void tms34061_device::write(address_space &space, int col, int row, int func, UINT8 data)
{
offs_t offs;
/* the function code determines what to do */
switch (func)
{
/* both 0 and 2 map to register access */
case 0:
case 2:
register_w(space, col, data);
break;
/* function 1 maps to XY access; col is the address adjustment */
case 1:
xypixel_w(space, col, data);
break;
/* function 3 maps to direct access */
case 3:
offs = ((row << m_rowshift) | col) & m_vrammask;
if (m_regs[TMS34061_CONTROL2] & 0x0040)
offs |= (m_regs[TMS34061_CONTROL2] & 3) << 16;
if (VERBOSE) logerror("%s:tms34061 direct (%04x) = %02x/%02x\n", space.machine().describe_context(), offs, data, m_latchdata);
if (m_vram[offs] != data || m_latchram[offs] != m_latchdata)
{
m_vram[offs] = data;
m_latchram[offs] = m_latchdata;
}
break;
/* function 4 performs a shift reg transfer to VRAM */
case 4:
offs = col << m_rowshift;
if (m_regs[TMS34061_CONTROL2] & 0x0040)
offs |= (m_regs[TMS34061_CONTROL2] & 3) << 16;
offs &= m_vrammask;
if (VERBOSE) logerror("%s:tms34061 shiftreg write (%04x)\n", space.machine().describe_context(), offs);
memcpy(&m_vram[offs], m_shiftreg, (size_t)1 << m_rowshift);
memset(&m_latchram[offs], m_latchdata, (size_t)1 << m_rowshift);
break;
/* function 5 performs a shift reg transfer from VRAM */
case 5:
offs = col << m_rowshift;
if (m_regs[TMS34061_CONTROL2] & 0x0040)
offs |= (m_regs[TMS34061_CONTROL2] & 3) << 16;
offs &= m_vrammask;
if (VERBOSE) logerror("%s:tms34061 shiftreg read (%04x)\n", space.machine().describe_context(), offs);
m_shiftreg = &m_vram[offs];
break;
/* log anything else */
default:
logerror("%s:Unsupported TMS34061 function %d\n", space.machine().describe_context(), func);
break;
}
}
UINT16 m68307_sim::read_pbdat(address_space &space, UINT16 mem_mask)
{
int pc = space.device().safe_pc();
m68ki_cpu_core *m68k = m68k_get_safe_token(&space.device());
if (m68k->m_m68307_portb_r)
{
// for general purpose bits, if configured as 'output' then anything output gets latched
// and anything configured as input is read from the port
UINT16 outputbits = m_pbddr;
UINT16 inputbits = ~m_pbddr;
UINT16 general_purpose_bits = ~m_pbcnt;
UINT16 indat = m68k->m_m68307_portb_r(space, false, (inputbits & general_purpose_bits)&mem_mask) & ((inputbits & general_purpose_bits) & mem_mask); // read general purpose input lines
indat |= m68k->m_m68307_portb_r(space, true, (inputbits & ~general_purpose_bits)&mem_mask) & ((inputbits & ~general_purpose_bits)& mem_mask); // read dedicated input lines
UINT16 outdat = (m_pbdat & outputbits) & general_purpose_bits; // read general purpose output lines (reads latched data)
return (indat | outdat);
}
else
{
logerror("%08x m68307_internal_sim_r (%04x) (Port B (16-bit) Data Register - PBDAT)\n", pc, mem_mask);
}
return 0xffff;
}
address_map::address_map(const address_space &space, offs_t start, offs_t end, int bits, UINT64 unitmask, device_t &device, address_map_delegate submap_delegate)
: m_spacenum(space.spacenum()),
m_databits(space.data_width()),
m_unmapval(space.unmap()),
m_globalmask(space.bytemask())
{
address_map_entry *e;
switch(m_databits) {
case 8:
e = add(device, start, end, (address_map_entry8 *)NULL);
break;
case 16:
e = add(device, start, end, (address_map_entry16 *)NULL);
break;
case 32:
e = add(device, start, end, (address_map_entry32 *)NULL);
break;
case 64:
e = add(device, start, end, (address_map_entry64 *)NULL);
break;
default:
throw emu_fatalerror("Trying to dynamically map a device on a space with a corrupt databits width");
}
e->set_submap(DEVICE_SELF, submap_delegate, bits, unitmask);
}
void gt64xxx_device::perform_dma(address_space &space, int which)
{
do
{
offs_t srcaddr = m_reg[GREG_DMA0_SOURCE + which];
offs_t dstaddr = m_reg[GREG_DMA0_DEST + which];
UINT32 bytesleft = m_reg[GREG_DMA0_COUNT + which] & 0xffff;
int srcinc, dstinc;
m_dma_active = which;
m_reg[GREG_DMA0_CONTROL + which] |= 0x5000;
/* determine src/dst inc */
switch ((m_reg[GREG_DMA0_CONTROL + which] >> 2) & 3)
{
default:
case 0: srcinc = 1; break;
case 1: srcinc = -1; break;
case 2: srcinc = 0; break;
}
switch ((m_reg[GREG_DMA0_CONTROL + which] >> 4) & 3)
{
default:
case 0: dstinc = 1; break;
case 1: dstinc = -1; break;
case 2: dstinc = 0; break;
}
if (LOG_DMA)
logerror("Performing DMA%d: src=%08X dst=%08X bytes=%04X sinc=%d dinc=%d\n", which, srcaddr, dstaddr, bytesleft, srcinc, dstinc);
/* standard transfer */
while (bytesleft > 0)
{
space.write_byte(dstaddr, space.read_byte(srcaddr));
srcaddr += srcinc;
dstaddr += dstinc;
bytesleft--;
}
/* not verified, but seems logical these should be updated byte the end */
m_reg[GREG_DMA0_SOURCE + which] = srcaddr;
m_reg[GREG_DMA0_DEST + which] = dstaddr;
m_reg[GREG_DMA0_COUNT + which] = (m_reg[GREG_DMA0_COUNT + which] & ~0xffff) | bytesleft;
m_dma_active = -1;
/* if we did not hit zero, punt and return later */
if (bytesleft != 0)
return;
/* interrupt? */
if (!(m_reg[GREG_DMA0_CONTROL + which] & 0x400))
{
m_reg[GREG_INT_STATE] |= 1 << (GINT_DMA0COMP_SHIFT + which);
update_irqs();
}
} while (dma_fetch_next(space, which));
m_reg[GREG_DMA0_CONTROL + which] &= ~0x5000;
}
/* Read/Write common */
void psion_state::io_rw(address_space &space, UINT16 offset)
{
if (space.debugger_access())
return;
switch (offset & 0xffc0)
{
case 0xc0:
/* switch off, CPU goes into standby mode */
m_enable_nmi = 0;
m_stby_pwr = 1;
space.machine().device<cpu_device>("maincpu")->suspend(SUSPEND_REASON_HALT, 1);
break;
case 0x100:
m_pulse = 1;
break;
case 0x140:
m_pulse = 0;
break;
case 0x200:
m_kb_counter = 0;
break;
case 0x180:
beep_set_state(m_beep, 1);
break;
case 0x1c0:
beep_set_state(m_beep, 0);
break;
case 0x240:
if (offset == 0x260 && (m_rom_bank_count || m_ram_bank_count))
{
m_ram_bank=0;
m_rom_bank=0;
update_banks(machine());
}
else
m_kb_counter++;
break;
case 0x280:
if (offset == 0x2a0 && m_ram_bank_count)
{
m_ram_bank++;
update_banks(machine());
}
else
m_enable_nmi = 1;
break;
case 0x2c0:
if (offset == 0x2e0 && m_rom_bank_count)
{
m_rom_bank++;
update_banks(machine());
}
else
m_enable_nmi = 0;
break;
}
}
address_map::address_map(const address_space &space, offs_t start, offs_t end, int bits, u64 unitmask, device_t &device, address_map_delegate submap_delegate)
: m_spacenum(space.spacenum()),
m_device(&device),
m_databits(space.data_width()),
m_unmapval(space.unmap()),
m_globalmask(space.bytemask())
{
range(start, end).set_submap(DEVICE_SELF, submap_delegate, bits, unitmask);
}
INLINE UINT16 galpani2_bg8_regs_r(address_space &space, offs_t offset, int n)
{
galpani2_state *state = space.machine().driver_data<galpani2_state>();
switch (offset * 2)
{
case 0x16: return space.machine().rand() & 1;
default:
logerror("CPU #0 PC %06X : Warning, bg8 #%d screen reg %04X read\n",space.cpu->safe_pc(),_n_,offset*2);
}
return state->m_bg8_regs[_n_][offset];
}
debug_view_memory_source::debug_view_memory_source(const char *name, address_space &space)
: debug_view_source(name, &space.device()),
m_space(&space),
m_memintf(dynamic_cast<device_memory_interface *>(&space.device())),
m_base(nullptr),
m_length(0),
m_offsetxor(0),
m_endianness(space.endianness()),
m_prefsize(space.data_width() / 8)
{
}
void saturn_state::scu_single_transfer(address_space &space, UINT32 src, UINT32 dst,UINT8 *src_shift)
{
UINT32 src_data;
if(src & 1)
{
/* Road Blaster does a work ram h to color ram with offsetted source address, do some data rotation */
src_data = ((space.read_dword(src & 0x07fffffc) & 0x00ffffff)<<8);
src_data |= ((space.read_dword((src & 0x07fffffc)+4) & 0xff000000) >> 24);
src_data >>= (*src_shift)*16;
}
static void dragrace_update_misc_flags( address_space &space )
{
dragrace_state *state = space.machine().driver_data<dragrace_state>();
/* 0x0900 = set 3SPEED1 0x00000001
* 0x0901 = set 4SPEED1 0x00000002
* 0x0902 = set 5SPEED1 0x00000004
* 0x0903 = set 6SPEED1 0x00000008
* 0x0904 = set 7SPEED1 0x00000010
* 0x0905 = set EXPLOSION1 0x00000020
* 0x0906 = set SCREECH1 0x00000040
* 0x0920 - 0x0927 = clear 0x0900 - 0x0907
* 0x0909 = set KLEXPL1 0x00000200
* 0x090b = set MOTOR1 0x00000800
* 0x090c = set ATTRACT 0x00001000
* 0x090d = set LOTONE 0x00002000
* 0x090f = set Player 1 Start Lamp 0x00008000
* 0x0928 - 0x092f = clear 0x0908 - 0x090f
* 0x0910 = set 3SPEED2 0x00010000
* 0x0911 = set 4SPEED2 0x00020000
* 0x0912 = set 5SPEED2 0x00040000
* 0x0913 = set 6SPEED2 0x00080000
* 0x0914 = set 7SPEED2 0x00100000
* 0x0915 = set EXPLOSION2 0x00200000
* 0x0916 = set SCREECH2 0x00400000
* 0x0930 = clear 0x0910 - 0x0917
* 0x0919 = set KLEXPL2 0x02000000
* 0x091b = set MOTOR2 0x08000000
* 0x091d = set HITONE 0x20000000
* 0x091f = set Player 2 Start Lamp 0x80000000
* 0x0938 = clear 0x0918 - 0x091f
*/
set_led_status(space.machine(), 0, state->m_misc_flags & 0x00008000);
set_led_status(space.machine(), 1, state->m_misc_flags & 0x80000000);
discrete_sound_w(state->m_discrete, space, DRAGRACE_MOTOR1_DATA, ~state->m_misc_flags & 0x0000001f); // Speed1 data*
discrete_sound_w(state->m_discrete, space, DRAGRACE_EXPLODE1_EN, (state->m_misc_flags & 0x00000020) ? 1: 0); // Explosion1 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_SCREECH1_EN, (state->m_misc_flags & 0x00000040) ? 1: 0); // Screech1 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_KLEXPL1_EN, (state->m_misc_flags & 0x00000200) ? 1: 0); // KLEXPL1 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_MOTOR1_EN, (state->m_misc_flags & 0x00000800) ? 1: 0); // Motor1 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_MOTOR2_DATA, (~state->m_misc_flags & 0x001f0000) >> 0x10); // Speed2 data*
discrete_sound_w(state->m_discrete, space, DRAGRACE_EXPLODE2_EN, (state->m_misc_flags & 0x00200000) ? 1: 0); // Explosion2 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_SCREECH2_EN, (state->m_misc_flags & 0x00400000) ? 1: 0); // Screech2 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_KLEXPL2_EN, (state->m_misc_flags & 0x02000000) ? 1: 0); // KLEXPL2 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_MOTOR2_EN, (state->m_misc_flags & 0x08000000) ? 1: 0); // Motor2 enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_ATTRACT_EN, (state->m_misc_flags & 0x00001000) ? 1: 0); // Attract enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_LOTONE_EN, (state->m_misc_flags & 0x00002000) ? 1: 0); // LoTone enable
discrete_sound_w(state->m_discrete, space, DRAGRACE_HITONE_EN, (state->m_misc_flags & 0x20000000) ? 1: 0); // HiTone enable
}
inline void ti8x_update_bank(address_space &space, UINT8 bank, UINT8 *base, UINT8 page, bool is_ram)
{
ti85_state *state = space.machine().driver_data<ti85_state>();
static const char *const tag[] = {"bank1", "bank2", "bank3", "bank4"};
state->membank(tag[bank&3])->set_base(base + (0x4000 * page));
if (is_ram)
space.install_write_bank(bank * 0x4000, bank * 0x4000 + 0x3fff, tag[bank&3]);
else
space.nop_write(bank * 0x4000, bank * 0x4000 + 0x3fff);
}
static UINT32 pm_io(address_space &space, int reg, int write, UINT32 d)
{
mdsvp_state *state = space.machine().driver_data<mdsvp_state>();
if (state->m_emu_status & SSP_PMC_SET)
{
state->m_pmac_read[write ? reg + 6 : reg] = state->m_pmc.d;
state->m_emu_status &= ~SSP_PMC_SET;
return 0;
}
// just in case
if (state->m_emu_status & SSP_PMC_HAVE_ADDR) {
state->m_emu_status &= ~SSP_PMC_HAVE_ADDR;
}
if (reg == 4 || (space.device().state().state_int(SSP_ST) & 0x60))
{
#define CADDR ((((mode<<16)&0x7f0000)|addr)<<1)
UINT16 *dram = (UINT16 *)state->m_dram;
if (write)
{
int mode = state->m_pmac_write[reg]>>16;
int addr = state->m_pmac_write[reg]&0xffff;
if ((mode & 0x43ff) == 0x0018) // DRAM
{
int inc = get_inc(mode);
if (mode & 0x0400) {
overwrite_write(&dram[addr], d);
} else dram[addr] = d;
state->m_pmac_write[reg] += inc;
}
else if ((mode & 0xfbff) == 0x4018) // DRAM, cell inc
{
if (mode & 0x0400) {
overwrite_write(&dram[addr], d);
} else dram[addr] = d;
state->m_pmac_write[reg] += (addr&1) ? 31 : 1;
}
else if ((mode & 0x47ff) == 0x001c) // IRAM
{
int inc = get_inc(mode);
((UINT16 *)state->m_iram)[addr&0x3ff] = d;
state->m_pmac_write[reg] += inc;
}
else
{
logerror("ssp FIXME: PM%i unhandled write mode %04x, [%06x] %04x\n",
reg, mode, CADDR, d);
}
}
else
{
void lpc210x_device::write_timer(address_space &space, int timer, int offset, UINT32 data, UINT32 mem_mask)
{
switch (offset * 4)
{
case 0x0c:
COMBINE_DATA(&m_TxPR[timer]);
logerror("%08x Timer %d Prescale Register set to %08x\n", space.device().safe_pc(),timer, m_TxPR[timer]);
break;
default:
logerror("%08x unhandled write timer %d offset %02x data %08x mem_mask %08x\n", space.device().safe_pc(),timer, offset * 4, data, mem_mask);
}
}
void m68307_sim::write_pbdat(address_space &space, UINT16 data, UINT16 mem_mask)
{
int pc = space.device().safe_pc();
m68ki_cpu_core *m68k = m68k_get_safe_token(&space.device());
COMBINE_DATA(&m_pbdat);
if (m68k->m_m68307_portb_w)
{
m68k->m_m68307_portb_w(space, false, data, mem_mask);
}
else
{
logerror("%08x m68307_internal_sim_w %04x (%04x) (Port B (16-bit) Data Register - PBDAT)\n", pc, data,mem_mask);
}
}
static UINT8 srtc_read( address_space &space, UINT16 addr )
{
addr &= 0xffff;
if (addr == 0x2800)
{
if (rtc_state.mode != RTCM_Read)
{
return 0x00;
}
if (rtc_state.index < 0)
{
srtc_update_time(space.machine());
rtc_state.index++;
return 0x0f;
}
else if (rtc_state.index > 12)
{
rtc_state.index = -1;
return 0x0f;
}
else
{
return rtc_state.ram[rtc_state.index++];
}
}
return snes_open_bus_r(space, 0);
}
void artmagic_from_shiftreg(address_space &space, offs_t address, UINT16 *data)
{
artmagic_state *state = space.machine().driver_data<artmagic_state>();
UINT16 *vram = address_to_vram(state, &address);
if (vram)
memcpy(&vram[address], data, TOBYTE(0x2000));
}
uint16_t gaelco_decrypt(address_space &space, int offset, int data, int param1, int param2)
{
static int lastpc, lastoffset, lastencword, lastdecword;
int thispc = space.device().safe_pc();
// int savedata = data;
/* check if 2nd half of 32 bit */
if(lastpc == thispc && offset == lastoffset + 1)
{
lastpc = 0;
data = decrypt(param1, param2, lastencword, lastdecword, data);
}
else
{
/* code as 1st word */
lastpc = thispc;
lastoffset = offset;
lastencword = data;
/* high word returned */
data = decrypt(param1, param2, 0, 0, data);
lastdecword = data;
// logerror("%s : data1 = %4x > %4x @ %8x\n",space.machine().describe_context(),savedata,data,lastoffset);
}
return data;
}
uint8_t a2bus_hsscsi_device::read_c0nx(address_space &space, uint8_t offset)
{
switch (offset)
{
case 0:
case 1:
case 2:
case 3:
case 4:
case 5:
case 6:
case 7:
// printf("Read 5380 @ %x\n", offset);
return m_ncr5380->read(space, offset);
case 0xc:
return 0x00; // indicate watchdog?
case 0xe: // code at cf32 wants to RMW this without killing the ROM bank
return m_c0ne;
case 0xf:
return m_c0nf;
default:
printf("Read c0n%x (PC=%x)\n", offset, space.device().safe_pc());
break;
}
return 0xff;
}
static UINT16 exterm_trackball_port_r(address_space &space, int which, UINT16 mem_mask)
{
exterm_state *state = space.machine().driver_data<exterm_state>();
UINT16 port;
/* Read the fake input port */
UINT8 trackball_pos = state->ioport(which ? "DIAL1" : "DIAL0")->read();
/* Calculate the change from the last position. */
UINT8 trackball_diff = state->m_trackball_old[which] - trackball_pos;
/* Store the new position for the next comparision. */
state->m_trackball_old[which] = trackball_pos;
/* Move the sign bit to the high bit of the 6-bit trackball count. */
if (trackball_diff & 0x80)
trackball_diff |= 0x20;
/* Keep adding the changes. The counters will be reset later by a hardware write. */
state->m_aimpos[which] = (state->m_aimpos[which] + trackball_diff) & 0x3f;
/* Combine it with the standard input bits */
port = state->ioport(which ? "P2" : "P1")->read();
return (port & 0xc0ff) | (state->m_aimpos[which] << 8);
}
UINT8 c64_currah_speech_cartridge_device::c64_cd_r(address_space &space, offs_t offset, UINT8 data, int sphi2, int ba, int roml, int romh, int io1, int io2)
{
if (!romh)
{
data = m_romh[offset & 0x1fff];
}
else if (!io1)
{
/*
bit description
0
1
2
3
4
5
6
7 SBY
*/
data = m_nsp->sby_r() << 7;
}
if (!space.debugger_access() && (offset == 0xa7f0))
{
m_game = !m_game;
m_exrom = !m_exrom;
}
return data;
}
/* read status port */
static int I8741_status_r(address_space &space, int num)
{
I8741 *st = &taito8741[num];
taito8741_update(space, num);
LOG(("%s:8741-%d ST Read %02x\n",space.machine().describe_context(),num,st->status));
return st->status;
}
void eolith_speedup_read(address_space &space)
{
/* for debug */
//if ((space.device().safe_pc()!=eolith_speedup_address) && (eolith_vblank!=1) )
// printf("%s:eolith speedup_read data %02x\n",space.machine().describe_context(), eolith_vblank);
if (eolith_vblank==0 && eolith_scanline < eolith_speedup_resume_scanline)
{
int pc = space.device().safe_pc();
if ((pc==eolith_speedup_address) || (pc==eolith_speedup_address2))
{
space.device().execute().spin_until_trigger(1000);
}
}
}
UINT8 tms34061_device::register_r(address_space &space, offs_t offset)
{
int regnum = offset >> 2;
UINT16 result;
/* extract the correct portion of the register */
if (regnum < ARRAY_LENGTH(m_regs))
result = m_regs[regnum];
else
result = 0xffff;
/* special cases: */
switch (regnum)
{
/* status register: a read here clears it */
case TMS34061_STATUS:
m_regs[TMS34061_STATUS] = 0;
update_interrupts();
break;
/* vertical count register: return the current scanline */
case TMS34061_VERCOUNTER:
result = (m_screen->vpos()+ m_regs[TMS34061_VERENDBLNK]) % m_regs[TMS34061_VERTOTAL];
break;
}
/* log it */
if (VERBOSE) logerror("%s:tms34061 %s read = %04X\n", space.machine().describe_context(), regnames[regnum], result);
return (offset & 0x02) ? (result >> 8) : result;
}
// helper function to map rom capsules
void px4_state::install_rom_capsule(address_space &space, int size, const char *region)
{
// ram, part 1
space.install_ram(0x0000, 0xdfff - size, 0, 0, m_ram->pointer());
// actual rom data, part 1
space.install_rom(0xe000 - size, 0xffff, 0, 0, memregion(region)->base() + (size - 0x2000));
// rom data, part 2
if (size != 0x2000)
{
space.install_rom(0x10000 - size, 0xdfff, 0, 0, memregion(region)->base());
}
// ram, continued
space.install_ram(0xe000, 0xffff, 0, 0, m_ram->pointer() + 0xe000);
}
static void console_write(address_space &space, UINT8 data)
{
dac_device *dac = space.machine().device<dac_device>("dac");
if (data & 0x08)
dac->write_unsigned8((UINT8)-120);
else
dac->write_unsigned8(+120);
}
void a2bus_hsscsi_device::write_c0nx(address_space &space, uint8_t offset, uint8_t data)
{
switch (offset)
{
case 0:
case 1:
case 2:
case 3:
case 4:
case 5:
case 6:
case 7:
// printf("%02x to 5380 reg %x\n", data, offset);
m_ncr5380->write(space, offset, data);
break;
#if 0
case 8: // DMA address low
break;
case 9: // DMA address high
break;
case 0xa: // DMA count low
break;
case 0xb: // DMA count high
break;
case 0xc: // DMA control
break;
#endif
case 0xd: // DMA enable / reset
printf("%02x to DMA enable/reset\n", data);
if (data & 0x2)
{
// printf("Resetting SCSI: %02x at %x\n", data, space.device().safe_pc());
m_ncr5380->reset();
}
break;
case 0xe:
m_c0ne = data;
m_rombank = (data & 0x1f) * 0x400;
printf("c0ne to %x (ROM bank %x)\n", data & 0x1f, m_rombank);
break;
case 0xf:
m_c0nf = data;
m_rambank = (data & 0x7) * 0x400;
printf("c0nf to %x (RAM bank %x)\n", data & 0x7, m_rambank);
break;
default:
printf("Write %02x to c0n%x (PC=%x)\n", data, offset, space.device().safe_pc());
break;
}
}
void a2bus_pcxporter_device::write_c0nx(address_space &space, uint8_t offset, uint8_t data)
{
switch (offset)
{
default:
printf("Write %02x to c0n%x (PC=%x)\n", data, offset, space.device().safe_pc());
break;
}
}
/* Write command port */
static void I8741_command_w(address_space &space, int num, int data)
{
I8741 *st = &taito8741[num];
LOG(("%s:8741-%d CMD Write %02x\n",space.machine().describe_context(),num,data));
st->fromCmd = data;
st->status |= 0x04;
/* update chip */
taito8741_update(space,num);
}
static void leland_video_addr_w(address_space &space, int offset, int data, int num)
{
leland_state *drvstate = space.machine().driver_data<leland_state>();
struct vram_state_data *state = drvstate->m_vram_state + num;
if (!offset)
state->m_addr = (state->m_addr & 0xfe00) | ((data << 1) & 0x01fe);
else
state->m_addr = ((data << 9) & 0xfe00) | (state->m_addr & 0x01fe);
}
INLINE void galpani2_bg8_w(address_space &space, offs_t offset, UINT16 data, UINT16 mem_mask, int _n_)
{
galpani2_state *state = space.machine().driver_data<galpani2_state>();
int x,y,pen;
UINT16 newword = COMBINE_DATA(&state->m_bg8[_n_][offset]);
pen = newword & 0xff;
x = (offset % 512); /* 512 x 256 */
y = (offset / 512);
state->m_bg8_bitmap[_n_]->pix16(y, x) = 0x4000 + pen;
}