mame/src/emu/ioport.h
2012-05-21 06:24:12 +00:00

1714 lines
56 KiB
C++

/***************************************************************************
ioport.h
Input/output port handling.
****************************************************************************
Copyright Aaron Giles
All rights reserved.
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are
met:
* Redistributions of source code must retain the above copyright
notice, this list of conditions and the following disclaimer.
* Redistributions in binary form must reproduce the above copyright
notice, this list of conditions and the following disclaimer in
the documentation and/or other materials provided with the
distribution.
* Neither the name 'MAME' nor the names of its contributors may be
used to endorse or promote products derived from this software
without specific prior written permission.
THIS SOFTWARE IS PROVIDED BY AARON GILES ''AS IS'' AND ANY EXPRESS OR
IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL AARON GILES BE LIABLE FOR ANY DIRECT,
INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
(INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR
SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT,
STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING
IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
POSSIBILITY OF SUCH DAMAGE.
***************************************************************************/
#pragma once
#ifndef __EMU_H__
#error Dont include this file directly; include emu.h instead.
#endif
#ifndef __INPTPORT_H__
#define __INPTPORT_H__
#include <time.h>
//**************************************************************************
// CONSTANTS
//**************************************************************************
// input ports support up to 32 bits each
typedef UINT32 ioport_value;
// active high/low values for input ports
const ioport_value IP_ACTIVE_HIGH = 0x00000000;
const ioport_value IP_ACTIVE_LOW = 0xffffffff;
// maximum number of players supported
const int MAX_PLAYERS = 8;
// INP file parameters
const UINT32 INP_HEADER_SIZE = 64;
const UINT32 INP_HEADER_MAJVERSION = 3;
const UINT32 INP_HEADER_MINVERSION = 0;
// unicode constants
const unicode_char UCHAR_PRIVATE = 0x100000;
const unicode_char UCHAR_SHIFT_1 = UCHAR_PRIVATE + 0;
const unicode_char UCHAR_SHIFT_2 = UCHAR_PRIVATE + 1;
const unicode_char UCHAR_SHIFT_BEGIN = UCHAR_SHIFT_1;
const unicode_char UCHAR_SHIFT_END = UCHAR_SHIFT_2;
const unicode_char UCHAR_MAMEKEY_BEGIN = UCHAR_PRIVATE + 2;
// sequence types for input_port_seq() call
enum input_seq_type
{
SEQ_TYPE_INVALID = -1,
SEQ_TYPE_STANDARD = 0,
SEQ_TYPE_INCREMENT,
SEQ_TYPE_DECREMENT,
SEQ_TYPE_TOTAL
};
DECLARE_ENUM_OPERATORS(input_seq_type)
// crosshair types
enum crosshair_axis_t
{
CROSSHAIR_AXIS_NONE = 0,
CROSSHAIR_AXIS_X,
CROSSHAIR_AXIS_Y
};
// groups for input ports
enum ioport_group
{
IPG_UI = 0,
IPG_PLAYER1,
IPG_PLAYER2,
IPG_PLAYER3,
IPG_PLAYER4,
IPG_PLAYER5,
IPG_PLAYER6,
IPG_PLAYER7,
IPG_PLAYER8,
IPG_OTHER,
IPG_TOTAL_GROUPS,
IPG_INVALID
};
// various input port types
enum ioport_type
{
// pseudo-port types
IPT_INVALID = 0,
IPT_UNUSED,
IPT_END,
IPT_UNKNOWN,
IPT_PORT,
IPT_DIPSWITCH,
IPT_CONFIG,
// start buttons
IPT_START1,
IPT_START2,
IPT_START3,
IPT_START4,
IPT_START5,
IPT_START6,
IPT_START7,
IPT_START8,
// coin slots
IPT_COIN1,
IPT_COIN2,
IPT_COIN3,
IPT_COIN4,
IPT_COIN5,
IPT_COIN6,
IPT_COIN7,
IPT_COIN8,
IPT_COIN9,
IPT_COIN10,
IPT_COIN11,
IPT_COIN12,
IPT_BILL1,
// service coin
IPT_SERVICE1,
IPT_SERVICE2,
IPT_SERVICE3,
IPT_SERVICE4,
// tilt inputs
IPT_TILT1,
IPT_TILT2,
IPT_TILT3,
IPT_TILT4,
// misc other digital inputs
IPT_SERVICE,
IPT_TILT,
IPT_INTERLOCK,
IPT_VOLUME_UP,
IPT_VOLUME_DOWN,
IPT_START, // MESS only
IPT_SELECT, // MESS only
IPT_KEYPAD, // MESS only
IPT_KEYBOARD, // MESS only
// digital joystick inputs
IPT_DIGITAL_JOYSTICK_FIRST,
// use IPT_JOYSTICK for panels where the player has one single joystick
IPT_JOYSTICK_UP,
IPT_JOYSTICK_DOWN,
IPT_JOYSTICK_LEFT,
IPT_JOYSTICK_RIGHT,
// use IPT_JOYSTICKLEFT and IPT_JOYSTICKRIGHT for dual joystick panels
IPT_JOYSTICKRIGHT_UP,
IPT_JOYSTICKRIGHT_DOWN,
IPT_JOYSTICKRIGHT_LEFT,
IPT_JOYSTICKRIGHT_RIGHT,
IPT_JOYSTICKLEFT_UP,
IPT_JOYSTICKLEFT_DOWN,
IPT_JOYSTICKLEFT_LEFT,
IPT_JOYSTICKLEFT_RIGHT,
IPT_DIGITAL_JOYSTICK_LAST,
// action buttons
IPT_BUTTON1,
IPT_BUTTON2,
IPT_BUTTON3,
IPT_BUTTON4,
IPT_BUTTON5,
IPT_BUTTON6,
IPT_BUTTON7,
IPT_BUTTON8,
IPT_BUTTON9,
IPT_BUTTON10,
IPT_BUTTON11,
IPT_BUTTON12,
IPT_BUTTON13,
IPT_BUTTON14,
IPT_BUTTON15,
IPT_BUTTON16,
// mahjong inputs
IPT_MAHJONG_FIRST,
IPT_MAHJONG_A,
IPT_MAHJONG_B,
IPT_MAHJONG_C,
IPT_MAHJONG_D,
IPT_MAHJONG_E,
IPT_MAHJONG_F,
IPT_MAHJONG_G,
IPT_MAHJONG_H,
IPT_MAHJONG_I,
IPT_MAHJONG_J,
IPT_MAHJONG_K,
IPT_MAHJONG_L,
IPT_MAHJONG_M,
IPT_MAHJONG_N,
IPT_MAHJONG_O,
IPT_MAHJONG_P,
IPT_MAHJONG_Q,
IPT_MAHJONG_KAN,
IPT_MAHJONG_PON,
IPT_MAHJONG_CHI,
IPT_MAHJONG_REACH, //IPT_MAHJONG_RIICHI, // REACH is Japanglish
IPT_MAHJONG_RON,
IPT_MAHJONG_BET,
IPT_MAHJONG_LAST_CHANCE,
IPT_MAHJONG_SCORE,
IPT_MAHJONG_DOUBLE_UP,
IPT_MAHJONG_FLIP_FLOP,
IPT_MAHJONG_BIG,
IPT_MAHJONG_SMALL,
IPT_MAHJONG_LAST,
// hanafuda inputs
IPT_HANAFUDA_FIRST,
IPT_HANAFUDA_A,
IPT_HANAFUDA_B,
IPT_HANAFUDA_C,
IPT_HANAFUDA_D,
IPT_HANAFUDA_E,
IPT_HANAFUDA_F,
IPT_HANAFUDA_G,
IPT_HANAFUDA_H,
IPT_HANAFUDA_YES,
IPT_HANAFUDA_NO,
IPT_HANAFUDA_LAST,
// gambling inputs
IPT_GAMBLING_FIRST,
IPT_GAMBLE_KEYIN, // attendant
IPT_GAMBLE_KEYOUT, // attendant
IPT_GAMBLE_SERVICE, // attendant
IPT_GAMBLE_BOOK, // attendant
IPT_GAMBLE_DOOR, // attendant
// IPT_GAMBLE_DOOR2, // many gambling games have several doors.
// IPT_GAMBLE_DOOR3,
// IPT_GAMBLE_DOOR4,
// IPT_GAMBLE_DOOR5,
IPT_GAMBLE_HIGH, // player
IPT_GAMBLE_LOW, // player
IPT_GAMBLE_HALF, // player
IPT_GAMBLE_DEAL, // player
IPT_GAMBLE_D_UP, // player
IPT_GAMBLE_TAKE, // player
IPT_GAMBLE_STAND, // player
IPT_GAMBLE_BET, // player
IPT_GAMBLE_PAYOUT, // player
// IPT_GAMBLE_BUTTON1, // player
// IPT_GAMBLE_BUTTON2, // many many gambling games have multi-games and/or multi-function-buttons
// IPT_GAMBLE_BUTTON3, // I suggest to eliminate specific names
// IPT_GAMBLE_BUTTON4,
// IPT_GAMBLE_BUTTON5,
// IPT_GAMBLE_BUTTON6,
// IPT_GAMBLE_BUTTON7,
// IPT_GAMBLE_BUTTON8,
// IPT_GAMBLE_BUTTON9,
// IPT_GAMBLE_BUTTON10,
// IPT_GAMBLE_BUTTON11,
// IPT_GAMBLE_BUTTON12,
// IPT_GAMBLE_BUTTON13,
// IPT_GAMBLE_BUTTON14,
// IPT_GAMBLE_BUTTON15,
// IPT_GAMBLE_BUTTON16,
// poker-specific inputs
IPT_POKER_HOLD1,
IPT_POKER_HOLD2,
IPT_POKER_HOLD3,
IPT_POKER_HOLD4,
IPT_POKER_HOLD5,
IPT_POKER_CANCEL,
IPT_POKER_BET,
// slot-specific inputs
IPT_SLOT_STOP1,
IPT_SLOT_STOP2,
IPT_SLOT_STOP3,
IPT_SLOT_STOP4,
IPT_SLOT_STOP_ALL,
IPT_GAMBLING_LAST,
// analog inputs
IPT_ANALOG_FIRST,
IPT_ANALOG_ABSOLUTE_FIRST,
IPT_AD_STICK_X, // absolute // autocenter
IPT_AD_STICK_Y, // absolute // autocenter
IPT_AD_STICK_Z, // absolute // autocenter
IPT_PADDLE, // absolute // autocenter
IPT_PADDLE_V, // absolute // autocenter
IPT_PEDAL, // absolute // autocenter
IPT_PEDAL2, // absolute // autocenter
IPT_PEDAL3, // absolute // autocenter
IPT_LIGHTGUN_X, // absolute
IPT_LIGHTGUN_Y, // absolute
IPT_POSITIONAL, // absolute // autocenter if not wraps
IPT_POSITIONAL_V, // absolute // autocenter if not wraps
IPT_ANALOG_ABSOLUTE_LAST,
IPT_DIAL, // relative
IPT_DIAL_V, // relative
IPT_TRACKBALL_X, // relative
IPT_TRACKBALL_Y, // relative
IPT_MOUSE_X, // relative
IPT_MOUSE_Y, // relative
IPT_ANALOG_LAST,
// analog adjuster support
IPT_ADJUSTER,
// the following are special codes for user interface handling - not to be used by drivers!
IPT_UI_FIRST,
IPT_UI_CONFIGURE,
IPT_UI_ON_SCREEN_DISPLAY,
IPT_UI_DEBUG_BREAK,
IPT_UI_PAUSE,
IPT_UI_RESET_MACHINE,
IPT_UI_SOFT_RESET,
IPT_UI_SHOW_GFX,
IPT_UI_FRAMESKIP_DEC,
IPT_UI_FRAMESKIP_INC,
IPT_UI_THROTTLE,
IPT_UI_FAST_FORWARD,
IPT_UI_SHOW_FPS,
IPT_UI_SNAPSHOT,
IPT_UI_RECORD_MOVIE,
IPT_UI_TOGGLE_CHEAT,
IPT_UI_UP,
IPT_UI_DOWN,
IPT_UI_LEFT,
IPT_UI_RIGHT,
IPT_UI_HOME,
IPT_UI_END,
IPT_UI_PAGE_UP,
IPT_UI_PAGE_DOWN,
IPT_UI_SELECT,
IPT_UI_CANCEL,
IPT_UI_DISPLAY_COMMENT,
IPT_UI_CLEAR,
IPT_UI_ZOOM_IN,
IPT_UI_ZOOM_OUT,
IPT_UI_PREV_GROUP,
IPT_UI_NEXT_GROUP,
IPT_UI_ROTATE,
IPT_UI_SHOW_PROFILER,
IPT_UI_TOGGLE_UI,
IPT_UI_TOGGLE_DEBUG,
IPT_UI_PASTE,
IPT_UI_SAVE_STATE,
IPT_UI_LOAD_STATE,
// additional OSD-specified UI port types (up to 16)
IPT_OSD_1,
IPT_OSD_2,
IPT_OSD_3,
IPT_OSD_4,
IPT_OSD_5,
IPT_OSD_6,
IPT_OSD_7,
IPT_OSD_8,
IPT_OSD_9,
IPT_OSD_10,
IPT_OSD_11,
IPT_OSD_12,
IPT_OSD_13,
IPT_OSD_14,
IPT_OSD_15,
IPT_OSD_16,
IPT_UI_LAST,
// other meaning not mapped to standard defaults
IPT_OTHER,
// special meaning handled by custom code
IPT_SPECIAL,
IPT_CUSTOM,
IPT_OUTPUT,
IPT_COUNT
};
DECLARE_ENUM_OPERATORS(ioport_type)
// input type classes
enum ioport_type_class
{
INPUT_CLASS_INTERNAL,
INPUT_CLASS_KEYBOARD,
INPUT_CLASS_CONTROLLER,
INPUT_CLASS_CONFIG,
INPUT_CLASS_DIPSWITCH,
INPUT_CLASS_MISC
};
// default strings used in port definitions
enum
{
INPUT_STRING_Off = 1,
INPUT_STRING_On,
INPUT_STRING_No,
INPUT_STRING_Yes,
INPUT_STRING_Lives,
INPUT_STRING_Bonus_Life,
INPUT_STRING_Difficulty,
INPUT_STRING_Demo_Sounds,
INPUT_STRING_Coinage,
INPUT_STRING_Coin_A,
INPUT_STRING_Coin_B,
// INPUT_STRING_20C_1C, // 0.050000
// INPUT_STRING_15C_1C, // 0.066667
// INPUT_STRING_10C_1C, // 0.100000
#define __input_string_coinage_start INPUT_STRING_9C_1C
INPUT_STRING_9C_1C, // 0.111111
INPUT_STRING_8C_1C, // 0.125000
INPUT_STRING_7C_1C, // 0.142857
INPUT_STRING_6C_1C, // 0.166667
// INPUT_STRING_10C_2C, // 0.200000
INPUT_STRING_5C_1C, // 0.200000
// INPUT_STRING_9C_2C, // 0.222222
// INPUT_STRING_8C_2C, // 0.250000
INPUT_STRING_4C_1C, // 0.250000
// INPUT_STRING_7C_2C, // 0.285714
// INPUT_STRING_10C_3C, // 0.300000
// INPUT_STRING_9C_3C, // 0.333333
// INPUT_STRING_6C_2C, // 0.333333
INPUT_STRING_3C_1C, // 0.333333
INPUT_STRING_8C_3C, // 0.375000
// INPUT_STRING_10C_4C, // 0.400000
// INPUT_STRING_5C_2C, // 0.400000
// INPUT_STRING_7C_3C, // 0.428571
// INPUT_STRING_9C_4C, // 0.444444
// INPUT_STRING_10C_5C, // 0.500000
// INPUT_STRING_8C_4C, // 0.500000
// INPUT_STRING_6C_3C, // 0.500000
INPUT_STRING_4C_2C, // 0.500000
INPUT_STRING_2C_1C, // 0.500000
// INPUT_STRING_9C_5C, // 0.555556
// INPUT_STRING_7C_4C, // 0.571429
// INPUT_STRING_10C_6C, // 0.600000
INPUT_STRING_5C_3C, // 0.600000
// INPUT_STRING_8C_5C, // 0.625000
// INPUT_STRING_9C_6C, // 0.666667
// INPUT_STRING_6C_4C, // 0.666667
INPUT_STRING_3C_2C, // 0.666667
// INPUT_STRING_10C_7C, // 0.700000
// INPUT_STRING_7C_5C, // 0.714286
// INPUT_STRING_8C_6C, // 0.750000
INPUT_STRING_4C_3C, // 0.750000
// INPUT_STRING_9C_7C, // 0.777778
// INPUT_STRING_10C_8C, // 0.800000
// INPUT_STRING_5C_4C, // 0.800000
// INPUT_STRING_6C_5C, // 0.833333
// INPUT_STRING_7C_6C, // 0.857143
// INPUT_STRING_8C_7C, // 0.875000
// INPUT_STRING_9C_8C, // 0.888889
// INPUT_STRING_10C_9C, // 0.900000
// INPUT_STRING_10C_10C, // 1.000000
// INPUT_STRING_9C_9C, // 1.000000
// INPUT_STRING_8C_8C, // 1.000000
// INPUT_STRING_7C_7C, // 1.000000
// INPUT_STRING_6C_6C, // 1.000000
// INPUT_STRING_5C_5C, // 1.000000
INPUT_STRING_4C_4C, // 1.000000
INPUT_STRING_3C_3C, // 1.000000
INPUT_STRING_2C_2C, // 1.000000
INPUT_STRING_1C_1C, // 1.000000
// INPUT_STRING_9C_10C, // 1.111111
// INPUT_STRING_8C_9C, // 1.125000
// INPUT_STRING_7C_8C, // 1.142857
// INPUT_STRING_6C_7C, // 1.166667
// INPUT_STRING_5C_6C, // 1.200000
// INPUT_STRING_8C_10C, // 1.250000
INPUT_STRING_4C_5C, // 1.250000
// INPUT_STRING_7C_9C, // 1.285714
// INPUT_STRING_6C_8C, // 1.333333
INPUT_STRING_3C_4C, // 1.333333
// INPUT_STRING_5C_7C, // 1.400000
// INPUT_STRING_7C_10C, // 1.428571
// INPUT_STRING_6C_9C, // 1.500000
// INPUT_STRING_4C_6C, // 1.500000
INPUT_STRING_2C_3C, // 1.500000
// INPUT_STRING_5C_8C, // 1.600000
// INPUT_STRING_6C_10C, // 1.666667
// INPUT_STRING_3C_5C, // 1.666667
INPUT_STRING_4C_7C, // 1.750000
// INPUT_STRING_5C_9C, // 1.800000
// INPUT_STRING_5C_10C, // 2.000000
// INPUT_STRING_4C_8C, // 2.000000
// INPUT_STRING_3C_6C, // 2.000000
INPUT_STRING_2C_4C, // 2.000000
INPUT_STRING_1C_2C, // 2.000000
// INPUT_STRING_4C_9C, // 2.250000
// INPUT_STRING_3C_7C, // 2.333333
// INPUT_STRING_4C_10C, // 2.500000
INPUT_STRING_2C_5C, // 2.500000
// INPUT_STRING_3C_8C, // 2.666667
// INPUT_STRING_3C_9C, // 3.000000
INPUT_STRING_2C_6C, // 3.000000
INPUT_STRING_1C_3C, // 3.000000
// INPUT_STRING_3C_10C, // 3.333333
INPUT_STRING_2C_7C, // 3.500000
INPUT_STRING_2C_8C, // 4.000000
INPUT_STRING_1C_4C, // 4.000000
// INPUT_STRING_2C_9C, // 4.500000
// INPUT_STRING_2C_10C, // 5.000000
INPUT_STRING_1C_5C, // 5.000000
INPUT_STRING_1C_6C, // 6.000000
INPUT_STRING_1C_7C, // 7.000000
INPUT_STRING_1C_8C, // 8.000000
INPUT_STRING_1C_9C, // 9.000000
#define __input_string_coinage_end INPUT_STRING_1C_9C
// INPUT_STRING_1C_10C, // 10.000000
// INPUT_STRING_1C_11C, // 11.000000
// INPUT_STRING_1C_12C, // 12.000000
// INPUT_STRING_1C_13C, // 13.000000
// INPUT_STRING_1C_14C, // 14.000000
// INPUT_STRING_1C_15C, // 15.000000
// INPUT_STRING_1C_20C, // 20.000000
// INPUT_STRING_1C_25C, // 25.000000
// INPUT_STRING_1C_30C, // 30.000000
// INPUT_STRING_1C_40C, // 40.000000
// INPUT_STRING_1C_50C, // 50.000000
// INPUT_STRING_1C_99C, // 99.000000
// INPUT_STRING_1C_100C, // 100.000000
// INPUT_STRING_1C_120C, // 120.000000
// INPUT_STRING_1C_125C, // 125.000000
// INPUT_STRING_1C_150C, // 150.000000
// INPUT_STRING_1C_200C, // 200.000000
// INPUT_STRING_1C_250C, // 250.000000
// INPUT_STRING_1C_500C, // 500.000000
// INPUT_STRING_1C_1000C, // 1000.000000
INPUT_STRING_Free_Play,
INPUT_STRING_Cabinet,
INPUT_STRING_Upright,
INPUT_STRING_Cocktail,
INPUT_STRING_Flip_Screen,
INPUT_STRING_Service_Mode,
INPUT_STRING_Pause,
INPUT_STRING_Test,
INPUT_STRING_Tilt,
INPUT_STRING_Version,
INPUT_STRING_Region,
INPUT_STRING_International,
INPUT_STRING_Japan,
INPUT_STRING_USA,
INPUT_STRING_Europe,
INPUT_STRING_Asia,
INPUT_STRING_China,
INPUT_STRING_Hong_Kong,
INPUT_STRING_Korea,
INPUT_STRING_Southeast_Asia,
INPUT_STRING_Taiwan,
INPUT_STRING_World,
INPUT_STRING_Language,
INPUT_STRING_English,
INPUT_STRING_Japanese,
INPUT_STRING_Chinese,
INPUT_STRING_French,
INPUT_STRING_German,
INPUT_STRING_Italian,
INPUT_STRING_Korean,
INPUT_STRING_Spanish,
INPUT_STRING_Very_Easy,
INPUT_STRING_Easiest,
INPUT_STRING_Easier,
INPUT_STRING_Easy,
INPUT_STRING_Medium_Easy,
INPUT_STRING_Normal,
INPUT_STRING_Medium,
INPUT_STRING_Medium_Hard,
INPUT_STRING_Hard,
INPUT_STRING_Harder,
INPUT_STRING_Hardest,
INPUT_STRING_Very_Hard,
INPUT_STRING_Medium_Difficult,
INPUT_STRING_Difficult,
INPUT_STRING_Very_Difficult,
INPUT_STRING_Very_Low,
INPUT_STRING_Low,
INPUT_STRING_High,
INPUT_STRING_Higher,
INPUT_STRING_Highest,
INPUT_STRING_Very_High,
INPUT_STRING_Players,
INPUT_STRING_Controls,
INPUT_STRING_Dual,
INPUT_STRING_Single,
INPUT_STRING_Game_Time,
INPUT_STRING_Continue_Price,
INPUT_STRING_Controller,
INPUT_STRING_Light_Gun,
INPUT_STRING_Joystick,
INPUT_STRING_Trackball,
INPUT_STRING_Continues,
INPUT_STRING_Allow_Continue,
INPUT_STRING_Level_Select,
// INPUT_STRING_Allow,
// INPUT_STRING_Forbid,
// INPUT_STRING_Enable,
// INPUT_STRING_Disable,
INPUT_STRING_Infinite,
// INPUT_STRING_Invincibility,
// INPUT_STRING_Invulnerability,
INPUT_STRING_Stereo,
INPUT_STRING_Mono,
INPUT_STRING_Unused,
INPUT_STRING_Unknown,
// INPUT_STRING_Undefined,
INPUT_STRING_Standard,
INPUT_STRING_Reverse,
INPUT_STRING_Alternate,
// INPUT_STRING_Reserve,
// INPUT_STRING_Spare,
// INPUT_STRING_Invalid,
INPUT_STRING_None,
INPUT_STRING_COUNT
};
//**************************************************************************
// TYPE DEFINITIONS
//**************************************************************************
// opaque types pointing to live state
struct input_port_state;
struct input_field_state;
// forward declarations
class ioport_list;
class ioport_port;
struct ioport_port_live;
class ioport_field;
struct ioport_field_live;
class ioport_manager;
class emu_timer;
typedef struct _xml_data_node xml_data_node;
class analog_field;
// constructor function pointer
typedef void (*ioport_constructor)(device_t &owner, ioport_list &portlist, astring &errorbuf);
// I/O port callback function delegates
typedef device_delegate<ioport_value (ioport_field &, void *)> ioport_field_read_delegate;
typedef device_delegate<void (ioport_field &, void *, ioport_value, ioport_value)> ioport_field_write_delegate;
typedef device_delegate<float (ioport_field &, float)> ioport_field_crossmap_delegate;
// keyboard helper function delegates
typedef delegate<int (const unicode_char *, size_t)> ioport_queue_chars_delegate;
typedef delegate<bool (unicode_char)> ioport_accept_char_delegate;
typedef delegate<bool ()> ioport_charqueue_empty_delegate;
// ======================> inp_header
// header at the front of INP files
struct inp_header
{
char header[8]; // +00: 8 byte header - must be "MAMEINP\0"
UINT64 basetime; // +08: base time of recording
UINT8 majversion; // +10: major INP version
UINT8 minversion; // +11: minor INP version
UINT8 reserved[2]; // +12: must be zero
char gamename[12]; // +14: game name string, NULL-terminated
char version[32]; // +20: system version string, NULL-terminated
};
// ======================> input_device_default
// device defined default input settings
struct input_device_default
{
const char * tag; // tag of port to update
ioport_value mask; // mask to apply to the port
ioport_value defvalue; // new default value
};
// ======================> input_type_entry
// describes a fundamental input type, including default input sequences
class input_type_entry
{
friend class simple_list<input_type_entry>;
friend class ioport_manager;
public:
// construction/destruction
input_type_entry(ioport_type type, ioport_group group, int player, const char *token, const char *name, input_seq standard);
input_type_entry(ioport_type type, ioport_group group, int player, const char *token, const char *name, input_seq standard, input_seq decrement, input_seq increment);
// getters
input_type_entry *next() const { return m_next; }
ioport_type type() const { return m_type; }
ioport_group group() const { return m_group; }
UINT8 player() const { return m_player; }
const char *token() const { return m_token; }
const char *name() const { return m_name; }
input_seq &defseq(input_seq_type seqtype = SEQ_TYPE_STANDARD) { return m_defseq[seqtype]; }
const input_seq &seq(input_seq_type seqtype = SEQ_TYPE_STANDARD) const { return m_seq[seqtype]; }
// setters
void configure_osd(const char *token, const char *name);
private:
// internal state
input_type_entry * m_next; // next description in the list
ioport_type m_type; // IPT_* for this entry
ioport_group m_group; // which group the port belongs to
UINT8 m_player; // player number (0 is player 1)
const char * m_token; // token used to store settings
const char * m_name; // user-friendly name
input_seq m_defseq[SEQ_TYPE_TOTAL];// default input sequence
input_seq m_seq[SEQ_TYPE_TOTAL];// currently configured sequences
};
// ======================> digital_joystick
// tracking information about a digital joystick input
class digital_joystick
{
DISABLE_COPYING(digital_joystick);
friend class simple_list<digital_joystick>;
public:
// directions
enum direction_t
{
JOYDIR_UP,
JOYDIR_DOWN,
JOYDIR_LEFT,
JOYDIR_RIGHT,
JOYDIR_COUNT
};
// bit constants
static const UINT8 UP_BIT = 1 << JOYDIR_UP;
static const UINT8 DOWN_BIT = 1 << JOYDIR_DOWN;
static const UINT8 LEFT_BIT = 1 << JOYDIR_LEFT;
static const UINT8 RIGHT_BIT = 1 << JOYDIR_RIGHT;
// construction/destruction
digital_joystick(int player, int number);
// getters
digital_joystick *next() const { return m_next; }
int player() const { return m_player; }
int number() const { return m_number; }
UINT8 current() const { return m_current; }
UINT8 current4way() const { return m_current4way; }
// configuration
direction_t set_axis(ioport_field &field);
// updates
void frame_update();
private:
// internal state
digital_joystick * m_next; // next joystick in the list
int m_player; // player number represented
int m_number; // joystick number represented
ioport_field * m_field[JOYDIR_COUNT]; // input field for each direction
UINT8 m_current; // current value
UINT8 m_current4way; // current 4-way value
UINT8 m_previous; // previous value
};
DECLARE_ENUM_OPERATORS(digital_joystick::direction_t)
// ======================> natural_keyboard
// buffer to handle copy/paste/insert of keys
class natural_keyboard
{
DISABLE_COPYING(natural_keyboard);
public:
// construction/destruction
natural_keyboard(running_machine &machine);
void initialize();
// getters and queries
running_machine &machine() const { return m_machine; }
bool empty() const { return (m_bufbegin == m_bufend); }
bool full() const { return ((m_bufend + 1) % m_buffer.count()) == m_bufbegin; }
bool can_post() const { return (!m_queue_chars.isnull() || m_keycode_map.count() != 0); }
bool is_posting() const { return (!empty() || (!m_charqueue_empty.isnull() && !m_charqueue_empty())); }
// configuration
void configure(ioport_queue_chars_delegate queue_chars, ioport_accept_char_delegate accept_char, ioport_charqueue_empty_delegate charqueue_empty);
// posting
void post(unicode_char ch);
void post(const unicode_char *text, size_t length = 0, attotime rate = attotime::zero);
void post_utf8(const char *text, size_t length = 0, attotime rate = attotime::zero);
void post_coded(const char *text, size_t length = 0, attotime rate = attotime::zero);
void frame_update(ioport_port &port, ioport_value &digital);
const char *key_name(astring &string, unicode_char ch);
private:
// internal keyboard code information
struct keycode_map_entry
{
unicode_char ch;
ioport_field * field[UCHAR_SHIFT_END + 1 - UCHAR_SHIFT_BEGIN];
};
// internal helpers
void build_codes(ioport_manager &manager);
bool can_post_directly(unicode_char ch);
bool can_post_alternate(unicode_char ch);
attotime choose_delay(unicode_char ch);
void internal_post(unicode_char ch);
void timer(void *ptr, int param);
const char *unicode_to_string(astring &buffer, unicode_char ch);
const keycode_map_entry *find_code(unicode_char ch) const;
// debugger helpers
static void execute_input(running_machine &machine, int ref, int params, const char *param[]);
static void execute_dumpkbd(running_machine &machine, int ref, int params, const char *param[]);
// internal state
running_machine & m_machine; // reference to our machine
UINT32 m_bufbegin; // index of starting character
UINT32 m_bufend; // index of ending character
dynamic_array<unicode_char> m_buffer; // actual buffer
bool m_status_keydown; // current keydown status
bool m_last_cr; // was the last char a CR?
emu_timer * m_timer; // timer for posting characters
attotime m_current_rate; // current rate for posting
ioport_queue_chars_delegate m_queue_chars; // queue characters callback
ioport_accept_char_delegate m_accept_char; // accept character callback
ioport_charqueue_empty_delegate m_charqueue_empty; // character queue empty callback
dynamic_array<keycode_map_entry> m_keycode_map; // keycode map
};
// ======================> ioport_condition
// encapsulates a condition on a port field or setting
class ioport_condition
{
public:
// condition types
enum condition_t
{
ALWAYS = 0,
EQUALS,
NOTEQUALS,
GREATERTHAN,
NOTGREATERTHAN,
LESSTHAN,
NOTLESSTHAN
};
// construction/destruction
ioport_condition() { reset(); }
ioport_condition(condition_t condition, const char *tag, ioport_value mask, ioport_value value) { set(condition, tag, mask, value); }
// getters
const char *tag() const { return m_tag; }
// operators
bool operator==(const ioport_condition &rhs) const { return (m_mask == rhs.m_mask && m_value == rhs.m_value && m_condition == rhs.m_condition && strcmp(m_tag, rhs.m_tag) == 0); }
bool eval(device_t &device) const;
bool none() const { return (m_condition == ALWAYS); }
// configuration
void reset() { set(ALWAYS, NULL, 0, 0); }
void set(condition_t condition, const char *tag, ioport_value mask, ioport_value value)
{
m_condition = condition;
m_tag = tag;
m_mask = mask;
m_value = value;
}
private:
// internal state
condition_t m_condition; // condition to use
const char * m_tag; // tag of port whose condition is to be tested
ioport_value m_mask; // mask to apply to the port
ioport_value m_value; // value to compare against
};
// ======================> ioport_setting
// a single setting for a configuration or DIP switch
class ioport_setting
{
DISABLE_COPYING(ioport_setting);
friend class simple_list<ioport_setting>;
public:
// construction/destruction
ioport_setting(ioport_field &field, ioport_value value, const char *name);
// getters
ioport_setting *next() const { return m_next; }
ioport_field &field() const { return m_field; }
device_t &device() const;
running_machine &machine() const;
ioport_value value() const { return m_value; }
ioport_condition &condition() { return m_condition; }
const char *name() const { return m_name; }
// helpers
bool enabled() { return m_condition.eval(device()); }
private:
// internal state
ioport_setting * m_next; // pointer to next setting in sequence
ioport_field & m_field; // pointer back to the field that owns us
ioport_value m_value; // value of the bits in this setting
const char * m_name; // user-friendly name to display
ioport_condition m_condition; // condition under which this setting is valid
};
// ======================> ioport_diplocation
// a mapping from a bit to a physical DIP switch description
class ioport_diplocation
{
DISABLE_COPYING(ioport_diplocation);
friend class simple_list<ioport_diplocation>;
public:
// construction/destruction
ioport_diplocation(const char *name, UINT8 swnum, bool invert);
// getters
ioport_diplocation *next() const { return m_next; }
const char *name() const { return m_name; }
UINT8 number() const { return m_number; }
bool inverted() const { return m_invert; }
private:
ioport_diplocation * m_next; // pointer to the next bit
astring m_name; // name of the physical DIP switch
UINT8 m_number; // physical switch number
bool m_invert; // is this an active-high DIP?
};
// ======================> ioport_field
// a single bitfield within an input port
class ioport_field
{
DISABLE_COPYING(ioport_field);
friend class simple_list<ioport_field>;
friend class ioport_configurer;
friend class dynamic_field;
// flags for ioport_fields
static const int FIELD_FLAG_UNUSED = 0x01; // set if this field is unused but relevant to other games on the same hw
static const int FIELD_FLAG_COCKTAIL = 0x02; // set if this field is relevant only for cocktail cabinets
static const int FIELD_FLAG_TOGGLE = 0x04; // set if this field should behave as a toggle
static const int FIELD_FLAG_ROTATED = 0x08; // set if this field represents a rotated control
static const int ANALOG_FLAG_REVERSE = 0x10; // analog only: reverse the sense of the axis
static const int ANALOG_FLAG_RESET = 0x20; // analog only: always preload in->default for relative axes, returning only deltas
static const int ANALOG_FLAG_WRAPS = 0x40; // analog only: positional count wraps around
static const int ANALOG_FLAG_INVERT = 0x80; // analog only: bitwise invert bits
public:
// construction/destruction
ioport_field(ioport_port &port, ioport_type type, ioport_value defvalue, ioport_value maskbits, const char *name = NULL);
~ioport_field();
// getters
ioport_field *next() const { return m_next; }
ioport_port &port() const { return m_port; }
device_t &device() const;
ioport_manager &manager() const;
running_machine &machine() const;
int modcount() const { return m_modcount; }
ioport_setting *first_setting() const { return m_settinglist.first(); }
ioport_diplocation *first_diplocation() const { return m_diploclist.first(); }
ioport_value mask() const { return m_mask; }
ioport_value defvalue() const { return m_defvalue; }
ioport_condition &condition() { return m_condition; }
ioport_type type() const { return m_type; }
UINT8 player() const { return m_player; }
bool unused() const { return ((m_flags & FIELD_FLAG_UNUSED) != 0); }
bool cocktail() const { return ((m_flags & FIELD_FLAG_COCKTAIL) != 0); }
bool toggle() const { return ((m_flags & FIELD_FLAG_TOGGLE) != 0); }
bool rotated() const { return ((m_flags & FIELD_FLAG_ROTATED) != 0); }
bool analog_reverse() const { return ((m_flags & ANALOG_FLAG_REVERSE) != 0); }
bool analog_reset() const { return ((m_flags & ANALOG_FLAG_RESET) != 0); }
bool analog_wraps() const { return ((m_flags & ANALOG_FLAG_WRAPS) != 0); }
bool analog_invert() const { return ((m_flags & ANALOG_FLAG_INVERT) != 0); }
UINT8 impulse() const { return m_impulse; }
const char *name() const;
const char *specific_name() const { return m_name; }
const input_seq &seq(input_seq_type seqtype = SEQ_TYPE_STANDARD) const;
const input_seq &defseq(input_seq_type seqtype = SEQ_TYPE_STANDARD) const;
const input_seq &defseq_unresolved(input_seq_type seqtype = SEQ_TYPE_STANDARD) const { return m_seq[seqtype]; }
bool has_dynamic_read() const { return !m_read.isnull(); }
bool has_dynamic_write() const { return !m_write.isnull(); }
ioport_value minval() const { return m_min; }
ioport_value maxval() const { return m_max; }
INT32 sensitivity() const { return m_sensitivity; }
INT32 delta() const { return m_delta; }
INT32 centerdelta() const { return m_centerdelta; }
crosshair_axis_t crosshair_axis() const { return m_crosshair_axis; }
double crosshair_scale() const { return m_crosshair_scale; }
double crosshair_offset() const { return m_crosshair_offset; }
UINT16 full_turn_count() const { return m_full_turn_count; }
const ioport_value *remap_table() const { return m_remap_table; }
UINT8 way() const { return m_way; }
unicode_char keyboard_code(int which) const;
ioport_field_live &live() const { assert(m_live != NULL); return *m_live; }
// setters
void set_crosshair_scale(double scale) { m_crosshair_scale = scale; }
void set_crosshair_offset(double offset) { m_crosshair_offset = offset; }
// derived getters
ioport_type_class type_class() const;
bool is_analog() const { return (m_type > IPT_ANALOG_FIRST && m_type < IPT_ANALOG_LAST); }
bool is_digital_joystick() const { return (m_type > IPT_DIGITAL_JOYSTICK_FIRST && m_type < IPT_DIGITAL_JOYSTICK_LAST); }
// additional operations
bool enabled() const { return m_condition.eval(device()); }
const char *setting_name() const;
bool has_previous_setting() const;
void select_previous_setting();
bool has_next_setting() const;
void select_next_setting();
void crosshair_position(float &x, float &y, bool &gotx, bool &goty);
void init_live_state(analog_field *analog);
void frame_update(ioport_value &result, bool mouse_down);
void reduce_mask(ioport_value bits_to_remove) { m_mask &= ~bits_to_remove; }
// user-controllable settings for a field
struct user_settings
{
ioport_value value; // for DIP switches
input_seq seq[SEQ_TYPE_TOTAL]; // sequences of all types
INT32 sensitivity; // for analog controls
INT32 delta; // for analog controls
INT32 centerdelta; // for analog controls
bool reverse; // for analog controls
};
void get_user_settings(user_settings &settings);
void set_user_settings(const user_settings &settings);
private:
void expand_diplocation(const char *location, astring &errorbuf);
// internal state
ioport_field * m_next; // pointer to next field in sequence
ioport_port & m_port; // reference to the port that owns us
ioport_field_live * m_live; // live state of field (NULL if not live)
int m_modcount; // modification count
simple_list<ioport_setting> m_settinglist; // list of input_setting_configs
simple_list<ioport_diplocation> m_diploclist; // list of locations for various bits
// generally-applicable data
ioport_value m_mask; // mask of bits belonging to the field
ioport_value m_defvalue; // default value of these bits
ioport_condition m_condition; // condition under which this field is relevant
ioport_type m_type; // IPT_* type for this port
UINT8 m_player; // player number (0-based)
UINT32 m_flags; // combination of FIELD_FLAG_* and ANALOG_FLAG_* above
UINT8 m_impulse; // number of frames before reverting to defvalue
const char * m_name; // user-friendly name to display
input_seq m_seq[SEQ_TYPE_TOTAL];// sequences of all types
ioport_field_read_delegate m_read; // read callback routine
void * m_read_param; // parameter for read callback routine
ioport_field_write_delegate m_write; // write callback routine
void * m_write_param; // parameter for write callback routine
// data relevant to analog control types
ioport_value m_min; // minimum value for absolute axes
ioport_value m_max; // maximum value for absolute axes
INT32 m_sensitivity; // sensitivity (100=normal)
INT32 m_delta; // delta to apply each frame a digital inc/dec key is pressed
INT32 m_centerdelta; // delta to apply each frame no digital inputs are pressed
crosshair_axis_t m_crosshair_axis; // crosshair axis
double m_crosshair_scale; // crosshair scale
double m_crosshair_offset; // crosshair offset
double m_crosshair_altaxis;// crosshair alternate axis value
ioport_field_crossmap_delegate m_crosshair_mapper; // crosshair mapping function
UINT16 m_full_turn_count; // number of optical counts for 1 full turn of the original control
const ioport_value * m_remap_table; // pointer to an array that remaps the port value
// data relevant to other specific types
UINT8 m_way; // digital joystick 2/4/8-way descriptions
unicode_char m_chars[4]; // unicode key data
};
// ======================> ioport_list
// class that holds a list of I/O ports
class ioport_list : public tagged_list<ioport_port>
{
DISABLE_COPYING(ioport_list);
public:
// construction/destruction
ioport_list(resource_pool &pool = global_resource_pool())
: tagged_list<ioport_port>(pool) { }
using tagged_list<ioport_port>::append;
void append(device_t &device, astring &errorbuf);
};
// ======================> ioport_port
// a single input port configuration
class ioport_port
{
DISABLE_COPYING(ioport_port);
friend class simple_list<ioport_port>;
friend class ioport_configurer;
public:
// construction/destruction
ioport_port(device_t &owner, const char *tag);
~ioport_port();
// getters
ioport_port *next() const { return m_next; }
ioport_manager &manager() const;
device_t &device() const { return m_device; }
running_machine &machine() const;
ioport_field *first_field() const { return m_fieldlist.first(); }
const char *tag() const { return m_tag; }
int modcount() const { return m_modcount; }
ioport_value active() const { return m_active; }
ioport_value active_safe(ioport_value defval) const { return (this == NULL) ? defval : active(); }
ioport_port_live &live() const { assert(m_live != NULL); return *m_live; }
// read/write to the port
ioport_value read();
ioport_value read_safe(ioport_value defval) { return (this == NULL) ? defval : read(); }
void write(ioport_value value, ioport_value mask = ~0);
void write_safe(ioport_value value, ioport_value mask = ~0) { if (this != NULL) write(value, mask); }
// other operations
ioport_field *field(ioport_value mask);
void collapse_fields(astring &errorbuf);
void frame_update(ioport_field *mouse_field);
void init_live_state();
private:
void insert_field(ioport_field &newfield, ioport_value &disallowedbits, astring &errorbuf);
// internal state
ioport_port * m_next; // pointer to next port
device_t & m_device; // associated device
simple_list<ioport_field> m_fieldlist; // list of ioport_fields
astring m_tag; // copy of this port's tag
int m_modcount; // modification count
ioport_value m_active; // mask of active bits in the port
ioport_port_live * m_live; // live state of port (NULL if not live)
};
// ======================> ioport_manager
// private input port state
class ioport_manager
{
DISABLE_COPYING(ioport_manager);
friend class device_t;
friend class ioport_configurer;
public:
// construction/destruction
ioport_manager(running_machine &machine);
time_t initialize();
// getters
running_machine &machine() const { return m_machine; }
ioport_port *first_port() const { return m_portlist.first(); }
bool safe_to_read() const { return m_safe_to_read; }
natural_keyboard &natkeyboard() { return m_natkeyboard; }
// type helpers
input_type_entry *first_type() const { return m_typelist.first(); }
bool type_pressed(ioport_type type, int player = 0);
const char *type_name(ioport_type type, UINT8 player);
ioport_group type_group(ioport_type type, int player);
const input_seq &type_seq(ioport_type type, int player = 0, input_seq_type seqtype = SEQ_TYPE_STANDARD);
void set_type_seq(ioport_type type, int player, input_seq_type seqtype, const input_seq &newseq);
static bool type_is_analog(ioport_type type) { return (type > IPT_ANALOG_FIRST && type < IPT_ANALOG_LAST); }
bool type_class_present(ioport_type_class inputclass);
// other helpers
digital_joystick &digjoystick(int player, int joysticknum);
int count_players() const;
bool crosshair_position(int player, float &x, float &y);
bool has_keyboard() const;
void setup_natural_keyboard(ioport_queue_chars_delegate queue_chars, ioport_accept_char_delegate accept_char, ioport_charqueue_empty_delegate charqueue_empty);
INT32 frame_interpolate(INT32 oldval, INT32 newval);
ioport_type token_to_input_type(const char *string, int &player) const;
const char *input_type_to_token(astring &string, ioport_type type, int player);
private:
// internal helpers
void init_port_types();
void init_autoselect_devices(int type1, int type2, int type3, const char *option, const char *ananame);
void frame_update_callback();
void frame_update();
ioport_port *port(const char *tag) const { return m_portlist.find(tag); }
void exit();
input_seq_type token_to_seq_type(const char *string);
void update_defaults();
void load_config(int config_type, xml_data_node *parentnode);
void load_remap_table(xml_data_node *parentnode);
bool load_default_config(xml_data_node *portnode, int type, int player, const input_seq *newseq);
bool load_game_config(xml_data_node *portnode, int type, int player, const input_seq *newseq);
void save_config(int config_type, xml_data_node *parentnode);
void save_sequence(xml_data_node *parentnode, input_seq_type type, ioport_type porttype, const input_seq &seq);
bool save_this_input_field_type(ioport_type type);
void save_default_inputs(xml_data_node *parentnode);
void save_game_inputs(xml_data_node *parentnode);
template<typename _Type> _Type playback_read(_Type &result);
time_t playback_init();
void playback_end(const char *message = NULL);
void playback_frame(attotime curtime);
void playback_port(ioport_port &port);
template<typename _Type> void record_write(_Type value);
void record_init();
void record_end(const char *message = NULL);
void record_frame(attotime curtime);
void record_port(ioport_port &port);
// internal state
running_machine & m_machine; // reference to owning machine
bool m_safe_to_read; // clear at start; set after state is loaded
ioport_list m_portlist; // list of input port configurations
// types
simple_list<input_type_entry> m_typelist; // list of live type states
input_type_entry * m_type_to_entry[IPT_COUNT][MAX_PLAYERS]; // map from type/player to type state
// specific special global input states
simple_list<digital_joystick> m_joystick_list; // list of digital joysticks
natural_keyboard m_natkeyboard; // natural keyboard support
// frame time tracking
attotime m_last_frame_time; // time of the last frame callback
attoseconds_t m_last_delta_nsec; // nanoseconds that passed since the previous callback
// playback/record information
emu_file m_record_file; // recording file (NULL if not recording)
emu_file m_playback_file; // playback file (NULL if not recording)
UINT64 m_playback_accumulated_speed; // accumulated speed during playback
UINT32 m_playback_accumulated_frames; // accumulated frames during playback
};
// ======================> ioport_configurer
// class to wrap helper functions
class ioport_configurer
{
public:
// construction/destruction
ioport_configurer(device_t &owner, ioport_list &portlist, astring &errorbuf);
// static helpers
static const char *string_from_token(const char *string);
// port helpers
void port_alloc(const char *tag);
void port_modify(const char *tag);
// field helpers
void field_alloc(ioport_type type, ioport_value defval, ioport_value mask, const char *name = NULL);
void field_add_char(unicode_char ch);
void field_add_code(input_seq_type which, input_code code);
void field_set_way(int way) const { m_curfield->m_way = way; }
void field_set_rotated() const { m_curfield->m_flags |= ioport_field::FIELD_FLAG_ROTATED; }
void field_set_name(const char *name) const { m_curfield->m_name = string_from_token(name); }
void field_set_player(int player) const { m_curfield->m_player = player - 1; }
void field_set_cocktail() const { m_curfield->m_flags |= ioport_field::FIELD_FLAG_COCKTAIL; field_set_player(2); }
void field_set_toggle() const { m_curfield->m_flags |= ioport_field::FIELD_FLAG_TOGGLE; }
void field_set_impulse(UINT8 impulse) const { m_curfield->m_impulse = impulse; }
void field_set_analog_reverse() const { m_curfield->m_flags |= ioport_field::ANALOG_FLAG_REVERSE; }
void field_set_analog_reset() const { m_curfield->m_flags |= ioport_field::ANALOG_FLAG_RESET; }
void field_set_unused() const { m_curfield->m_flags |= ioport_field::FIELD_FLAG_UNUSED; }
void field_set_min_max(ioport_value minval, ioport_value maxval) const { m_curfield->m_min = minval; m_curfield->m_max = maxval; }
void field_set_sensitivity(INT32 sensitivity) const { m_curfield->m_sensitivity = sensitivity; }
void field_set_delta(INT32 delta) const { m_curfield->m_centerdelta = m_curfield->m_delta = delta; }
void field_set_centerdelta(INT32 delta) const { m_curfield->m_centerdelta = delta; }
void field_set_crosshair(crosshair_axis_t axis, double altaxis, double scale, double offset) const { m_curfield->m_crosshair_axis = axis; m_curfield->m_crosshair_altaxis = altaxis; m_curfield->m_crosshair_scale = scale; m_curfield->m_crosshair_offset = offset; }
void field_set_crossmapper(ioport_field_crossmap_delegate callback) const { m_curfield->m_crosshair_mapper = callback; }
void field_set_full_turn_count(UINT16 count) const { m_curfield->m_full_turn_count = count; }
void field_set_analog_wraps() const { m_curfield->m_flags |= ioport_field::ANALOG_FLAG_WRAPS; }
void field_set_remap_table(const ioport_value *table) { m_curfield->m_remap_table = table; }
void field_set_analog_invert() const { m_curfield->m_flags |= ioport_field::ANALOG_FLAG_INVERT; }
void field_set_dynamic_read(ioport_field_read_delegate delegate, void *param = NULL) const { m_curfield->m_read = delegate; m_curfield->m_read_param = param; }
void field_set_dynamic_write(ioport_field_write_delegate delegate, void *param = NULL) const { m_curfield->m_write = delegate; m_curfield->m_write_param = param; }
void field_set_diplocation(const char *location) const { m_curfield->expand_diplocation(location, m_errorbuf); }
// setting helpers
void setting_alloc(ioport_value value, const char *name);
// misc helpers
void set_condition(ioport_condition::condition_t condition, const char *tag, ioport_value mask, ioport_value value);
void onoff_alloc(const char *name, ioport_value defval, ioport_value mask, const char *diplocation);
private:
// internal state
device_t & m_owner;
ioport_list & m_portlist;
astring & m_errorbuf;
ioport_port * m_curport;
ioport_field * m_curfield;
ioport_setting * m_cursetting;
};
//**************************************************************************
// MACROS
//**************************************************************************
#define UCHAR_MAMEKEY(code) (UCHAR_MAMEKEY_BEGIN + ITEM_ID_##code)
// macro for a read callback function (PORT_CUSTOM)
#define CUSTOM_INPUT(name) ioport_value name(device_t &device, ioport_field &field, void *param)
#define CUSTOM_INPUT_MEMBER(name) ioport_value name(ioport_field &field, void *param)
#define DECLARE_CUSTOM_INPUT_MEMBER(name) ioport_value name(ioport_field &field, void *param)
// macro for port write callback functions (PORT_CHANGED)
#define INPUT_CHANGED(name) void name(device_t &device, ioport_field &field, void *param, ioport_value oldval, ioport_value newval)
#define INPUT_CHANGED_MEMBER(name) void name(ioport_field &field, void *param, ioport_value oldval, ioport_value newval)
#define DECLARE_INPUT_CHANGED_MEMBER(name) void name(ioport_field &field, void *param, ioport_value oldval, ioport_value newval)
// macro for port changed callback functions (PORT_CROSSHAIR_MAPPER)
#define CROSSHAIR_MAPPER(name) float name(device_t &device, ioport_field &field, float linear_value)
#define CROSSHAIR_MAPPER_MEMBER(name) float name(ioport_field &field, float linear_value)
#define DECLARE_CROSSHAIR_MAPPER_MEMBER(name) float name(ioport_field &field, float linear_value)
// macro for wrapping a default string
#define DEF_STR(str_num) ((const char *)INPUT_STRING_##str_num)
//**************************************************************************
// MACROS FOR BUILDING INPUT PORTS
//**************************************************************************
// so that "0" can be used for unneeded input ports
#define construct_ioport_0 NULL
// name of table
#define INPUT_PORTS_NAME(_name) construct_ioport_##_name
// start of table
#define INPUT_PORTS_START(_name) \
ATTR_COLD void INPUT_PORTS_NAME(_name)(device_t &owner, ioport_list &portlist, astring &errorbuf) \
{ \
ioport_configurer configurer(owner, portlist, errorbuf); \
// end of table
#define INPUT_PORTS_END \
}
// aliasing
#define INPUT_PORTS_EXTERN(_name) \
extern void INPUT_PORTS_NAME(_name)(device_t &owner, ioport_list &portlist, astring &errorbuf)
// including
#define PORT_INCLUDE(_name) \
INPUT_PORTS_NAME(_name)(owner, portlist, errorbuf); \
// start of a new input port (with included tag)
#define PORT_START(_tag) \
configurer.port_alloc(_tag); \
// modify an existing port
#define PORT_MODIFY(_tag) \
configurer.port_modify(_tag); \
// input bit definition
#define PORT_BIT(_mask, _default, _type) \
configurer.field_alloc((_type), (_default), (_mask)); \
#define PORT_SPECIAL_ONOFF(_mask, _default, _strindex) \
PORT_SPECIAL_ONOFF_DIPLOC(_mask, _default, _strindex, NULL)
#define PORT_SPECIAL_ONOFF_DIPLOC(_mask, _default, _strindex, _diploc) \
configurer.onoff_alloc(DEF_STR(_strindex), _default, _mask, _diploc); \
// append a code
#define PORT_CODE(_code) \
configurer.field_add_code(SEQ_TYPE_STANDARD, _code);
#define PORT_CODE_DEC(_code) \
configurer.field_add_code(SEQ_TYPE_DECREMENT, _code);
#define PORT_CODE_INC(_code) \
configurer.field_add_code(SEQ_TYPE_INCREMENT, _code);
// joystick flags
#define PORT_2WAY \
configurer.field_set_way(2);
#define PORT_4WAY \
configurer.field_set_way(4);
#define PORT_8WAY \
configurer.field_set_way(8);
#define PORT_16WAY \
configurer.field_set_way(16);
#define PORT_ROTATED \
configurer.field_set_rotated();
// general flags
#define PORT_NAME(_name) \
configurer.field_set_name(_name);
#define PORT_PLAYER(_player) \
configurer.field_set_player(_player);
#define PORT_COCKTAIL \
configurer.field_set_cocktail();
#define PORT_TOGGLE \
configurer.field_set_toggle();
#define PORT_IMPULSE(_duration) \
configurer.field_set_impulse(_duration);
#define PORT_REVERSE \
configurer.field_set_analog_reverse();
#define PORT_RESET \
configurer.field_set_analog_reset();
#define PORT_UNUSED \
configurer.field_set_unused();
// analog settings
// if this macro is not used, the minimum defaluts to 0 and maximum defaults to the mask value
#define PORT_MINMAX(_min, _max) \
configurer.field_set_min_max(_min, _max);
#define PORT_SENSITIVITY(_sensitivity) \
configurer.field_set_sensitivity(_sensitivity);
#define PORT_KEYDELTA(_delta) \
configurer.field_set_delta(_delta); \
// note that PORT_CENTERDELTA must appear after PORT_KEYDELTA
#define PORT_CENTERDELTA(_delta) \
configurer.field_set_centerdelta(_delta);
#define PORT_CROSSHAIR(axis, scale, offset, altaxis) \
configurer.field_set_crosshair(CROSSHAIR_AXIS_##axis, altaxis, scale, offset);
#define PORT_CROSSHAIR_MAPPER(_callback) \
configurer.field_set_crossmapper(ioport_field_crossmap_delegate(_callback, #_callback, DEVICE_SELF, (device_t *)NULL));
#define PORT_CROSSHAIR_MAPPER_MEMBER(_device, _class, _member) \
configurer.field_set_crossmapper(ioport_field_crossmap_delegate(&_class::_member, #_class "::" #_member, _device, (_class *)NULL));
// how many optical counts for 1 full turn of the control
#define PORT_FULL_TURN_COUNT(_count) \
configurer.field_set_full_turn_count(_count);
// positional controls can be binary or 1 of X
// 1 of X not completed yet
// if it is specified as PORT_REMAP_TABLE then it is binary, but remapped
// otherwise it is binary
#define PORT_POSITIONS(_positions) \
configurer.field_set_min_max(0, _positions);
// positional control wraps at min/max
#define PORT_WRAPS \
configurer.field_set_analog_wraps();
// positional control uses this remap table
#define PORT_REMAP_TABLE(_table) \
configurer.field_set_remap_table(_table);
// positional control bits are active low
#define PORT_INVERT \
configurer.field_set_analog_invert();
// read callbacks
#define PORT_CUSTOM(_callback, _param) \
configurer.field_set_dynamic_read(ioport_field_read_delegate(_callback, #_callback, DEVICE_SELF, (device_t *)NULL), (void *)(_param));
#define PORT_CUSTOM_MEMBER(_device, _class, _member, _param) \
configurer.field_set_dynamic_read(ioport_field_read_delegate(&_class::_member, #_class "::" #_member, _device, (_class *)NULL), (void *)(_param));
// write callbacks
#define PORT_CHANGED(_callback, _param) \
configurer.field_set_dynamic_write(ioport_field_write_delegate(_callback, #_callback, DEVICE_SELF, (device_t *)NULL), (void *)(_param));
#define PORT_CHANGED_MEMBER(_device, _class, _member, _param) \
configurer.field_set_dynamic_write(ioport_field_write_delegate(&_class::_member, #_class "::" #_member, _device, (_class *)NULL), (void *)(_param));
// input device handler
#define PORT_READ_LINE_DEVICE(_device, _read_line_device) \
configurer.field_set_dynamic_read(ioport_field_read_delegate(&ioport_read_line_wrapper<_read_line_device>, #_read_line_device, _device, (device_t *)NULL));
#define PORT_READ_LINE_DEVICE_MEMBER(_device, _class, _member) \
configurer.field_set_dynamic_read(ioport_field_read_delegate(&ioport_read_line_wrapper<_class, &_class::_member>, #_class "::" #_member, _device, (_class *)NULL));
// output device handler
#define PORT_WRITE_LINE_DEVICE(_device, _write_line_device) \
configurer.field_set_dynamic_write(ioport_field_write_delegate(&ioport_write_line_wrapper<_write_line_device>, #_write_line_device, _device, (device_t *)NULL));
#define PORT_WRITE_LINE_DEVICE_MEMBER(_device, _class, _member) \
configurer.field_set_dynamic_write(ioport_field_write_delegate(&ioport_write_line_wrapper<_class, &_class::_member>, #_class "::" #_member, _device, (_class *)NULL));
// dip switch definition
#define PORT_DIPNAME(_mask, _default, _name) \
configurer.field_alloc(IPT_DIPSWITCH, (_default), (_mask), (_name)); \
#define PORT_DIPSETTING(_default, _name) \
configurer.setting_alloc((_default), (_name)); \
// physical location, of the form: name:[!]sw,[name:][!]sw,...
// note that these are specified LSB-first
#define PORT_DIPLOCATION(_location) \
configurer.field_set_diplocation(_location); \
// conditionals for dip switch settings
#define PORT_CONDITION(_tag, _mask, _condition, _value) \
configurer.set_condition(ioport_condition::_condition, _tag, _mask, _value); \
// analog adjuster definition
#define PORT_ADJUSTER(_default, _name) \
configurer.field_alloc(IPT_ADJUSTER, (_default), 0xff, (_name)); \
// config definition
#define PORT_CONFNAME(_mask, _default, _name) \
configurer.field_alloc(IPT_CONFIG, (_default), (_mask), (_name)); \
#define PORT_CONFSETTING(_default, _name) \
configurer.setting_alloc((_default), (_name));
// keyboard chars
#define PORT_CHAR(_ch) \
configurer.field_add_char(_ch);
// name of table
#define DEVICE_INPUT_DEFAULTS_NAME(_name) device_iptdef_##_name
#define device_iptdef_0 NULL
#define device_iptdef___null NULL
// start of table
#define DEVICE_INPUT_DEFAULTS_START(_name) \
const input_device_default DEVICE_INPUT_DEFAULTS_NAME(_name)[] = {
// end of table
#define DEVICE_INPUT_DEFAULTS(_tag,_mask,_defval) \
{ _tag ,_mask, _defval }, \
// end of table
#define DEVICE_INPUT_DEFAULTS_END \
{NULL,0,0} };
//**************************************************************************
// HELPER MACROS
//**************************************************************************
#define PORT_DIPUNUSED_DIPLOC(_mask, _default, _diploc) \
PORT_SPECIAL_ONOFF_DIPLOC(_mask, _default, Unused, _diploc)
#define PORT_DIPUNUSED(_mask, _default) \
PORT_SPECIAL_ONOFF(_mask, _default, Unused)
#define PORT_DIPUNKNOWN_DIPLOC(_mask, _default, _diploc) \
PORT_SPECIAL_ONOFF_DIPLOC(_mask, _default, Unknown, _diploc)
#define PORT_DIPUNKNOWN(_mask, _default) \
PORT_SPECIAL_ONOFF(_mask, _default, Unknown)
#define PORT_SERVICE_DIPLOC(_mask, _default, _diploc) \
PORT_SPECIAL_ONOFF_DIPLOC(_mask, _default, Service_Mode, _diploc)
#define PORT_SERVICE(_mask, _default) \
PORT_SPECIAL_ONOFF(_mask, _default, Service_Mode)
#define PORT_SERVICE_NO_TOGGLE(_mask, _default) \
PORT_BIT( _mask, _mask & _default, IPT_SERVICE ) PORT_NAME( DEF_STR( Service_Mode ))
#define PORT_VBLANK(_screen) \
PORT_READ_LINE_DEVICE_MEMBER(_screen, screen_device, vblank_port_read)
//**************************************************************************
// INLINE TEMPLATES
//**************************************************************************
template<int (*_FunctionPointer)(device_t *)>
ioport_value ioport_read_line_wrapper(device_t &device, ioport_field &field, void *param)
{
return (*_FunctionPointer)(&device);
}
template<class _FunctionClass, int (_FunctionClass::*_FunctionPointer)()>
ioport_value ioport_read_line_wrapper(_FunctionClass &device, ioport_field &field, void *param)
{
return (device.*_FunctionPointer)();
}
template<void (*_FunctionPointer)(device_t *, int)>
void ioport_write_line_wrapper(device_t &device, ioport_field &field, void *param, ioport_value oldval, ioport_value newval)
{
return (*_FunctionPointer)(&device, newval);
}
template<class _FunctionClass, void (_FunctionClass::*_FunctionPointer)(int)>
void ioport_write_line_wrapper(_FunctionClass &device, ioport_field &field, void *param, ioport_value oldval, ioport_value newval)
{
return (device.*_FunctionPointer)(newval);
}
//**************************************************************************
// INLINE FUNCITONS
//**************************************************************************
inline ioport_manager &ioport_field::manager() const { return m_port.manager(); }
inline device_t &ioport_field::device() const { return m_port.device(); }
inline running_machine &ioport_field::machine() const { return m_port.machine(); }
inline device_t &ioport_setting::device() const { return m_field.device(); }
inline running_machine &ioport_setting::machine() const { return m_field.machine(); }
#endif // __INPTPORT_H__ */