static WRITE8_DEVICE_HANDLER(ppi0_b_w)
{
output_set_lamp_value(8, !BIT(data,7)); /* Stand Light */
output_set_lamp_value(9, !BIT(data,6)); /* Cancel Light */
coin_counter_w(device->machine, 0, BIT(data,1));
coin_lockout_w(device->machine, 0, BIT(data,5));
coin_lockout_w(device->machine, 1, BIT(data,4));
}
ADDRESS_MAP_END
// Face-Off Memory Map
WRITE8_MEMBER(chexx_state::lamp_w)
{
m_lamp = data;
output_set_lamp_value(0, BIT(m_lamp,0));
output_set_lamp_value(1, BIT(m_lamp,1));
}
static WRITE16_HANDLER( roulette_out_w )
{
/*
-----------------------------------
--- Croupier (Roulette) Outputs ---
-----------------------------------
0x708006 - 0x708007
===================
0x0000 - Normal State (lamps off).
0x0001 - Start lamp.
0x0002 - Bet lamp.
0x0008 - Unknown (always activated).
- Lbits -
7654 3210
=========
---- ---x Start lamp.
---- --x- Bet lamp.
---- x--- Unknown (always activated).
*/
output_set_lamp_value(1, (data & 1)); /* Lamp 1 - START */
output_set_lamp_value(2, (data >> 1) & 1); /* Lamp 2 - BET */
}
void device_output_interface::set_lamp_value(int value)
{
if (m_output_name)
output_set_value(m_output_name, value);
else
output_set_lamp_value(m_output_index, value);
}
void kas89_state::machine_start()
{
m_maincpu = machine().device<cpu_device>("maincpu");
m_audiocpu = machine().device<cpu_device>("audiocpu");
output_set_lamp_value(37, 0); /* turning off the operator led */
}
static MACHINE_START( kas89 )
{
kas89_state *state = machine.driver_data<kas89_state>();
state->m_maincpu = machine.device("maincpu");
state->m_audiocpu = machine.device("audiocpu");
output_set_lamp_value(37, 0); /* turning off the operator led */
}
static WRITE8_HANDLER( output_port_1_w )
{
snookr10_state *state = space->machine().driver_data<snookr10_state>();
/*
----------------------------
PORT 0x5001 ;OUTPUT PORT B
----------------------------
BIT 0 = Lamps matrix, state->m_bit4
BIT 1 = Lamps matrix, state->m_bit5
BIT 2 =
BIT 3 =
BIT 4 =
BIT 5 =
BIT 6 =
BIT 7 =
----------------------------
*/
state->m_outporth = data << 8;
state->m_bit0 = (state->m_outportl >> 1) & 1;
state->m_bit1 = (state->m_outportl >> 3) & 1;
state->m_bit2 = (state->m_outportl >> 5) & 1;
state->m_bit3 = (state->m_outportl >> 7) & 1;
state->m_bit4 = data & 1;
state->m_bit5 = (data >> 1) & 1;
output_set_lamp_value(0, state->m_bit5); /* Lamp 0 - START */
output_set_lamp_value(1, state->m_bit2); /* Lamp 1 - CANCEL */
output_set_lamp_value(2, state->m_bit0); /* Lamp 2 - STOP1 */
output_set_lamp_value(3, state->m_bit1); /* Lamp 3 - STOP2 */
output_set_lamp_value(4, state->m_bit0); /* Lamp 4 - STOP3 */
output_set_lamp_value(5, state->m_bit3); /* Lamp 5 - STOP4 */
output_set_lamp_value(6, state->m_bit4); /* Lamp 6 - STOP5 */
}
static WRITE8_HANDLER( output_port_0_w )
{
/* ---------------
Pull Tabs lamps
---------------
0x00 - Default State.
0x01 - Hold3.
0x04 - Hold5.
0x08 - Ante/Bet.
- bits -
7654 3210
---------
.... ...x ---> Hold3.
.... .x.. ---> Hold5.
.... x... ---> Ante/Bet.
Tab1 = Hold1
Tab2 = Hold3
Tab3 = Hold5
---------------
Poker 4-1 lamps
---------------
0x00 - Default State.
0x01 - Hold3.
0x02 - Hold4.
0x04 - Hold5/DDown.
0x08 - Ante/Bet.
0x10 - Start.
0x20 - Deal/Hit.
0x40 - Stand/FreeBonusDraw.
- bits -
7654 3210
---------
.... ...x --> Hold3.
.... ..x. --> Hold4.
.... .x.. --> Hold5/DDown.
.... x... --> Ante/Bet.
...x .... --> Start.
..x. .... --> Deal/Hit.
.x.. .... --> Stand/FreeBonusDraw.
*/
output_set_lamp_value(0, (data) & 1); /* hold3 lamp */
output_set_lamp_value(1, (data >> 1) & 1); /* hold4 lamp */
output_set_lamp_value(2, (data >> 2) & 1); /* hold5 lamp */
output_set_lamp_value(3, (data >> 3) & 1); /* ante/bet lamp */
output_set_lamp_value(4, (data >> 4) & 1); /* start lamp */
output_set_lamp_value(5, (data >> 5) & 1); /* deal/hit lamp */
output_set_lamp_value(6, (data >> 6) & 1); /* stand/fbdraw lamp */
}
static WRITE8_DEVICE_HANDLER(ppi0_a_w)
{
//popmessage("Lamps: %d %d %d %d %d %d %d", BIT(data,7), BIT(data,6), BIT(data,5), BIT(data,4), BIT(data,3), BIT(data,2), BIT(data,1) );
output_set_lamp_value(0, !BIT(data,7)); /* Display Light 1 */
output_set_lamp_value(1, !BIT(data,6)); /* Display Light 2 */
output_set_lamp_value(2, !BIT(data,5)); /* Display Light 3 */
output_set_lamp_value(3, !BIT(data,4)); /* Display Light 4 */
output_set_lamp_value(4, !BIT(data,3)); /* Display Light 5 */
output_set_lamp_value(5, !BIT(data,2)); /* Bet Light */
output_set_lamp_value(6, !BIT(data,1)); /* Deal Light */
output_set_lamp_value(7, !BIT(data,0)); /* Draw Light */
}
void cc40_state::update_lcd_indicator(UINT8 y, UINT8 x, int state)
{
// reference _________________...
// output# |10 11 12 13 14 0 1 2 3 4
// above | < SHIFT CTL FN DEG RAD GRAD I/O UCL >
// ---- raw lcd screen here ----
// under | ERROR v v v v v v _LOW
// output# | 60 61 62 63 50 51 52 53
output_set_lamp_value(y * 10 + x, state);
}
void ti74_state::update_lcd_indicator(UINT8 y, UINT8 x, int state)
{
// TI-74 ref._________________...
// output# |10 11 12 13 14 2 3 4
// above | < SHIFT CTL FN I/O UCL _LOW >
// ---- raw lcd screen here ----
// under | BASIC CALC DEG RAD GRAD STAT
// output# | 63 64 1 62 53 54
//
// TI-95 ref._________________...
// output# | 40 43 41 44 42 12 11 10/13/14 0 1 2
// above | _LOW _ERROR 2nd INV ALPHA LC INS DEGRAD HEX OCT I/O
// screen- | _P{70} <{71} RUN{3}
// area . SYS{4}
output_set_lamp_value(y * 10 + x, state);
}
static WRITE16_HANDLER( scmatto_out_w )
{
/*
----------------------------------------
--- Scacco Matto / Space Win Outputs ---
----------------------------------------
0x0000 - Normal State (lamps off).
0x0001 - Hold 1 lamp.
0x0002 - Hold 2 lamp.
0x0004 - Hold 3 lamp.
0x0008 - Hold 4 lamp.
0x0010 - Hold 5 lamp.
0x0020 - Start lamp.
0x0040 - Bet lamp.
0x1000 - Hopper out.
0x2000 - Coin counter.
- Lbits -
7654 3210
=========
---- ---x Hold1 lamp.
---- --x- Hold2 lamp.
---- -x-- Hold3 lamp.
---- x--- Hold4 lamp.
---x ---- Hold5 lamp.
--x- ---- Start lamp.
-x-- ---- Bet lamp.
- Hbits -
7654 3210
=========
---x ---- Hopper out.
--x- ---- Coin counter.
*/
output_set_lamp_value(1, (data & 1)); /* Lamp 1 - HOLD 1 */
output_set_lamp_value(2, (data >> 1) & 1); /* Lamp 2 - HOLD 2 */
output_set_lamp_value(3, (data >> 2) & 1); /* Lamp 3 - HOLD 3 */
output_set_lamp_value(4, (data >> 3) & 1); /* Lamp 4 - HOLD 4 */
output_set_lamp_value(5, (data >> 4) & 1); /* Lamp 5 - HOLD 5 */
output_set_lamp_value(6, (data >> 5) & 1); /* Lamp 6 - START */
output_set_lamp_value(7, (data >> 6) & 1); /* Lamp 7 - BET */
coin_counter_w(space->machine(), 0, data & 0x2000);
}
/*
--x- ---- ---- ---- Coin Counter
---- ---- -x-- ---- Prize
---- ---- --x- ---- Start
---- ---- ---x ---- Hold 5
---- ---- ---- x--- Hold 4
---- ---- ---- -x-- Hold 3
---- ---- ---- --x- Hold 2
---- ---- ---- ---x Hold 1
*/
static WRITE16_HANDLER( output_w )
{
int i;
for(i=0;i<3;i++)
coin_counter_w(space->machine(), i, data & 0x2000);
output_set_lamp_value(0, (data) & 1); /* HOLD1 */
output_set_lamp_value(1, (data >> 1) & 1); /* HOLD2 */
output_set_lamp_value(2, (data >> 2) & 1); /* HOLD3 */
output_set_lamp_value(3, (data >> 3) & 1); /* HOLD4 */
output_set_lamp_value(4, (data >> 4) & 1); /* HOLD5 */
output_set_lamp_value(5, (data >> 5) & 1); /* START */
output_set_lamp_value(6, (data >> 6) & 1); /* PREMIO */
// popmessage("%04x\n",data);
}
static WRITE8_DEVICE_HANDLER( output_port_1_w )
{
/* ----------------
Lamps & Counters
----------------
- bits -
7654 3210
---------
.... ...x --> Hold2 lamp.
.... ..x. --> Hold1 lamp.
.x.. .... --> Coin counter (inverted).
x... .... --> Inverted pulse. Related to counters.
*/
output_set_lamp_value(7, (data) & 1); /* hold2 lamp */
output_set_lamp_value(8, (data >> 1) & 1); /* hold1 lamp */
}
static WRITE16_HANDLER( sderby_out_w )
{
/*
---------------------------
--- Super Derby Outputs ---
---------------------------
0x0000 - Normal State (lamps off).
0x0001 - Start lamp.
0x0002 - Bet lamp.
0x0100 - Ticket dispenser out.
0x0800 - Unknown (always activated).
0x1000 - Hopper out.
0x2000 - Coin counter.
0x4000 - Unknown.
0x8000 - End of Race lamp.
- Lbits -
7654 3210
=========
---- ---x Start lamp.
---- --x- Bet lamp.
- Hbits -
7654 3210
=========
---- ---x Ticket dispenser out.
---- x--- unknown (always activated).
---x ---- Hopper out.
--x- ---- Coin counter.
-x-- ---- unknown.
x--- ---- End of Race lamp.
*/
output_set_lamp_value(1, (data & 1)); /* Lamp 1 - START */
output_set_lamp_value(2, (data >> 1) & 1); /* Lamp 2 - BET */
output_set_lamp_value(3, (data >> 15) & 1); /* Lamp 3 - END OF RACE */
coin_counter_w(space->machine(), 0, data & 0x2000);
}
static WRITE8_HANDLER( sound_comm_w )
{
/* This port is used mainly for sound latch, but bit6 activates a
sort of output port (maybe for a sign?)
bit6 = 0 ; sound latch.
bit6 = 1 ; outport data.
Once the ball is landed, the outport writes the winner number
14 times (as an intermitent way).
When the attract starts, just before the game title appear, $3f
is written to the outport... (maybe to clear the possible sign).
*/
kas89_state *state = space->machine().driver_data<kas89_state>();
if (data & 0x40)
{
state->m_outdata = (data ^ 0x40); /* Pure data. Without the activator bit */
if (state->m_outdata == 0x3f)
{
UINT8 i;
for ( i = 0; i < 37; i++ )
{
output_set_lamp_value(i, 0); /* All roulette LEDs OFF */
}
}
logerror("Outdata: Write %02x\n", state->m_outdata);
}
else
{
soundlatch_w(space, 0, data);
device_set_input_line(state->m_audiocpu, 0, ASSERT_LINE );
}
}
static WRITE8_HANDLER( output_port_0_w )
{
snookr10_state *state = space->machine().driver_data<snookr10_state>();
/*
----------------------------
PORT 0x5000 ;OUTPUT PORT A
----------------------------
BIT 0 = Coin counter.
BIT 1 = Lamps matrix, state->m_bit0.
BIT 2 = Payout x10.
BIT 3 = Lamps matrix, state->m_bit1.
BIT 4 = Key in.
BIT 5 = Lamps matrix, state->m_bit2.
BIT 6 =
BIT 7 = Lamps matrix, state->m_bit3.
----------------------------
*/
state->m_outportl = data;
state->m_bit0 = (data >> 1) & 1;
state->m_bit1 = (data >> 3) & 1;
state->m_bit2 = (data >> 5) & 1;
state->m_bit3 = (data >> 7) & 1;
state->m_bit4 = state->m_outporth & 1;
state->m_bit5 = (state->m_outporth >> 1) & 1;
output_set_lamp_value(0, state->m_bit5); /* Lamp 0 - START */
output_set_lamp_value(1, state->m_bit2); /* Lamp 1 - CANCEL */
output_set_lamp_value(2, state->m_bit0); /* Lamp 2 - STOP1 */
output_set_lamp_value(3, state->m_bit1); /* Lamp 3 - STOP2 */
output_set_lamp_value(4, state->m_bit0); /* Lamp 4 - STOP3 */
output_set_lamp_value(5, state->m_bit3); /* Lamp 5 - STOP4 */
output_set_lamp_value(6, state->m_bit4); /* Lamp 6 - STOP5 */
coin_counter_w(space->machine(), 0, data & 0x01); /* Coin in */
coin_counter_w(space->machine(), 1, data & 0x10); /* Key in */
coin_counter_w(space->machine(), 2, data & 0x04); /* Payout x10 */
// logerror("high: %04x - low: %X \n", state->m_outporth, state->m_outportl);
// popmessage("written : %02X", data);
}
static WRITE16_HANDLER( galaxi_500004_w )
{
galaxi_state *state = space->machine().driver_data<galaxi_state>();
if (ACCESSING_BITS_0_7)
{
/*
- Lbits -
7654 3210
=========
---- ---x Hold1 lamp.
---- --x- Hold2 lamp.
---- -x-- Hold3 lamp.
---- x--- Hold4 lamp.
---x ---- Hold5 lamp.
--x- ---- Start lamp.
-x-- ---- Payout.
*/
output_set_lamp_value(1, (data & 1)); /* Lamp 1 - HOLD 1 */
output_set_lamp_value(2, (data >> 1) & 1); /* Lamp 2 - HOLD 2 */
output_set_lamp_value(3, (data >> 2) & 1); /* Lamp 3 - HOLD 3 */
output_set_lamp_value(4, (data >> 3) & 1); /* Lamp 4 - HOLD 4 */
output_set_lamp_value(5, (data >> 4) & 1); /* Lamp 5 - HOLD 5 */
output_set_lamp_value(6, (data >> 5) & 1); /* Lamp 6 - START */
}
if (ACCESSING_BITS_8_15)
{
state->m_ticket = data & 0x0100;
state->m_hopper = data & 0x1000;
coin_counter_w(space->machine(), 0, data & 0x2000); // coins
}
COMBINE_DATA(&state->m_out[2]);
show_out(space->machine());
}
/* CRTC address: $3E01; register: $3E03
CRTC registers: 2f 20 25 64 26 00 20 23 00 07 00 00 00
screen total: (0x2f+1)*8 (0x26+1)*(0x07+1) ---> 384 x 312
visible area: 0x20 0x20 ---------------------> 256 x 256
*/
ADDRESS_MAP_END
WRITE8_MEMBER(jubilee_state::unk_w)
{
/* In particular, the interrupt from above must be cleared. We assume that
this is done by one of the output lines, and from the 32 lines that are
set right after an interrupt is serviced, all are set to 0, and only one
is set to one. Maybe this one clears the interrupt.
TODO: Check the schematics.
*/
if (((offset<<1)==0x0ce2)&&(data==1))
{
m_maincpu->set_input_line(INT_9980A_LEVEL1, CLEAR_LINE);
}
/* Inputs Multiplexion...
Should be 0CC0 added as selector?
Was tested and didn't see any input driven by its state.
This doesn't mean that couln't be possible.
*/
if (((offset<<1)==0x0cc2)&&(data==1))
{
mux_sel = 1;
}
if (((offset<<1)==0x0cc4)&&(data==1))
{
mux_sel = 2;
}
if (((offset<<1)==0x0cc6)&&(data==1))
{
mux_sel = 3;
}
/* Lamps, sounds and other writes:
0CD0 = HOLD3 lamp.
0CD2 = HOLD2 lamp.
0CD4 = HOLD1 lamp.
Can't find more. Could be a kind of multiplexion.
The input selectors don't seems to be completely involved,
but 0CC6 is set to 1 when hold 1-2-3 turn on, thing that
could be normal due to the end value for the state routine.
Writes to analize:
0CC0 (write too often... maybe input selector)
0CCC (write a bit less often...)
0CE6 = could be either a 'Insert Coin' lamp,
or coin lockout (inverted), since is active
low during the game. when the game is over,
is set to 1.
Also...
Pressing cancel ---> writes 1 to 0CE8
Pressing bet ------> writes 1 to 0CEA
Pressing hold4 ----> writes 1 to 0CEC
Pressing hold5 ----> writes 1 to 0CEE
Pressing hand pay -> writes 1 to 0CF0
Pressing hold1 ----> writes 1 to 0CF2
Pressing hold2 ----> writes 1 to 0CF4
Pressing hold3 ----> writes 1 to 0CF6
Pressing reset ----> writes 1 to 0CF8
Pressing deal -----> writes 1 to 0D00
(See below, in sound writes...)
*/
if (((offset<<1)==0x0ccc)&&(data==1))
{
muxlamps = 1;
}
if (((offset<<1)==0x0ccc)&&(data==0))
{
muxlamps = 2;
}
/* the following structure has 3 states, because I tested the inputs
selectors 0CC2-0CC4-0CC6 as lamps multiplexers unsuccessfuly.
*/
if (((offset<<1)==0x0cd0)&&(data==1))
{
if (muxlamps == 1)
{
output_set_lamp_value(0, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 0 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 0");
}
if (muxlamps == 2)
{
output_set_lamp_value(3, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 3 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 3");
}
if (muxlamps == 3)
{
output_set_lamp_value(6, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 6 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 6");
}
}
if (((offset<<1)==0x0cd2)&&(data==1))
{
if (muxlamps == 1)
{
output_set_lamp_value(1, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 1 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 1");
}
if (muxlamps == 2)
{
output_set_lamp_value(4, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 4 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 4");
}
if (muxlamps == 3)
{
output_set_lamp_value(7, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 7 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 7");
}
}
if (((offset<<1)==0x0cd4)&&(data==1))
{
if (muxlamps == 1)
{
output_set_lamp_value(2, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 2 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 2");
}
if (muxlamps == 2)
{
output_set_lamp_value(5, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 5 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 5");
}
if (muxlamps == 3)
{
output_set_lamp_value(8, (data & 1)); /* lamp */
logerror("CRU: LAAAAAAMP 8 write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("LAMP 8");
}
}
/* Sound writes?...
In case of discrete circuitry, the following writes
could be the trigger for each sound.
Pressing cancel ---> writes 1 to 0CE8
Pressing bet ------> writes 1 to 0CEA
Pressing hold4 ----> writes 1 to 0CEC
Pressing hold5 ----> writes 1 to 0CEE
Pressing hand pay -> writes 1 to 0CF0
Pressing hold1 ----> writes 1 to 0CF2
Pressing hold2 ----> writes 1 to 0CF4
Pressing hold3 ----> writes 1 to 0CF6
Pressing reset ----> writes 1 to 0CF8
Pressing deal -----> writes 1 to 0D00
*/
if (((offset<<1)==0x0ce8)&&(data==1))
{
logerror("CRU: SOUND 'CANCEL' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'CANCEL': %04x", offset<<1);
}
if (((offset<<1)==0x0cea)&&(data==1))
{
logerror("CRU: SOUND 'BET' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'BET': %04x", offset<<1);
}
if (((offset<<1)==0x0cec)&&(data==1))
{
logerror("CRU: SOUND 'HOLD4' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'HOLD 4': %04x", offset<<1);
}
if (((offset<<1)==0x0cee)&&(data==1))
{
logerror("CRU: SOUND 'HOLD5' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'HOLD 5': %04x", offset<<1);
}
if (((offset<<1)==0x0cf0)&&(data==1))
{
logerror("CRU: SOUND 'HAND PAY' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'HAND PAY': %04x", offset<<1);
}
if (((offset<<1)==0x0cf2)&&(data==1))
{
logerror("CRU: SOUND 'HOLD1' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'HOLD 1': %04x", offset<<1);
}
if (((offset<<1)==0x0cf4)&&(data==1))
{
logerror("CRU: SOUND 'HOLD2' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'HOLD 2': %04x", offset<<1);
}
if (((offset<<1)==0x0cf6)&&(data==1))
{
logerror("CRU: SOUND 'HOLD3' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'HOLD 3': %04x", offset<<1);
}
if (((offset<<1)==0x0cf8)&&(data==1))
{
logerror("CRU: SOUND 'RESET' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'RESET': %04x", offset<<1);
}
if (((offset<<1)==0x0d00)&&(data==1))
{
logerror("CRU: SOUND 'DEAL' write to address %04x: %d\n", offset<<1, data & 1);
// popmessage("SOUND 'DEAL': %04x", offset<<1);
}
/* for debug purposes */
logerror("CRU write to address %04x: %d\n", offset<<1, data & 1);
}
void kas89_state::machine_start()
{
output_set_lamp_value(37, 0); /* turning off the operator led */
}
static WRITE8_HANDLER( led_mux_select_w )
{
/* - bits -
7654 3210
---x xxxx LEDs Set selector.
*/
kas89_state *state = space->machine().driver_data<kas89_state>();
state->m_leds_mux_selector = data;
UINT8 i;
for ( i = 0; i < 37; i++ )
{
output_set_lamp_value(i, 0); /* All LEDs OFF */
}
switch(data)
{
case 0x00:
{
for ( i = 0; i < 37; i++ )
{
output_set_lamp_value(i, 0); /* All LEDs OFF */
}
}
case 0x01:
{
output_set_lamp_value(11, (state->m_leds_mux_data >> 0) & 1); /* Number 11 LED */
output_set_lamp_value(36, (state->m_leds_mux_data >> 1) & 1); /* Number 36 LED */
output_set_lamp_value(13, (state->m_leds_mux_data >> 2) & 1); /* Number 13 LED */
output_set_lamp_value(27, (state->m_leds_mux_data >> 3) & 1); /* Number 27 LED */
output_set_lamp_value(06, (state->m_leds_mux_data >> 4) & 1); /* Number 6 LED */
output_set_lamp_value(34, (state->m_leds_mux_data >> 5) & 1); /* Number 34 LED */
output_set_lamp_value(17, (state->m_leds_mux_data >> 6) & 1); /* Number 17 LED */
output_set_lamp_value(25, (state->m_leds_mux_data >> 7) & 1); /* Number 25 LED */
break;
}
case 0x02:
{
output_set_lamp_value( 2, (state->m_leds_mux_data >> 0) & 1); /* Number 2 LED */
output_set_lamp_value(21, (state->m_leds_mux_data >> 1) & 1); /* Number 21 LED */
output_set_lamp_value( 4, (state->m_leds_mux_data >> 2) & 1); /* Number 4 LED */
output_set_lamp_value(19, (state->m_leds_mux_data >> 3) & 1); /* Number 19 LED */
output_set_lamp_value(15, (state->m_leds_mux_data >> 4) & 1); /* Number 15 LED */
output_set_lamp_value(32, (state->m_leds_mux_data >> 5) & 1); /* Number 32 LED */
output_set_lamp_value( 0, (state->m_leds_mux_data >> 6) & 1); /* Number 0 LED */
output_set_lamp_value(26, (state->m_leds_mux_data >> 7) & 1); /* Number 26 LED */
break;
}
case 0x04:
{
output_set_lamp_value( 3, (state->m_leds_mux_data >> 0) & 1); /* Number 3 LED */
output_set_lamp_value(35, (state->m_leds_mux_data >> 1) & 1); /* Number 35 LED */
output_set_lamp_value(12, (state->m_leds_mux_data >> 2) & 1); /* Number 12 LED */
output_set_lamp_value(28, (state->m_leds_mux_data >> 3) & 1); /* Number 28 LED */
output_set_lamp_value( 7, (state->m_leds_mux_data >> 4) & 1); /* Number 7 LED */
output_set_lamp_value(29, (state->m_leds_mux_data >> 5) & 1); /* Number 29 LED */
output_set_lamp_value(18, (state->m_leds_mux_data >> 6) & 1); /* Number 18 LED */
break;
}
case 0x08:
{
output_set_lamp_value(22, (state->m_leds_mux_data >> 0) & 1); /* Number 22 LED */
output_set_lamp_value( 9, (state->m_leds_mux_data >> 1) & 1); /* Number 9 LED */
output_set_lamp_value(31, (state->m_leds_mux_data >> 2) & 1); /* Number 31 LED */
output_set_lamp_value(14, (state->m_leds_mux_data >> 3) & 1); /* Number 14 LED */
output_set_lamp_value(20, (state->m_leds_mux_data >> 4) & 1); /* Number 20 LED */
output_set_lamp_value( 1, (state->m_leds_mux_data >> 5) & 1); /* Number 1 LED */
output_set_lamp_value(33, (state->m_leds_mux_data >> 6) & 1); /* Number 33 LED */
break;
}
case 0x10:
{
output_set_lamp_value(16, (state->m_leds_mux_data >> 0) & 1); /* Number 16 LED */
output_set_lamp_value(24, (state->m_leds_mux_data >> 1) & 1); /* Number 24 LED */
output_set_lamp_value( 5, (state->m_leds_mux_data >> 2) & 1); /* Number 5 LED */
output_set_lamp_value(10, (state->m_leds_mux_data >> 3) & 1); /* Number 10 LED */
output_set_lamp_value(23, (state->m_leds_mux_data >> 4) & 1); /* Number 23 LED */
output_set_lamp_value( 8, (state->m_leds_mux_data >> 5) & 1); /* Number 8 LED */
output_set_lamp_value(30, (state->m_leds_mux_data >> 6) & 1); /* Number 30 LED */
break;
}
case 0xff:
{
for ( i = 0; i < 37; i++ )
{
output_set_lamp_value(i, 1); /* All LEDs ON */
}
}
}
}
void kenseim_state::set_leds(UINT32 ledstates)
{
for (int i=0; i<20; i++)
output_set_lamp_value(i+1, ((ledstates & (1 << i)) != 0));
}