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Fixed a bug regarding 86F images and extra bit cells;

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Brought the Intel Flash emulation in line with mainline PCem;
Removed the Intel Advanced/ML;
Reverted the ET4000/W32p code back to the code from mainline PCem, with fixes to PCI and linear frame buffer addresses according to the datasheet;
Timer counters are now 32-bit again - fixes quite a few bugs.
This commit is contained in:
OBattler
2016-11-04 22:32:23 +01:00
parent a619af0acf
commit 78a44d845b
15 changed files with 192 additions and 592 deletions
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2
src/disc_86f.c
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@@ -2552,7 +2552,7 @@ void d86f_write_track(int drive, int side, uint16_t *da0, uint16_t *sa0)
fwrite(&(d86f[drive].side_flags[side]), 1, 2, d86f[drive].f); fwrite(&(d86f[drive].side_flags[side]), 1, 2, d86f[drive].f);
if (d86f_has_surface_desc(drive)) if (d86f_has_extra_bit_cells(drive))
{ {
fwrite(&(d86f[drive].extra_bit_cells[side]), 1, 4, d86f[drive].f); fwrite(&(d86f[drive].extra_bit_cells[side]), 1, 4, d86f[drive].f);
} }

2
src/ibm.h
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@@ -449,7 +449,6 @@ enum
GFX_PHOENIX_TRIO64, /*S3 764/Trio64 (Phoenix)*/ GFX_PHOENIX_TRIO64, /*S3 764/Trio64 (Phoenix)*/
GFX_INCOLOR, /* Hercules InColor */ GFX_INCOLOR, /* Hercules InColor */
GFX_COLORPLUS, /* Plantronics ColorPlus */ GFX_COLORPLUS, /* Plantronics ColorPlus */
GFX_ET4000W32C, /*Tseng ET4000/W32p (Cardex) (STG RAMDAC) */
GFX_COMPAQ_EGA, /*Compaq EGA*/ GFX_COMPAQ_EGA, /*Compaq EGA*/
GFX_SUPER_EGA, /*Using Chips & Technologies SuperEGA BIOS*/ GFX_SUPER_EGA, /*Using Chips & Technologies SuperEGA BIOS*/
GFX_COMPAQ_VGA, /*Compaq/Paradise VGA*/ GFX_COMPAQ_VGA, /*Compaq/Paradise VGA*/
@@ -458,7 +457,6 @@ enum
GFX_VGAWONDERXL, /*Compaq ATI VGA Wonder XL (28800-5)*/ GFX_VGAWONDERXL, /*Compaq ATI VGA Wonder XL (28800-5)*/
GFX_WD90C11, /*Paradise WD90C11 Standalone*/ GFX_WD90C11, /*Paradise WD90C11 Standalone*/
GFX_OTI077, /*Oak OTI-077*/ GFX_OTI077, /*Oak OTI-077*/
GFX_ET4000W32CS, /*Tseng ET4000/W32p (Cardex) (ICS RAMDAC) */
GFX_VGAWONDERXL24, /*Compaq ATI VGA Wonder XL24 (28800-6)*/ GFX_VGAWONDERXL24, /*Compaq ATI VGA Wonder XL24 (28800-6)*/
GFX_STEALTH64, /*S3 Vision864 (Diamond Stealth 64)*/ GFX_STEALTH64, /*S3 Vision864 (Diamond Stealth 64)*/
GFX_PHOENIX_VISION864, /*S3 Vision864 (Phoenix)*/ GFX_PHOENIX_VISION864, /*S3 Vision864 (Phoenix)*/

255
src/intel_flash.c
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@@ -1,18 +1,14 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
#include <stdlib.h> #include <stdlib.h>
#include "ibm.h" #include "ibm.h"
#include "device.h" #include "device.h"
#include "mem.h" #include "mem.h"
#define FLASH_ALLOW_16 4
#define FLASH_IS_BXB 2 #define FLASH_IS_BXB 2
#define FLASH_INVERT 1 #define FLASH_INVERT 1
#define BLOCK_MAIN 0 #define BLOCK_MAIN 0
#define BLOCK_DMI 1 #define BLOCK_DATA1 1
#define BLOCK_ESCD 2 #define BLOCK_DATA2 2
#define BLOCK_BOOT 3 #define BLOCK_BOOT 3
enum enum
@@ -24,23 +20,20 @@ enum
CMD_ERASE_SETUP = 0x20, CMD_ERASE_SETUP = 0x20,
CMD_ERASE_CONFIRM = 0xd0, CMD_ERASE_CONFIRM = 0xd0,
CMD_ERASE_SUSPEND = 0xb0, CMD_ERASE_SUSPEND = 0xb0,
CMD_PROGRAM_SETUP = 0x40, CMD_PROGRAM_SETUP = 0x40
CMD_PROGRAM_SETUP2 = 0x10
}; };
typedef struct flash_t typedef struct flash_t
{ {
uint32_t command, status; uint8_t command, status;
uint32_t flash_id; uint8_t flash_id;
uint8_t type; /* 0 = BXT, 1 = BXB */ int invert_high_pin;
uint8_t invert_high_pin; /* 0 = no, 1 = yes */
uint8_t allow_word_write; /* 0 = no, 1 = yes */
mem_mapping_t mapping[8], mapping_h[8]; mem_mapping_t mapping[8], mapping_h[8];
uint32_t block_start[4], block_end[4], block_len[4]; uint32_t block_start[4], block_end[4], block_len[4];
uint8_t array[131072]; uint8_t array[131072];
} flash_t; } flash_t;
char flash_path[1024]; static char flash_path[1024];
static uint8_t flash_read(uint32_t addr, void *p) static uint8_t flash_read(uint32_t addr, void *p)
{ {
@@ -71,35 +64,10 @@ static uint8_t flash_read(uint32_t addr, void *p)
static uint16_t flash_readw(uint32_t addr, void *p) static uint16_t flash_readw(uint32_t addr, void *p)
{ {
// pclog("flash_readw(%08X)\n", addr);
flash_t *flash = (flash_t *)p; flash_t *flash = (flash_t *)p;
if (!flash->allow_word_write)
{
addr &= 0x1ffff;
if (flash->invert_high_pin) addr ^= 0x10000;
return *(uint16_t *)&(flash->array[addr]);
}
if (flash->invert_high_pin)
{
addr ^= 0x10000;
if (addr & 0xfff00000) *(uint16_t *)&(flash->array[addr & 0x1ffff]);
}
addr &= 0x1ffff; addr &= 0x1ffff;
switch (flash->command) if (flash->invert_high_pin) addr ^= 0x10000;
{ return *(uint16_t *)&(flash->array[addr]);
case CMD_READ_ARRAY:
default:
return *(uint16_t *)&(flash->array[addr]);
case CMD_IID:
// pclog("Flash Read ID 16: %08X\n", addr);
if (addr & 1)
return 0x2274;
return 0x89;
case CMD_READ_STATUS:
return flash->status;
}
} }
static uint32_t flash_readl(uint32_t addr, void *p) static uint32_t flash_readl(uint32_t addr, void *p)
@@ -142,7 +110,6 @@ static void flash_write(uint32_t addr, uint8_t val, void *p)
break; break;
case CMD_PROGRAM_SETUP: case CMD_PROGRAM_SETUP:
case CMD_PROGRAM_SETUP2:
// pclog("flash_write: program %05x %02x\n", addr, val); // pclog("flash_write: program %05x %02x\n", addr, val);
if ((addr & 0x1e000) != (flash->block_start[3] & 0x1e000)) if ((addr & 0x1e000) != (flash->block_start[3] & 0x1e000))
flash->array[addr] = val; flash->array[addr] = val;
@@ -161,93 +128,26 @@ static void flash_write(uint32_t addr, uint8_t val, void *p)
} }
} }
static void flash_writew(uint32_t addr, uint16_t val, void *p) static void intel_flash_add_mappings(flash_t *flash)
{
flash_t *flash = (flash_t *)p;
int i;
// pclog("flash_writew : addr=%08x val=%02x command=%02x %04x:%08x\n", addr, val, flash->command, CS, cpu_state.pc);
if (flash->invert_high_pin)
{
addr ^= 0x10000;
if (addr & 0xfff00000) return;
}
addr &= 0x1ffff;
switch (flash->command)
{
case CMD_ERASE_SETUP:
if (val == CMD_ERASE_CONFIRM)
{
// pclog("flash_writew: erase %05x\n", addr);
for (i = 0; i < 3; i++)
{
if ((addr >= flash->block_start[i]) && (addr <= flash->block_end[i]))
memset(&(flash->array[flash->block_start[i]]), 0xff, flash->block_len[i]);
}
flash->status = 0x80;
}
flash->command = CMD_READ_STATUS;
break;
case CMD_PROGRAM_SETUP:
case CMD_PROGRAM_SETUP2:
// pclog("flash_writew: program %05x %02x\n", addr, val);
if ((addr & 0x1e000) != (flash->block_start[3] & 0x1e000))
*(uint16_t *)&(flash->array[addr]) = val;
flash->command = CMD_READ_STATUS;
flash->status = 0x80;
break;
default:
flash->command = val;
switch (val)
{
case CMD_CLEAR_STATUS:
flash->status = 0;
break;
}
}
}
void intel_flash_add_mappings(flash_t *flash)
{ {
int i = 0; int i = 0;
for (i = 0; i <= 7; i++) for (i = 0; i <= 7; i++)
{ {
if (flash->allow_word_write) mem_mapping_add(&(flash->mapping[i]), 0xe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + ((i << 14) & 0x1ffff), MEM_MAPPING_EXTERNAL, (void *)flash);
{ mem_mapping_add(&(flash->mapping_h[i]), 0xfffe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + ((i << 14) & 0x1ffff), 0, (void *)flash);
mem_mapping_add(&(flash->mapping[i]), 0xe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, flash_writew, mem_write_nulll, flash->array + ((i << 14) & 0x1ffff), MEM_MAPPING_EXTERNAL, (void *)flash);
mem_mapping_add(&(flash->mapping_h[i]), 0xfffe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, flash_writew, mem_write_nulll, flash->array + ((i << 14) & 0x1ffff), 0, (void *)flash);
}
else
{
mem_mapping_add(&(flash->mapping[i]), 0xe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + ((i << 14) & 0x1ffff), MEM_MAPPING_EXTERNAL, (void *)flash);
mem_mapping_add(&(flash->mapping_h[i]), 0xfffe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + ((i << 14) & 0x1ffff), 0, (void *)flash);
}
} }
} }
/* This is for boards which invert the high pin - the flash->array pointers need to pointer invertedly in order for INTERNAL writes to go to the right part of the array. */ /* This is for boards which invert the high pin - the flash->array pointers need to pointer invertedly in order for INTERNAL writes to go to the right part of the array. */
void intel_flash_add_mappings_inverted(flash_t *flash) static void intel_flash_add_mappings_inverted(flash_t *flash)
{ {
int i = 0; int i = 0;
for (i = 0; i <= 7; i++) for (i = 0; i <= 7; i++)
{ {
if (flash->allow_word_write) mem_mapping_add(&(flash->mapping[i]), 0xe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + (((i << 14) ^ 0x10000) & 0x1ffff), MEM_MAPPING_EXTERNAL, (void *)flash);
{ mem_mapping_add(&(flash->mapping_h[i]), 0xfffe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + (((i << 14) ^ 0x10000) & 0x1ffff), 0, (void *)flash);
mem_mapping_add(&(flash->mapping[i]), 0xe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, flash_writew, mem_write_nulll, flash->array + (((i << 14) ^ 0x10000) & 0x1ffff), MEM_MAPPING_EXTERNAL, (void *)flash);
mem_mapping_add(&(flash->mapping_h[i]), 0xfffe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, flash_writew, mem_write_nulll, flash->array + (((i << 14) ^ 0x10000) & 0x1ffff), 0, (void *)flash);
}
else
{
mem_mapping_add(&(flash->mapping[i]), 0xe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + (((i << 14) ^ 0x10000) & 0x1ffff), MEM_MAPPING_EXTERNAL, (void *)flash);
mem_mapping_add(&(flash->mapping_h[i]), 0xfffe0000 + (i << 14), 0x04000, flash_read, flash_readw, flash_readl, flash_write, mem_write_nullw, mem_write_nulll, flash->array + (((i << 14) ^ 0x10000) & 0x1ffff), 0, (void *)flash);
}
} }
} }
@@ -255,13 +155,9 @@ void *intel_flash_init(uint8_t type)
{ {
FILE *f; FILE *f;
flash_t *flash = malloc(sizeof(flash_t)); flash_t *flash = malloc(sizeof(flash_t));
memset(flash, 0, sizeof(flash_t));
char fpath[1024]; char fpath[1024];
int i; int i;
memset(flash, 0, sizeof(flash_t));
// pclog("Initializing Flash (type = %i)\n", type);
memset(flash_path, 0, 1024);
switch(romset) switch(romset)
{ {
@@ -301,41 +197,41 @@ void *intel_flash_init(uint8_t type)
case ROM_THOR: case ROM_THOR:
strcpy(flash_path, "roms/thor/"); strcpy(flash_path, "roms/thor/");
break; break;
default:
fatal("intel_flash_init on unsupported ROM set %i\n", romset);
} }
// pclog("Flash init: Path is: %s\n", flash_path); // pclog("Flash init: Path is: %s\n", flash_path);
flash->type = (type & 2) ? 1 : 0; flash->flash_id = (type & FLASH_IS_BXB) ? 0x95 : 0x94;
flash->flash_id = (!flash->type) ? 0x94 : 0x95; flash->invert_high_pin = (type & FLASH_INVERT);
flash->invert_high_pin = (type & 1);
flash->allow_word_write = (type & 4) ? 1 : 0;
/* The block lengths are the same both flash types. */ /* The block lengths are the same both flash types. */
flash->block_len[0] = 0x1c000; flash->block_len[BLOCK_MAIN] = 0x1c000;
flash->block_len[1] = 0x01000; flash->block_len[BLOCK_DATA1] = 0x01000;
flash->block_len[2] = 0x01000; flash->block_len[BLOCK_DATA2] = 0x01000;
flash->block_len[3] = 0x02000; flash->block_len[BLOCK_BOOT] = 0x02000;
if(flash->type) /* 28F001BX-B */ if (type & FLASH_IS_BXB) /* 28F001BX-B */
{ {
flash->block_start[0] = 0x04000; /* MAIN BLOCK */ flash->block_start[BLOCK_MAIN] = 0x04000; /* MAIN BLOCK */
flash->block_end[0] = 0x1ffff; flash->block_end[BLOCK_MAIN] = 0x1ffff;
flash->block_start[1] = 0x03000; /* DMI BLOCK */ flash->block_start[BLOCK_DATA1] = 0x03000; /* DATA AREA 1 BLOCK */
flash->block_end[1] = 0x03fff; flash->block_end[BLOCK_DATA1] = 0x03fff;
flash->block_start[2] = 0x04000; /* ESCD BLOCK */ flash->block_start[BLOCK_DATA2] = 0x04000; /* DATA AREA 2 BLOCK */
flash->block_end[2] = 0x04fff; flash->block_end[BLOCK_DATA2] = 0x04fff;
flash->block_start[3] = 0x00000; /* BOOT BLOCK */ flash->block_start[BLOCK_BOOT] = 0x00000; /* BOOT BLOCK */
flash->block_end[3] = 0x01fff; flash->block_end[BLOCK_BOOT] = 0x01fff;
} }
else /* 28F001BX-T */ else /* 28F001BX-T */
{ {
flash->block_start[0] = 0x00000; /* MAIN BLOCK */ flash->block_start[BLOCK_MAIN] = 0x00000; /* MAIN BLOCK */
flash->block_end[0] = 0x1bfff; flash->block_end[BLOCK_MAIN] = 0x1bfff;
flash->block_start[1] = 0x1c000; /* DMI BLOCK */ flash->block_start[BLOCK_DATA1] = 0x1c000; /* DATA AREA 1 BLOCK */
flash->block_end[1] = 0x1cfff; flash->block_end[BLOCK_DATA1] = 0x1cfff;
flash->block_start[2] = 0x1d000; /* ESCD BLOCK */ flash->block_start[BLOCK_DATA2] = 0x1d000; /* DATA AREA 2 BLOCK */
flash->block_end[2] = 0x1dfff; flash->block_end[BLOCK_DATA2] = 0x1dfff;
flash->block_start[3] = 0x1e000; /* BOOT BLOCK */ flash->block_start[BLOCK_BOOT] = 0x1e000; /* BOOT BLOCK */
flash->block_end[3] = 0x1ffff; flash->block_end[BLOCK_BOOT] = 0x1ffff;
} }
for (i = 0; i < 8; i++) for (i = 0; i < 8; i++)
@@ -366,34 +262,14 @@ void *intel_flash_init(uint8_t type)
flash->command = CMD_READ_ARRAY; flash->command = CMD_READ_ARRAY;
flash->status = 0; flash->status = 0;
/* Load the main block. */
memset(fpath, 0, 1024);
strcpy(fpath, flash_path); strcpy(fpath, flash_path);
strcat(fpath, "main.bin"); strcat(fpath, "flash.bin");
f = romfopen(fpath, "rb"); f = romfopen(fpath, "rb");
if (f) if (f)
{ {
fread(&(flash->array[flash->block_start[BLOCK_MAIN]]), flash->block_len[BLOCK_MAIN], 1, f); fread(&(flash->array[flash->block_start[BLOCK_MAIN]]), flash->block_len[BLOCK_MAIN], 1, f);
fclose(f); fread(&(flash->array[flash->block_start[BLOCK_DATA1]]), flash->block_len[BLOCK_DATA1], 1, f);
} fread(&(flash->array[flash->block_start[BLOCK_DATA2]]), flash->block_len[BLOCK_DATA2], 1, f);
/* Load the DMI block. */
strcpy(fpath, flash_path);
strcat(fpath, "dmi.bin");
f = romfopen(fpath, "rb");
if (f)
{
fread(&(flash->array[flash->block_start[BLOCK_DMI]]), flash->block_len[BLOCK_DMI], 1, f);
fclose(f);
}
/* Load the ESCD block. */
strcpy(fpath, flash_path);
strcat(fpath, "escd.bin");
f = romfopen(fpath, "rb");
if (f)
{
fread(&(flash->array[flash->block_start[BLOCK_ESCD]]), flash->block_len[BLOCK_ESCD], 1, f);
fclose(f); fclose(f);
} }
@@ -406,12 +282,6 @@ void *intel_flash_bxt_ami_init()
return intel_flash_init(FLASH_INVERT); return intel_flash_init(FLASH_INVERT);
} }
/* For later AMI BIOS'es - Intel 28F100BXT with high address pin inverted and 16-bit write capability. */
void *intel_flash_100bxt_ami_init()
{
return intel_flash_init(FLASH_INVERT | FLASH_ALLOW_16);
}
/* For Award BIOS'es - Intel 28F001BXT with high address pin not inverted. */ /* For Award BIOS'es - Intel 28F001BXT with high address pin not inverted. */
void *intel_flash_bxt_init() void *intel_flash_bxt_init()
{ {
@@ -431,28 +301,12 @@ void intel_flash_close(void *p)
char fpath[1024]; char fpath[1024];
// pclog("Flash close: Path is: %s\n", flash_path);
/* Save the main block. */
memset(fpath, 0, 1024);
strcpy(fpath, flash_path); strcpy(fpath, flash_path);
strcat(fpath, "main.bin"); strcat(fpath, "flash.bin");
f = romfopen(fpath, "wb"); f = romfopen(fpath, "wb");
fwrite(&(flash->array[flash->block_start[BLOCK_MAIN]]), flash->block_len[BLOCK_MAIN], 1, f); fwrite(&(flash->array[flash->block_start[BLOCK_MAIN]]), flash->block_len[BLOCK_MAIN], 1, f);
fclose(f); fwrite(&(flash->array[flash->block_start[BLOCK_DATA1]]), flash->block_len[BLOCK_DATA1], 1, f);
fwrite(&(flash->array[flash->block_start[BLOCK_DATA2]]), flash->block_len[BLOCK_DATA2], 1, f);
/* Save the DMI block. */
strcpy(fpath, flash_path);
strcat(fpath, "dmi.bin");
f = romfopen(fpath, "wb");
fwrite(&(flash->array[flash->block_start[BLOCK_DMI]]), flash->block_len[BLOCK_DMI], 1, f);
fclose(f);
/* Save the ESCD block. */
strcpy(fpath, flash_path);
strcat(fpath, "escd.bin");
f = romfopen(fpath, "wb");
fwrite(&(flash->array[flash->block_start[BLOCK_ESCD]]), flash->block_len[BLOCK_ESCD], 1, f);
fclose(f); fclose(f);
free(flash); free(flash);
@@ -471,19 +325,6 @@ device_t intel_flash_bxt_ami_device =
NULL NULL
}; };
device_t intel_flash_100bxt_ami_device =
{
"Intel 28F100BXT Flash BIOS",
0,
intel_flash_100bxt_ami_init,
intel_flash_close,
NULL,
NULL,
NULL,
NULL,
NULL
};
device_t intel_flash_bxt_device = device_t intel_flash_bxt_device =
{ {
"Intel 28F001BXT Flash BIOS", "Intel 28F001BXT Flash BIOS",
@@ -499,7 +340,7 @@ device_t intel_flash_bxt_device =
device_t intel_flash_bxb_device = device_t intel_flash_bxb_device =
{ {
"Intel 28F001BXT Flash BIOS", "Intel 28F001BXB Flash BIOS",
0, 0,
intel_flash_bxb_init, intel_flash_bxb_init,
intel_flash_close, intel_flash_close,

4
src/intel_flash.h
View File

@@ -1,7 +1,3 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
extern device_t intel_flash_bxt_ami_device; extern device_t intel_flash_bxt_ami_device;
extern device_t intel_flash_100bxt_ami_device;
extern device_t intel_flash_bxt_device; extern device_t intel_flash_bxt_device;
extern device_t intel_flash_bxb_device; extern device_t intel_flash_bxb_device;

6
src/model.c
View File

@@ -157,7 +157,7 @@ MODEL models[] =
{"PC Partner MB500N", ROM_MB500N, { "Intel", cpus_PentiumS5,"IDT", cpus_WinChip, "AMD", cpus_K5, "", NULL}, 0, 1, 1, 128, 1, at_mb500n_init}, {"PC Partner MB500N", ROM_MB500N, { "Intel", cpus_PentiumS5,"IDT", cpus_WinChip, "AMD", cpus_K5, "", NULL}, 0, 1, 1, 128, 1, at_mb500n_init},
{"Intel Advanced/ATX", ROM_THOR, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 256, 1, at_endeavor_init}, {"Intel Advanced/ATX", ROM_THOR, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 256, 1, at_endeavor_init},
// {"ASUS P/I-P54TP4XE", ROM_P54TP4XE, { "Intel", cpus_PentiumS5, "IDT", cpus_WinChip, "AMD", cpus_K5, "", NULL}, 0, 1, 1, 512, 1, at_p54tp4xe_init}, // {"ASUS P/I-P54TP4XE", ROM_P54TP4XE, { "Intel", cpus_PentiumS5, "IDT", cpus_WinChip, "AMD", cpus_K5, "", NULL}, 0, 1, 1, 512, 1, at_p54tp4xe_init},
{"Intel Advanced/ML", ROM_MARL, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_marl_init}, // {"Intel Advanced/ML", ROM_MARL, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_marl_init},
{"Acer M3a", ROM_ACERM3A, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_acerm3a_init}, {"Acer M3a", ROM_ACERM3A, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_acerm3a_init},
{"Acer V35N", ROM_ACERV35N, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_acerv35n_init}, {"Acer V35N", ROM_ACERV35N, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_acerv35n_init},
// {"ASUS P/I-P55T2P4", ROM_P55T2P4, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_p55t2p4_init}, // {"ASUS P/I-P55T2P4", ROM_P55T2P4, { "Intel", cpus_Pentium, "IDT", cpus_WinChip, "Cyrix", cpus_6x86, "AMD", cpus_K56, "", NULL}, 0, 1, 1, 512, 1, at_p55t2p4_init},
@@ -499,11 +499,13 @@ void at_endeavor_init()
device_add(&intel_flash_bxt_ami_device); device_add(&intel_flash_bxt_ami_device);
} }
#if 0
void at_marl_init() void at_marl_init()
{ {
at_advanced_common_init(); at_advanced_common_init();
device_add(&intel_flash_100bxt_ami_device); // device_add(&intel_flash_100bxt_ami_device);
} }
#endif
void at_mb500n_init() void at_mb500n_init()
{ {

13
src/pic.c
View File

@@ -1,6 +1,3 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
#include "ibm.h" #include "ibm.h"
#include "io.h" #include "io.h"
#include "pic.h" #include "pic.h"
@@ -27,15 +24,13 @@ void pic_updatepending()
void pic_reset() void pic_reset()
{ {
pic.icw=0; pic.icw=0;
// pic.mask=0xFF; pic.mask=0xFF;
pic.mask=0;
pic.mask2=0; pic.mask2=0;
pic.pend=pic.ins=0; pic.pend=pic.ins=0;
pic.vector=8; pic.vector=8;
pic.read=1; pic.read=1;
pic2.icw=0; pic2.icw=0;
// pic2.mask=0xFF; pic2.mask=0xFF;
pic2.mask=0;
pic.mask2=0; pic.mask2=0;
pic2.pend=pic2.ins=0; pic2.pend=pic2.ins=0;
pic_intpending = 0; pic_intpending = 0;
@@ -110,7 +105,7 @@ void pic_write(uint16_t addr, uint8_t val, void *priv)
{ {
if (val&16) /*ICW1*/ if (val&16) /*ICW1*/
{ {
pic.mask=0; pic.mask = 0;
pic.mask2=0; pic.mask2=0;
pic.icw=1; pic.icw=1;
pic.icw1=val; pic.icw1=val;
@@ -227,7 +222,7 @@ void pic2_write(uint16_t addr, uint8_t val, void *priv)
{ {
if (val&16) /*ICW1*/ if (val&16) /*ICW1*/
{ {
pic2.mask=0; pic2.mask = 0;
pic2.mask2=0; pic2.mask2=0;
pic2.icw=1; pic2.icw=1;
pic2.icw1=val; pic2.icw1=val;

3
src/pic.h
View File

@@ -1,6 +1,3 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
void pic_init(); void pic_init();
void pic2_init(); void pic2_init();
void pic_reset(); void pic_reset();

49
src/pit.c
View File

@@ -1,6 +1,3 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
/*IBM AT - /*IBM AT -
Write B0 Write B0
Write aa55 Write aa55
@@ -91,7 +88,7 @@ static void pit_set_out(int t, int out)
static void pit_load(int t) static void pit_load(int t)
{ {
int64_t l = pit.l[t] ? pit.l[t] : 0x10000; int l = pit.l[t] ? pit.l[t] : 0x10000;
timer_process(); timer_process();
pit.newcount[t] = 0; pit.newcount[t] = 0;
pit.disabled[t] = 0; pit.disabled[t] = 0;
@@ -100,7 +97,7 @@ static void pit_load(int t)
{ {
case 0: /*Interrupt on terminal count*/ case 0: /*Interrupt on terminal count*/
pit.count[t] = l; pit.count[t] = l;
pit.c[t] = (int64_t)((l << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)((l << TIMER_SHIFT) * PITCONST);
pit_set_out(t, 0); pit_set_out(t, 0);
pit.thit[t] = 0; pit.thit[t] = 0;
pit.enabled[t] = pit.gate[t]; pit.enabled[t] = pit.gate[t];
@@ -112,7 +109,7 @@ static void pit_load(int t)
if (pit.initial[t]) if (pit.initial[t])
{ {
pit.count[t] = l - 1; pit.count[t] = l - 1;
pit.c[t] = (int64_t)(((l - 1) << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)(((l - 1) << TIMER_SHIFT) * PITCONST);
pit_set_out(t, 1); pit_set_out(t, 1);
pit.thit[t] = 0; pit.thit[t] = 0;
} }
@@ -122,7 +119,7 @@ static void pit_load(int t)
if (pit.initial[t]) if (pit.initial[t])
{ {
pit.count[t] = l; pit.count[t] = l;
pit.c[t] = (int64_t)((((l + 1) >> 1) << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)((((l + 1) >> 1) << TIMER_SHIFT) * PITCONST);
pit_set_out(t, 1); pit_set_out(t, 1);
pit.thit[t] = 0; pit.thit[t] = 0;
} }
@@ -135,7 +132,7 @@ static void pit_load(int t)
else else
{ {
pit.count[t] = l; pit.count[t] = l;
pit.c[t] = (int64_t)((l << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)((l << TIMER_SHIFT) * PITCONST);
pit_set_out(t, 0); pit_set_out(t, 0);
pit.thit[t] = 0; pit.thit[t] = 0;
} }
@@ -153,7 +150,7 @@ static void pit_load(int t)
void pit_set_gate(int t, int gate) void pit_set_gate(int t, int gate)
{ {
int64_t l = pit.l[t] ? pit.l[t] : 0x10000; int l = pit.l[t] ? pit.l[t] : 0x10000;
if (pit.disabled[t]) if (pit.disabled[t])
{ {
@@ -173,7 +170,7 @@ void pit_set_gate(int t, int gate)
if (gate && !pit.gate[t]) if (gate && !pit.gate[t])
{ {
pit.count[t] = l; pit.count[t] = l;
pit.c[t] = (int64_t)((l << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)((l << TIMER_SHIFT) * PITCONST);
pit_set_out(t, 0); pit_set_out(t, 0);
pit.thit[t] = 0; pit.thit[t] = 0;
pit.enabled[t] = 1; pit.enabled[t] = 1;
@@ -183,7 +180,7 @@ void pit_set_gate(int t, int gate)
if (gate && !pit.gate[t]) if (gate && !pit.gate[t])
{ {
pit.count[t] = l - 1; pit.count[t] = l - 1;
pit.c[t] = (int64_t)(((l - 1) << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)(((l - 1) << TIMER_SHIFT) * PITCONST);
pit_set_out(t, 1); pit_set_out(t, 1);
pit.thit[t] = 0; pit.thit[t] = 0;
} }
@@ -193,7 +190,7 @@ void pit_set_gate(int t, int gate)
if (gate && !pit.gate[t]) if (gate && !pit.gate[t])
{ {
pit.count[t] = l; pit.count[t] = l;
pit.c[t] = (int64_t)((((l + 1) >> 1) << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)((((l + 1) >> 1) << TIMER_SHIFT) * PITCONST);
pit_set_out(t, 1); pit_set_out(t, 1);
pit.thit[t] = 0; pit.thit[t] = 0;
} }
@@ -208,7 +205,7 @@ void pit_set_gate(int t, int gate)
static void pit_over(int t) static void pit_over(int t)
{ {
int64_t l = pit.l[t] ? pit.l[t] : 0x10000; int l = pit.l[t] ? pit.l[t] : 0x10000;
if (pit.disabled[t]) if (pit.disabled[t])
{ {
pit.count[t] += 0xffff; pit.count[t] += 0xffff;
@@ -225,7 +222,7 @@ static void pit_over(int t)
pit_set_out(t, 1); pit_set_out(t, 1);
pit.thit[t] = 1; pit.thit[t] = 1;
pit.count[t] += 0xffff; pit.count[t] += 0xffff;
pit.c[t] += (int64_t)((0xffff << TIMER_SHIFT) * PITCONST); pit.c[t] += (int)((0xffff << TIMER_SHIFT) * PITCONST);
break; break;
case 2: /*Rate generator*/ case 2: /*Rate generator*/
pit.count[t] += l; pit.count[t] += l;
@@ -238,13 +235,13 @@ static void pit_over(int t)
{ {
pit_set_out(t, 0); pit_set_out(t, 0);
pit.count[t] += (l >> 1); pit.count[t] += (l >> 1);
pit.c[t] += (int64_t)(((l >> 1) << TIMER_SHIFT) * PITCONST); pit.c[t] += (int)(((l >> 1) << TIMER_SHIFT) * PITCONST);
} }
else else
{ {
pit_set_out(t, 1); pit_set_out(t, 1);
pit.count[t] += ((l + 1) >> 1); pit.count[t] += ((l + 1) >> 1);
pit.c[t] = (int64_t)((((l + 1) >> 1) << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)((((l + 1) >> 1) << TIMER_SHIFT) * PITCONST);
} }
// if (!t) pclog("pit_over: square wave mode c=%x %lli %f\n", pit.c[t], tsc, PITCONST); // if (!t) pclog("pit_over: square wave mode c=%x %lli %f\n", pit.c[t], tsc, PITCONST);
break; break;
@@ -258,13 +255,13 @@ static void pit_over(int t)
{ {
pit.newcount[t] = 0; pit.newcount[t] = 0;
pit.count[t] += l; pit.count[t] += l;
pit.c[t] += (int64_t)((l << TIMER_SHIFT) * PITCONST); pit.c[t] += (int)((l << TIMER_SHIFT) * PITCONST);
} }
else else
{ {
pit.thit[t] = 1; pit.thit[t] = 1;
pit.count[t] += 0xffff; pit.count[t] += 0xffff;
pit.c[t] += (int64_t)((0xffff << TIMER_SHIFT) * PITCONST); pit.c[t] += (int)((0xffff << TIMER_SHIFT) * PITCONST);
} }
break; break;
case 5: /*Hardware triggered strove*/ case 5: /*Hardware triggered strove*/
@@ -275,7 +272,7 @@ static void pit_over(int t)
} }
pit.thit[t] = 1; pit.thit[t] = 1;
pit.count[t] += 0xffff; pit.count[t] += 0xffff;
pit.c[t] += (int64_t)((0xffff << TIMER_SHIFT) * PITCONST); pit.c[t] += (int)((0xffff << TIMER_SHIFT) * PITCONST);
break; break;
} }
pit.running[t] = pit.enabled[t] && pit.using_timer[t] && !pit.disabled[t]; pit.running[t] = pit.enabled[t] && pit.using_timer[t] && !pit.disabled[t];
@@ -283,7 +280,7 @@ static void pit_over(int t)
int pit_get_timer_0() int pit_get_timer_0()
{ {
int read = (int)((int64_t)((pit.c[0] + ((1 << TIMER_SHIFT) - 1)) / PITCONST) >> TIMER_SHIFT); int read = (int)((pit.c[0] + ((1 << TIMER_SHIFT) - 1)) / PITCONST) >> TIMER_SHIFT;
//pclog("pit_get_timer_0: t=%i using_timer=%i m=%i\n", 0, pit.using_timer[0], pit.m[0]); //pclog("pit_get_timer_0: t=%i using_timer=%i m=%i\n", 0, pit.using_timer[0], pit.m[0]);
if (pit.m[0] == 2) if (pit.m[0] == 2)
read++; read++;
@@ -302,7 +299,7 @@ static int pit_read_timer(int t)
// pclog("pit_read_timer: t=%i using_timer=%i m=%i\n", t, pit.using_timer[t], pit.m[t]); // pclog("pit_read_timer: t=%i using_timer=%i m=%i\n", t, pit.using_timer[t], pit.m[t]);
if (pit.using_timer[t]) if (pit.using_timer[t])
{ {
int read = (int)((int64_t)((pit.c[t] + ((1 << TIMER_SHIFT) - 1)) / PITCONST) >> TIMER_SHIFT); int read = (int)((pit.c[t] + ((1 << TIMER_SHIFT) - 1)) / PITCONST) >> TIMER_SHIFT;
if (pit.m[t] == 2) if (pit.m[t] == 2)
read++; read++;
if (read < 0) if (read < 0)
@@ -332,11 +329,11 @@ void pit_write(uint16_t addr, uint8_t val, void *priv)
if (!(val&0x20)) if (!(val&0x20))
{ {
if (val & 2) if (val & 2)
pit.rl[0] = pit.using_timer[0] ? (int)(((int64_t) (pit.c[0] / PITCONST)) >> TIMER_SHIFT) : pit.count[0]; pit.rl[0] = pit.using_timer[0] ? ((int)(pit.c[0] / PITCONST) >> TIMER_SHIFT) : pit.count[0];
if (val & 4) if (val & 4)
pit.rl[1] = pit.using_timer[1] ? (int)(((int64_t) (pit.c[1] / PITCONST)) >> TIMER_SHIFT) : pit.count[1]; pit.rl[1] = pit.using_timer[1] ? ((int)(pit.c[1] / PITCONST) >> TIMER_SHIFT) : pit.count[1];
if (val & 8) if (val & 8)
pit.rl[2] = pit.using_timer[2] ? (int)(((int64_t) (pit.c[2] / PITCONST)) >> TIMER_SHIFT) : pit.count[2]; pit.rl[2] = pit.using_timer[2] ? ((int)(pit.c[2] / PITCONST) >> TIMER_SHIFT) : pit.count[2];
} }
if (!(val & 0x10)) if (!(val & 0x10))
{ {
@@ -412,7 +409,7 @@ void pit_write(uint16_t addr, uint8_t val, void *priv)
pit.l[t]=val; pit.l[t]=val;
// pit.thit[t]=0; // pit.thit[t]=0;
pit_load(t); pit_load(t);
// pit.c[t]=((int64_t)pit.l[t])*PITCONST; // pit.c[t]=pit.l[t]*PITCONST;
// if (!t) // if (!t)
// picintc(1); // picintc(1);
break; break;
@@ -551,7 +548,7 @@ void pit_set_using_timer(int t, int using_timer)
if (pit.using_timer[t] && !using_timer) if (pit.using_timer[t] && !using_timer)
pit.count[t] = pit_read_timer(t); pit.count[t] = pit_read_timer(t);
if (!pit.using_timer[t] && using_timer) if (!pit.using_timer[t] && using_timer)
pit.c[t] = (int64_t)((((int64_t) pit.count[t]) << TIMER_SHIFT) * PITCONST); pit.c[t] = (int)((pit.count[t] << TIMER_SHIFT) * PITCONST);
pit.using_timer[t] = using_timer; pit.using_timer[t] = using_timer;
pit.running[t] = pit.enabled[t] && pit.using_timer[t] && !pit.disabled[t]; pit.running[t] = pit.enabled[t] && pit.using_timer[t] && !pit.disabled[t];
timer_update_outstanding(); timer_update_outstanding();

4
src/pit.h
View File

@@ -1,8 +1,4 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
extern double PITCONST; extern double PITCONST;
extern float cpuclock;
void pit_init(); void pit_init();
void pit_reset(); void pit_reset();
void pit_set_gate(int channel, int gate); void pit_set_gate(int channel, int gate);

19
src/timer.c
View File

@@ -1,6 +1,3 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
#include "ibm.h" #include "ibm.h"
/*#include "sound_opl.h" /*#include "sound_opl.h"
@@ -20,15 +17,15 @@ static struct
int present; int present;
void (*callback)(void *priv); void (*callback)(void *priv);
void *priv; void *priv;
int64_t *enable; int *enable;
int64_t *count; int *count;
} timers[TIMERS_MAX]; } timers[TIMERS_MAX];
int timers_present = 0; int timers_present = 0;
int64_t timer_one = 1; int timer_one = 1;
int64_t timer_count = 0, timer_latch = 0; int timer_count = 0, timer_latch = 0;
int64_t timer_start = 0; int timer_start = 0;
void timer_process() void timer_process()
{ {
@@ -36,7 +33,7 @@ void timer_process()
int retry; int retry;
int process = 0; int process = 0;
/*Get actual elapsed time*/ /*Get actual elapsed time*/
int64_t diff = timer_latch - timer_count; int diff = timer_latch - timer_count;
int enable[TIMERS_MAX]; int enable[TIMERS_MAX];
timer_latch = 0; timer_latch = 0;
@@ -82,7 +79,7 @@ void timer_process()
void timer_update_outstanding() void timer_update_outstanding()
{ {
int c; int c;
timer_latch = 0x7fffffffffffffff; timer_latch = 0x7fffffff;
for (c = 0; c < timers_present; c++) for (c = 0; c < timers_present; c++)
{ {
if (*timers[c].enable && *timers[c].count < timer_latch) if (*timers[c].enable && *timers[c].count < timer_latch)
@@ -99,7 +96,7 @@ void timer_reset()
// timer_process(); // timer_process();
} }
int timer_add(void (*callback)(void *priv), int64_t *count, int64_t *enable, void *priv) int timer_add(void (*callback)(void *priv), int *count, int *enable, void *priv)
{ {
if (timers_present < TIMERS_MAX) if (timers_present < TIMERS_MAX)
{ {

23
src/timer.h
View File

@@ -1,12 +1,9 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
#ifndef _TIMER_H_ #ifndef _TIMER_H_
#define _TIMER_H_ #define _TIMER_H_
#include "cpu.h" #include "cpu.h"
extern int64_t timer_start; extern int timer_start;
#define timer_start_period(cycles) \ #define timer_start_period(cycles) \
timer_start = cycles; timer_start = cycles;
@@ -14,7 +11,7 @@ extern int64_t timer_start;
#define timer_end_period(cycles) \ #define timer_end_period(cycles) \
do \ do \
{ \ { \
int64_t diff = timer_start - ((uint64_t) cycles); \ int diff = timer_start - (cycles); \
timer_count -= diff; \ timer_count -= diff; \
timer_start = cycles; \ timer_start = cycles; \
if (timer_count <= 0) \ if (timer_count <= 0) \
@@ -27,16 +24,16 @@ extern int64_t timer_start;
#define timer_clock() \ #define timer_clock() \
do \ do \
{ \ { \
int64_t diff; \ int diff; \
if (AT) \ if (AT) \
{ \ { \
diff = timer_start - (((uint64_t) cycles) << TIMER_SHIFT); \ diff = timer_start - (cycles << TIMER_SHIFT); \
timer_start = ((uint64_t) cycles) << TIMER_SHIFT; \ timer_start = cycles << TIMER_SHIFT; \
} \ } \
else \ else \
{ \ { \
diff = timer_start - (((uint64_t) cycles) * xt_cpu_multi); \ diff = timer_start - (cycles * xt_cpu_multi); \
timer_start = ((uint64_t) cycles) * xt_cpu_multi; \ timer_start = cycles * xt_cpu_multi; \
} \ } \
timer_count -= diff; \ timer_count -= diff; \
timer_process(); \ timer_process(); \
@@ -46,13 +43,13 @@ extern int64_t timer_start;
void timer_process(); void timer_process();
void timer_update_outstanding(); void timer_update_outstanding();
void timer_reset(); void timer_reset();
int timer_add(void (*callback)(void *priv), int64_t *count, int64_t *enable, void *priv); int timer_add(void (*callback)(void *priv), int *count, int *enable, void *priv);
void timer_set_callback(int timer, void (*callback)(void *priv)); void timer_set_callback(int timer, void (*callback)(void *priv));
#define TIMER_ALWAYS_ENABLED &timer_one #define TIMER_ALWAYS_ENABLED &timer_one
extern int64_t timer_count; extern int timer_count;
extern int64_t timer_one; extern int timer_one;
#define TIMER_SHIFT 6 #define TIMER_SHIFT 6

391
src/vid_et4000w32.c
View File

@@ -1,6 +1,3 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
/*ET4000/W32p emulation (Diamond Stealth 32)*/ /*ET4000/W32p emulation (Diamond Stealth 32)*/
/*Known bugs : /*Known bugs :
@@ -17,7 +14,6 @@
#include "video.h" #include "video.h"
#include "vid_svga.h" #include "vid_svga.h"
#include "vid_icd2061.h" #include "vid_icd2061.h"
#include "vid_sdac_ramdac.h"
#include "vid_stg_ramdac.h" #include "vid_stg_ramdac.h"
#define FIFO_SIZE 65536 #define FIFO_SIZE 65536
@@ -53,7 +49,6 @@ typedef struct et4000w32p_t
svga_t svga; svga_t svga;
stg_ramdac_t ramdac; stg_ramdac_t ramdac;
sdac_ramdac_t sdac_ramdac;
icd2061_t icd2061; icd2061_t icd2061;
int index; int index;
@@ -64,10 +59,7 @@ typedef struct et4000w32p_t
uint8_t pci_regs[256]; uint8_t pci_regs[256];
int vram_size;
int interleaved; int interleaved;
int max_ram_mask;
int revision;
/*Accelerator*/ /*Accelerator*/
struct struct
@@ -100,7 +92,6 @@ typedef struct et4000w32p_t
{ {
uint32_t base[3]; uint32_t base[3];
uint8_t ctrl; uint8_t ctrl;
uint8_t unk[2];
} mmu; } mmu;
fifo_entry_t fifo[FIFO_SIZE]; fifo_entry_t fifo[FIFO_SIZE];
@@ -143,24 +134,16 @@ void et4000w32p_out(uint16_t addr, uint8_t val, void *p)
switch (addr) switch (addr)
{ {
case 0x3c2: case 0x3c2:
if (gfxcard == GFX_ET4000W32) icd2061_write(&et4000->icd2061, (val >> 2) & 3);
icd2061_write(&et4000->icd2061, (val >> 2) & 3);
break; break;
case 0x3C6: case 0x3C7: case 0x3C8: case 0x3C9: case 0x3C6: case 0x3C7: case 0x3C8: case 0x3C9:
if (gfxcard == GFX_ET4000W32CS) stg_ramdac_out(addr, val, &et4000->ramdac, svga);
{
sdac_ramdac_out(addr, val, &et4000->sdac_ramdac, svga);
}
else
{
stg_ramdac_out(addr, val, &et4000->ramdac, svga);
}
return; return;
case 0x3CB: /*Banking extension*/ case 0x3CB: /*Banking extension*/
svga->write_bank = (svga->write_bank & 0xfffff) | ((val & 3) << 20); svga->write_bank = (svga->write_bank & 0xfffff) | ((val & 1) << 20);
svga->read_bank = (svga->read_bank & 0xfffff) | ((val & 0x30) << 16); svga->read_bank = (svga->read_bank & 0xfffff) | ((val & 0x10) << 16);
et4000->banking2 = val; et4000->banking2 = val;
return; return;
case 0x3CD: /*Banking*/ case 0x3CD: /*Banking*/
@@ -183,8 +166,6 @@ void et4000w32p_out(uint16_t addr, uint8_t val, void *p)
return; return;
case 0x3D5: case 0x3D5:
// pclog("Write CRTC R%02X %02X\n", crtcreg, val); // pclog("Write CRTC R%02X %02X\n", crtcreg, val);
if (svga->crtcreg <= 0x18)
val &= mask_crtc[svga->crtcreg];
if ((svga->crtcreg < 7) && (svga->crtc[0x11] & 0x80)) if ((svga->crtcreg < 7) && (svga->crtc[0x11] & 0x80))
return; return;
if ((svga->crtcreg == 7) && (svga->crtc[0x11] & 0x80)) if ((svga->crtcreg == 7) && (svga->crtc[0x11] & 0x80))
@@ -201,7 +182,16 @@ void et4000w32p_out(uint16_t addr, uint8_t val, void *p)
} }
if (svga->crtcreg == 0x30) if (svga->crtcreg == 0x30)
{ {
et4000->linearbase = val * 0x400000; if (PCI)
{
et4000->linearbase &= 0xc0000000;
et4000->linearbase = (val & 0xfc) << 22;
}
else
{
et4000->linearbase = val << 22;
}
// et4000->linearbase = val * 0x400000;
// pclog("Linear base now at %08X %02X\n", et4000w32p_linearbase, val); // pclog("Linear base now at %08X %02X\n", et4000w32p_linearbase, val);
et4000w32p_recalcmapping(et4000); et4000w32p_recalcmapping(et4000);
} }
@@ -255,14 +245,7 @@ uint8_t et4000w32p_in(uint16_t addr, void *p)
break; break;
case 0x3C6: case 0x3C7: case 0x3C8: case 0x3C9: case 0x3C6: case 0x3C7: case 0x3C8: case 0x3C9:
if (gfxcard == GFX_ET4000W32CS) return stg_ramdac_in(addr, &et4000->ramdac, svga);
{
return sdac_ramdac_in(addr, &et4000->sdac_ramdac, svga);
}
else
{
return stg_ramdac_in(addr, &et4000->ramdac, svga);
}
case 0x3CB: case 0x3CB:
return et4000->banking2; return et4000->banking2;
@@ -288,10 +271,8 @@ uint8_t et4000w32p_in(uint16_t addr, void *p)
return et4000->index; return et4000->index;
case 0x210B: case 0x211B: case 0x212B: case 0x213B: case 0x210B: case 0x211B: case 0x212B: case 0x213B:
case 0x214B: case 0x215B: case 0x216B: case 0x217B: case 0x214B: case 0x215B: case 0x216B: case 0x217B:
// if (et4000->index==0xec)
// return (et4000->regs[0xec] & 0xf) | 0x60; /*ET4000/W32p rev D*/
if (et4000->index==0xec) if (et4000->index==0xec)
return (et4000->regs[0xec] & 0xf) | (et4000->revision << 4); /*ET4000/W32p rev D*/ return (et4000->regs[0xec] & 0xf) | 0x60; /*ET4000/W32p rev D*/
if (et4000->index == 0xef) if (et4000->index == 0xef)
{ {
if (PCI) return et4000->regs[0xef] | 0xe0; /*PCI*/ if (PCI) return et4000->regs[0xef] | 0xe0; /*PCI*/
@@ -317,37 +298,11 @@ void et4000w32p_recalctimings(svga_t *svga)
if (svga->crtc[0x3F] & 0x01) svga->htotal += 256; if (svga->crtc[0x3F] & 0x01) svga->htotal += 256;
if (svga->attrregs[0x16] & 0x20) svga->hdisp <<= 1; if (svga->attrregs[0x16] & 0x20) svga->hdisp <<= 1;
if (gfxcard == GFX_ET4000W32) switch ((svga->miscout >> 2) & 3)
{ {
switch ((svga->miscout >> 2) & 3) case 0: case 1: break;
{ case 2: case 3: svga->clock = cpuclock / icd2061_getfreq(&et4000->icd2061, 2); break;
case 0: case 1: break; }
case 2: case 3: svga->clock = cpuclock / icd2061_getfreq(&et4000->icd2061, 2); break;
}
}
else if (gfxcard == GFX_ET4000W32C)
{
svga->clock = cpuclock / stg_getclock((svga->miscout >> 2) & 3, &et4000->ramdac);
}
else
{
svga->clock = cpuclock / sdac_getclock((svga->miscout >> 2) & 3, &et4000->sdac_ramdac);
switch (sdac_get_clock_divider(&et4000->sdac_ramdac))
{
case 1:
svga->clock *= 2.0;
break;
case 3:
svga->clock /= 1.5;
break;
case 4:
svga->clock /= 2.0;
break;
case 6:
svga->clock /= 3.0;
break;
}
}
switch (svga->bpp) switch (svga->bpp)
{ {
@@ -637,8 +592,6 @@ void et4000w32p_mmu_write(uint32_t addr, uint8_t val, void *p)
case 0x7f0a: et4000->mmu.base[2] = (et4000->mmu.base[2] & 0xFF00FFFF) | (val << 16); break; case 0x7f0a: et4000->mmu.base[2] = (et4000->mmu.base[2] & 0xFF00FFFF) | (val << 16); break;
case 0x7f0d: et4000->mmu.base[2] = (et4000->mmu.base[2] & 0x00FFFFFF) | (val << 24); break; case 0x7f0d: et4000->mmu.base[2] = (et4000->mmu.base[2] & 0x00FFFFFF) | (val << 24); break;
case 0x7f13: et4000->mmu.ctrl=val; break; case 0x7f13: et4000->mmu.ctrl=val; break;
case 0x7f30: et4000->mmu.unk[0] = val; break;
case 0x7f32: et4000->mmu.unk[1] = val; break;
} }
break; break;
} }
@@ -694,8 +647,6 @@ uint8_t et4000w32p_mmu_read(uint32_t addr, void *p)
case 0x7f0a: return et4000->mmu.base[2] >> 16; case 0x7f0a: return et4000->mmu.base[2] >> 16;
case 0x7f0b: return et4000->mmu.base[2] >> 24; case 0x7f0b: return et4000->mmu.base[2] >> 24;
case 0x7f13: return et4000->mmu.ctrl; case 0x7f13: return et4000->mmu.ctrl;
case 0x7f30: return et4000->mmu.unk[0];
case 0x7f32: return et4000->mmu.unk[1];
case 0x7f36: case 0x7f36:
temp = et4000->acl.status; temp = et4000->acl.status;
@@ -880,21 +831,21 @@ void et4000w32_blit(int count, uint32_t mix, uint32_t sdat, int cpu_input, et400
while (count--) while (count--)
{ {
if (bltout) pclog("%i,%i : ", et4000->acl.internal.pos_x, et4000->acl.internal.pos_y); if (bltout) pclog("%i,%i : ", et4000->acl.internal.pos_x, et4000->acl.internal.pos_y);
pattern = svga->vram[(et4000->acl.pattern_addr + et4000->acl.pattern_x) & et4000->max_ram_mask]; pattern = svga->vram[(et4000->acl.pattern_addr + et4000->acl.pattern_x) & 0x1fffff];
source = svga->vram[(et4000->acl.source_addr + et4000->acl.source_x) & et4000->max_ram_mask]; source = svga->vram[(et4000->acl.source_addr + et4000->acl.source_x) & 0x1fffff];
if (bltout) pclog("%06X %06X ", (et4000->acl.pattern_addr + et4000->acl.pattern_x) & et4000->max_ram_mask, (et4000->acl.source_addr + et4000->acl.source_x) & et4000->max_ram_mask); if (bltout) pclog("%06X %06X ", (et4000->acl.pattern_addr + et4000->acl.pattern_x) & 0x1fffff, (et4000->acl.source_addr + et4000->acl.source_x) & 0x1fffff);
if (cpu_input == 2) if (cpu_input == 2)
{ {
source = sdat & 0xff; source = sdat & 0xff;
sdat >>= 8; sdat >>= 8;
} }
dest = svga->vram[et4000->acl.dest_addr & et4000->max_ram_mask]; dest = svga->vram[et4000->acl.dest_addr & 0x1fffff];
out = 0; out = 0;
if (bltout) pclog("%06X ", et4000->acl.dest_addr); if (bltout) pclog("%06X ", et4000->acl.dest_addr);
if ((et4000->acl.internal.ctrl_routing & 0xa) == 8) if ((et4000->acl.internal.ctrl_routing & 0xa) == 8)
{ {
mixdat = svga->vram[(et4000->acl.mix_addr >> 3) & et4000->max_ram_mask] & (1 << (et4000->acl.mix_addr & 7)); mixdat = svga->vram[(et4000->acl.mix_addr >> 3) & 0x1fffff] & (1 << (et4000->acl.mix_addr & 7));
if (bltout) pclog("%06X %02X ", et4000->acl.mix_addr, svga->vram[(et4000->acl.mix_addr >> 3) & et4000->max_ram_mask]); if (bltout) pclog("%06X %02X ", et4000->acl.mix_addr, svga->vram[(et4000->acl.mix_addr >> 3) & 0x1fffff]);
} }
else else
{ {
@@ -911,11 +862,11 @@ void et4000w32_blit(int count, uint32_t mix, uint32_t sdat, int cpu_input, et400
if (pattern & (1 << c)) d |= 4; if (pattern & (1 << c)) d |= 4;
if (rop & (1 << d)) out |= (1 << c); if (rop & (1 << d)) out |= (1 << c);
} }
if (bltout) pclog("%06X = %02X\n", et4000->acl.dest_addr & et4000->max_ram_mask, out); if (bltout) pclog("%06X = %02X\n", et4000->acl.dest_addr & 0x1fffff, out);
if (!(et4000->acl.internal.ctrl_routing & 0x40)) if (!(et4000->acl.internal.ctrl_routing & 0x40))
{ {
svga->vram[et4000->acl.dest_addr & et4000->max_ram_mask] = out; svga->vram[et4000->acl.dest_addr & 0x1fffff] = out;
svga->changedvram[(et4000->acl.dest_addr & et4000->max_ram_mask) >> 12] = changeframecount; svga->changedvram[(et4000->acl.dest_addr & 0x1fffff) >> 12] = changeframecount;
} }
else else
{ {
@@ -1000,22 +951,22 @@ void et4000w32_blit(int count, uint32_t mix, uint32_t sdat, int cpu_input, et400
{ {
if (bltout) pclog("%i,%i : ", et4000->acl.internal.pos_x, et4000->acl.internal.pos_y); if (bltout) pclog("%i,%i : ", et4000->acl.internal.pos_x, et4000->acl.internal.pos_y);
pattern = svga->vram[(et4000->acl.pattern_addr + et4000->acl.pattern_x) & et4000->max_ram_mask]; pattern = svga->vram[(et4000->acl.pattern_addr + et4000->acl.pattern_x) & 0x1fffff];
source = svga->vram[(et4000->acl.source_addr + et4000->acl.source_x) & et4000->max_ram_mask]; source = svga->vram[(et4000->acl.source_addr + et4000->acl.source_x) & 0x1fffff];
if (bltout) pclog("%i %06X %06X %02X %02X ", et4000->acl.pattern_y, (et4000->acl.pattern_addr + et4000->acl.pattern_x) & et4000->max_ram_mask, (et4000->acl.source_addr + et4000->acl.source_x) & et4000->max_ram_mask, pattern, source); if (bltout) pclog("%i %06X %06X %02X %02X ", et4000->acl.pattern_y, (et4000->acl.pattern_addr + et4000->acl.pattern_x) & 0x1fffff, (et4000->acl.source_addr + et4000->acl.source_x) & 0x1fffff, pattern, source);
if (cpu_input == 2) if (cpu_input == 2)
{ {
source = sdat & 0xff; source = sdat & 0xff;
sdat >>= 8; sdat >>= 8;
} }
dest = svga->vram[et4000->acl.dest_addr & et4000->max_ram_mask]; dest = svga->vram[et4000->acl.dest_addr & 0x1fffff];
out = 0; out = 0;
if (bltout) pclog("%06X %02X %i %08X %08X ", dest, et4000->acl.dest_addr, mix & 1, mix, et4000->acl.mix_addr); if (bltout) pclog("%06X %02X %i %08X %08X ", dest, et4000->acl.dest_addr, mix & 1, mix, et4000->acl.mix_addr);
if ((et4000->acl.internal.ctrl_routing & 0xa) == 8) if ((et4000->acl.internal.ctrl_routing & 0xa) == 8)
{ {
mixdat = svga->vram[(et4000->acl.mix_addr >> 3) & et4000->max_ram_mask] & (1 << (et4000->acl.mix_addr & 7)); mixdat = svga->vram[(et4000->acl.mix_addr >> 3) & 0x1fffff] & (1 << (et4000->acl.mix_addr & 7));
if (bltout) pclog("%06X %02X ", et4000->acl.mix_addr, svga->vram[(et4000->acl.mix_addr >> 3) & et4000->max_ram_mask]); if (bltout) pclog("%06X %02X ", et4000->acl.mix_addr, svga->vram[(et4000->acl.mix_addr >> 3) & 0x1fffff]);
} }
else else
{ {
@@ -1032,11 +983,11 @@ void et4000w32_blit(int count, uint32_t mix, uint32_t sdat, int cpu_input, et400
if (pattern & (1 << c)) d |= 4; if (pattern & (1 << c)) d |= 4;
if (rop & (1 << d)) out |= (1 << c); if (rop & (1 << d)) out |= (1 << c);
} }
if (bltout) pclog("%06X = %02X\n", et4000->acl.dest_addr & et4000->max_ram_mask, out); if (bltout) pclog("%06X = %02X\n", et4000->acl.dest_addr & 0x1fffff, out);
if (!(et4000->acl.internal.ctrl_routing & 0x40)) if (!(et4000->acl.internal.ctrl_routing & 0x40))
{ {
svga->vram[et4000->acl.dest_addr & et4000->max_ram_mask] = out; svga->vram[et4000->acl.dest_addr & 0x1fffff] = out;
svga->changedvram[(et4000->acl.dest_addr & et4000->max_ram_mask) >> 12] = changeframecount; svga->changedvram[(et4000->acl.dest_addr & 0x1fffff) >> 12] = changeframecount;
} }
else else
{ {
@@ -1091,23 +1042,21 @@ void et4000w32p_hwcursor_draw(svga_t *svga, int displine)
{ {
int x, offset; int x, offset;
uint8_t dat; uint8_t dat;
int y_add = enable_overscan ? 16 : 0;
int x_add = enable_overscan ? 8 : 0;
offset = svga->hwcursor_latch.xoff; offset = svga->hwcursor_latch.xoff;
for (x = 0; x < 64 - svga->hwcursor_latch.xoff; x += 4) for (x = 0; x < 64 - svga->hwcursor_latch.xoff; x += 4)
{ {
dat = svga->vram[svga->hwcursor_latch.addr + (offset >> 2)]; dat = svga->vram[svga->hwcursor_latch.addr + (offset >> 2)];
if (!(dat & 2)) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 32 + x_add] = (dat & 1) ? 0xFFFFFF : 0; if (!(dat & 2)) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 32] = (dat & 1) ? 0xFFFFFF : 0;
else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 32 + x_add] ^= 0xFFFFFF; else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 32] ^= 0xFFFFFF;
dat >>= 2; dat >>= 2;
if (!(dat & 2)) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 33 + x_add] = (dat & 1) ? 0xFFFFFF : 0; if (!(dat & 2)) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 33] = (dat & 1) ? 0xFFFFFF : 0;
else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 33 + x_add] ^= 0xFFFFFF; else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 33] ^= 0xFFFFFF;
dat >>= 2; dat >>= 2;
if (!(dat & 2)) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 34 + x_add] = (dat & 1) ? 0xFFFFFF : 0; if (!(dat & 2)) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 34] = (dat & 1) ? 0xFFFFFF : 0;
else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 34 + x_add] ^= 0xFFFFFF; else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 34] ^= 0xFFFFFF;
dat >>= 2; dat >>= 2;
if (!(dat & 2)) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 35 + x_add] = (dat & 1) ? 0xFFFFFF : 0; if (!(dat & 2)) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 35] = (dat & 1) ? 0xFFFFFF : 0;
else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine + y_add])[svga->hwcursor_latch.x + x + 35 + x_add] ^= 0xFFFFFF; else if ((dat & 3) == 3) ((uint32_t *)buffer32->line[displine])[svga->hwcursor_latch.x + x + 35] ^= 0xFFFFFF;
dat >>= 2; dat >>= 2;
offset += 4; offset += 4;
} }
@@ -1149,37 +1098,37 @@ uint8_t et4000w32p_pci_read(int func, int addr, void *p)
et4000w32p_t *et4000 = (et4000w32p_t *)p; et4000w32p_t *et4000 = (et4000w32p_t *)p;
svga_t *svga = &et4000->svga; svga_t *svga = &et4000->svga;
// pclog("ET4000 PCI read %08X\n", addr); pclog("ET4000 PCI read %08X\n", addr);
switch (addr) switch (addr)
{ {
case 0x00: return 0x0c; /*Tseng Labs*/ case 0x00: return 0x0c; /*Tseng Labs*/
case 0x01: return 0x10; case 0x01: return 0x10;
// case 0x02: return 0x06; /*ET4000W32p Rev D*/ case 0x02: return 0x06; /*ET4000W32p Rev D*/
case 0x02: return et4000->revision;
case 0x03: return 0x32; case 0x03: return 0x32;
case PCI_REG_COMMAND: case PCI_REG_COMMAND:
return et4000->pci_regs[PCI_REG_COMMAND]; /*Respond to IO and memory accesses*/ return et4000->pci_regs[PCI_REG_COMMAND] | 0x80; /*Respond to IO and memory accesses*/
case 0x07: return 1 << 1; /*Medium DEVSEL timing*/ case 0x07: return 1 << 1; /*Medium DEVSEL timing*/
case 0x08: return 0; /*Revision ID*/ case 0x08: return 0; /*Revision ID*/
case 0x09: return 0; /*Programming interface*/ case 0x09: return 0; /*Programming interface*/
case 0x0a: return 0x01; /*Supports VGA interface, XGA compatible*/ case 0x0a: return 0x00; /*Supports VGA interface, XGA compatible*/
case 0x0b: return 0x03; case 0x0b: return 0x03;
case 0x10: return 0x00; /*Linear frame buffer address*/ case 0x10: return 0x00; /*Linear frame buffer address*/
case 0x11: return 0x00; case 0x11: return 0x00;
case 0x12: return svga->crtc[0x5a] & 0x80; case 0x12: return (et4000->linearbase >> 16) & 0xff;
case 0x13: return svga->crtc[0x59]; case 0x13: return (et4000->linearbase >> 24);
case 0x30: return et4000->pci_regs[0x30] & 0x01; /*BIOS ROM address*/ case 0x30: return et4000->pci_regs[0x30] & 0x01; /*BIOS ROM address*/
case 0x31: return 0x00; case 0x31: return 0x00;
case 0x32: return et4000->pci_regs[0x32]; case 0x32: return 0x00;
case 0x33: return et4000->pci_regs[0x33]; case 0x33: return (et4000->pci_regs[0x33]) & 0xf0;
} }
return 0; return 0;
} }
@@ -1187,11 +1136,15 @@ uint8_t et4000w32p_pci_read(int func, int addr, void *p)
void et4000w32p_pci_write(int func, int addr, uint8_t val, void *p) void et4000w32p_pci_write(int func, int addr, uint8_t val, void *p)
{ {
et4000w32p_t *et4000 = (et4000w32p_t *)p; et4000w32p_t *et4000 = (et4000w32p_t *)p;
svga_t *svga = &et4000->svga;
uint32_t temp = 0;
pclog("ET4000 PCI Write: value %02X to address %08X\n");
switch (addr) switch (addr)
{ {
case PCI_REG_COMMAND: case PCI_REG_COMMAND:
et4000->pci_regs[PCI_REG_COMMAND] = val & 0x27; et4000->pci_regs[PCI_REG_COMMAND] = (val & 0x23) | 0x80;
if (val & PCI_COMMAND_IO) if (val & PCI_COMMAND_IO)
et4000w32p_io_set(et4000); et4000w32p_io_set(et4000);
else else
@@ -1200,88 +1153,55 @@ void et4000w32p_pci_write(int func, int addr, uint8_t val, void *p)
break; break;
case 0x13: case 0x13:
et4000->linearbase = val << 24; et4000->linearbase &= 0xffff0000;
et4000->linearbase = (et4000->pci_regs[0x12] << 16) | (et4000->pci_regs[0x13] << 24);
svga->crtc[0x30] = ((et4000->linearbase & 0x3fc00000) >> 22);
et4000w32p_recalcmapping(et4000); et4000w32p_recalcmapping(et4000);
break; break;
case 0x30: case 0x32: case 0x33: case 0x30: case 0x31: case 0x32: case 0x33:
et4000->pci_regs[addr] = val; et4000->pci_regs[addr] = val;
et4000->pci_regs[0x30] = 1;
et4000->pci_regs[0x31] = 0;
et4000->pci_regs[0x32] = 0;
et4000->pci_regs[0x33] &= 0xf0;
if (et4000->pci_regs[0x30] & 0x01) if (et4000->pci_regs[0x30] & 0x01)
{ {
uint32_t addr = (et4000->pci_regs[0x32] << 16) | (et4000->pci_regs[0x33] << 24); // uint32_t addr = ((et4000->pci_regs[0x31] & 0x80) << 8) | ((et4000->pci_regs[0x32] & 0x0f) << 16) | (et4000->pci_regs[0x33] << 24);
// pclog("ET4000 bios_rom enabled at %08x\n", addr); uint32_t addr = (et4000->pci_regs[0x33] << 24);
if (!addr)
{
addr = 0xC0000;
}
pclog("ET4000 bios_rom enabled at %08x\n", addr);
mem_mapping_set_addr(&et4000->bios_rom.mapping, addr, 0x8000); mem_mapping_set_addr(&et4000->bios_rom.mapping, addr, 0x8000);
} }
else else
{ {
// pclog("ET4000 bios_rom disabled\n"); pclog("ET4000 bios_rom disabled\n");
mem_mapping_disable(&et4000->bios_rom.mapping); mem_mapping_disable(&et4000->bios_rom.mapping);
} }
return; return;
} }
} }
void *et4000w32p_common_init(char *biosfile) void *et4000w32p_init()
{ {
int vram_size; int vram_size;
int bios_offset = 0;
int checksum_diff = 0;
et4000w32p_t *et4000 = malloc(sizeof(et4000w32p_t)); et4000w32p_t *et4000 = malloc(sizeof(et4000w32p_t));
memset(et4000, 0, sizeof(et4000w32p_t)); memset(et4000, 0, sizeof(et4000w32p_t));
vram_size = device_get_config_int("memory"); vram_size = device_get_config_int("memory");
et4000->vram_size = vram_size;
et4000->revision = device_get_config_int("revision");
et4000->interleaved = (vram_size == 2) ? 1 : 0; et4000->interleaved = (vram_size == 2) ? 1 : 0;
// et4000->max_ram_mask = (gfxcard == GFX_ET4000W32) ? 0x1fffff : 0x3fffff;
et4000->max_ram_mask = (vram_size << 20) - 1;
// et4000->max_ram_mask = 0x1fffff;
svga_init(&et4000->svga, et4000, vram_size << 20, svga_init(&et4000->svga, et4000, vram_size << 20,
et4000w32p_recalctimings, et4000w32p_recalctimings,
et4000w32p_in, et4000w32p_out, et4000w32p_in, et4000w32p_out,
et4000w32p_hwcursor_draw, et4000w32p_hwcursor_draw,
NULL); NULL);
rom_init(&et4000->bios_rom, biosfile, 0xc0000, 0x8000, 0x7fff, 0, MEM_MAPPING_EXTERNAL); rom_init(&et4000->bios_rom, "roms/et4000w32.bin", 0xc0000, 0x8000, 0x7fff, 0, MEM_MAPPING_EXTERNAL);
if (vram_size == 4)
{
/* The ROM is hardcoded to 256k sticks, so let's patch it for 1M. */
if (memcmp(&((&et4000->bios_rom)->rom[0x008f]), "06/28/94 V1.0CN", 15) == 0)
{
bios_offset = 0x026d;
}
else if (memcmp(&((&et4000->bios_rom)->rom[0x008f]), "04/28/95 V2.10N", 15) == 0)
{
bios_offset = 0x0244;
}
else if (memcmp(&((&et4000->bios_rom)->rom[0x008f]), "05/15/95 V8.00N", 15) == 0)
{
bios_offset = 0x027f;
}
else if (memcmp(&((&et4000->bios_rom)->rom[0x008f]), "05/17/95 V8.00N", 15) == 0)
{
bios_offset = 0x041d;
}
if (bios_offset)
{
checksum_diff = (&et4000->bios_rom)->rom[bios_offset] - 0x03;
if (checksum_diff)
{
(&et4000->bios_rom)->rom[bios_offset] = 0x03;
(&et4000->bios_rom)->rom[0x7fff] += checksum_diff;
pclog("BIOS patched: %08X: %02X 03\n", bios_offset, checksum_diff + 0x03);
}
}
else
{
pclog("No known BIOS detected or BIOS already set to 1 MB DRAM modules, maximum VRAM is 2 MB\n");
vram_size == 2;
}
}
if (PCI) if (PCI)
mem_mapping_disable(&et4000->bios_rom.mapping); mem_mapping_disable(&et4000->bios_rom.mapping);
@@ -1292,11 +1212,20 @@ void *et4000w32p_common_init(char *biosfile)
pci_add(et4000w32p_pci_read, et4000w32p_pci_write, et4000); pci_add(et4000w32p_pci_read, et4000w32p_pci_write, et4000);
et4000->pci_regs[0x04] = 7; /* Hardwired bits: 00000000 1xx0x0xx */
/* R/W bits: xx xxxx */
/* PCem bits: 111 */
et4000->pci_regs[0x04] = 0x83;
et4000->pci_regs[0x10] = 0x00;
et4000->pci_regs[0x11] = 0x00;
et4000->pci_regs[0x12] = 0xff;
et4000->pci_regs[0x13] = 0xff;
et4000->pci_regs[0x30] = 0x00; et4000->pci_regs[0x30] = 0x00;
et4000->pci_regs[0x32] = 0x0c; et4000->pci_regs[0x31] = 0x00;
et4000->pci_regs[0x33] = 0x00; et4000->pci_regs[0x32] = 0x00;
et4000->pci_regs[0x33] = 0xf0;
et4000->wake_fifo_thread = thread_create_event(); et4000->wake_fifo_thread = thread_create_event();
et4000->fifo_not_full_event = thread_create_event(); et4000->fifo_not_full_event = thread_create_event();
@@ -1305,36 +1234,11 @@ void *et4000w32p_common_init(char *biosfile)
return et4000; return et4000;
} }
void *et4000w32p_init()
{
return et4000w32p_common_init("roms/et4000w32.bin");
}
void *et4000w32pc_init()
{
return et4000w32p_common_init("roms/cardex.vbi");
}
void *et4000w32pcs_init()
{
return et4000w32p_common_init("roms/TSENG.BIN");
}
int et4000w32p_available() int et4000w32p_available()
{ {
return rom_present("roms/et4000w32.bin"); return rom_present("roms/et4000w32.bin");
} }
int et4000w32pc_available()
{
return rom_present("roms/cardex.vbi");
}
int et4000w32pcs_available()
{
return rom_present("roms/TSENG.BIN");
}
void et4000w32p_close(void *p) void et4000w32p_close(void *p)
{ {
et4000w32p_t *et4000 = (et4000w32p_t *)p; et4000w32p_t *et4000 = (et4000w32p_t *)p;
@@ -1396,93 +1300,6 @@ static device_config_t et4000w32p_config[] =
}, },
.default_int = 2 .default_int = 2
}, },
{
.name = "revision",
.description = "Revision",
.type = CONFIG_SELECTION,
.selection =
{
{
.description = "Rev. A",
.value = 2
},
{
.description = "Rev. B",
.value = 5
},
{
.description = "Rev. D",
.value = 6
},
{
.description = "Rev. C",
.value = 7
},
{
.description = ""
}
},
.default_int = 6
},
{
.type = -1
}
};
static device_config_t et4000w32pc_config[] =
{
{
.name = "memory",
.description = "Memory size",
.type = CONFIG_SELECTION,
.selection =
{
{
.description = "1 MB",
.value = 1
},
{
.description = "2 MB",
.value = 2
},
{
.description = "4 MB",
.value = 4
},
{
.description = ""
}
},
.default_int = 2
},
{
.name = "revision",
.description = "Revision",
.type = CONFIG_SELECTION,
.selection =
{
{
.description = "Rev. A",
.value = 2
},
{
.description = "Rev. B",
.value = 5
},
{
.description = "Rev. D",
.value = 6
},
{
.description = "Rev. C",
.value = 7
},
{
.description = ""
}
},
.default_int = 6
},
{ {
.type = -1 .type = -1
} }
@@ -1500,29 +1317,3 @@ device_t et4000w32p_device =
et4000w32p_add_status_info, et4000w32p_add_status_info,
et4000w32p_config et4000w32p_config
}; };
device_t et4000w32pc_device =
{
"Cardex 1703-DDC (ET4000/W32P)",
0,
et4000w32pc_init,
et4000w32p_close,
et4000w32pc_available,
et4000w32p_speed_changed,
et4000w32p_force_redraw,
et4000w32p_add_status_info,
et4000w32pc_config
};
device_t et4000w32pcs_device =
{
"Cardex ICS5341 (ET4000/W32P)",
0,
et4000w32pcs_init,
et4000w32p_close,
et4000w32pcs_available,
et4000w32p_speed_changed,
et4000w32p_force_redraw,
et4000w32p_add_status_info,
et4000w32pc_config
};

5
src/vid_et4000w32.h
View File

@@ -1,6 +1 @@
/* Copyright holders: Sarah Walker, Tenshi
see COPYING for more details
*/
extern device_t et4000w32p_device; extern device_t et4000w32p_device;
extern device_t et4000w32pc_device;
extern device_t et4000w32pcs_device;

4
src/vid_svga.c
View File

@@ -927,9 +927,9 @@ int svga_init(svga_t *svga, void *p, int memsize,
svga_pointer = svga; svga_pointer = svga;
io_sethandler(0x22ca, 0x0002, svga_in, NULL, NULL, svga_out, NULL, NULL, svga); /* io_sethandler(0x22ca, 0x0002, svga_in, NULL, NULL, svga_out, NULL, NULL, svga);
io_sethandler(0x22ce, 0x0002, svga_in, NULL, NULL, svga_out, NULL, NULL, svga); io_sethandler(0x22ce, 0x0002, svga_in, NULL, NULL, svga_out, NULL, NULL, svga);
io_sethandler(0x32ca, 0x0002, svga_in, NULL, NULL, svga_out, NULL, NULL, svga); io_sethandler(0x32ca, 0x0002, svga_in, NULL, NULL, svga_out, NULL, NULL, svga); */
return 0; return 0;
} }

2
src/video.c
View File

@@ -61,8 +61,6 @@ static VIDEO_CARD video_cards[] =
{"ATI VGA Charger (ATI-28800-5)", &ati28800_device, GFX_VGACHARGER}, {"ATI VGA Charger (ATI-28800-5)", &ati28800_device, GFX_VGACHARGER},
{"ATI VGA Wonder XL24 (ATI-28800-6)", &ati28800_wonderxl24_device, GFX_VGAWONDERXL24}, {"ATI VGA Wonder XL24 (ATI-28800-6)", &ati28800_wonderxl24_device, GFX_VGAWONDERXL24},
{"ATI VGA Edge-16 (ATI-18800)", &ati18800_device, GFX_VGAEDGE16}, {"ATI VGA Edge-16 (ATI-18800)", &ati18800_device, GFX_VGAEDGE16},
{"Cardex 1703-DDC (ET4000/W32P)", &et4000w32pc_device, GFX_ET4000W32C},
{"Cardex ICS5341 (ET4000/W32P)", &et4000w32pcs_device, GFX_ET4000W32CS},
{"CGA", &cga_device, GFX_CGA}, {"CGA", &cga_device, GFX_CGA},
{"Cirrus Logic CL-GD5429", &gd5429_device, GFX_CL_GD5429}, {"Cirrus Logic CL-GD5429", &gd5429_device, GFX_CL_GD5429},
{"Diamond Stealth 32 (Tseng ET4000/w32p)", &et4000w32p_device, GFX_ET4000W32}, {"Diamond Stealth 32 (Tseng ET4000/w32p)", &et4000w32p_device, GFX_ET4000W32},