) {
      fread(&len, 1, 4, f);
      fread(desc, 1, len, f);
      desc[len] =0;
      desc[31] = 0;
      fread(&len, 1, 4, f);
      fseek(f, len, SEEK_CUR);
      fseek(f, 4, SEEK_CUR);
      fread(&len, 1, 4, f);
      while(len) {
        fseek(f, 4, SEEK_CUR);
        fread(code, 1, 8, f);
        fseek(f, 4, SEEK_CUR);
        fread(&code[8], 1, 8, f);
        code[16] = 0;
        cheatsAddGSACode(code, desc, v3);
        len -= 2;
      }
      codes--;
    }
  }
  fclose(f);
  return false;
}

void cheatsCBAReverseArray(u8 *array, u8 *dest)
{
  dest[0] = array[3];
  dest[1] = array[2];
  dest[2] = array[1];
  dest[3] = array[0];
  dest[4] = array[5];
  dest[5] = array[4];
}

void chatsCBAScramble(u8 *array, int count, u8 b)
{
  u8 *x = array + (count >> 3);
  u8 *y = array + (b >> 3);
  u32 z = *x & (1 << (count & 7));
  u32 x0 = (*x & (~(1 << (count & 7))));
  if (z != 0)
    z = 1;
  if ((*y & (1 << (b & 7))) != 0)
    x0 |= (1 << (count & 7));
  *x = x0;
  u32 temp = *y & (~(1 << (b & 7)));
  if (z != 0)
    temp |= (1 << (b & 7));
  *y = temp;
}

u32 cheatsCBAGetValue(u8 *array)
{
  return array[0] | array[1]<<8 | array[2] << 16 | array[3]<<24;
}

u16 cheatsCBAGetData(u8 *array)
{
  return array[4] | array[5]<<8;
}

void cheatsCBAArrayToValue(u8 *array, u8 *dest)
{
  dest[0] = array[3];
  dest[1] = array[2];
  dest[2] = array[1];
  dest[3] = array[0];
  dest[4] = array[5];
  dest[5] = array[4];
}

void cheatsCBAParseSeedCode(u32 address, u32 value, u32 *array)
{
  array[0] = 1;
  array[1] = value & 0xFF;
  array[2] = (address >> 0x10) & 0xFF;
  array[3] = (value >> 8) & 0xFF;
  array[4] = (address >> 0x18) & 0x0F;
  array[5] = address & 0xFFFF;
  array[6] = address;
  array[7] = value;
}

u32 cheatsCBAEncWorker()
{
  u32 x = (cheatsCBATemporaryValue * 0x41c64e6d) + 0x3039;
  u32 y = (x * 0x41c64e6d) + 0x3039;
  u32 z = x >> 0x10;
  x = ((y >> 0x10) & 0x7fff) << 0x0f;
  z = (z << 0x1e) | x;
  x = (y * 0x41c64e6d) + 0x3039;
  cheatsCBATemporaryValue = x;
  return z | ((x >> 0x10) & 0x7fff);
}

#define ROR(v, s) \
  (((v) >> (s)) | (((v) & ((1 << (s))-1)) << (32 - (s))))

u32 cheatsCBACalcIndex(u32 x, u32 y)
{
  if(y != 0) {
    if(y == 1)
      x = 0;
    else if(x == y)
      x = 0;
    if(y < 1)
      return x;
    else if(x < y)
      return x;
    u32 x0 = 1;

    while(y < 0x10000000) {
      if(y < x) {
        y = y << 4;
        x0 = x0 << 4;
      } else break;
    }

    while(y < 0x80000000) {
      if(y < x) {
        y = y << 1;
        x0 = x0 << 1;
      } else break;
    }

  loop:
    u32 z = 0;
    if(x >= y)
      x -= y;
    if(x >= (y >> 1)) {
      x -= (y >> 1);
      z |= ROR(x0, 1);
    }
    if(x >= (y >> 2)) {
      x -= (y >> 2);
      z |= ROR(x0, 2);
    }
    if(x >= (y >> 3)) {
      x -= (y >> 3);
      z |= ROR(x0, 3);
    }

    u32 temp = x0;

    if(x != 0) {
      x0 = x0 >> 4;
      if(x0 != 0) {
        y = y >> 4;
        goto loop;
      }
    }

    z = z & 0xe0000000;

    if(z != 0) {
      if((temp & 7) == 0)
        return x;
    } else
      return x;

    if((z & ROR(temp, 3)) != 0)
      x += y >> 3;
    if((z & ROR(temp, 2)) != 0)
      x += y >> 2;
    if((z & ROR(temp, 1)) != 0)
      x += y >> 1;
    return x;
  } else {
  }
  // should not happen in the current code
  return 0;
}

void cheatsCBAUpdateSeedBuffer(u32 a, u8 *buffer, int count)
{
  int i;
  for(i = 0; i < count; i++)
    buffer[i] = i;
  for(i = 0; (u32)i < a; i++) {
    u32 a = cheatsCBACalcIndex(cheatsCBAEncWorker(), count);
    u32 b = cheatsCBACalcIndex(cheatsCBAEncWorker(), count);
    u32 t = buffer[a];
    buffer[a] = buffer[b];
    buffer[b] = t;
  }
}

void cheatsCBAChangeEncryption(u32 *seed)
{
  int i;

  cheatsCBATemporaryValue = (seed[1] ^ 0x1111);
  cheatsCBAUpdateSeedBuffer(0x50, cheatsCBASeedBuffer, 0x30);
  cheatsCBATemporaryValue = 0x4efad1c3;

  for(i = 0; (u32)i < seed[4]; i++) {
    cheatsCBATemporaryValue = cheatsCBAEncWorker();
  }
  cheatsCBASeed[2] = cheatsCBAEncWorker();
  cheatsCBASeed[3] = cheatsCBAEncWorker();

  cheatsCBATemporaryValue = seed[3] ^ 0xf254;

  for(i = 0; (u32)i < seed[3]; i++) {
    cheatsCBATemporaryValue = cheatsCBAEncWorker();
  }

  cheatsCBASeed[0] = cheatsCBAEncWorker();
  cheatsCBASeed[1] = cheatsCBAEncWorker();

  *((u32 *)&cheatsCBACurrentSeed[0]) = seed[6];
  *((u32 *)&cheatsCBACurrentSeed[4]) = seed[7];
  *((u32 *)&cheatsCBACurrentSeed[8]) = 0;
}

u16 cheatsCBAGenValue(u32 x, u32 y, u32 z)
{
  y <<= 0x10;
  z <<= 0x10;
  x <<= 0x18;
  u32 x0 = (int)y >> 0x10;
  z = (int)z >> 0x10;
  x = (int)x >> 0x10;
  for(int i = 0; i < 8; i++) {
    u32 temp = z ^ x;
    if ((int)temp >= 0) {
      temp = z << 0x11;
    }
    else {
      temp = z << 0x01;
      temp ^= x0;
      temp = temp << 0x10;
    }
    z = (int)temp >> 0x10;
    temp = x << 0x11;
    x = (int)temp >> 0x10;
  }
  return z & 0xffff;
}

void cheatsCBAGenTable() {
  for (int i = 0; i < 0x100; i++) {
    cheatsCBATable[i] = cheatsCBAGenValue(i, 0x1021, 0);
  }
  cheatsCBATableGenerated = true;
}

u16 cheatsCBACalcCRC(u8 *rom, int count)
{
  u32 crc = 0xffffffff;

  if (count & 3) {
    // 0x08000EAE
  } else {
    count = (count >> 2) - 1;
    if(count != -1) {
      while(count != -1) {
        crc = (((crc << 0x08) ^ cheatsCBATable[(((u32)crc << 0x10) >> 0x18)
                                               ^ *rom++]) << 0x10) >> 0x10;
        crc = (((crc << 0x08) ^ cheatsCBATable[(((u32)crc << 0x10) >> 0x18)
                                               ^ *rom++]) << 0x10) >> 0x10;
        crc = (((crc << 0x08) ^ cheatsCBATable[(((u32)crc << 0x10) >> 0x18)
                                               ^ *rom++]) << 0x10) >> 0x10;
        crc = (((crc << 0x08) ^ cheatsCBATable[(((u32)crc << 0x10) >> 0x18)
                                               ^ *rom++]) << 0x10) >> 0x10;
        count--;
      }
    }
  }
  return crc & 0xffff;
}

void cheatsCBADecrypt(u8 *decrypt)
{
  u8 buffer[8] = { 0, 0, 0, 0, 0, 0, 0, 0 };
  u8 *array = &buffer[1];

  cheatsCBAReverseArray(decrypt, array);

  for(int count = 0x2f; count >= 0; count--) {
    chatsCBAScramble(array, count, cheatsCBASeedBuffer[count]);
  }
  cheatsCBAArrayToValue(array, decrypt);
  *((u32 *)decrypt) = cheatsCBAGetValue(decrypt) ^
    cheatsCBASeed[0];
  *((u16 *)(decrypt+4)) = (cheatsCBAGetData(decrypt) ^
                           cheatsCBASeed[1]) & 0xffff;

  cheatsCBAReverseArray(decrypt, array);

  u32 cs = cheatsCBAGetValue(cheatsCBACurrentSeed);
  for(int i = 0; i <= 4; i++) {
    array[i] = ((cs >> 8) ^ array[i+1]) ^ array[i] ;
  }

  array[5] = (cs >> 8) ^ array[5];

  for(int j = 5; j >=0; j--) {
    array[j] = (cs ^ array[j-1]) ^ array[j];
  }

  cheatsCBAArrayToValue(array, decrypt);

  *((u32 *)decrypt) = cheatsCBAGetValue(decrypt)
    ^ cheatsCBASeed[2];
  *((u16 *)(decrypt+4)) = (cheatsCBAGetData(decrypt)
                           ^ cheatsCBASeed[3]) & 0xffff;
}

int cheatsCBAGetCount()
{
  int count = 0;
  for(int i = 0; i < cheatsNumber; i++) {
    if(cheatsList[i].code == 512)
      count++;
  }
  return count;
}

bool cheatsCBAShouldDecrypt()
{
  for(int i = 0; i < cheatsNumber; i++) {
    if(cheatsList[i].code == 512) {
      return (cheatsList[i].codestring[0] == '9');
    }
  }
  return false;
}

void cheatsAddCBACode(const char *code, const char *desc)
{
  if(strlen(code) != 13) {
    // wrong cheat
    systemMessage("Invalid CBA code. Format is XXXXXXXX YYYY.");
    return;
  }

  int i;
  for(i = 0; i < 8; i++) {
    if(!CHEAT_IS_HEX(code[i])) {
      // wrong cheat
      systemMessage("Invalid CBA code. Format is XXXXXXXX YYYY.");
      return;
    }
  }

  if(code[8] != ' ') {
    systemMessage("Invalid CBA code. Format is XXXXXXXX YYYY.");
    return;
  }

  for(i = 9; i < 13; i++) {
    if(!CHEAT_IS_HEX(code[i])) {
      // wrong cheat
      systemMessage("Invalid CBA code. Format is XXXXXXXX YYYY.");
      return;
    }
  }

  char buffer[10];
  strncpy(buffer, code, 8);
  buffer[8] = 0;
  u32 address;
  sscanf(buffer, "%x", &address);
  strncpy(buffer, &code[9], 4);
  buffer[4] = 0;
  u32 value;
  sscanf(buffer, "%x", &value);

  u8 array[8] = {
    (u8)(address & 255),
    (u8)((address >> 8) & 255),
    (u8)((address >> 16) & 255),
    (u8)((address >> 24) & 255),
    (u8)(value & 255),
    (u8)((value >> 8) & 255),
    0,
    0
  };

  if(cheatsCBAGetCount() == 0 &&
     (address >> 28) == 9) {
    u32 seed[8];
    cheatsCBAParseSeedCode(address, value, seed);
    cheatsCBAChangeEncryption(seed);
    cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, 512, UNKNOWN_CODE);
  } else {
    if(cheatsCBAShouldDecrypt())
      cheatsCBADecrypt(array);

    address = READ32LE(((u32 *)array));
    value = READ16LE(((u16 *)&array[4]));

    int type = (address >> 28) & 15;

    if(isMultilineWithData(cheatsNumber-1) || (super>0)) {
      cheatsAdd(code, desc, address, address, value, 512, UNKNOWN_CODE);
	  if (super>0)
		  super-= 1;
      return;
    }

    switch(type) {
    case 0x00:
      {
        if(!cheatsCBATableGenerated)
          cheatsCBAGenTable();
        u32 crc = cheatsCBACalcCRC(rom, 0x10000);
        if(crc != address) {
          systemMessage("Warning: Codes seem to be for a different game.\nCodes may not work correctly.");
        }
        cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, 512,
                  UNKNOWN_CODE);
      }
      break;
    case 0x01:
      cheatsAdd(code, desc, address, (address & 0x1FFFFFF) | 0x08000000, value, 512, MASTER_CODE);
      mastercode = (address & 0x1FFFFFF) | 0x08000000;
      break;
    case 0x02:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                CBA_OR);
      break;
    case 0x03:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value, 512,
                INT_8_BIT_WRITE);
      break;
    case 0x04:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                CBA_SLIDE_CODE);
      break;
    case 0x05:
		cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                  CBA_SUPER);
		super = getCodeLength(cheatsNumber-1);
      break;
    case 0x06:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                CBA_AND);
      break;
    case 0x07:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                CBA_IF_TRUE);
      break;
    case 0x08:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                INT_16_BIT_WRITE);
      break;
    case 0x0a:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                CBA_IF_FALSE);
      break;
    case 0x0b:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                CBA_GT);
      break;
    case 0x0c:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                CBA_LT);
      break;
    case 0x0d:
		if ((address & 0xF0)<0x30)
      cheatsAdd(code, desc, address, address & 0xF0, value, 512,
                CBA_IF_KEYS_PRESSED);
      break;
    case 0x0e:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFF, value & 0x8000 ? value | 0xFFFF0000 : value, 512,
                CBA_ADD);
      break;
    case 0x0f:
      cheatsAdd(code, desc, address, address & 0x0FFFFFFE, value, 512,
                GSA_16_BIT_IF_AND);
      break;
    default:
      // unsupported code
      cheatsAdd(code, desc, address, address & 0xFFFFFFFF, value, 512,
                UNKNOWN_CODE);
      break;
    }
  }
}

#if (0)
void Xbox_cheatsSaveGame(HANDLE file)
{
  xStorage.WriteStream(file,(char *)cheatsNumber, sizeof(int));
  xStorage.WriteStream(file,(char *)cheatsList, sizeof(cheatsList));

}
#endif

void cheatsSaveCheatList(const char *file)
{
  if(cheatsNumber == 0)
    return;
  FILE *f = fopen(file, "wb");
  if(f == NULL)
    return;
  int version = 1;
  fwrite(&version, 1, sizeof(version), f);
  int type = 1;
  fwrite(&type, 1, sizeof(type), f);
  fwrite(&cheatsNumber, 1, sizeof(cheatsNumber), f);
  fwrite(cheatsList, 1, sizeof(cheatsList), f);
  fclose(f);
}

bool cheatsLoadCheatList(const char *file)
{

  int count = 0;

  FILE *f = fopen(file, "rb");

  if(f == NULL)
    return false;

  int version = 0;

  if(fread(&version, 1, sizeof(version), f) != sizeof(version)) {
    fclose(f);
    return false;
  }

  if(version != 1) {
    systemMessage("Unsupported cheat list version %d", version);
    fclose(f);
    return false;
  }

  int type = 0;
  if(fread(&type, 1, sizeof(type), f) != sizeof(type)) {
    fclose(f);
    return false;
  }


  if((type != 0) && (type != 1)) {
    systemMessage("Unsupported cheat list type %d", type);
    fclose(f);
    return false;
  }

  if(fread(&count, 1, sizeof(count), f) != sizeof(count)) {
    fclose(f);
    return false;
  }
  if (type == 1)
  {
    if(fread(cheatsList, 1, sizeof(cheatsList), f) != sizeof(cheatsList)) {
      fclose(f);
      return false;
    }
  }
  else if (type == 0)
  {
    for(int i = 0; i < count; i++) {
      fread(&cheatsList[i].code, 1, sizeof(int),f);
      fread(&cheatsList[i].size, 1, sizeof(int),f);
      fread(&cheatsList[i].status, 1, sizeof(int),f);
      fread(&cheatsList[i].enabled, 1, sizeof(int),f);
      cheatsList[i].enabled = cheatsList[i].enabled ? true : false;
      fread(&cheatsList[i].address, 1, sizeof(u32),f);
      cheatsList[i].rawaddress = cheatsList[i].address;
      fread(&cheatsList[i].value, 1, sizeof(u32),f);
      fread(&cheatsList[i].oldValue, 1, sizeof(u32),f);
      fread(&cheatsList[i].codestring, 1, 20*sizeof(char),f);
      if(fread(&cheatsList[i].desc, 1, 32*sizeof(char),f) != 32*sizeof(char)) {
        fclose(f);
        return false;
      }
    }
  }

  bool firstCodeBreaker = true;

  for(int i = 0; i < count; i++) {
    cheatsList[i].status = 0; // remove old status as it is not used
    if(!cheatsList[i].codestring[0]) {
      switch(cheatsList[i].size) {
      case 0:
        sprintf(cheatsList[i].codestring, "%08x:%02x", cheatsList[i].address,
                cheatsList[i].value);
        break;
      case 1:
        sprintf(cheatsList[i].codestring, "%08x:%04x", cheatsList[i].address,
                cheatsList[i].value);
        break;
      case 2:
        sprintf(cheatsList[i].codestring, "%08x:%08x", cheatsList[i].address,
                cheatsList[i].value);
        break;
      }
    }

    if(cheatsList[i].code == 512 && firstCodeBreaker) {
      firstCodeBreaker = false;
      char buffer[10];
      strncpy(buffer, cheatsList[i].codestring, 8);
      buffer[8] = 0;
      u32 address;
      sscanf(buffer, "%x", &address);
      if((address >> 28) == 9) {
        strncpy(buffer, &cheatsList[i].codestring[9], 4);
        buffer[4] = 0;
        u32 value;
        sscanf(buffer, "%x", &value);

        u32 seed[8];
        cheatsCBAParseSeedCode(address, value, seed);
        cheatsCBAChangeEncryption(seed);
      }
    }
  }
  cheatsNumber = count;
  fclose(f);
  return true;
}

extern int cpuNextEvent;

extern void debuggerBreakOnWrite(u32 , u32, u32, int, int);

#ifdef BKPT_SUPPORT
static u8 cheatsGetType(u32 address)
{
  switch(address >> 24) {
  case 2:
    return freezeWorkRAM[address & 0x3FFFF];
  case 3:
    return freezeInternalRAM[address & 0x7FFF];
  case 5:
    return freezePRAM[address & 0x3FC];
  case 6:
    if (address > 0x06010000)
      return freezeVRAM[address & 0x17FFF];
    else
      return freezeVRAM[address & 0x1FFFF];
  case 7:
    return freezeOAM[address & 0x3FC];
  }
  return 0;
}
#endif

void cheatsWriteMemory(u32 address, u32 value)
{
#ifdef BKPT_SUPPORT
#ifdef SDL
  if(cheatsNumber == 0) {
    int type = cheatsGetType(address);
    u32 oldValue = debuggerReadMemory(address);
    if(type == 1 || (type == 2 && oldValue != value)) {
      debuggerBreakOnWrite(address, oldValue, value, 2, type);
      cpuNextEvent = 0;
    }
    debuggerWriteMemory(address, value);
  }
#endif
#endif
}

void cheatsWriteHalfWord(u32 address, u16 value)
{
#ifdef BKPT_SUPPORT
#ifdef SDL
  if(cheatsNumber == 0) {
    int type = cheatsGetType(address);
    u16 oldValue = debuggerReadHalfWord(address);
    if(type == 1 || (type == 2 && oldValue != value)) {
      debuggerBreakOnWrite(address, oldValue, value, 1, type);
      cpuNextEvent = 0;
    }
    debuggerWriteHalfWord(address, value);
  }
#endif
#endif
}

#if defined BKPT_SUPPORT && defined SDL
void cheatsWriteByte(u32 address, u8 value)
#else
void cheatsWriteByte(u32, u8)
#endif
{
#ifdef BKPT_SUPPORT
#ifdef SDL
  if(cheatsNumber == 0) {
    int type = cheatsGetType(address);
    u8 oldValue = debuggerReadByte(address);
    if(type == 1 || (type == 2 && oldValue != value)) {
      debuggerBreakOnWrite(address, oldValue, value, 0, type);
      cpuNextEvent = 0;
    }
    debuggerWriteByte(address, value);
  }
#endif
#endif
}