Add mask handling to all RTG ops, add real time disassembly output

This commit is contained in:
beeanyew
2021-01-09 21:58:20 +01:00
parent 86b9fcc24e
commit c7df5946af
9 changed files with 279 additions and 230 deletions

View File

@@ -18,7 +18,7 @@ MAINFILES = emulator.c \
platforms/amiga/rtg/rtg-gfx.c \
platforms/shared/rtc.c
MUSASHIFILES = m68kcpu.c softfloat/softfloat.c
MUSASHIFILES = m68kcpu.c m68kdasm.c softfloat/softfloat.c
MUSASHIGENCFILES = m68kops.c
MUSASHIGENHFILES = m68kops.h
MUSASHIGENERATOR = m68kmake

View File

@@ -44,6 +44,9 @@ char mouse_buttons = 0;
extern volatile unsigned int *gpio;
extern volatile uint16_t srdata;
extern uint8_t realtime_graphics_debug;
uint8_t realtime_disassembly;
char disasm_buf[4096];
#define KICKBASE 0xF80000
#define KICKSIZE 0x7FFFF
@@ -201,17 +204,13 @@ int main(int argc, char *argv[]) {
// reset amiga and statemachine
skip_everything:;
cpu_pulse_reset();
ovl = 1;
m68k_write_memory_8(0xbfe201, 0x0001); // AMIGA OVL
m68k_write_memory_8(0xbfe001, 0x0001); // AMIGA OVL high (ROM@0x0)
usleep(1500);
m68k_init();
printf("Setting CPU type to %d.\n", cpu_type);
m68k_set_cpu_type(cpu_type);
m68k_pulse_reset();
cpu_pulse_reset();
if (maprom == 1) {
m68k_set_reg(M68K_REG_PC, 0xF80002);
@@ -239,10 +238,18 @@ int main(int argc, char *argv[]) {
if (cpu_emulation_running)
m68k_execute(loop_cycles);
disasm_run:;
if (realtime_disassembly) {
m68k_execute(1);
m68k_disassemble(disasm_buf, m68k_get_reg(NULL, M68K_REG_PC), cpu_type);
printf("%.8X (%.8X)]] %s\n", m68k_get_reg(NULL, M68K_REG_PC), (m68k_get_reg(NULL, M68K_REG_PC) & 0xFFFFFF), disasm_buf);
}
if (irq) {
unsigned int status = read_reg();
m68k_set_irq((status & 0xe000) >> 13);
//printf("There was an IRQ: %d\n", (status & 0xe000) >> 13);
}
else if (gayleirq) {
write16(0xdff09c, 0x8000 | (1 << 3));
@@ -287,9 +294,16 @@ int main(int argc, char *argv[]) {
printf("Quitting and exiting emulator.\n");
goto stop_cpu_emulation;
}
if (c == 'd') {
realtime_disassembly ^= 1;
printf("Real time disassembly is now %s\n", realtime_disassembly ? "on" : "off");
}
}
}
if (realtime_disassembly)
goto disasm_run;
//gpio_handle_irq();
//GPIO_HANDLE_IRQ;
}
@@ -310,6 +324,12 @@ void cpu_pulse_reset(void) {
usleep(100000);
write_reg(0x02);
// printf("Status Reg%x\n",read_reg());
ovl = 1;
m68k_write_memory_8(0xbfe201, 0x0001); // AMIGA OVL
m68k_write_memory_8(0xbfe001, 0x0001); // AMIGA OVL high (ROM@0x0)
m68k_pulse_reset();
}
int cpu_irq_ack(int level) {

4
m68k.h
View File

@@ -175,6 +175,10 @@ typedef enum
* USER mode, but it is also slower.
*/
#define m68k_read_disassembler_8 m68k_read_memory_8
#define m68k_read_disassembler_16 m68k_read_memory_16
#define m68k_read_disassembler_32 m68k_read_memory_32
/* Read from anywhere */
unsigned int m68k_read_memory_8(unsigned int address);
unsigned int m68k_read_memory_16(unsigned int address);

View File

@@ -17,8 +17,7 @@ extern uint16_t rtg_x[8], rtg_y[8];
extern uint8_t realtime_graphics_debug;
void rtg_fillrect(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t color, uint16_t pitch, uint16_t format, uint8_t mask) {
if (mask) {}
void rtg_fillrect_solid(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t color, uint16_t pitch, uint16_t format) {
uint8_t *dptr = &rtg_mem[rtg_address_adj[0] + (x << format) + (y * pitch)];
switch(format) {
case RTGFMT_8BIT: {
@@ -50,6 +49,16 @@ void rtg_fillrect(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t color
}
}
void rtg_fillrect(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t color, uint16_t pitch, uint16_t format, uint8_t mask) {
uint8_t *dptr = &rtg_mem[rtg_address_adj[0] + (x << format) + (y * pitch)];
for (int ys = 1; ys < h; ys++) {
for (int xs = 0; xs < w; xs++) {
SET_RTG_PIXEL_MASK(&dptr[xs], (color & 0xFF), format);
}
}
}
void rtg_invertrect(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint16_t pitch, uint16_t format, uint8_t mask) {
if (mask) {}
uint8_t *dptr = &rtg_mem[rtg_address_adj[0] + (x << format) + (y * pitch)];
@@ -57,7 +66,7 @@ void rtg_invertrect(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint16_t pit
switch(format) {
case RTGFMT_8BIT: {
for (int xs = 0; xs < w; xs++) {
dptr[xs] = ~dptr[xs];
dptr[xs] ^= mask;
}
break;
}
@@ -94,6 +103,37 @@ void rtg_blitrect(uint16_t x, uint16_t y, uint16_t dx, uint16_t dy, uint16_t w,
xdir = 0;
}
for (int ys = 0; ys < h; ys++) {
if (xdir) {
for (int xs = 0; xs < w; xs++) {
SET_RTG_PIXEL_MASK(&dptr[xs], sptr[xs], format);
}
}
else {
for (int xs = w - 1; xs >= x; xs--) {
SET_RTG_PIXEL_MASK(&dptr[xs], sptr[xs], format);
}
}
sptr += pitchstep;
dptr += pitchstep;
}
}
void rtg_blitrect_solid(uint16_t x, uint16_t y, uint16_t dx, uint16_t dy, uint16_t w, uint16_t h, uint16_t pitch, uint16_t format) {
uint8_t *sptr = &rtg_mem[rtg_address_adj[0] + (x << format) + (y * pitch)];
uint8_t *dptr = &rtg_mem[rtg_address_adj[0] + (dx << format) + (dy * pitch)];
uint32_t xdir = 1, pitchstep = pitch;
if (y < dy) {
pitchstep = -pitch;
sptr += ((h - 1) * pitch);
dptr += ((h - 1) * pitch);
}
if (x < dx) {
xdir = 0;
}
for (int ys = 0; ys < h; ys++) {
if (xdir)
memcpy(dptr, sptr, w << format);
@@ -110,6 +150,8 @@ void rtg_blitrect_nomask_complete(uint16_t sx, uint16_t sy, uint16_t dx, uint16_
uint8_t *dptr = &rtg_mem[dst_addr - (PIGFX_RTG_BASE + PIGFX_REG_SIZE) + (dx << format) + (dy * dstpitch)];
uint32_t xdir = 1, src_pitchstep = srcpitch, dst_pitchstep = dstpitch;
uint8_t draw_mode = minterm;
uint32_t mask = 0xFF;
if (src_addr == dst_addr) {
if (sy < dy) {
@@ -123,13 +165,56 @@ void rtg_blitrect_nomask_complete(uint16_t sx, uint16_t sy, uint16_t dx, uint16_
}
}
for (int ys = 0; ys < h; ys++) {
if (xdir)
memcpy(dptr, sptr, w << format);
else
memmove(dptr, sptr, w << format);
sptr += src_pitchstep;
dptr += dst_pitchstep;
if (format == RTGFMT_RBG565)
mask = 0xFFFF;
if (format == RTGFMT_RGB32)
mask = 0xFFFFFFFF;
if (minterm == MINTERM_SRC) {
for (int ys = 0; ys < h; ys++) {
if (xdir)
memcpy(dptr, sptr, w << format);
else
memmove(dptr, sptr, w << format);
sptr += src_pitchstep;
dptr += dst_pitchstep;
}
}
else {
for (int ys = 0; ys < h; ys++) {
if (xdir) {
for (int xs = 0; xs < w; xs++) {
switch (format) {
case RTGFMT_8BIT:
HANDLE_MINTERM_PIXEL(sptr[xs], dptr[xs], format);
break;
case RTGFMT_RBG565:
HANDLE_MINTERM_PIXEL(((uint16_t *)sptr)[xs], ((uint16_t *)dptr)[xs], format);
break;
case RTGFMT_RGB32:
HANDLE_MINTERM_PIXEL(((uint32_t *)sptr)[xs], ((uint32_t *)dptr)[xs], format);
break;
}
}
}
else {
for (int xs = w - 1; xs >= sx; xs--) {
switch (format) {
case RTGFMT_8BIT:
HANDLE_MINTERM_PIXEL(sptr[xs], dptr[xs], format);
break;
case RTGFMT_RBG565:
HANDLE_MINTERM_PIXEL(((uint16_t *)sptr)[xs], ((uint16_t *)dptr)[xs], format);
break;
case RTGFMT_RGB32:
HANDLE_MINTERM_PIXEL(((uint32_t *)sptr)[xs], ((uint32_t *)dptr)[xs], format);
break;
}
}
}
sptr += src_pitchstep;
dptr += src_pitchstep;
}
}
}
@@ -217,13 +302,23 @@ void rtg_blittemplate(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t s
for (int xs = 0; xs < w; xs++) {
if (w >= 8 && cur_bit == 0x80 && xs < w - 8) {
SET_RTG_PIXELS(&dptr[xs << format], fg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXELS(&dptr[xs << format], fg_color[format], format);
}
else {
SET_RTG_PIXELS_MASK(&dptr[xs], fg_color[format], format);
}
xs += 7;
}
else {
while (cur_bit > 0 && xs < w) {
if (cur_byte & cur_bit) {
SET_RTG_PIXEL(&dptr[xs << format], fg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXEL(&dptr[xs << format], fg_color[format], format);
}
else {
SET_RTG_PIXEL_MASK(&dptr[xs], fg_color[format], format);
}
}
xs++;
cur_bit >>= 1;
@@ -242,16 +337,22 @@ void rtg_blittemplate(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t s
for (int xs = 0; xs < w; xs++) {
if (w >= 8 && cur_bit == 0x80 && xs < w - 8) {
SET_RTG_PIXELS2_COND(&dptr[xs << format], fg_color[format], bg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXELS2_COND(&dptr[xs << format], fg_color[format], bg_color[format], format);
}
else {
SET_RTG_PIXELS2_COND_MASK(&dptr[xs << format], fg_color[format], bg_color[format], format);
}
xs += 7;
}
else {
while (cur_bit > 0 && xs < w) {
if (cur_byte & cur_bit) {
SET_RTG_PIXEL(&dptr[xs << format], fg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXEL(&dptr[xs << format], (cur_byte & cur_bit) ? fg_color[format] : bg_color[format], format);
}
else {
SET_RTG_PIXEL(&dptr[xs << format], bg_color[format], format);
SET_RTG_PIXEL_MASK(&dptr[xs << format], (cur_byte & cur_bit) ? fg_color[format] : bg_color[format], format);
}
xs++;
cur_bit >>= 1;
@@ -341,13 +442,23 @@ void rtg_blitpattern(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t sr
for (int xs = 0; xs < w; xs++) {
if (w >= 8 && cur_bit == 0x80 && xs < w - 8) {
SET_RTG_PIXELS(&dptr[xs << format], fg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXELS(&dptr[xs << format], fg_color[format], format);
}
else {
SET_RTG_PIXELS_MASK(&dptr[xs], fg_color[format], format);
}
xs += 7;
}
else {
while (cur_bit > 0 && xs < w) {
if (cur_byte & cur_bit) {
SET_RTG_PIXEL(&dptr[xs << format], fg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXEL(&dptr[xs << format], fg_color[format], format);
}
else {
SET_RTG_PIXEL_MASK(&dptr[xs], fg_color[format], format);
}
}
xs++;
cur_bit >>= 1;
@@ -366,16 +477,22 @@ void rtg_blitpattern(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t sr
for (int xs = 0; xs < w; xs++) {
if (w >= 8 && cur_bit == 0x80 && xs < w - 8) {
SET_RTG_PIXELS2_COND(&dptr[xs << format], fg_color[format], bg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXELS2_COND(&dptr[xs << format], fg_color[format], bg_color[format], format);
}
else {
SET_RTG_PIXELS2_COND_MASK(&dptr[xs << format], fg_color[format], bg_color[format], format);
}
xs += 7;
}
else {
while (cur_bit > 0 && xs < w) {
if (cur_byte & cur_bit) {
SET_RTG_PIXEL(&dptr[xs << format], fg_color[format], format);
if (mask == 0xFF || format != RTGFMT_8BIT) {
SET_RTG_PIXEL(&dptr[xs << format], (cur_byte & cur_bit) ? fg_color[format] : bg_color[format], format);
}
else {
SET_RTG_PIXEL(&dptr[xs << format], bg_color[format], format);
SET_RTG_PIXEL_MASK(&dptr[xs << format], (cur_byte & cur_bit) ? fg_color[format] : bg_color[format], format);
}
xs++;
cur_bit >>= 1;
@@ -499,7 +616,7 @@ void rtg_drawline (int16_t x1_, int16_t y1_, int16_t x2_, int16_t y2_, uint16_t
int16_t x1 = x1_, y1 = y1_;
int16_t x2 = x1_ + x2_, y2 = y1 + y2_;
uint16_t cur_bit = 0x8000;
uint32_t color_mask = 0xFFFF0000;
//uint32_t color_mask = 0xFFFF0000;
uint8_t invert = 0;
uint32_t fg_color[3] = {
@@ -569,77 +686,13 @@ void rtg_drawline (int16_t x1_, int16_t y1_, int16_t x2_, int16_t y2_, uint16_t
}
}
#define HANDLE_MINTERM_PIXEL_8(s, d, f) \
switch(draw_mode) {\
case MINTERM_NOR: \
s &= ~(d); \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_ONLYDST: \
d = d & ~(s); break; \
case MINTERM_NOTSRC: \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_ONLYSRC: \
s &= (d ^ 0xFF); \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_INVERT: \
d ^= 0xFF; break; \
case MINTERM_EOR: \
d ^= s; break; \
case MINTERM_NAND: \
s = ~(d & ~(s)) & mask; \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_AND: \
s &= d; \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_NEOR: \
d ^= (s & mask); break; \
case MINTERM_DST: /* This one does nothing. */ \
return; break; \
case MINTERM_NOTONLYSRC: \
d |= (s & mask); break; \
case MINTERM_SRC: \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_NOTONLYDST: \
s = ~(d & s) & mask; \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_OR: \
d |= (s & mask); break; \
}
#define DECODE_PLANAR_PIXEL(a) \
switch (planes) { \
case 8: if (layer_mask & 0x80 && bmp_data[(plane_size * 7) + cur_byte] & cur_bit) a |= 0x80; \
case 7: if (layer_mask & 0x40 && bmp_data[(plane_size * 6) + cur_byte] & cur_bit) a |= 0x40; \
case 6: if (layer_mask & 0x20 && bmp_data[(plane_size * 5) + cur_byte] & cur_bit) a |= 0x20; \
case 5: if (layer_mask & 0x10 && bmp_data[(plane_size * 4) + cur_byte] & cur_bit) a |= 0x10; \
case 4: if (layer_mask & 0x08 && bmp_data[(plane_size * 3) + cur_byte] & cur_bit) a |= 0x08; \
case 3: if (layer_mask & 0x04 && bmp_data[(plane_size * 2) + cur_byte] & cur_bit) a |= 0x04; \
case 2: if (layer_mask & 0x02 && bmp_data[plane_size + cur_byte] & cur_bit) a |= 0x02; \
case 1: if (layer_mask & 0x01 && bmp_data[cur_byte] & cur_bit) a |= 0x01; \
break; \
}
#define DECODE_INVERTED_PLANAR_PIXEL(a) \
switch (planes) { \
case 8: if (layer_mask & 0x80 && (bmp_data[(plane_size * 7) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x80; \
case 7: if (layer_mask & 0x40 && (bmp_data[(plane_size * 6) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x40; \
case 6: if (layer_mask & 0x20 && (bmp_data[(plane_size * 5) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x20; \
case 5: if (layer_mask & 0x10 && (bmp_data[(plane_size * 4) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x10; \
case 4: if (layer_mask & 0x08 && (bmp_data[(plane_size * 3) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x08; \
case 3: if (layer_mask & 0x04 && (bmp_data[(plane_size * 2) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x04; \
case 2: if (layer_mask & 0x02 && (bmp_data[plane_size + cur_byte] ^ 0xFF) & cur_bit) a |= 0x02; \
case 1: if (layer_mask & 0x01 && (bmp_data[cur_byte] ^ 0xFF) & cur_bit) a |= 0x01; \
break; \
}
void rtg_p2c (int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t h, uint8_t draw_mode, uint8_t planes, uint8_t mask, uint8_t layer_mask, uint16_t src_line_pitch, uint8_t *bmp_data_src) {
uint16_t pitch = rtg_x[3];
uint8_t *dptr = &rtg_mem[rtg_address_adj[0] + (dy * pitch)];
uint8_t cur_bit, base_bit, base_byte;
uint16_t cur_byte = 0, u8_fg = 0;
uint32_t color_mask = 0xFFFFFFFF;
//uint32_t color_mask = 0xFFFFFFFF;
uint32_t plane_size = src_line_pitch * h;
uint8_t *bmp_data = bmp_data_src;
@@ -684,8 +737,7 @@ void rtg_p2c (int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t
goto skip;
}
//HANDLE_MINTERM_PIXEL_8(u8_fg, ((uint8_t *)dptr)[x]);
HANDLE_MINTERM_PIXEL_8(u8_fg, dptr[x], rtg_display_format);
HANDLE_MINTERM_PIXEL(u8_fg, dptr[x], rtg_display_format);
skip:;
if ((cur_bit >>= 1) == 0) {
@@ -704,96 +756,3 @@ void rtg_p2c (int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t
cur_byte = base_byte;
}
}
//void rtg_p2c_broken(int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t h, uint16_t pitch, uint8_t mask, uint8_t minterm, uint8_t depth, uint16_t planemask_) {
/*uint8_t *planeptr_src = &rtg_mem[rtg_address_adj[1]];
uint8_t *dptr = &rtg_mem[rtg_address_adj[0] + (dy * pitch)];
uint8_t cur_bit, base_bit, base_byte;
uint16_t cur_byte = 0;//, color = 0;
uint16_t srcpitch = rtg_user[1];
uint32_t plane_size = srcpitch * rtg_y[3];
uint32_t color_mask = 0x00FFFFFF;
uint8_t color = 0;
uint8_t planemask = planemask_ & 0xFF;
uint8_t planemask_0 = (planemask_ >> 8);
cur_bit = base_bit = (0x80 >> (sx % 8));
cur_byte = base_byte = ((sx / 8) % srcpitch);
planeptr_src += (srcpitch * sy);
if (realtime_graphics_debug) {
uint8_t *sptr = NULL;
printf("P2C: %d,%d - %d,%d (%dx%d) %d, %.4X\n", sx, sy, dx, dy, w, h, depth, planemask_);
printf("Mask: %.2X Minterm: %.2X\n", mask, minterm);
printf("Pitch: %d Src Pitch: %d (!!!: %d)\n", pitch, srcpitch, rtg_user[1]);
printf("Curbyte: %d Curbit: %d\n", cur_byte, cur_bit);
printf("Plane size: %d Total size: %d (%X)\n", plane_size, plane_size * depth, plane_size * depth);
printf("Source: %.8X - %.8X\n", rtg_address[1], rtg_address_adj[1]);
printf("Target: %.8X - %.8X\n", rtg_address[0], rtg_address_adj[0]);
fflush(stdout);
printf("Origin: %.8X\n", rtg_address[2]);
printf("Grabbing data from RTG memory.\nData:\n");
for (int i = 0; i < h; i++) {
for (int k = 0; k < depth; k++) {
for (int j = 0; j < srcpitch; j++) {
printf("%.2X", planeptr_src[j + (i * srcpitch) + (plane_size * k)]);
}
printf(" ");
}
printf("\n");
}
#ifndef FAKESTORM
printf("Data available at origin:\n");
for (int i = 0; i < h; i++) {
for (int k = 0; k < depth; k++) {
for (int j = 0; j < srcpitch; j++) {
printf("%.2X", read8(rtg_address[2] + j + (i * srcpitch) + (plane_size * k)));
}
printf(" ");
}
printf("\n");
}
#endif
}
for (int16_t line_y = 0; line_y < h; line_y++) {
for (int16_t xs = dx; xs < dx + w; xs++) {
color = 0;
if (minterm & 0x01) {
//printf("Decode inverted planar pixel.\n");
DECODE_INVERTED_PLANAR_PIXEL(color, planeptr_src);
}
else {
//printf("Decode planar pixel.\n");
DECODE_PLANAR_PIXEL(color, planeptr_src);
}
if (mask == 0xFF && (minterm == MINTERM_SRC || minterm == MINTERM_NOTSRC)) {
dptr[xs << rtg_display_format] = color;
goto skip;
}
//printf("Place pixel.\n");
HANDLE_MINTERM_PIXEL_8(color, dptr[xs << rtg_display_format], rtg_display_format);
skip:;
if ((cur_bit >>= 1) == 0) {
cur_bit = 0x80;
cur_byte++;
cur_byte %= srcpitch;
}
}
dptr += pitch;
//if (line_y + sy + 1 == rtg_y[3])
//planeptr_src = &rtg_mem[rtg_address_adj[1]];// + (srcpitch * sy);
//else
planeptr_src += srcpitch;
cur_bit = base_bit;
cur_byte = base_byte;
}*/
//}

View File

@@ -233,15 +233,21 @@ static void handle_rtg_command(uint32_t cmd) {
}
break;
case RTGCMD_FILLRECT:
rtg_fillrect(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_rgb[0], rtg_x[2], rtg_format, 0xFF);
if (rtg_u8[0] == 0xFF || rtg_format != RTGFMT_8BIT)
rtg_fillrect_solid(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_rgb[0], rtg_x[2], rtg_format);
else
rtg_fillrect(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_rgb[0], rtg_x[2], rtg_format, rtg_u8[0]);
gdebug("FillRect\n");
break;
case RTGCMD_INVERTRECT:
rtg_invertrect(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_x[2], rtg_format, 0xFF);
rtg_invertrect(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_x[2], rtg_format, rtg_u8[0]);
gdebug("InvertRect\n");
break;
case RTGCMD_BLITRECT:
rtg_blitrect(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_x[2], rtg_y[2], rtg_x[3], rtg_format, 0xFF);
if (rtg_u8[0] == 0xFF || rtg_format != RTGFMT_8BIT)
rtg_blitrect_solid(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_x[2], rtg_y[2], rtg_x[3], rtg_format);
else
rtg_blitrect(rtg_x[0], rtg_y[0], rtg_x[1], rtg_y[1], rtg_x[2], rtg_y[2], rtg_x[3], rtg_format, rtg_u8[0]);
gdebug("BlitRect\n");
break;
case RTGCMD_BLITRECT_NOMASK_COMPLETE:

View File

@@ -16,8 +16,10 @@ void rtg_init_display();
void rtg_shutdown_display();
void rtg_fillrect(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t color, uint16_t pitch, uint16_t format, uint8_t mask);
void rtg_fillrect_solid(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t color, uint16_t pitch, uint16_t format);
void rtg_invertrect(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint16_t pitch, uint16_t format, uint8_t mask);
void rtg_blitrect(uint16_t x, uint16_t y, uint16_t dx, uint16_t dy, uint16_t w, uint16_t h, uint16_t pitch, uint16_t format, uint8_t mask);
void rtg_blitrect_solid(uint16_t x, uint16_t y, uint16_t dx, uint16_t dy, uint16_t w, uint16_t h, uint16_t pitch, uint16_t format);
void rtg_blitrect_nomask_complete(uint16_t sx, uint16_t sy, uint16_t dx, uint16_t dy, uint16_t w, uint16_t h, uint16_t srcpitch, uint16_t dstpitch, uint32_t src_addr, uint32_t dst_addr, uint16_t format, uint8_t minterm);
void rtg_blittemplate(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t src_addr, uint32_t fgcol, uint32_t bgcol, uint16_t pitch, uint16_t t_pitch, uint16_t format, uint16_t offset_x, uint8_t mask, uint8_t draw_mode);
void rtg_blitpattern(uint16_t x, uint16_t y, uint16_t w, uint16_t h, uint32_t src_addr, uint32_t fgcol, uint32_t bgcol, uint16_t pitch, uint16_t format, uint16_t offset_x, uint16_t offset_y, uint8_t mask, uint8_t draw_mode, uint8_t loop_rows);
@@ -51,14 +53,14 @@ void rtg_p2c (int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t
#define INVERT_RTG_PIXELS(dest, format) \
switch (format) { \
case RTGFMT_8BIT: \
if (cur_byte & 0x80) (dest)[0] = ~(dest)[0]; \
if (cur_byte & 0x40) (dest)[1] = ~(dest)[1]; \
if (cur_byte & 0x20) (dest)[2] = ~(dest)[2]; \
if (cur_byte & 0x10) (dest)[3] = ~(dest)[3]; \
if (cur_byte & 0x08) (dest)[4] = ~(dest)[4]; \
if (cur_byte & 0x04) (dest)[5] = ~(dest)[5]; \
if (cur_byte & 0x02) (dest)[6] = ~(dest)[6]; \
if (cur_byte & 0x01) (dest)[7] = ~(dest)[7]; \
if (cur_byte & 0x80) (dest)[0] ^= mask; \
if (cur_byte & 0x40) (dest)[1] ^= mask; \
if (cur_byte & 0x20) (dest)[2] ^= mask; \
if (cur_byte & 0x10) (dest)[3] ^= mask; \
if (cur_byte & 0x08) (dest)[4] ^= mask; \
if (cur_byte & 0x04) (dest)[5] ^= mask; \
if (cur_byte & 0x02) (dest)[6] ^= mask; \
if (cur_byte & 0x01) (dest)[7] ^= mask; \
break; \
case RTGFMT_RBG565: \
if (cur_byte & 0x80) ((uint16_t *)dest)[0] = ~((uint16_t *)dest)[0]; \
@@ -82,6 +84,27 @@ void rtg_p2c (int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t
break; \
}
#define SET_RTG_PIXELS_MASK(dest, src, format) \
if (cur_byte & 0x80) (dest)[0] = src ^ ((dest)[0] & ~mask); \
if (cur_byte & 0x40) (dest)[1] = src ^ ((dest)[1] & ~mask); \
if (cur_byte & 0x20) (dest)[2] = src ^ ((dest)[2] & ~mask); \
if (cur_byte & 0x10) (dest)[3] = src ^ ((dest)[3] & ~mask); \
if (cur_byte & 0x08) (dest)[4] = src ^ ((dest)[4] & ~mask); \
if (cur_byte & 0x04) (dest)[5] = src ^ ((dest)[5] & ~mask); \
if (cur_byte & 0x02) (dest)[6] = src ^ ((dest)[6] & ~mask); \
if (cur_byte & 0x01) (dest)[7] = src ^ ((dest)[7] & ~mask); \
#define SET_RTG_PIXELS2_COND_MASK(dest, src, src2, format) \
(dest)[0] = (cur_byte & 0x80) ? src : src2 ^ ((dest)[0] & ~mask); \
(dest)[1] = (cur_byte & 0x40) ? src : src2 ^ ((dest)[1] & ~mask); \
(dest)[2] = (cur_byte & 0x20) ? src : src2 ^ ((dest)[2] & ~mask); \
(dest)[3] = (cur_byte & 0x10) ? src : src2 ^ ((dest)[3] & ~mask); \
(dest)[4] = (cur_byte & 0x08) ? src : src2 ^ ((dest)[4] & ~mask); \
(dest)[5] = (cur_byte & 0x04) ? src : src2 ^ ((dest)[5] & ~mask); \
(dest)[6] = (cur_byte & 0x02) ? src : src2 ^ ((dest)[6] & ~mask); \
(dest)[7] = (cur_byte & 0x01) ? src : src2 ^ ((dest)[7] & ~mask); \
#define SET_RTG_PIXELS(dest, src, format) \
switch (format) { \
case RTGFMT_8BIT: \
@@ -171,10 +194,10 @@ void rtg_p2c (int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t
*(dest) = src ^ (*(dest) & ~mask); \
break; \
case RTGFMT_RBG565: \
*((uint16_t *)dest) = src ^ (*((uint16_t *)dest) & ~color_mask); \
*((uint16_t *)dest) = src; \
break; \
case RTGFMT_RGB32: \
*((uint32_t *)dest) = src ^ (*((uint32_t *)dest) & ~color_mask); \
*((uint32_t *)dest) = src; \
break; \
}
@@ -190,3 +213,67 @@ void rtg_p2c (int16_t sx, int16_t sy, int16_t dx, int16_t dy, int16_t w, int16_t
*((uint32_t *)dest) = ~*((uint32_t *)dest); \
break; \
}
#define HANDLE_MINTERM_PIXEL(s, d, f) \
switch(draw_mode) {\
case MINTERM_NOR: \
s &= ~(d); \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_ONLYDST: \
d = d & ~(s); break; \
case MINTERM_NOTSRC: \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_ONLYSRC: \
s &= (d ^ 0xFF); \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_INVERT: \
d ^= 0xFF; break; \
case MINTERM_EOR: \
d ^= s; break; \
case MINTERM_NAND: \
s = ~(d & ~(s)) & mask; \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_AND: \
s &= d; \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_NEOR: \
d ^= (s & mask); break; \
case MINTERM_DST: /* This one does nothing. */ \
return; break; \
case MINTERM_NOTONLYSRC: \
d |= (s & mask); break; \
case MINTERM_SRC: \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_NOTONLYDST: \
s = ~(d & s) & mask; \
SET_RTG_PIXEL_MASK(&d, s, f); break; \
case MINTERM_OR: \
d |= (s & mask); break; \
}
#define DECODE_PLANAR_PIXEL(a) \
switch (planes) { \
case 8: if (layer_mask & 0x80 && bmp_data[(plane_size * 7) + cur_byte] & cur_bit) a |= 0x80; \
case 7: if (layer_mask & 0x40 && bmp_data[(plane_size * 6) + cur_byte] & cur_bit) a |= 0x40; \
case 6: if (layer_mask & 0x20 && bmp_data[(plane_size * 5) + cur_byte] & cur_bit) a |= 0x20; \
case 5: if (layer_mask & 0x10 && bmp_data[(plane_size * 4) + cur_byte] & cur_bit) a |= 0x10; \
case 4: if (layer_mask & 0x08 && bmp_data[(plane_size * 3) + cur_byte] & cur_bit) a |= 0x08; \
case 3: if (layer_mask & 0x04 && bmp_data[(plane_size * 2) + cur_byte] & cur_bit) a |= 0x04; \
case 2: if (layer_mask & 0x02 && bmp_data[plane_size + cur_byte] & cur_bit) a |= 0x02; \
case 1: if (layer_mask & 0x01 && bmp_data[cur_byte] & cur_bit) a |= 0x01; \
break; \
}
#define DECODE_INVERTED_PLANAR_PIXEL(a) \
switch (planes) { \
case 8: if (layer_mask & 0x80 && (bmp_data[(plane_size * 7) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x80; \
case 7: if (layer_mask & 0x40 && (bmp_data[(plane_size * 6) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x40; \
case 6: if (layer_mask & 0x20 && (bmp_data[(plane_size * 5) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x20; \
case 5: if (layer_mask & 0x10 && (bmp_data[(plane_size * 4) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x10; \
case 4: if (layer_mask & 0x08 && (bmp_data[(plane_size * 3) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x08; \
case 3: if (layer_mask & 0x04 && (bmp_data[(plane_size * 2) + cur_byte] ^ 0xFF) & cur_bit) a |= 0x04; \
case 2: if (layer_mask & 0x02 && (bmp_data[plane_size + cur_byte] ^ 0xFF) & cur_bit) a |= 0x02; \
case 1: if (layer_mask & 0x01 && (bmp_data[cur_byte] ^ 0xFF) & cur_bit) a |= 0x01; \
break; \
}

View File

@@ -308,7 +308,7 @@ int InitCard(__REGA0(struct BoardInfo* b)) {
//b->ScrollPlanar = (void *)NULL;
//b->UpdatePlanar = (void *)NULL;
b->BlitPlanar2Chunky = (void *)BlitPlanar2Chunky;
//b->BlitPlanar2Chunky = (void *)BlitPlanar2Chunky;
//b->BlitPlanar2Direct = (void *)NULL;
b->FillRect = (void *)FillRect;
@@ -483,10 +483,6 @@ void WaitVerticalSync (__REGA0(struct BoardInfo *b), __REGD0(BOOL toggle)) {
void FillRect (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r), __REGD0(WORD x), __REGD1(WORD y), __REGD2(WORD w), __REGD3(WORD h), __REGD4(ULONG color), __REGD5(UBYTE mask), __REGD7(RGBFTYPE format)) {
if (!r)
return;
if (mask != 0xFF) {
b->FillRectDefault(b, r, x, y, w, h, color, mask, format);
return;
}
WRITELONG(RTG_ADDR1, (unsigned long)r->Memory);
@@ -504,11 +500,6 @@ void FillRect (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r), __RE
void InvertRect (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r), __REGD0(WORD x), __REGD1(WORD y), __REGD2(WORD w), __REGD3(WORD h), __REGD4(UBYTE mask), __REGD7(RGBFTYPE format)) {
if (!r)
return;
if (mask != 0xFF) {
b->InvertRectDefault(b, r, x, y, w, h, mask, format);
return;
}
WRITELONG(RTG_ADDR1, (unsigned long)r->Memory);
WRITESHORT(RTG_FORMAT, rgbf_to_rtg[format]);
@@ -524,10 +515,6 @@ void InvertRect (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r), __
void BlitRect (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r), __REGD0(WORD x), __REGD1(WORD y), __REGD2(WORD dx), __REGD3(WORD dy), __REGD4(WORD w), __REGD5(WORD h), __REGD6(UBYTE mask), __REGD7(RGBFTYPE format)) {
if (!r)
return;
if (mask != 0xFF) {
b->BlitRectDefault(b, r, x, y, dx, dy, w, h, mask, format);
return;
}
WRITELONG(RTG_ADDR1, (unsigned long)r->Memory);
@@ -546,10 +533,6 @@ void BlitRect (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r), __RE
void BlitRectNoMaskComplete (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *rs), __REGA2(struct RenderInfo *rt), __REGD0(WORD x), __REGD1(WORD y), __REGD2(WORD dx), __REGD3(WORD dy), __REGD4(WORD w), __REGD5(WORD h), __REGD6(UBYTE minterm), __REGD7(RGBFTYPE format)) {
if (!rs || !rt)
return;
if (minterm != MINTERM_SRC) {
b->BlitRectNoMaskCompleteDefault(b, rs, rt, x, y, dx, dy, w, h, minterm, format);
return;
}
WRITESHORT(RTG_FORMAT, rgbf_to_rtg[format]);
WRITELONG(RTG_ADDR1, (unsigned long)rs->Memory);
@@ -570,11 +553,6 @@ void BlitTemplate (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r),
if (!r || !t) return;
if (w < 1 || h < 1) return;
if (mask != 0xFF) {
b->BlitTemplateDefault(b, r, t, x, y, w, h, mask, format);
return;
}
WRITELONG(RTG_ADDR2, (unsigned long)r->Memory);
WRITESHORT(RTG_FORMAT, rgbf_to_rtg[format]);
@@ -610,11 +588,6 @@ void BlitPattern (__REGA0(struct BoardInfo *b), __REGA1(struct RenderInfo *r), _
if (!r || !p) return;
if (w < 1 || h < 1) return;
if (mask != 0xFF) {
b->BlitPatternDefault(b, r, p, x, y, w, h, mask, format);
return;
}
WRITELONG(RTG_ADDR2, (unsigned long)r->Memory);
WRITESHORT(RTG_FORMAT, rgbf_to_rtg[format]);