static void dhcp_async_cb(uint8 sock, uint8 item, int32 ret) // for async mode
{
switch(item) {
case WATCH_SOCK_UDP_SEND:
if(dhcp_alarm) alarm_set(10, dhcp_alarm_cb, 0);
dhcp_run_tick = wizpf_get_systick();
if(ret == RET_OK) {
DBG("DHCP Discovery Sent Async");
if(di.state == DHCP_STATE_INIT) SET_STATE(DHCP_STATE_SEARCHING);
else if(di.state == DHCP_STATE_SELECTING) SET_STATE(DHCP_STATE_REQUESTING);
else DBGCRTCA(TRUE, "wrong state(%d)", di.state);
} else {
DBGA("WATCH_SOCK_UDP_SEND fail - ret(%d)", ret);
}
break;
case WATCH_SOCK_TCP_SEND:
case WATCH_SOCK_CONN_TRY:
case WATCH_SOCK_CLS_TRY:
case WATCH_SOCK_CONN_EVT:
case WATCH_SOCK_CLS_EVT:
case WATCH_SOCK_RECV:
DBGCRTC(TRUE, "DHCP does not use TCP");
default: DBGCRTCA(TRUE, "wrong item(0x%x)", item);
}
}
int phys_mem_release(struct inode *inode, struct file *filp)
{
struct phys_mem_session *session; /* the to-be destroyed session */
session = (struct phys_mem_session *) filp->private_data;
if (down_interruptible(&session->sem))
return -ERESTARTSYS;
/*
* Depending on the state of the session we need to do several
* steps. This "fast'n'furious" implementation of the state
* machine is chosen over the 'real' steps because
* this way it is much cleaner.
*/
while (GET_STATE(session) != SESSION_STATE_CLOSED) {
switch (GET_STATE(session)) {
case SESSION_STATE_OPEN:
/*
* Release all resources aquired in open (except the
* session and the lock)
*/
session->device = NULL;
session->vmas = 0;
SET_STATE(session, SESSION_STATE_CLOSED);
break;
case SESSION_STATE_CONFIGURING:
/*
* Bad: We need to wait until we have a valid state again
* In theory this could go on for ever.
*/
pr_warn("Session %llu: Releasing device while it is "
"impossible (SESSION_STATE_CONFIGURING)\n",
session->session_id);
up(&session->sem);
return -ERESTARTSYS;
case SESSION_STATE_CONFIGURED:
/* Free all claimed pages */
free_page_stati(session);
SET_STATE(session, SESSION_STATE_OPEN);
break;
case SESSION_STATE_MAPPED: break;
/* Hope that all mappings have been taken care of ... */
if (session->vmas)
pr_notice("Session %llu: Releasing device "
"while it still holds %d mappings "
"(SESSION_STATE_MAPPED)\n ",
session->session_id, session->vmas);
SET_STATE(session, SESSION_STATE_CONFIGURED);
break;
}
}
up(&session->sem);
kmem_cache_free(session_mem_cache, session);
return 0;
}
static void dhcp_alarm_cb(int8 arg) // for alarm mode
{
if(dhcp_alarm == FALSE) return;
if(arg == 0) {
if(workinfo.DHCP == NETINFO_DHCP_FAIL) {
workinfo.DHCP = NETINFO_DHCP_BUSY;
di.action = DHCP_ACT_START;
}
if(dhcp_get_state() == DHCP_STATE_IP_CHECK) {
alarm_set(wizpf_tick_conv(FALSE, di.renew_time), dhcp_alarm_cb, 1);
alarm_set(wizpf_tick_conv(FALSE, di.rebind_time), dhcp_alarm_cb, 2);
}
dhcp_run();
} else if(arg == 1) { // renew
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_RENEW;
di.xid++;
alarm_set(10, dhcp_alarm_cb, 0);
} else if(arg == 2) { // rebind
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_REBIND;
di.xid++;
alarm_set(10, dhcp_alarm_cb, 0);
}
}
static void dhcp_alarm_cb(int8 arg) // for DHCP auto mode
{
if(dhcp_alarm == FALSE) return;
if(arg == 0) {
if(di.state == DHCP_STATE_BOUND) {
alarm_set(wizpf_tick_conv(FALSE, di.renew_time), dhcp_alarm_cb, 1);
alarm_set(wizpf_tick_conv(FALSE, di.rebind_time), dhcp_alarm_cb, 2);
}
if(di.state == DHCP_STATE_FAILED) {
di.state = DHCP_STATE_INIT;
di.action = DHCP_ACT_START;
}
dhcp_run();
} else if(arg == 1) { // renew
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_RENEW;
di.xid++;
alarm_set(10, dhcp_alarm_cb, 0);
} else if(arg == 2) { // rebind
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_REBIND;
di.xid++;
alarm_set(10, dhcp_alarm_cb, 0);
}
}
/**
* DHCP manual mode handler.
* - Blocking Function
* - Used only at DHCP manual mode (DHCP mode could be chosen at wizconfig.h file)
* - DHCP_MANUAL mode does not need a loop structure, but if there is no loop structure, \n
* you should handle renew & rebind with your own way, or just ignore renew & rebind action
*
* @param action The action you want to do. (@ref dhcp_action)
* @param renew For returning renew time when DHCP be bound (NULL will be ignored)
* @param rebind For returning rebind time when DHCP be bound (NULL will be ignored)
* @return RET_OK: Success
* @return RET_NOK: Error
*/
int8 dhcp_manual(dhcp_action action, uint32 *renew, uint32 *rebind) // blocking function
{
dhcp_state curstt = di.state;
if(dhcp_alarm == TRUE) return RET_NOK;
while(curstt != DHCP_STATE_INIT && curstt != DHCP_STATE_BOUND) {
dhcp_run();
curstt = di.state;
}
if(curstt == DHCP_STATE_INIT) {
di.action = DHCP_ACT_START;
memset(&workinfo, 0, sizeof(workinfo));
workinfo.dhcp = NETINFO_DHCP;
SetNetInfo(&workinfo);
// ToDo: Set zero IP & SN
do {
dhcp_run();
curstt = di.state;
} while((curstt != DHCP_STATE_INIT || di.action != DHCP_ACT_START)
&& curstt != DHCP_STATE_BOUND);
if(curstt != DHCP_STATE_BOUND) return RET_NOK;
if(renew) *renew = di.renew_time;
if(rebind) *rebind = di.rebind_time;
} else if(curstt == DHCP_STATE_BOUND) {
if(action == DHCP_ACT_START) {
if(renew) *renew = 0;
if(rebind) *rebind = 0;
return RET_OK;
} else if(action == DHCP_ACT_RENEW) { // renew
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_RENEW;
di.xid++;
} else if(action == DHCP_ACT_REBIND) { // rebind
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_REBIND;
di.xid++;
} else {
ERRA("wrong action(%d)", action);
return RET_NOK;
}
curstt = di.state;
while(curstt != DHCP_STATE_INIT && curstt != DHCP_STATE_BOUND) {
dhcp_run();
curstt = di.state;
}
if(curstt != DHCP_STATE_BOUND) return RET_NOK;
if(renew) *renew = di.renew_time;
if(rebind) *rebind = di.rebind_time;
}
return RET_OK;
}
int8 dhcp_manual(int8 action, uint8 *saved_ip, uint32 *renew, uint32 *rebind) // blocking function
{
int8 curstt = dhcp_get_state();
if(dhcp_alarm == TRUE) return RET_NOK;
while(curstt != DHCP_STATE_INIT && curstt != DHCP_STATE_BOUND) {
dhcp_run();
curstt = dhcp_get_state();
}
if(curstt == DHCP_STATE_INIT) {
di.action = DHCP_ACT_START;
memset(&workinfo, 0, sizeof(workinfo));
if(saved_ip) memcpy(workinfo.IP, saved_ip, 4);
workinfo.DHCP = NETINFO_DHCP_BUSY;
SetNetInfo(&workinfo);
do {
dhcp_run();
curstt = dhcp_get_state();
} while((curstt != DHCP_STATE_INIT || workinfo.DHCP == NETINFO_DHCP_BUSY)
&& curstt != DHCP_STATE_BOUND);
if(curstt != DHCP_STATE_BOUND) return RET_NOK;
if(renew) *renew = di.renew_time;
if(rebind) *rebind = di.rebind_time;
} else if(curstt == DHCP_STATE_BOUND) {
if(action == DHCP_ACT_START) {
if(renew) *renew = 0;
if(rebind) *rebind = 0;
return RET_OK;
} else if(action == DHCP_ACT_RENEW) { // renew
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_RENEW;
di.xid++;
} else if(action == DHCP_ACT_REBIND) { // rebind
SET_STATE(DHCP_STATE_SELECTING);
di.action = DHCP_ACT_REBIND;
di.xid++;
} else {
ERRA("wrong action(%d)", action);
return RET_NOK;
}
curstt = dhcp_get_state();
while(curstt != DHCP_STATE_INIT && curstt != DHCP_STATE_BOUND) {
dhcp_run();
curstt = dhcp_get_state();
}
if(curstt != DHCP_STATE_BOUND) return RET_NOK;
if(renew) *renew = di.renew_time;
if(rebind) *rebind = di.rebind_time;
}
return RET_OK;
}
/* array = '[' [ value { ',' value } ] ']' */
static int parse_array(struct frozen *f) {
int i = 0, current_path_len;
char buf[20];
CALL_BACK(f, JSON_TYPE_ARRAY_START, NULL, 0);
TRY(test_and_skip(f, '['));
{
{
SET_STATE(f, f->cur - 1, "", 0);
while (cur(f) != ']') {
snprintf(buf, sizeof(buf), "[%d]", i);
i++;
current_path_len = append_to_path(f, buf, strlen(buf));
f->cur_name =
f->path + strlen(f->path) - strlen(buf) + 1 /*opening brace*/;
f->cur_name_len = strlen(buf) - 2 /*braces*/;
TRY(parse_value(f));
truncate_path(f, current_path_len);
if (cur(f) == ',') f->cur++;
}
TRY(test_and_skip(f, ']'));
truncate_path(f, fstate.path_len);
CALL_BACK(f, JSON_TYPE_ARRAY_END, fstate.ptr, f->cur - fstate.ptr);
}
}
return 0;
}
/* number = [ '-' ] digit+ [ '.' digit+ ] [ ['e'|'E'] ['+'|'-'] digit+ ] */
static int parse_number(struct frozen *f) {
int ch = cur(f);
SET_STATE(f, f->cur, "", 0);
if (ch == '-') f->cur++;
EXPECT(f->cur < f->end, JSON_STRING_INCOMPLETE);
EXPECT(is_digit(f->cur[0]), JSON_STRING_INVALID);
while (f->cur < f->end && is_digit(f->cur[0])) f->cur++;
if (f->cur < f->end && f->cur[0] == '.') {
f->cur++;
EXPECT(f->cur < f->end, JSON_STRING_INCOMPLETE);
EXPECT(is_digit(f->cur[0]), JSON_STRING_INVALID);
while (f->cur < f->end && is_digit(f->cur[0])) f->cur++;
}
if (f->cur < f->end && (f->cur[0] == 'e' || f->cur[0] == 'E')) {
f->cur++;
EXPECT(f->cur < f->end, JSON_STRING_INCOMPLETE);
if ((f->cur[0] == '+' || f->cur[0] == '-')) f->cur++;
EXPECT(f->cur < f->end, JSON_STRING_INCOMPLETE);
EXPECT(is_digit(f->cur[0]), JSON_STRING_INVALID);
while (f->cur < f->end && is_digit(f->cur[0])) f->cur++;
}
truncate_path(f, fstate.path_len);
CALL_BACK(f, JSON_TYPE_NUMBER, fstate.ptr, f->cur - fstate.ptr);
return 0;
}
*/ void Init_Errors(REBVAL *errors)
/*
***********************************************************************/
{
REBSER *errs;
REBVAL *val;
// Create error objects and error type objects:
*ROOT_ERROBJ = *Get_System(SYS_STANDARD, STD_ERROR);
errs = Construct_Object(0, VAL_BLK(errors), 0);
Set_Object(Get_System(SYS_CATALOG, CAT_ERRORS), errs);
Set_Root_Series(TASK_ERR_TEMPS, Make_Block(3));
// Create objects for all error types:
for (val = BLK_SKIP(errs, 1); NOT_END(val); val++) {
errs = Construct_Object(0, VAL_BLK(val), 0);
SET_OBJECT(val, errs);
}
// Catch top level errors, to provide decent output:
PUSH_STATE(Top_State, Saved_State);
if (SET_JUMP(Top_State)) {
POP_STATE(Top_State, Saved_State);
DSP++; // Room for return value
Catch_Error(DS_TOP); // Stores error value here
Print_Value(DS_TOP, 0, FALSE);
Crash(RP_NO_CATCH);
}
SET_STATE(Top_State, Saved_State);
}
LOCAL VOID do_obj(LONG tree, WORD which, WORD bit)
{
WORD state;
state = GET_STATE(tree, which);
SET_STATE(tree, which, state | bit);
}
GtkWidget* deepin_workspace_overview_new(void)
{
DeepinWorkspaceOverview* self = (DeepinWorkspaceOverview*)g_object_new(
DEEPIN_TYPE_WORKSPACE_OVERVIEW, NULL);
GdkScreen* screen = gdk_screen_get_default();
self->priv->fixed_width = gdk_screen_get_width(screen);
self->priv->fixed_height = gdk_screen_get_height(screen);
SET_STATE (self, GTK_STATE_FLAG_NORMAL);
deepin_setup_style_class(GTK_WIDGET(self), "deepin-workspace-clone");
g_object_connect(G_OBJECT(self),
"signal::show", on_deepin_workspace_overview_show, NULL,
"signal::button-press-event", on_deepin_workspace_overview_pressed, NULL,
NULL);
g_object_connect(G_OBJECT(deepin_message_hub_get()),
"signal::window-removed", on_window_removed, self,
"signal::about-to-change-workspace", on_window_change_workspace, self,
NULL);
return (GtkWidget*)self;
}
static
NW_Status_t
Tag_End_CB (NW_WBXML_Parser_t *parser,
void *context)
{
NW_Status_t status = NW_STAT_SUCCESS;
NW_TinyDom_Parser_t *tiny_parser = (NW_TinyDom_Parser_t*)context;
NW_Int32 lastvalid;
NW_REQUIRED_PARAM(parser);
lastvalid = NW_TinyDom_getLastValid(tiny_parser->dom_tree);
if(GET_PASS(tiny_parser)== T_PARSE_PASS_2)
{
/* for the dom tree appending, we won't handle close tag which is beyond last valid mark */
if (lastvalid == -1 || (NW_Int32)parser->offset <= lastvalid)
{
if(tiny_parser->current_node != NULL)
{
tiny_parser->current_node = NW_TinyTree_findParent(tiny_parser->current_node);
}
else
{
status = NW_STAT_FAILURE;
}
}
}
if(status == NW_STAT_SUCCESS)
{
SET_STATE(tiny_parser, T_PARSE_S_CONTENT);
tiny_parser->state &= ~T_PARSE_FLAG_TEXT; /* No longer accumulating text */
}
return status;
}//end Tag_End_CB (..)
/**
* Change DHCP mode to Static.
* Even though DHCP was enabled, it can be changed to Static mode through this function
*
* @param net The addresses you want to set as static addresses
* - NULL parameter or NULL member variable will be ignored and internal storage addresses will be used
* \n and these address will be returned in this net parameter (if not NULL)
*/
void dhcp_static_mode(wiz_NetInfo *net)
{
di.action = DHCP_ACT_NONE;
SET_STATE(DHCP_STATE_INIT);
if(net != NULL) {
if(net->ip[0]!=0 || net->ip[1]!=0 || net->ip[2]!=0 || net->ip[3]!=0)
memcpy(storage.ip, net->ip, 4);
else memcpy(net->ip, storage.ip, 4);
if(net->sn[0]!=0 || net->sn[1]!=0 || net->sn[2]!=0 || net->sn[3]!=0)
memcpy(storage.sn, net->sn, 4);
else memcpy(net->sn, storage.sn, 4);
if(net->gw[0]!=0 || net->gw[1]!=0 || net->gw[2]!=0 || net->gw[3]!=0)
memcpy(storage.gw, net->gw, 4);
else memcpy(net->gw, storage.gw, 4);
if(net->dns[0]!=0 || net->dns[1]!=0 || net->dns[2]!=0 || net->dns[3]!=0)
memcpy(storage.dns, net->dns, 4);
else memcpy(net->dns, storage.dns, 4);
net->dhcp = NETINFO_STATIC;
SetNetInfo(net);
} else {
SetNetInfo(&storage);
memset(&workinfo, 0, sizeof(workinfo));
workinfo.dhcp = NETINFO_STATIC;
SetNetInfo(&workinfo);
}
if(dhcp_alarm) alarm_del(dhcp_alarm_cb, -1);
//send_checker_NB();
}
bool SMFTrack::setup(const data_type *data, const size_t size)
{
if (size < 8) {
#ifdef SMF_TRACK_DEBUG
ERROR("Too short data");
#endif
return false;
}
if (memcmp(data, "MTrk", 4) != 0) {
#ifdef SMF_TRACK_DEBUG
ERROR("Not MTrk data");
#endif
return false;
}
const uint8_t *d = reinterpret_cast<const uint8_t *>(data);
size_t data_size = d[4] << 24 | d[5] << 16 | d[6] << 8 | d[7];
if (data_size != size - 8) {
#ifdef SMF_TRACK_DEBUG
ERROR("mismatch data size: %zu %zu %02x%02x%02x%02x", data_size, size - 8, d[4], d[5], d[6], d[7]);
#endif
return false;
}
data_ = data + 8;
data_end_ = data_ + data_size;
data_cur_ = NULL;
SET_STATE(STATE_INITIALIZED);
return true;
}
int phys_mem_open(struct inode *inode, struct file *filp)
{
struct phys_mem_dev *dev; /* device information */
struct phys_mem_session *session; /* the to-be created session */
/* Find the device */
dev = container_of(inode->i_cdev, struct phys_mem_dev, cdev);
session = kmem_cache_alloc(session_mem_cache, GFP_KERNEL);
if (!session)
return -ENOMEM;
session->session_id = atomic64_add_return(1, &session_counter);
session->device = dev;
sema_init(&session->sem, 1);
session->vmas = 0;
session->num_frame_stati = 0;
session->frame_stati = NULL;
session->status.state = SESSION_STATE_INVALID;
SET_STATE(session, SESSION_STATE_OPEN);
/* and use filp->private_data to point to the device data */
filp->private_data = session;
return 0; /* success */
}
//=============================================================================
void run_option(unsigned char event)
{
switch(event) {
case EVENT_TIMER_SECOND:
lcd_option();
break;
case EVENT_KEY_LEFT:
BEEP_beep();
if (o_menu > 0) { o_menu--; } else { o_menu = OMENU_MAX; }
lcd_option();
break;
case EVENT_KEY_RIGHT:
BEEP_beep();
if (o_menu < OMENU_MAX) { o_menu++; } else { o_menu = 0; }
lcd_option();
break;
case EVENT_KEY_SET:
if (o_menu == OM_SETTIME) {
n_edit_time = 0;
RTC_get_time(&hour, &min, &sec);
SET_STATE(edit_time);
lcd_edit_time();
} else if (o_menu == OM_SETDATE) {
n_edit_date = 0;
RTC_get_date(&wday, &day, &mes, &year);
wday = RTC_day_of_week(day, mes, year);
SET_STATE(edit_date);
lcd_edit_date();
} else if (o_menu == OM_SETALARM) {
n_edit_alarm = 0;
// RTC_get_alarm(&a_hour, &a_min, &a_sec);
SET_STATE(edit_alarm);
lcd_edit_alarm();
} else if (o_menu == OM_SETFM) {
SET_STATE(edit_fmstation);
lcd_edit_fmstation();
}
break;
case EVENT_KEY_SET_LONG:
LCD_clear();
SET_STATE(run_main);
RTOS_setTask(EVENT_TIMER_SECOND, 0, 0);
break;
}
}
static void
leave_meta_state(struct intel_context *intel)
{
struct i830_context *i830 = i830_context(&intel->ctx);
intel_region_release(&i830->meta.draw_region);
intel_region_release(&i830->meta.depth_region);
/* intel_region_release(intel, &i830->meta.tex_region[0]); */
SET_STATE(i830, state);
}
void CharacterController::setFlyingAllowed(bool value) {
if (_flyingAllowed != value) {
_flyingAllowed = value;
if (!_flyingAllowed && _state == State::Hover) {
SET_STATE(State::InAir, "flying not allowed");
}
}
}
void SMFTrack::play()
{
if (data_ == NULL) {
return;
}
data_cur_ = data_;
SET_STATE(STATE_PLAYING);
update_wait_time();
}
void
push_tag (vxml_parser_t * parser)
{
opened_tag_t *tag;
tag = ++(parser->inner_tag);
SET_STATE(XML_A_CHAR);
tag->ot_name = parser->tmp.flat_name;
parser->tmp.flat_name.lm_memblock = NULL;
tag->ot_descr = parser->tmp.tag_descr;
tag->ot_pos = parser->curr_pos;
}
void phys_mem_vma_open(struct vm_area_struct *vma)
{
struct phys_mem_session* session = (struct phys_mem_session*) vma->vm_private_data;
down(&session->sem);
if (0 == session->vmas)
SET_STATE(session, SESSION_STATE_MAPPED);
session->vmas++;
up(&session->sem);
}
/* identifier = letter { letter | digit | '_' } */
static int parse_identifier(struct frozen *f) {
EXPECT(is_alpha(cur(f)), JSON_STRING_INVALID);
{
SET_STATE(f, f->cur, JSON_TYPE_STRING, "", 0);
while (f->cur < f->end &&
(*f->cur == '_' || is_alpha(*f->cur) || is_digit(*f->cur))) {
f->cur++;
}
CALL_BACK(f);
}
return 0;
}
void phys_mem_vma_close(struct vm_area_struct *vma)
{
struct phys_mem_session* session = (struct phys_mem_session*) vma->vm_private_data;
down(&session->sem);
session->vmas--;
if (0 == session->vmas)
SET_STATE(session, SESSION_STATE_CONFIGURED);
up(&session->sem);
}
static void dhcp_fail(void)
{
LOG("DHCP Fail - set temp addr");
di.action = DHCP_ACT_NONE;
SET_STATE(DHCP_STATE_FAILED);
memcpy(&workinfo, &storage, sizeof(storage));
memset(workinfo.mac, 0, 6);
SetNetInfo(&workinfo);
network_disp(NULL);
if(dhcp_alarm)
alarm_set(DHCP_START_RETRY_DELAY, dhcp_alarm_cb, 0);
//send_checker_NB();
}
static
NW_Status_t
T_Tag_Start_CB (NW_WBXML_Parser_t *parser,
void *context)
{
NW_TinyDom_Tag_t *tag = (NW_TinyDom_Tag_t*)context;
NW_TinyDom_Parser_t *tiny_parser = tag->tiny_parser;
NW_REQUIRED_PARAM(parser);
SET_STATE(tiny_parser, T_PARSE_S_TAG_START);
return NW_STAT_SUCCESS;
}
static
NW_Status_t
Content_CB (NW_WBXML_Parser_t *parser,
void *context)
{
NW_TinyDom_Parser_t *tiny_parser = (NW_TinyDom_Parser_t*)context;
SET_STATE(tiny_parser, T_PARSE_S_CONTENT);
/* We need to save the current offset to use if we need a text node. Ugh! */
tiny_parser->content_offset = (NW_TinyTree_Offset_t)parser->offset;
return NW_STAT_SUCCESS;
}
static int expect(struct frozen *f, const char *s, int len, enum json_type t) {
int i, n = left(f);
SET_STATE(f, f->cur, t, "", 0);
for (i = 0; i < len; i++) {
if (i >= n) return JSON_STRING_INCOMPLETE;
if (f->cur[i] != s[i]) return JSON_STRING_INVALID;
}
f->cur += len;
CALL_BACK(f);
return 0;
}
static
NW_Status_t
Pass_3_Content_CB (NW_WBXML_Parser_t *parser,
void *context)
{
NW_TinyDom_AttributeHandle_t *handle = (NW_TinyDom_AttributeHandle_t*)context;
NW_TinyDom_Parser_t *tiny_parser = handle->tlit.tiny_parser;
NW_REQUIRED_PARAM(parser);
SET_STATE(tiny_parser, T_PARSE_S_CONTENT);
return NW_STAT_SUCCESS;
}
/* object = '{' pair { ',' pair } '}' */
static int parse_object(struct frozen *f) {
TRY(test_and_skip(f, '{'));
{
SET_STATE(f, f->cur - 1, JSON_TYPE_OBJECT, ".", 1);
while (cur(f) != '}') {
TRY(parse_pair(f));
if (cur(f) == ',') f->cur++;
}
TRY(test_and_skip(f, '}'));
CALL_BACK(f);
}
return 0;
}
/* Operations where the 3D engine is decoupled temporarily from the
* current GL state and used for other purposes than simply rendering
* incoming triangles.
*/
static void
install_meta_state(struct intel_context *intel)
{
struct i830_context *i830 = i830_context(&intel->ctx);
memcpy(&i830->meta, &i830->initial, sizeof(i830->meta));
i830->meta.active = ACTIVE;
i830->meta.emitted = 0;
SET_STATE(i830, meta);
set_vertex_format(intel);
set_no_texture(intel);
}