// interface-level overrides
//-------------------------------------------------
// interface_validity_check - validation for a
// device after the configuration has been
// constructed
//-------------------------------------------------
protected override void interface_validity_check(validity_checker valid)
{
// validate the interrupts
if (m_vblank_interrupt != null)
{
screen_device_iterator iter = new screen_device_iterator(device().mconfig().root_device());
if (iter.first() == null)
{
osd_printf_error("VBLANK interrupt specified, but the driver is screenless\n");
}
else if (m_vblank_interrupt_screen != null && device().siblingdevice(m_vblank_interrupt_screen) == null)
{
osd_printf_error("VBLANK interrupt references a nonexistant screen tag '{0}'\n", m_vblank_interrupt_screen);
}
}
if (m_timed_interrupt != null && m_timed_interrupt_period == attotime.zero)
{
osd_printf_error("Timed interrupt handler specified with 0 period\n");
}
else if (m_timed_interrupt == null && m_timed_interrupt_period != attotime.zero)
{
osd_printf_error("No timer interrupt handler specified, but has a non-0 period given\n");
}
}
//template <typename T, typename F, typename U> void configure_scanline(T &&target, F &&callback, const char *name, U &&screen, int first_vpos, int increment)
//{
// m_type = TIMER_TYPE_SCANLINE;
// m_callback.set(std::forward<T>(target), std::forward<F>(callback), name);
// m_screen.set_tag(std::forward<U>(screen));
// m_first_vpos = first_vpos;
// m_increment = increment;
//}
//template <typename Object> void set_callback(Object &&cb) { m_callback = std::forward<Object>(cb); }
//template <class FunctionClass> void set_callback(void (FunctionClass::*callback)(timer_device &, void *, s32), const char *name)
//{
// set_callback(expired_delegate(callback, name, nullptr, static_cast<FunctionClass *>(nullptr)));
//}
//void set_start_delay(const attotime &delay) { m_start_delay = delay; }
//void config_param(int param) { m_param = param; }
// property getters
//int param() const { return m_timer->param(); }
//void *ptr() const { return m_ptr; }
//bool enabled() const { return m_timer->enabled(); }
// property setters
//void set_param(int param) { assert(m_type == TIMER_TYPE_GENERIC); m_timer->set_param(param); }
//void set_ptr(void *ptr) { m_ptr = ptr; }
//void enable(bool enable = true) { m_timer->enable(enable); }
// adjustments
//void reset() { adjust(attotime::never, 0, attotime::never); }
//void adjust(const attotime &duration, INT32 param = 0, const attotime &period = attotime::never) { assert(m_type == TIMER_TYPE_GENERIC); m_timer->adjust(duration, param, period); }
// timing information
//attotime time_elapsed() const { return m_timer->elapsed(); }
//attotime time_left() const { return m_timer->remaining(); }
//attotime start_time() const { return m_timer->start(); }
//attotime fire_time() const { return m_timer->expire(); }
// device-level overrides
//-------------------------------------------------
// device_validity_check - validate the device
// configuration
//-------------------------------------------------
protected override void device_validity_check(validity_checker valid)
{
// type based configuration
switch (m_type)
{
case timer_type.TIMER_TYPE_GENERIC:
if (m_screen.finder_tag() != finder_base.DUMMY_TAG || m_first_vpos != 0 || m_start_delay != attotime.zero)
{
osd_printf_warning("Generic timer specified parameters for a scanline timer\n");
}
if (m_period != attotime.zero || m_start_delay != attotime.zero)
{
osd_printf_warning("Generic timer specified parameters for a periodic timer\n");
}
break;
case timer_type.TIMER_TYPE_PERIODIC:
if (m_screen.finder_tag() != finder_base.DUMMY_TAG || m_first_vpos != 0)
{
osd_printf_warning("Periodic timer specified parameters for a scanline timer\n");
}
if (m_period <= attotime.zero)
{
osd_printf_error("Periodic timer specified invalid period\n");
}
break;
case timer_type.TIMER_TYPE_SCANLINE:
if (m_period != attotime.zero || m_start_delay != attotime.zero)
{
osd_printf_warning("Scanline timer specified parameters for a periodic timer\n");
}
if (m_param != 0)
{
osd_printf_warning("Scanline timer specified parameter which is ignored\n");
}
// if (m_first_vpos < 0)
// osd_printf_error("Scanline timer specified invalid initial position\n");
// if (m_increment < 0)
// osd_printf_error("Scanline timer specified invalid increment\n");
break;
default:
osd_printf_error("Invalid type specified\n");
break;
}
}
//int inputnum_from_device(device_t &device, int outputnum = 0) const;
// configuration access
//std::vector<sound_route> &routes() { return m_route_list; }
// optional operation overrides
//-------------------------------------------------
// interface_validity_check - validation for a
// device after the configuration has been
// constructed
//-------------------------------------------------
protected override void interface_validity_check(validity_checker valid)
{
// loop over all the routes
foreach (sound_route route in routes())
{
// find a device with the requested tag
device_t target = route.m_base.subdevice(route.m_target);
if (target == null)
{
osd_printf_error("Attempting to route sound to non-existent device '{0}'\n", route.m_base.subtag(route.m_target));
}
// if it's not a speaker or a sound device, error
device_sound_interface sound;
if (target != null && (target.type() != speaker_device.SPEAKER) && !target.interface_(out sound))
{
osd_printf_error("Attempting to route sound to a non-sound device '{0}' ({1})\n", target.tag(), target.name());
}
}
}
/* execute as configured by the OPTION_SYSTEMNAME option on the specified options */
//-------------------------------------------------
// execute - run the core emulation
//-------------------------------------------------
public int execute()
{
bool started_empty = false;
bool firstgame = true;
// loop across multiple hard resets
bool exit_pending = false;
int error = EMU_ERR_NONE;
while (error == EMU_ERR_NONE && !exit_pending)
{
m_new_driver_pending = null;
// if no driver, use the internal empty driver
game_driver system = mame_options.system(m_options);
if (system == null)
{
system = ___empty.driver____empty;
if (firstgame)
{
started_empty = true;
}
}
firstgame = false;
// parse any INI files as the first thing
if (m_options.read_config())
{
// but first, revert out any potential game-specific INI settings from previous runs via the internal UI
m_options.revert(OPTION_PRIORITY_INI);
string errors;
mame_options.parse_standard_inis(m_options, out errors);
}
// otherwise, perform validity checks before anything else
bool is_empty = system == ___empty.driver____empty;
if (!is_empty)
{
validity_checker valid = new validity_checker(m_options, true);
valid.set_verbose(false);
valid.check_shared_source(system);
valid.Dispose();
}
// create the machine configuration
machine_config config = new machine_config(system, m_options);
// create the machine structure and driver
running_machine machine = new running_machine(config, this);
set_machine(machine);
// run the machine
error = machine.run(is_empty);
m_firstrun = false;
// check the state of the machine
if (m_new_driver_pending != null)
{
// set up new system name and adjust device options accordingly
m_options.set_system_name(m_new_driver_pending.name);
m_firstrun = true;
}
else
{
if (machine.exit_pending())
{
m_options.set_system_name("");
}
}
if (machine.exit_pending() && (!started_empty || is_empty))
{
exit_pending = true;
}
// machine will go away when we exit scope
machine.Dispose();
set_machine(null);
}
// return an error
return(error);
}
//void set_gfx(int index, gfx_element *element) { assert(index < MAX_GFX_ELEMENTS); m_gfx[index].reset(element); }
// interface-level overrides
//-------------------------------------------------
// interface_validity_check - validate graphics
// decoding configuration
//-------------------------------------------------
protected override void interface_validity_check(validity_checker valid)
{
if (!m_palette_is_disabled && m_paletteDevice == null)
{
KeyValuePair <device_t, string> target = m_paletteDevice.finder_target();
if (target.second() == finder_base.DUMMY_TAG)
{
osd_printf_error("No palette specified for device '{0}'\n", device().tag());
}
else
{
osd_printf_error(
"Device '{0}' specifies nonexistent device '{1}' relative to '{2}' as palette\n",
device().tag(),
target.second(),
target.first().tag());
}
}
if (m_gfxdecodeinfo == null)
{
return;
}
// validate graphics decoding entries
for (int gfxnum = 0; gfxnum < digfx_global.MAX_GFX_ELEMENTS && m_gfxdecodeinfo[gfxnum].gfxlayout != null; gfxnum++)
{
gfx_decode_entry gfx = m_gfxdecodeinfo[gfxnum];
gfx_layout layout = gfx.gfxlayout;
// currently we are unable to validate RAM-based entries
string region = gfx.memory_region;
if (region != null && GFXENTRY_ISROM(gfx.flags))
{
// resolve the region
string gfxregion;
if (GFXENTRY_ISDEVICE(gfx.flags))
{
gfxregion = device().subtag(region);
}
else
{
gfxregion = device().owner().subtag(region);
}
UInt32 region_length = (UInt32)valid.region_length(gfxregion);
if (region_length == 0)
{
osd_printf_error("gfx[{0}] references nonexistent region '{1}'\n", gfxnum, gfxregion);
}
// if we have a valid region, and we're not using auto-sizing, check the decode against the region length
else if (!IS_FRAC(layout.total))
{
// determine which plane is at the largest offset
int start = 0;
for (int plane = 0; plane < layout.planes; plane++)
{
if (layout.planeoffset[plane] > start)
{
start = (int)layout.planeoffset[plane];
}
}
start &= ~(int)(layout.charincrement - 1);
// determine the total length based on this info
int len = (int)(layout.total * layout.charincrement);
// do we have enough space in the region to cover the whole decode?
int avail = (int)(region_length - (gfx.start & ~(layout.charincrement / 8 - 1)));
// if not, this is an error
if ((start + len) / 8 > avail)
{
osd_printf_error("gfx[{0}] extends past allocated memory of region '{1}'\n", gfxnum, region);
}
}
}
int xscale = (int)GFXENTRY_GETXSCALE(gfx.flags);
int yscale = (int)GFXENTRY_GETYSCALE(gfx.flags);
// verify raw decode, which can only be full-region and have no scaling
if (layout.planeoffset[0] == digfx_global.GFX_RAW)
{
if (layout.total != RGN_FRAC(1, 1))
{
osd_printf_error("gfx[{0}] RAW layouts can only be RGN_FRAC(1,1)\n", gfxnum);
}
if (xscale != 1 || yscale != 1)
{
osd_printf_error("gfx[{0}] RAW layouts do not support xscale/yscale\n", gfxnum);
}
}
// verify traditional decode doesn't have too many planes,
// and has extended offset arrays if its width and/or height demand them
else
{
throw new emu_unimplemented();
}
}
}
protected override void interface_validity_check(validity_checker valid)
{
throw new emu_unimplemented();
}
