/**
* event_set_volume:
* @gain : amount of gain to be applied to current volume level.
*
* Adjusts the current audio volume level.
*
**/
static void event_set_volume(float gain)
{
char msg[PATH_MAX_LENGTH] = {0};
settings_t *settings = config_get_ptr();
settings->audio.volume += gain;
settings->audio.volume = max(settings->audio.volume, -80.0f);
settings->audio.volume = min(settings->audio.volume, 12.0f);
snprintf(msg, sizeof(msg), "Volume: %.1f dB", settings->audio.volume);
rarch_main_msg_queue_push(msg, 1, 180, true);
RARCH_LOG("%s\n", msg);
audio_driver_set_volume_gain(db_to_gain(settings->audio.volume));
}
/**
* event_set_volume:
* @gain : amount of gain to be applied to current volume level.
*
* Adjusts the current audio volume level.
*
**/
static void event_set_volume(float gain)
{
char msg[128];
settings_t *settings = config_get_ptr();
settings->audio.volume += gain;
settings->audio.volume = MAX(settings->audio.volume, -80.0f);
settings->audio.volume = MIN(settings->audio.volume, 12.0f);
snprintf(msg, sizeof(msg), "Volume: %.1f dB", settings->audio.volume);
runloop_msg_queue_push(msg, 1, 180, true);
RARCH_LOG("%s\n", msg);
audio_driver_set_volume_gain(db_to_gain(settings->audio.volume));
}
static void set_volume(float gain)
{
char msg[256];
g_settings.audio.volume += gain;
g_settings.audio.volume = max(g_settings.audio.volume, -80.0f);
g_settings.audio.volume = min(g_settings.audio.volume, 12.0f);
snprintf(msg, sizeof(msg), "Volume: %.1f dB", g_settings.audio.volume);
msg_queue_clear(g_extern.msg_queue);
msg_queue_push(g_extern.msg_queue, msg, 1, 180);
RARCH_LOG("%s\n", msg);
g_extern.audio_data.volume_gain = db_to_gain(g_settings.audio.volume);
}
static void
run(LV2_Handle instance, uint32_t n_samples)
{
uint32_t i,c;
BalanceControl* self = (BalanceControl*)instance;
const float balance = *self->balance;
const float trim = db_to_gain(*self->trim);
float gain_left = 1.0;
float gain_right = 1.0;
const int ascnt = self->samplerate / UPDATE_FREQ;
const uint32_t capacity = self->notify->atom.size;
lv2_atom_forge_set_buffer(&self->forge, (uint8_t*)self->notify, capacity);
lv2_atom_forge_sequence_head(&self->forge, &self->frame, 0);
/* reset after state restore */
if (self->queue_stateswitch) {
self->queue_stateswitch = 0;
self->peak_integrate_pref = self->state[0] * self->samplerate;
self->meter_falloff = self->state[1] / UPDATE_FREQ;
self->peak_hold = self->state[2] * UPDATE_FREQ;
self->peak_integrate_pref = MAX(0, self->peak_integrate_pref);
self->peak_integrate_pref = MIN(self->peak_integrate_pref, self->peak_integrate_max);
self->meter_falloff = MAX(0, self->meter_falloff);
self->meter_falloff = MIN(self->meter_falloff, 1000);
self->peak_hold = MAX(0, self->peak_hold);
self->peak_hold = MIN(self->peak_hold, 60 * UPDATE_FREQ);
reset_uicom(self);
send_cfg_to_ui(self);
}
/* Process incoming events from GUI */
if (self->control) {
LV2_Atom_Event* ev = lv2_atom_sequence_begin(&(self->control)->body);
while(!lv2_atom_sequence_is_end(&(self->control)->body, (self->control)->atom.size, ev)) {
if (ev->body.type == self->uris.atom_Blank || ev->body.type == self->uris.atom_Object) {
const LV2_Atom_Object* obj = (LV2_Atom_Object*)&ev->body;
if (obj->body.otype == self->uris.blc_meters_on) {
if (self->uicom_active == 0) {
reset_uicom(self);
send_cfg_to_ui(self);
self->uicom_active = 1;
}
}
if (obj->body.otype == self->uris.blc_meters_off) {
self->uicom_active = 0;
}
if (obj->body.otype == self->uris.blc_meters_cfg) {
const LV2_Atom* key = NULL;
const LV2_Atom* value = NULL;
lv2_atom_object_get(obj, self->uris.blc_cckey, &key, self->uris.blc_ccval, &value, 0);
if (value && key) {
update_meter_cfg(self, ((LV2_Atom_Int*)key)->body, ((LV2_Atom_Float*)value)->body);
}
}
}
ev = lv2_atom_sequence_next(ev);
}
}
/* pre-calculate parameters */
if (balance < 0) {
gain_right = 1.0 + RAIL(balance, -1.0, 0.0);
} else if (balance > 0) {
gain_left = 1.0 - RAIL(balance, 0.0, 1.0);
}
switch ((int) *self->unitygain) {
case 1:
{
/* maintain amplitude sum */
const double gaindiff = (gain_left - gain_right);
gain_left = 1.0 + gaindiff;
gain_right = 1.0 - gaindiff;
}
break;
case 2:
{
/* equal power*/
if (balance < 0) {
gain_right = MAX(.5, gain_right);
gain_left = db_to_gain(-gain_to_db(gain_right));
} else {
gain_left = MAX(.5, gain_left);
gain_right = db_to_gain(-gain_to_db(gain_left));
}
}
case 0:
/* 'tradidional' balance */
break;
}
if (*(self->phase[C_LEFT])) gain_left *=-1;
if (*(self->phase[C_RIGHT])) gain_right *=-1;
/* keep track of input levels -- only if GUI is visiable */
if (self->uicom_active) {
for (c=0; c < CHANNELS; ++c) {
for (i=0; i < n_samples; ++i) {
/* input peak meter */
const float ps = fabsf(self->input[c][i]);
if (ps > self->p_peak_in[c]) self->p_peak_in[c] = ps;
if (self->peak_integrate_pref < 1) {
const float psm = ps * ps;
if (psm > self->p_peak_inM[c]) self->p_peak_inM[c] = psm;
continue;
}
/* integrated level, peak */
const int pip = (self->peak_integrate_pos + i ) % self->peak_integrate_pref;
const double p_sig = SQUARE(self->input[c][i]);
self->p_peak_inP[c] += p_sig - self->p_peak_inPi[c][pip];
self->p_peak_inPi[c][pip] = p_sig;
/* peak of integrated signal */
const float psm = self->p_peak_inP[c] / (double) self->peak_integrate_pref;
if (psm > self->p_peak_inM[c]) self->p_peak_inM[c] = psm;
}
}
}
/* process audio -- delayline + balance & gain */
process_channel(self, gain_left * trim, C_LEFT, n_samples);
process_channel(self, gain_right * trim, C_RIGHT, n_samples);
/* swap/assign channels */
uint32_t pos = 0;
if (self->c_monomode != (int) *self->monomode) {
/* smooth change */
const uint32_t fade_len = (n_samples >= FADE_LEN) ? FADE_LEN : n_samples;
for (; pos < fade_len; pos++) {
const float gain = (float)pos / (float)fade_len;
float x1[CHANNELS], x2[CHANNELS];
channel_map_change(self, self->c_monomode, pos, x1);
channel_map_change(self, (int) *self->monomode, pos, x2);
self->output[C_LEFT][pos] = x1[C_LEFT] * (1.0 - gain) + x2[C_LEFT] * gain;
self->output[C_RIGHT][pos] = x1[C_RIGHT] * (1.0 - gain) + x2[C_RIGHT] * gain;
}
}
channel_map(self, (int) *self->monomode, pos, n_samples);
self->c_monomode = (int) *self->monomode;
/* audio processing done */
if (!self->uicom_active) {
return;
}
/* output peak meter */
for (c=0; c < CHANNELS; ++c) {
for (i=0; i < n_samples; ++i) {
/* peak */
const float ps = fabsf(self->output[c][i]);
if (ps > self->p_peak_out[c]) self->p_peak_out[c] = ps;
if (self->peak_integrate_pref < 1) {
const float psm = ps * ps;
if (psm > self->p_peak_outM[c]) self->p_peak_outM[c] = psm;
continue;
}
/* integrated level, peak */
const int pip = (self->peak_integrate_pos + i ) % self->peak_integrate_pref;
const double p_sig = SQUARE(self->output[c][i]);
self->p_peak_outP[c] += p_sig - self->p_peak_outPi[c][pip];
self->p_peak_outPi[c][pip] = p_sig;
/* peak of integrated signal */
const float psm = self->p_peak_outP[c] / (double) self->peak_integrate_pref;
if (psm > self->p_peak_outM[c]) self->p_peak_outM[c] = psm;
}
}
if (self->peak_integrate_pref > 0) {
self->peak_integrate_pos = (self->peak_integrate_pos + n_samples ) % self->peak_integrate_pref;
}
/* simple output phase correlation */
for (i=0; i < n_samples; ++i) {
const double p_pos = SQUARE(self->output[C_LEFT][i] + self->output[C_RIGHT][i]);
const double p_neg = SQUARE(self->output[C_LEFT][i] - self->output[C_RIGHT][i]);
/* integrate over 500ms */
self->p_phase_outP += p_pos - self->p_phase_outPi[self->phase_integrate_pos];
self->p_phase_outN += p_neg - self->p_phase_outNi[self->phase_integrate_pos];
self->p_phase_outPi[self->phase_integrate_pos] = p_pos;
self->p_phase_outNi[self->phase_integrate_pos] = p_neg;
self->phase_integrate_pos = (self->phase_integrate_pos + 1) % self->phase_integrate_max;
}
/* abs peak hold */
#define PKM(A,CHN,ID) \
{ \
const float peak = VALTODB(self->p_peak_##A[CHN]); \
if (peak > self->p_max_##A[CHN]) { \
self->p_max_##A[CHN] = peak; \
self->p_tme_##A[CHN] = 0; \
forge_kvcontrolmessage(&self->forge, &self->uris, ID, self->p_max_##A[CHN]); \
} else if (self->peak_hold <= 0) { \
(self->p_tme_##A[CHN])=0; /* infinite hold */ \
} else if (self->p_tme_##A[CHN] <= self->peak_hold) { \
(self->p_tme_##A[CHN])++; \
} else if (self->meter_falloff == 0) { \
self->p_max_##A[CHN] = peak; \
forge_kvcontrolmessage(&self->forge, &self->uris, ID, self->p_max_##A[CHN]); \
} else { \
self->p_max_##A[CHN] -= self->meter_falloff; \
self->p_max_##A[CHN] = MAX(peak, self->p_max_##A[CHN]); \
forge_kvcontrolmessage(&self->forge, &self->uris, ID, self->p_max_##A[CHN]); \
} \
}
/* RMS meter */
#define PKF(A,CHN,ID) \
{ \
float dbp = VALTODB(sqrt(2.0 * self->p_peak_##A##M[CHN])); \
if (dbp > self->p_vpeak_##A[CHN]) { \
self->p_vpeak_##A[CHN] = dbp; \
} else if (self->meter_falloff == 0) { \
self->p_vpeak_##A[CHN] = dbp; \
} else { \
self->p_vpeak_##A[CHN] -= self->meter_falloff; \
self->p_vpeak_##A[CHN] = MAX(dbp, self->p_vpeak_##A[CHN]); \
} \
forge_kvcontrolmessage(&self->forge, &self->uris, ID, (self->p_vpeak_##A [CHN])); \
}
/* report peaks to UI */
self->p_peakcnt += n_samples;
if (self->p_peakcnt > ascnt) {
PKF(in, C_LEFT, METER_IN_LEFT)
PKF(in, C_RIGHT, METER_IN_RIGHT);
PKF(out, C_LEFT, METER_OUT_LEFT);
PKF(out, C_RIGHT, METER_OUT_RIGHT);
PKM(in, C_LEFT, PEAK_IN_LEFT);
PKM(in, C_RIGHT, PEAK_IN_RIGHT);
PKM(out, C_LEFT, PEAK_OUT_LEFT);
PKM(out, C_RIGHT, PEAK_OUT_RIGHT);
#define RMSF(A) sqrt( ( (A) / (double)self->phase_integrate_max ) + 1.0e-12 )
double phase = 0.0;
const double phasdiv = self->p_phase_outP + self->p_phase_outN;
if (phasdiv >= 1.0e-6) {
phase = (RMSF(self->p_phase_outP) - RMSF(self->p_phase_outN)) / RMSF(phasdiv);
} else if (self->p_phase_outP > .001 && self->p_phase_outN > .001) {
phase = 1.0;
}
forge_kvcontrolmessage(&self->forge, &self->uris, PHASE_OUT, phase);
self->p_peakcnt -= ascnt;
for (c=0; c < CHANNELS; ++c) {
self->p_peak_in[c] = -INFINITY;
self->p_peak_out[c] = -INFINITY;
self->p_peak_inM[c] = -INFINITY;
self->p_peak_outM[c] = -INFINITY;
}
}
/* report values to UI - if changed*/
float bal = gain_to_db(fabsf(gain_left));
if (bal != self->p_bal[C_LEFT]) {
forge_kvcontrolmessage(&self->forge, &self->uris, GAIN_LEFT, bal);
}
self->p_bal[C_LEFT] = bal;
bal = gain_to_db(fabsf(gain_right));
if (bal != self->p_bal[C_RIGHT]) {
forge_kvcontrolmessage(&self->forge, &self->uris, GAIN_RIGHT, bal);
}
self->p_bal[C_RIGHT] = bal;
if (self->p_dly[C_LEFT] != self->c_dly[C_LEFT]) {
forge_kvcontrolmessage(&self->forge, &self->uris, DELAY_LEFT, (float) self->c_dly[C_LEFT] / self->samplerate);
}
self->p_dly[C_LEFT] = self->c_dly[C_LEFT];
if (self->p_dly[C_RIGHT] != self->c_dly[C_RIGHT]) {
forge_kvcontrolmessage(&self->forge, &self->uris, DELAY_RIGHT, (float) self->c_dly[C_RIGHT] / self->samplerate);
}
self->p_dly[C_RIGHT] = self->c_dly[C_RIGHT];
}
void config_set_defaults(void)
{
unsigned i, j;
const char *def_video = config_get_default_video();
const char *def_audio = config_get_default_audio();
const char *def_input = config_get_default_input();
#ifdef HAVE_CAMERA
const char *def_camera = config_get_default_camera();
if (def_camera)
strlcpy(g_settings.camera.driver, def_camera, sizeof(g_settings.camera.driver));
#endif
#ifdef HAVE_LOCATION
const char *def_location = config_get_default_location();
if (def_location)
strlcpy(g_settings.location.driver, def_location, sizeof(g_settings.location.driver));
#endif
#ifdef HAVE_OSK
const char *def_osk = config_get_default_osk();
if (def_osk)
strlcpy(g_settings.osk.driver, def_osk, sizeof(g_settings.osk.driver));
#endif
if (def_video)
strlcpy(g_settings.video.driver, def_video, sizeof(g_settings.video.driver));
if (def_audio)
strlcpy(g_settings.audio.driver, def_audio, sizeof(g_settings.audio.driver));
if (def_input)
strlcpy(g_settings.input.driver, def_input, sizeof(g_settings.input.driver));
g_settings.video.xscale = xscale;
g_settings.video.yscale = yscale;
g_settings.video.fullscreen = g_extern.force_fullscreen ? true : fullscreen;
g_settings.video.windowed_fullscreen = windowed_fullscreen;
g_settings.video.monitor_index = monitor_index;
g_settings.video.fullscreen_x = fullscreen_x;
g_settings.video.fullscreen_y = fullscreen_y;
g_settings.video.disable_composition = disable_composition;
g_settings.video.vsync = vsync;
g_settings.video.hard_sync = hard_sync;
g_settings.video.hard_sync_frames = hard_sync_frames;
g_settings.video.black_frame_insertion = black_frame_insertion;
g_settings.video.swap_interval = swap_interval;
g_settings.video.threaded = video_threaded;
g_settings.video.smooth = video_smooth;
g_settings.video.force_aspect = force_aspect;
g_settings.video.scale_integer = scale_integer;
g_settings.video.crop_overscan = crop_overscan;
g_settings.video.aspect_ratio = aspect_ratio;
g_settings.video.aspect_ratio_auto = aspect_ratio_auto; // Let implementation decide if automatic, or 1:1 PAR.
g_settings.video.aspect_ratio_idx = aspect_ratio_idx;
g_settings.video.shader_enable = shader_enable;
g_settings.video.allow_rotate = allow_rotate;
g_settings.video.font_enable = font_enable;
g_settings.video.font_size = font_size;
g_settings.video.font_scale = font_scale;
g_settings.video.msg_pos_x = message_pos_offset_x;
g_settings.video.msg_pos_y = message_pos_offset_y;
g_settings.video.msg_color_r = ((message_color >> 16) & 0xff) / 255.0f;
g_settings.video.msg_color_g = ((message_color >> 8) & 0xff) / 255.0f;
g_settings.video.msg_color_b = ((message_color >> 0) & 0xff) / 255.0f;
g_settings.video.refresh_rate = refresh_rate;
g_settings.video.post_filter_record = post_filter_record;
g_settings.video.gpu_record = gpu_record;
g_settings.video.gpu_screenshot = gpu_screenshot;
g_settings.video.rotation = ORIENTATION_NORMAL;
g_settings.audio.enable = audio_enable;
g_settings.audio.out_rate = out_rate;
g_settings.audio.block_frames = 0;
g_settings.audio.in_rate = out_rate;
if (audio_device)
strlcpy(g_settings.audio.device, audio_device, sizeof(g_settings.audio.device));
g_settings.audio.latency = out_latency;
g_settings.audio.sync = audio_sync;
g_settings.audio.rate_control = rate_control;
g_settings.audio.rate_control_delta = rate_control_delta;
g_settings.audio.volume = audio_volume;
g_extern.audio_data.volume_db = g_settings.audio.volume;
g_extern.audio_data.volume_gain = db_to_gain(g_settings.audio.volume);
g_settings.rewind_enable = rewind_enable;
g_settings.rewind_buffer_size = rewind_buffer_size;
g_settings.rewind_granularity = rewind_granularity;
g_settings.slowmotion_ratio = slowmotion_ratio;
g_settings.fastforward_ratio = fastforward_ratio;
g_settings.pause_nonactive = pause_nonactive;
g_settings.autosave_interval = autosave_interval;
g_settings.block_sram_overwrite = block_sram_overwrite;
g_settings.savestate_auto_index = savestate_auto_index;
g_settings.savestate_auto_save = savestate_auto_save;
g_settings.savestate_auto_load = savestate_auto_load;
g_settings.network_cmd_enable = network_cmd_enable;
g_settings.network_cmd_port = network_cmd_port;
g_settings.stdin_cmd_enable = stdin_cmd_enable;
g_settings.game_history_size = game_history_size;
#ifdef HAVE_MENU
g_settings.rgui_show_start_screen = rgui_show_start_screen;
#endif
rarch_assert(sizeof(g_settings.input.binds[0]) >= sizeof(retro_keybinds_1));
rarch_assert(sizeof(g_settings.input.binds[1]) >= sizeof(retro_keybinds_rest));
memcpy(g_settings.input.binds[0], retro_keybinds_1, sizeof(retro_keybinds_1));
#ifdef RARCH_CONSOLE
memcpy(g_settings.input.menu_binds, retro_keybinds_menu, sizeof(retro_keybinds_menu));
#endif
for (i = 1; i < MAX_PLAYERS; i++)
memcpy(g_settings.input.binds[i], retro_keybinds_rest, sizeof(retro_keybinds_rest));
for (i = 0; i < MAX_PLAYERS; i++)
{
for (j = 0; j < RARCH_BIND_LIST_END; j++)
{
g_settings.input.autoconf_binds[i][j].joykey = NO_BTN;
g_settings.input.autoconf_binds[i][j].joyaxis = AXIS_NONE;
}
}
memset(g_settings.input.autoconfigured, 0, sizeof(g_settings.input.autoconfigured));
// Verify that binds are in proper order.
for (i = 0; i < MAX_PLAYERS; i++)
for (j = 0; j < RARCH_BIND_LIST_END; j++)
if (g_settings.input.binds[i][j].valid)
rarch_assert(j == g_settings.input.binds[i][j].id);
g_settings.input.axis_threshold = axis_threshold;
g_settings.input.netplay_client_swap_input = netplay_client_swap_input;
g_settings.input.turbo_period = turbo_period;
g_settings.input.turbo_duty_cycle = turbo_duty_cycle;
g_settings.input.overlay_opacity = 0.7f;
g_settings.input.overlay_scale = 1.0f;
g_settings.input.debug_enable = input_debug_enable;
g_settings.input.autodetect_enable = input_autodetect_enable;
*g_settings.input.keyboard_layout = '\0';
#ifdef ANDROID
g_settings.input.back_behavior = BACK_BUTTON_QUIT;
#endif
for (i = 0; i < MAX_PLAYERS; i++)
{
g_settings.input.joypad_map[i] = i;
g_settings.input.analog_dpad_mode[i] = ANALOG_DPAD_NONE;
if (!g_extern.has_set_libretro_device[i])
g_settings.input.libretro_device[i] = RETRO_DEVICE_JOYPAD;
}
g_extern.console.screen.viewports.custom_vp.width = 0;
g_extern.console.screen.viewports.custom_vp.height = 0;
g_extern.console.screen.viewports.custom_vp.x = 0;
g_extern.console.screen.viewports.custom_vp.y = 0;
// Make sure settings from other configs carry over into defaults for another config.
if (!g_extern.has_set_save_path)
*g_extern.savefile_dir = '\0';
if (!g_extern.has_set_state_path)
*g_extern.savestate_dir = '\0';
*g_settings.libretro_info_path = '\0';
*g_settings.core_options_path = '\0';
*g_settings.game_history_path = '\0';
*g_settings.cheat_database = '\0';
*g_settings.cheat_settings_path = '\0';
*g_settings.screenshot_directory = '\0';
*g_settings.system_directory = '\0';
*g_settings.input.autoconfig_dir = '\0';
*g_settings.input.overlay = '\0';
*g_settings.content_directory = '\0';
*g_settings.video.shader_path = '\0';
*g_settings.video.shader_dir = '\0';
#ifdef HAVE_MENU
*g_settings.rgui_content_directory = '\0';
*g_settings.rgui_config_directory = '\0';
#endif
#ifdef RARCH_CONSOLE
g_extern.lifecycle_state |= (1ULL << MODE_MENU_PREINIT);
strlcpy(g_settings.system_directory, default_paths.system_dir, sizeof(g_settings.system_directory));
g_settings.video.msg_pos_x = 0.05f;
g_settings.video.msg_pos_y = 0.90f;
g_settings.video.aspect_ratio = -1.0f;
g_settings.core_specific_config = default_core_specific_config;
// g_extern
strlcpy(g_extern.savefile_dir, default_paths.sram_dir, sizeof(g_extern.savefile_dir));
g_extern.console.screen.gamma_correction = DEFAULT_GAMMA;
g_extern.lifecycle_state |= (1ULL << MODE_AUDIO_CUSTOM_BGM_ENABLE);
g_extern.lifecycle_state |= (1ULL << MODE_VIDEO_TRIPLE_BUFFERING_ENABLE);
g_extern.lifecycle_state |= (1ULL << MODE_VIDEO_SOFT_FILTER_ENABLE);
g_extern.lifecycle_state |= (1ULL << MODE_VIDEO_FLICKER_FILTER_ENABLE);
g_extern.console.screen.resolutions.current.id = 0;
strlcpy(g_extern.savestate_dir, default_paths.savestate_dir, sizeof(g_extern.savestate_dir));
g_extern.state_slot = 0;
g_extern.audio_data.mute = 0;
g_extern.verbose = true;
g_extern.console.sound.mode = SOUND_MODE_NORMAL;
#ifdef _XBOX1
g_extern.console.sound.volume_level = 0;
#endif
#endif
#ifdef HAVE_OVERLAY
if (default_overlay_dir)
{
fill_pathname_expand_special(g_extern.overlay_dir, default_overlay_dir, sizeof(g_extern.overlay_dir));
#if defined(__QNX__) || defined(IOS)
fill_pathname_join(g_settings.input.overlay, g_extern.overlay_dir, "snes/snes.cfg", sizeof(g_settings.input.overlay));
#endif
}
#endif
if (default_shader_dir)
fill_pathname_expand_special(g_settings.video.shader_dir, default_shader_dir, sizeof(g_settings.video.shader_dir));
if (default_libretro_path && !g_extern.has_set_libretro)
fill_pathname_expand_special(g_settings.libretro, default_libretro_path, sizeof(g_settings.libretro));
if (default_libretro_info_path)
fill_pathname_expand_special(g_settings.libretro_info_path, default_libretro_info_path, sizeof(g_settings.libretro_info_path));
if (default_config_path)
fill_pathname_expand_special(g_extern.config_path, default_config_path, sizeof(g_extern.config_path));
g_extern.config_save_on_exit = config_save_on_exit;
/* Avoid reloading config on every ROM load */
g_extern.block_config_read = default_block_config_read;
rarch_init_msg_queue();
}
