static void reset_tempos(const char* sDefaultOS)
{
framebuffer_setdisplaytext(FALSE);
nvram_setvar("opib-temp-os",sDefaultOS);
nvram_save();
framebuffer_setdisplaytext(TRUE);
}
void cmd_install(int argc, char** argv) {
bufferPrintf("Installing Images...\r\n");
images_install(&_start, (uint32_t)&OpenIBootEnd - (uint32_t)&_start);
bufferPrintf("Setting NVRAM version...\r\n");
nvram_setvar("opib-version", "0.1.1");
nvram_save(1);
bufferPrintf("Images installed\r\n");
}
void cmd_install(int argc, char** argv) {
bufferPrintf("Installing Images...\r\n");
images_install(&_start, (uint32_t)&OpenIBootEnd - (uint32_t)&_start);
bufferPrintf("Setting version and defaulting menu-timeout to 10s\r\n");
nvram_setvar("opib-version", "0.1.1-zinnx");
nvram_setvar("opib-menu-timeout", "10000");
nvram_save();
bufferPrintf("Images installed\r\n");
}
void running_machine::retro_machineexit(){
// and out via the exit phase
m_current_phase = MACHINE_PHASE_EXIT;
// save the NVRAM and configuration
sound().ui_mute(true);
nvram_save();
config_save_settings(*this);
call_notifiers(MACHINE_NOTIFY_EXIT);
printf("retro exit machine\n");
zip_file_cache_clear();
m_logfile.reset();
}
void running_machine::retro_machineexit()
{
retro_log(RETRO_LOG_INFO, "beginning retro_machineexit()\n");
/* and out via the exit phase */
m_current_phase = MACHINE_PHASE_EXIT;
/* save the NVRAM and configuration */
sound_mute(this, true);
nvram_save(this);
config_save_settings(this);
/* call all exit callbacks registered */
call_notifiers(MACHINE_NOTIFY_EXIT);
}
void running_machine::schedule_hard_reset()
{
retro_log(RETRO_LOG_INFO, "[MAME 2010] schedule_hard_reset for current MAME machine.\n");
m_hard_reset_pending = true;
/* if we're executing, abort out immediately */
m_scheduler.eat_all_cycles();
/* and out via the exit phase */
m_current_phase = MACHINE_PHASE_EXIT;
/* save the NVRAM and configuration */
sound_mute(this, true);
nvram_save(this);
config_save_settings(this);
/* call all exit callbacks registered */
call_notifiers(MACHINE_NOTIFY_EXIT);
ENDEXEC=1;
}
void running_machine::retro_loop(){
while (RLOOP==1)
{
// execute CPUs if not paused
if (!m_paused)
m_scheduler.timeslice();
// otherwise, just pump video updates through
else
m_video->frame_update();
// handle save/load
if (m_saveload_schedule != SLS_NONE)
handle_saveload();
}
if( (m_hard_reset_pending || m_exit_pending) && m_saveload_schedule == SLS_NONE){
// and out via the exit phase
m_current_phase = MACHINE_PHASE_EXIT;
// save the NVRAM and configuration
sound().ui_mute(true);
nvram_save();
config_save_settings(*this);
// call all exit callbacks registered
call_notifiers(MACHINE_NOTIFY_EXIT);
zip_file_cache_clear();
m_logfile.reset();
ENDEXEC=1;
}
}
void cmd_saveenv(int argc, char** argv) {
bufferPrintf("Saving environment, this may take awhile...\r\n");
nvram_save();
bufferPrintf("Environment saved\r\n");
}
int running_machine::run(bool firstrun)
{
int error = MAMERR_NONE;
// use try/catch for deep error recovery
try
{
// move to the init phase
m_current_phase = MACHINE_PHASE_INIT;
// if we have a logfile, set up the callback
if (options().log())
{
m_logfile = auto_alloc(*this, emu_file(OPEN_FLAG_WRITE | OPEN_FLAG_CREATE | OPEN_FLAG_CREATE_PATHS));
file_error filerr = m_logfile->open("error.log");
assert_always(filerr == FILERR_NONE, "unable to open log file");
add_logerror_callback(logfile_callback);
}
// then finish setting up our local machine
start();
// load the configuration settings and NVRAM
bool settingsloaded = config_load_settings(*this);
nvram_load(*this);
sound().ui_mute(false);
// display the startup screens
ui_display_startup_screens(*this, firstrun, !settingsloaded);
// perform a soft reset -- this takes us to the running phase
soft_reset();
// run the CPUs until a reset or exit
m_hard_reset_pending = false;
while ((!m_hard_reset_pending && !m_exit_pending) || m_saveload_schedule != SLS_NONE)
{
g_profiler.start(PROFILER_EXTRA);
// execute CPUs if not paused
if (!m_paused)
m_scheduler.timeslice();
// otherwise, just pump video updates through
else
m_video->frame_update();
// handle save/load
if (m_saveload_schedule != SLS_NONE)
handle_saveload();
g_profiler.stop();
}
// and out via the exit phase
m_current_phase = MACHINE_PHASE_EXIT;
// save the NVRAM and configuration
sound().ui_mute(true);
nvram_save(*this);
config_save_settings(*this);
}
catch (emu_fatalerror &fatal)
{
mame_printf_error("%s\n", fatal.string());
error = MAMERR_FATALERROR;
if (fatal.exitcode() != 0)
error = fatal.exitcode();
}
catch (emu_exception &)
{
mame_printf_error("Caught unhandled emulator exception\n");
error = MAMERR_FATALERROR;
}
catch (std::bad_alloc &)
{
mame_printf_error("Out of memory!\n");
error = MAMERR_FATALERROR;
}
// call all exit callbacks registered
call_notifiers(MACHINE_NOTIFY_EXIT);
zip_file_cache_clear();
// close the logfile
auto_free(*this, m_logfile);
return error;
}
/* NVRAM utility */
int
main(int argc, char **argv)
{
char *name, *value;
int ret = 0;
/* Skip program name */
--argc;
++argv;
if (!*argv)
usage();
/* Process the remaining arguments. */
for (; *argv; argv++) {
if (!strcmp(*argv, "get")) {
if (*++argv) {
if ((value = nvram_get(*argv)))
puts(value);
}
}
else if (!strcmp(*argv, "settmp")) {
if (*++argv) {
char buf[1024];
strncpy(value = buf, *argv, sizeof(buf)-1);
name = strsep(&value, "=");
nvram_set_temp(name, value);
}
}
else if (!strcmp(*argv, "set")) {
if (*++argv) {
char buf[1024];
strncpy(value = buf, *argv, sizeof(buf)-1);
name = strsep(&value, "=");
nvram_set(name, value);
}
}
else if (!strcmp(*argv, "unset")) {
if (*++argv)
nvram_unset(*argv);
}
else if (!strcmp(*argv, "clear")) {
nvram_clear();
}
else if (!strcmp(*argv, "commit")) {
nvram_commit();
break;
}
else if (!strcmp(*argv, "save")) {
if (*++argv)
ret |= nvram_save(*argv);
break;
}
else if (!strcmp(*argv, "restore")) {
if (*++argv)
ret |= nvram_restore(*argv);
break;
}
else if (!strcmp(*argv, "show")) {
ret |= nvram_show(0);
break;
}
else if (!strcmp(*argv, "showall")) {
ret |= nvram_show(1);
break;
}
if (!*argv)
break;
}
return ret;
}
int run_game(int game)
{
running_machine *machine;
int error = MAMERR_NONE;
mame_private *mame;
callback_item *cb;
/* create the machine structure and driver */
machine = create_machine(game);
mame = machine->mame_data;
/* looooong term: remove this */
Machine = machine;
/* start in the "pre-init phase" */
mame->current_phase = MAME_PHASE_PREINIT;
/* perform validity checks before anything else */
if (mame_validitychecks(game) != 0)
return MAMERR_FAILED_VALIDITY;
/* loop across multiple hard resets */
mame->exit_pending = FALSE;
while (error == 0 && !mame->exit_pending)
{
init_resource_tracking();
add_free_resources_callback(timer_free);
add_free_resources_callback(state_save_free);
/* use setjmp/longjmp for deep error recovery */
mame->fatal_error_jmpbuf_valid = TRUE;
error = setjmp(mame->fatal_error_jmpbuf);
if (error == 0)
{
int settingsloaded;
/* move to the init phase */
mame->current_phase = MAME_PHASE_INIT;
/* start tracking resources for real */
begin_resource_tracking();
/* if we have a logfile, set up the callback */
mame->logerror_callback_list = NULL;
if (options.logfile)
add_logerror_callback(machine, logfile_callback);
/* then finish setting up our local machine */
init_machine(machine);
/* load the configuration settings and NVRAM */
settingsloaded = config_load_settings();
nvram_load();
/* display the startup screens */
ui_display_startup_screens(!settingsloaded && !options.skip_disclaimer, !options.skip_warnings, !options.skip_gameinfo);
/* ensure we don't show the opening screens on a reset */
options.skip_disclaimer = options.skip_warnings = options.skip_gameinfo = TRUE;
/* start resource tracking; note that soft_reset assumes it can */
/* call end_resource_tracking followed by begin_resource_tracking */
/* to clear out resources allocated between resets */
begin_resource_tracking();
/* perform a soft reset -- this takes us to the running phase */
soft_reset(0);
/* run the CPUs until a reset or exit */
mame->hard_reset_pending = FALSE;
while ((!mame->hard_reset_pending && !mame->exit_pending) || mame->saveload_pending_file != NULL)
{
profiler_mark(PROFILER_EXTRA);
/* execute CPUs if not paused */
if (!mame->paused)
cpuexec_timeslice();
/* otherwise, just pump video updates through */
else
video_frame_update();
/* handle save/load */
if (mame->saveload_schedule_callback)
(*mame->saveload_schedule_callback)(machine);
profiler_mark(PROFILER_END);
}
/* and out via the exit phase */
mame->current_phase = MAME_PHASE_EXIT;
/* stop tracking resources at this level */
end_resource_tracking();
/* save the NVRAM and configuration */
nvram_save();
config_save_settings();
}
mame->fatal_error_jmpbuf_valid = FALSE;
/* call all exit callbacks registered */
for (cb = mame->exit_callback_list; cb; cb = cb->next)
(*cb->func.exit)(machine);
/* close all inner resource tracking */
exit_resource_tracking();
/* free our callback lists */
free_callback_list(&mame->exit_callback_list);
free_callback_list(&mame->reset_callback_list);
free_callback_list(&mame->pause_callback_list);
}
/* destroy the machine */
destroy_machine(machine);
/* return an error */
return error;
}
void images_install(void* newData, size_t newDataLen, uint32_t newFourcc, uint32_t replaceFourcc) {
ImageDataList* list = NULL;
ImageDataList* cur = NULL;
ImageDataList* toReplace = NULL;
ImageDataList* verify = NULL;
int isReplace = (replaceFourcc != newFourcc) ? TRUE : FALSE;
int isUpgrade = FALSE;
Image* curImage = imageList;
while(curImage != NULL) {
if(cur == NULL) {
list = cur = verify = malloc(sizeof(ImageDataList));
} else {
cur->next = malloc(sizeof(ImageDataList));
cur = cur->next;
}
bufferPrintf("Reading: ");
print_fourcc(curImage->type);
bufferPrintf(" (%d bytes)\r\n", curImage->padded);
cur->type = curImage->type;
cur->next = NULL;
cur->data = malloc(curImage->padded);
nor_read(cur->data, curImage->offset, curImage->padded);
if(isReplace && cur->type == replaceFourcc) {
isUpgrade = TRUE;
} else if(cur->type == newFourcc) {
toReplace = cur;
}
curImage = curImage->next;
}
if(!isUpgrade) {
bufferPrintf("Performing installation... (%d bytes)\r\n", newDataLen);
ImageDataList* ibox = malloc(sizeof(ImageDataList));
ibox->type = replaceFourcc;
ibox->data = toReplace->data;
ibox->next = toReplace->next;
toReplace->next = ibox;
toReplace->data = images_inject_img3(toReplace->data, newData, newDataLen);
images_change_type(ibox->data, ibox->type);
} else {
bufferPrintf("Performing upgrade... (%d bytes)\r\n", newDataLen);
void* newIBoot = images_inject_img3(toReplace->data, newData, newDataLen);
free(toReplace->data);
toReplace->data = newIBoot;
}
//check for size and availability
size_t newPaddedDataLen=0;
size_t totalBytes=0;
//if somebody can find how to get padded length for new ibot maybe this loop not needed
while(verify != NULL) {
cur = verify;
verify = verify->next;
AppleImg3RootHeader* header = (AppleImg3RootHeader*) cur->data;
totalBytes += header->base.size;
if(cur->type == newFourcc) {
newPaddedDataLen = header->base.size;
}
}
bufferPrintf("Total size to be written %d\r\n",totalBytes);
if((ImagesStart + totalBytes) >= 0xfc000) {
bufferPrintf("**ABORTED** Writing total image size: 0x%x, new ibot size: 0x%x at 0x%x would overflow NOR!\r\n", totalBytes, newPaddedDataLen,ImagesStart);
images_rewind();
images_release();
images_setup();
return;
}
bufferPrintf("Flashing...\r\n");
images_rewind();
while(list != NULL) {
cur = list;
list = list->next;
AppleImg3RootHeader* header = (AppleImg3RootHeader*) cur->data;
bufferPrintf("Flashing: ");
print_fourcc(cur->type);
bufferPrintf(" (%x, %d bytes)\r\n", cur->data, header->base.size);
images_append(cur->data, header->base.size);
free(cur->data);
free(cur);
}
bufferPrintf("Flashing Complete, Free space after flashing %d\r\n",0xfc000-MaxOffset);
images_release();
images_setup();
bufferPrintf("Configuring openiBoot settings...\r\n");
Volume* volume;
io_func* io;
io = bdev_open(0);
volume = openVolume(io);
char buffer [sizeof(XSTRINGIFY(OPENIBOOT_VERSION))];
strcpy(buffer, XSTRINGIFY(OPENIBOOT_VERSION));
add_hfs(volume, (uint8_t*)buffer, sizeof(buffer), "/openiboot");
closeVolume(volume);
CLOSE(io);
ftl_sync();
if(!nvram_getvar("opib-temp-os")) {
nvram_setvar("opib-temp-os", "0");
}
if(!nvram_getvar("opib-default-os")) {
nvram_setvar("opib-default-os", "1");
}
if(!nvram_getvar("opib-menu-timeout")) {
nvram_setvar("opib-menu-timeout", "10000");
}
nvram_save();
bufferPrintf("openiBoot installation complete.\r\n");
}
int running_machine::run(bool firstrun)
{
int error = MAMERR_NONE;
// use try/catch for deep error recovery
try
{
// move to the init phase
m_current_phase = MACHINE_PHASE_INIT;
// if we have a logfile, set up the callback
if (options().log())
{
m_logfile = auto_alloc(*this, emu_file(OPEN_FLAG_WRITE | OPEN_FLAG_CREATE | OPEN_FLAG_CREATE_PATHS));
file_error filerr = m_logfile->open("error.log");
assert_always(filerr == FILERR_NONE, "unable to open log file");
add_logerror_callback(logfile_callback);
}
// then finish setting up our local machine
start();
// load the configuration settings and NVRAM
bool settingsloaded = config_load_settings(*this);
nvram_load(*this);
sound().ui_mute(false);
// initialize ui lists
ui_initialize(*this);
// display the startup screens
ui_display_startup_screens(*this, firstrun, !settingsloaded);
// perform a soft reset -- this takes us to the running phase
soft_reset();
// run the CPUs until a reset or exit
m_hard_reset_pending = false;
while ((!m_hard_reset_pending && !m_exit_pending) || m_saveload_schedule != SLS_NONE)
{
g_profiler.start(PROFILER_EXTRA);
#ifdef SDLMAME_EMSCRIPTEN
//break out to our async javascript loop and halt
js_set_main_loop(m_scheduler);
#endif
// execute CPUs if not paused
if (!m_paused)
m_scheduler.timeslice();
// otherwise, just pump video updates through
else
m_video->frame_update();
// handle save/load
if (m_saveload_schedule != SLS_NONE)
handle_saveload();
g_profiler.stop();
}
// and out via the exit phase
m_current_phase = MACHINE_PHASE_EXIT;
// save the NVRAM and configuration
sound().ui_mute(true);
nvram_save(*this);
config_save_settings(*this);
}
catch (emu_fatalerror &fatal)
{
mame_printf_error("%s\n", fatal.string());
error = MAMERR_FATALERROR;
if (fatal.exitcode() != 0)
error = fatal.exitcode();
}
catch (emu_exception &)
{
mame_printf_error("Caught unhandled emulator exception\n");
error = MAMERR_FATALERROR;
}
catch (binding_type_exception &btex)
{
mame_printf_error("Error performing a late bind of type %s to %s\n", btex.m_actual_type.name(), btex.m_target_type.name());
error = MAMERR_FATALERROR;
}
catch (std::exception &ex)
{
mame_printf_error("Caught unhandled %s exception: %s\n", typeid(ex).name(), ex.what());
error = MAMERR_FATALERROR;
}
catch (...)
{
mame_printf_error("Caught unhandled exception\n");
error = MAMERR_FATALERROR;
}
// make sure our phase is set properly before cleaning up,
// in case we got here via exception
m_current_phase = MACHINE_PHASE_EXIT;
// call all exit callbacks registered
call_notifiers(MACHINE_NOTIFY_EXIT);
zip_file_cache_clear();
// close the logfile
auto_free(*this, m_logfile);
return error;
}
int running_machine::run(bool firstrun, bool benchmarking)
{
int error = MAMERR_NONE;
// use try/catch for deep error recovery
try
{
// move to the init phase
m_current_phase = MACHINE_PHASE_INIT;
// if we have a logfile, set up the callback
if (options().log())
{
m_logfile = auto_alloc(*this, emu_file(OPEN_FLAG_WRITE | OPEN_FLAG_CREATE | OPEN_FLAG_CREATE_PATHS));
file_error filerr = m_logfile->open("error.log");
assert_always(filerr == FILERR_NONE, "unable to open log file");
add_logerror_callback(logfile_callback);
}
// then finish setting up our local machine
start();
// load the configuration settings and NVRAM
bool settingsloaded = config_load_settings(*this);
nvram_load(*this);
sound().ui_mute(false);
// this point is chosen arbitrarily to be represented as 50% complete
// with the "initializing state" init phase
announce_init_phase(STARTUP_PHASE_INITIALIZING_STATE, 50);
// display the startup screens, unless benchmarking, in which case
// there is no user interaction expected and no need to show the
// startup screens
if (!benchmarking) {
ui_display_startup_screens(*this, firstrun, !settingsloaded);
}
// perform a soft reset -- this takes us to the running phase
soft_reset();
// now initialization is 100% complete and the next thing that will
// happen is the game will start running
announce_init_phase(STARTUP_PHASE_INITIALIZING_STATE, 100);
// run the CPUs until a reset or exit
m_hard_reset_pending = false;
while ((!m_hard_reset_pending && !m_exit_pending) || m_saveload_schedule != SLS_NONE)
{
g_profiler.start(PROFILER_EXTRA);
// execute CPUs if not paused
if (!m_paused)
m_scheduler.timeslice();
// otherwise, just pump video updates through
else
m_video->frame_update();
// handle save/load
if (m_saveload_schedule != SLS_NONE)
handle_saveload();
g_profiler.stop();
}
// and out via the exit phase
m_current_phase = MACHINE_PHASE_EXIT;
// save the NVRAM and configuration
sound().ui_mute(true);
nvram_save(*this);
config_save_settings(*this);
}
catch (emu_fatalerror &fatal)
{
mame_printf_error("%s\n", fatal.string());
error = MAMERR_FATALERROR;
if (fatal.exitcode() != 0)
error = fatal.exitcode();
}
catch (emu_exception &)
{
mame_printf_error("Caught unhandled emulator exception\n");
error = MAMERR_FATALERROR;
}
catch (std::bad_alloc &)
{
mame_printf_error("Out of memory!\n");
error = MAMERR_FATALERROR;
}
// make sure our phase is set properly before cleaning up,
// in case we got here via exception
m_current_phase = MACHINE_PHASE_EXIT;
// call all exit callbacks registered
call_notifiers(MACHINE_NOTIFY_EXIT);
zip_file_cache_clear();
// close the logfile
auto_free(*this, m_logfile);
return error;
}
int running_machine::run(bool firstrun)
{
int error = MAMERR_NONE;
// move to the init phase
m_current_phase = MACHINE_PHASE_INIT;
// if we have a logfile, set up the callback
if (options().log())
{
m_logfile.reset(global_alloc(emu_file(OPEN_FLAG_WRITE | OPEN_FLAG_CREATE | OPEN_FLAG_CREATE_PATHS)));
file_error filerr = m_logfile->open("error.log");
assert_always(filerr == FILERR_NONE, "unable to open log file");
add_logerror_callback(logfile_callback);
}
// then finish setting up our local machine
start();
// load the configuration settings and NVRAM
bool settingsloaded = config_load_settings(*this);
//MKCHAMP - INITIALIZING THE HISCORE ENGINE
if (! options().disable_hiscore_patch())
hiscore_init(*this);
// disallow save state registrations starting here.
// Don't do it earlier, config load can create network
// devices with timers.
m_save.allow_registration(false);
nvram_load();
sound().ui_mute(false);
// initialize ui lists
ui().initialize(*this);
// display the startup screens
ui().display_startup_screens(firstrun, !options().skip_nagscreen());
// perform a soft reset -- this takes us to the running phase
soft_reset();
// handle initial load
if (m_saveload_schedule != SLS_NONE)
handle_saveload();
// run the CPUs until a reset or exit
m_hard_reset_pending = false;
while ((!m_hard_reset_pending && !m_exit_pending) || m_saveload_schedule != SLS_NONE)
return 0;
// and out via the exit phase
m_current_phase = MACHINE_PHASE_EXIT;
// save the NVRAM and configuration
sound().ui_mute(true);
nvram_save();
config_save_settings(*this);
// make sure our phase is set properly before cleaning up,
// in case we got here via exception
m_current_phase = MACHINE_PHASE_EXIT;
// call all exit callbacks registered
call_notifiers(MACHINE_NOTIFY_EXIT);
zip_file_cache_clear();
// close the logfile
m_logfile.reset();
return error;
}
int run_game(int game)
{
callback_item *cb;
int error = 0;
/* start in the "pre-init phase" */
current_phase = MAME_PHASE_PREINIT;
/* AdvanceMAME: Disable validity checks */
#if 0
/* perform validity checks before anything else */
if (mame_validitychecks(game) != 0)
return 1;
#endif
/* loop across multiple hard resets */
exit_pending = FALSE;
while (error == 0 && !exit_pending)
{
/* use setjmp/longjmp for deep error recovery */
fatal_error_jmpbuf_valid = TRUE;
error = setjmp(fatal_error_jmpbuf);
if (error == 0)
{
int settingsloaded;
/* move to the init phase */
current_phase = MAME_PHASE_INIT;
/* start tracking resources for real */
begin_resource_tracking();
/* if we have a logfile, set up the callback */
logerror_callback_list = NULL;
if (options.logfile)
add_logerror_callback(logfile_callback);
/* create the Machine structure and driver */
create_machine(game);
/* then finish setting up our local machine */
init_machine();
/* load the configuration settings and NVRAM */
settingsloaded = config_load_settings();
nvram_load();
/* initialize the UI and display the startup screens */
if (ui_init(!settingsloaded && !options.skip_disclaimer, !options.skip_warnings, !options.skip_gameinfo) != 0)
fatalerror("User cancelled");
/* ensure we don't show the opening screens on a reset */
options.skip_disclaimer = options.skip_warnings = options.skip_gameinfo = TRUE;
/* start resource tracking; note that soft_reset assumes it can */
/* call end_resource_tracking followed by begin_resource_tracking */
/* to clear out resources allocated between resets */
begin_resource_tracking();
/* perform a soft reset -- this takes us to the running phase */
soft_reset(0);
/* run the CPUs until a reset or exit */
hard_reset_pending = FALSE;
while ((!hard_reset_pending && !exit_pending) || saveload_pending_file != NULL)
{
profiler_mark(PROFILER_EXTRA);
/* execute CPUs if not paused */
if (!mame_paused)
cpuexec_timeslice();
/* otherwise, just pump video updates through */
else
{
updatescreen();
reset_partial_updates();
}
/* handle save/load */
if (saveload_schedule_callback)
(*saveload_schedule_callback)();
profiler_mark(PROFILER_END);
}
/* and out via the exit phase */
current_phase = MAME_PHASE_EXIT;
/* stop tracking resources at this level */
end_resource_tracking();
/* save the NVRAM and configuration */
nvram_save();
config_save_settings();
}
fatal_error_jmpbuf_valid = FALSE;
/* call all exit callbacks registered */
for (cb = exit_callback_list; cb; cb = cb->next)
(*cb->func.exit)();
/* close all inner resource tracking */
while (resource_tracking_tag != 0)
end_resource_tracking();
/* free our callback lists */
free_callback_list(&exit_callback_list);
free_callback_list(&reset_callback_list);
free_callback_list(&pause_callback_list);
}
/* return an error */
return error;
}
