int main()
{
struct nr_mgr* mgr = create_nrmgr(512, 1, 28, 1024, (pfn_logicmsg)my_msghandle, check_packet);
thread_new(printf_thread, NULL);
thread_new(listen_thread, mgr);
while(true)
{
nr_mgr_logicmsg_handle(mgr);
thread_sleep(1);
}
return 0;
}
int session_mgr_start(session_mgr_t *mgr)
{
if (mgr == NULL) {
LOG_ERROR("Invalid session mgr");
return ZISS_ERROR;
}
int is_ok = ZISS_ERROR;
do {
if (thread_new(&mgr->thread) == ZISS_ERROR) {
LOG_ERROR("Fail to new thread");
break;
}
if (cond_new(&mgr->exit_cond) == ZISS_ERROR) {
LOG_ERROR("Fail to new cond");
break;
}
if (thread_start(mgr->thread, _session_mgr_thread, mgr) == ZISS_ERROR) {
cond_delete(mgr->exit_cond);
LOG_ERROR("Fail to start thread");
break;
}
is_ok = ZISS_OK;
} while (0);
if (is_ok == ZISS_ERROR) {
session_mgr_stop(mgr);
}
return is_ok;
}
static void
dbgsh (void)
{
ulong rbx;
int b;
if (!config.vmm.dbgsh)
return;
spinlock_lock (&dbgsh_lock);
if (!i) {
tid = thread_new (dbgsh_thread, NULL, VMM_STACKSIZE);
i = true;
}
spinlock_unlock (&dbgsh_lock);
current->vmctl.read_general_reg (GENERAL_REG_RBX, &rbx);
b = (int)rbx;
if (b != -1) {
r = b;
s = -1;
#ifndef FWDBG
spinlock_lock (&dbgsh_lock2);
if (stopped)
thread_wakeup (tid);
spinlock_unlock (&dbgsh_lock2);
#endif
}
current->vmctl.write_general_reg (GENERAL_REG_RAX, (ulong)s);
}
bool hci_inject_open(const hci_t *hci_interface) {
assert(listen_socket == NULL);
assert(thread == NULL);
assert(clients == NULL);
assert(hci_interface != NULL);
hci = hci_interface;
thread = thread_new("hci_inject");
if (!thread)
goto error;
clients = list_new(client_free);
if (!clients)
goto error;
listen_socket = socket_new();
if (!listen_socket)
goto error;
if (!socket_listen(listen_socket, LISTEN_PORT))
goto error;
socket_register(listen_socket, thread_get_reactor(thread), NULL, accept_ready, NULL);
return true;
error:;
interface.close();
return false;
}
/*++
********************************************************************************
FUNCTION:
DESCRIPTION:
ARGUMENTS:
RETURNS:
********************************************************************************
--*/
void *iThread(void *code, void* data)
{
void *handle = 0;
thread_new(code, data);
// void * handle = CreateThread(NULL, 0, (LPTHREAD_START_ROUTINE)code, data, 0, NULL);
return handle;
}
int zsp_listener_start(zsp_listener_t *listener, int port)
{
if (listener == NULL || port <= 0)
return SSS_ERROR;
int is_ok = SSS_ERROR;
do
{
if (socket_new(&listener->sock, SOCKET_TCP_TYPE) == SSS_ERROR)
break;
if (thread_new(&listener->thread) == SSS_ERROR)
break;
listener->port = port;
if (socket_bind(listener->sock, port) == SSS_ERROR)
break;
if (socket_listen(listener->sock) == SSS_ERROR)
break;
thread_set_interval_time(listener->thread, 0);
if (thread_start(listener->thread, _zsp_listener_thread, listener) == SSS_ERROR)
break;
is_ok = SSS_OK;
} while (0);
if (is_ok == SSS_ERROR)
{
zsp_listener_stop(listener);
}
return is_ok;
}
/**
* Internally used helper function that creates a "receive status" thread which
* will call the passed callback function when a status is received.
*
* If async is 0 no thread will be created and the command will run
* synchronously until it completes or an error occurs.
*
* @param client The connected installation proxy client
* @param command Operation name. Will be passed to the callback function
* in async mode or shown in debug messages in sync mode.
* @param async A boolean indicating if receive loop should be run
* asynchronously or block.
* @param status_cb Pointer to a callback function or NULL.
* @param user_data Callback data passed to status_cb.
*
* @return INSTPROXY_E_SUCCESS when the thread was created (async mode), or
* when the command completed successfully (sync).
* An INSTPROXY_E_* error value is returned if an error occured.
*/
static instproxy_error_t instproxy_receive_status_loop_with_callback(instproxy_client_t client, plist_t command, instproxy_command_type_t async, instproxy_status_cb_t status_cb, void *user_data)
{
if (!client || !client->parent || !command) {
return INSTPROXY_E_INVALID_ARG;
}
if (client->receive_status_thread) {
return INSTPROXY_E_OP_IN_PROGRESS;
}
instproxy_error_t res = INSTPROXY_E_UNKNOWN_ERROR;
if (async == INSTPROXY_COMMAND_TYPE_ASYNC) {
/* async mode */
struct instproxy_status_data *data = (struct instproxy_status_data*)malloc(sizeof(struct instproxy_status_data));
if (data) {
data->client = client;
data->command = plist_copy(command);
data->cbfunc = status_cb;
data->user_data = user_data;
if (thread_new(&client->receive_status_thread, instproxy_receive_status_loop_thread, data) == 0) {
res = INSTPROXY_E_SUCCESS;
}
}
} else {
/* sync mode as a fallback */
res = instproxy_receive_status_loop(client, command, status_cb, user_data);
}
return res;
}
int init_zlog(const char *file_prefix, unsigned int file_max_size)
{
if (file_prefix == NULL || file_max_size == 0) {
printf("illegal param.\n");
return S_ERROR;
}
memset(&gs_zlog, 0, sizeof(gs_zlog));
if (new_copy_str(&gs_zlog.file_prefix, file_prefix, NULL) != S_OK) {
printf("fail to copy file_prefix.\n");
return S_ERROR;
}
gs_zlog.file_max_size = file_max_size;
gs_zlog.is_to_exit = FALSE;
if (thread_new(&gs_zlog.thread) != S_OK
|| mutex_new(&gs_zlog.mutex) != S_OK
|| sema_new(&gs_zlog.sema, 0) != S_OK) {
printf("fail to new thread.\n");
return S_ERROR;
}
if (thread_start(gs_zlog.thread, _thread_zlog_do, NULL) != S_OK) {
printf("fail to start thread.\n");
return S_ERROR;
}
return S_OK;
}
int
main(int argc, char **argv)
{
thread_t *threads[2];
list_t *l;
l = list_new(&g_long_op);
threads[0] = thread_new(NULL, _routine_insert0, (void *) l);
threads[1] = thread_new(NULL, _routine_insert1, (void *) l);
thread_start(threads[0]);
thread_start(threads[1]);
thread_destroy(threads[0], 1);
thread_destroy(threads[1], 1);
list_destroy(l);
return EXIT_SUCCESS;
}
static void
telnet_dbgsh_init (void)
{
if (config.vmm.telnet_dbgsh) {
telnet_server_init ("dbgsh");
thread_new (telnet_dbgsh_thread, NULL, VMM_STACKSIZE);
}
}
static int init(const bt_hc_callbacks_t* p_cb, unsigned char *local_bdaddr)
{
int result;
ALOGI("init");
if (p_cb == NULL)
{
ALOGE("init failed with no user callbacks!");
return BT_HC_STATUS_FAIL;
}
hc_cb.epilog_timer_created = false;
fwcfg_acked = false;
has_cleaned_up = false;
pthread_mutex_init(&hc_cb.worker_thread_lock, NULL);
/* store reference to user callbacks */
bt_hc_cbacks = (bt_hc_callbacks_t *) p_cb;
vendor_open(local_bdaddr);
utils_init();
#ifdef HCI_USE_MCT
extern tHCI_IF hci_mct_func_table;
p_hci_if = &hci_mct_func_table;
#else
extern tHCI_IF hci_h4_func_table;
p_hci_if = &hci_h4_func_table;
#endif
p_hci_if->init();
userial_init();
lpm_init();
utils_queue_init(&tx_q);
if (hc_cb.worker_thread)
{
ALOGW("init has been called repeatedly without calling cleanup ?");
}
// Set prio here and let hci worker thread inherit prio
// remove once new thread api (thread_set_priority() ?)
// can switch prio
raise_priority_a2dp(TASK_HIGH_HCI_WORKER);
hc_cb.worker_thread = thread_new("bt_hc_worker");
if (!hc_cb.worker_thread) {
ALOGE("%s unable to create worker thread.", __func__);
return BT_HC_STATUS_FAIL;
}
return BT_HC_STATUS_SUCCESS;
}
eager_reader_t *eager_reader_new(
int fd_to_read,
const allocator_t *allocator,
size_t buffer_size,
size_t max_buffer_count,
const char *thread_name) {
assert(fd_to_read != INVALID_FD);
assert(allocator != NULL);
assert(buffer_size > 0);
assert(max_buffer_count > 0);
assert(thread_name != NULL && *thread_name != '\0');
eager_reader_t *ret = osi_calloc(sizeof(eager_reader_t));
if (!ret) {
LOG_ERROR(LOG_TAG, "%s unable to allocate memory for new eager_reader.", __func__);
goto error;
}
ret->allocator = allocator;
ret->inbound_fd = fd_to_read;
ret->bytes_available_fd = eventfd(0, 0);
if (ret->bytes_available_fd == INVALID_FD) {
LOG_ERROR(LOG_TAG, "%s unable to create output reading semaphore.", __func__);
goto error;
}
ret->buffer_size = buffer_size;
ret->buffers = fixed_queue_new(max_buffer_count);
if (!ret->buffers) {
LOG_ERROR(LOG_TAG, "%s unable to create buffers queue.", __func__);
goto error;
}
ret->inbound_read_thread = thread_new(thread_name);
if (!ret->inbound_read_thread) {
LOG_ERROR(LOG_TAG, "%s unable to make reading thread.", __func__);
goto error;
}
ret->inbound_read_object = reactor_register(
thread_get_reactor(ret->inbound_read_thread),
fd_to_read,
ret,
inbound_data_waiting,
NULL
);
return ret;
error:;
eager_reader_free(ret);
return NULL;
}
VALUE
push_scope()
{
VALUE thr;
thr = thread_new();
cur_thr = thr;
return thr;
}
int main() {
c_logSvc("Hi world from unregistered test module !", LL_NOTICE);
c_registerSvc("test");
c_logSvc("Creating new thread...", LL_STATUS);
thread_new(thread2, 0);
c_logSvc("{1} Sending a test message to manager", LL_STATUS);
c_nothing(1, 0);
c_logSvc("{1} Thread now sleeping...", LL_WARNING);
while (1) thread_sleep(1000);
return 0;
}
void module_start_up_callbacked_wrapper(
const module_t *module,
thread_t *callback_thread,
thread_fn callback) {
callbacked_wrapper_t *wrapper = osi_calloc(sizeof(callbacked_wrapper_t));
wrapper->module = module;
wrapper->lifecycle_thread = thread_new("module_wrapper");
wrapper->callback_thread = callback_thread;
wrapper->callback = callback;
// Run the actual module start up
thread_post(wrapper->lifecycle_thread, run_wrapped_start_up, wrapper);
}
static void
vmmcall_dbgsh_init_pcpu (void)
{
#ifdef FWDBG
char buf[100];
spinlock_lock (&dbgsh_lock);
if (!i) {
snprintf (buf, 100, "dbgsh:s=%p,r=%p\n", &s, &r);
debug_addstr (buf);
thread_new (dbgsh_thread, NULL, PAGESIZE);
i = true;
}
spinlock_unlock (&dbgsh_lock);
#endif
}
bt_status_t btif_sock_init(void) {
assert(thread_handle == -1);
assert(thread == NULL);
btsock_thread_init();
thread_handle = btsock_thread_create(btsock_signaled, NULL);
if (thread_handle == -1) {
LOG_ERROR("%s unable to create btsock_thread.", __func__);
goto error;
}
bt_status_t status = btsock_rfc_init(thread_handle);
if (status != BT_STATUS_SUCCESS) {
LOG_ERROR("%s error initializing RFCOMM sockets: %d", __func__, status);
goto error;
}
status = btsock_l2cap_init(thread_handle);
if (status != BT_STATUS_SUCCESS) {
LOG_ERROR("%s error initializing L2CAP sockets: %d", __func__, status);
goto error;
}
thread = thread_new("btif_sock");
if (!thread) {
LOG_ERROR("%s error creating new thread.", __func__);
btsock_rfc_cleanup();
goto error;
}
status = btsock_sco_init(thread);
if (status != BT_STATUS_SUCCESS) {
LOG_ERROR("%s error initializing SCO sockets: %d", __func__, status);
btsock_rfc_cleanup();
goto error;
}
return BT_STATUS_SUCCESS;
error:;
thread_free(thread);
thread = NULL;
if (thread_handle != -1)
btsock_thread_exit(thread_handle);
thread_handle = -1;
return BT_STATUS_FAIL;
}
int main() {
thread_t *th[N];
int i;
void *ret;
for(i=0; i<N; i++) {
th[i] = thread_new(thfunc, (void*)(intptr_t)i);
}
for(i=0; i<N; i++) {
thread_join(th[i], &ret);
printf("joined thread i=%d ret=%p\n", i, ret);
thread_detach(th[i]);
}
return 0;
}
void process_start(Process* proc) {
MAGIC_ASSERT(proc);
/* dont do anything if we are already running */
if(!process_isRunning(proc)) {
info("starting '%s' process", g_quark_to_string(proc->programID));
/* need to get thread-private program from current worker */
proc->prog = worker_getPrivateProgram(proc->programID);
proc->mainThread = thread_new(proc, proc->prog);
/* make sure the plugin registered before getting our program state */
if(!program_isRegistered(proc->prog)) {
// program_swapInState(proc->prog, proc->state);
thread_executeInit(proc->mainThread, program_getInitFunc(proc->prog));
// program_swapOutState(proc->prog, proc->state);
if(!program_isRegistered(proc->prog)) {
error("The plug-in '%s' must call shadowlib_register()", program_getName(proc->prog));
}
}
/* create our default state as we run in our assigned worker */
proc->state = program_newDefaultState(proc->prog);
/* get arguments from the configured software */
gchar** argv;
gint argc = _process_getArguments(proc, &argv);
/* we will need to free each argument, copy argc in case they change it */
gint n = argc;
/* now we will execute in the plugin */
program_swapInState(proc->prog, proc->state);
thread_executeNew(proc->mainThread, program_getNewFunc(proc->prog), argc, argv);
program_swapOutState(proc->prog, proc->state);
/* free the arguments */
for(gint i = 0; i < n; i++) {
g_free(argv[i]);
}
g_free(argv);
}
}
void
Init_thread()
{
if (!thr_stk)
thr_stk = vector_new();
if (!cur_thr)
cur_thr = thread_new();
cThread = define_class(intern("Thread"), cObject);
OBJ_SETUP(cur_thr, T_THREAD);
BASIC(cur_thr).klass = cThread;
define_method(cThread, intern("call"), eval_thread, 1);
define_singleton_method(cThread, intern("main"), main_thread, 0);
define_singleton_method(cThread, intern("current"), thread_s_current, 0);
define_singleton_method(cThread, intern("critical"), thread_get_critical, 0);
define_singleton_method(cThread, intern("setcritical"), thread_set_critical, 1);
}
static int
dbgsh_enabled (int b)
{
spinlock_lock (&dbgsh_lock);
if (!i) {
tid = thread_new (dbgsh_thread, NULL, VMM_STACKSIZE);
i = true;
}
spinlock_unlock (&dbgsh_lock);
if (b != -1) {
r = b;
s = -1;
spinlock_lock (&dbgsh_lock2);
if (stopped)
thread_wakeup (tid);
spinlock_unlock (&dbgsh_lock2);
}
return s;
}
void tls_user_servers_init()
{
/* init sasl stuff */
my_sasl_init();
init_client_struct();
/* pre client list */
pre_client_list = NULL;
thread_new(&nuauthdatas->pre_client_thread,
"pre client thread", pre_client_check);
/* create tls sasl worker thread pool */
nuauthdatas->tls_sasl_worker =
g_thread_pool_new((GFunc) tls_sasl_connect, NULL,
nuauthconf->nb_auth_checkers, FALSE,
NULL);
}
void processor_io_single(struct connection *con, struct processor_data *pd, void *data, int size, enum bistream_direction direction)
{
// g_warning("%s con %p pd %p data %p size %i dir %i", __PRETTY_FUNCTION__, con, pd, data, size, direction);
processor_io io = NULL;
GFunc thread_io = NULL;
if( direction == bistream_in )
{
if( (io = pd->processor->io_in) == NULL)
thread_io = processors_io_in_thread;
}else
{
if( (io = pd->processor->io_out) == NULL)
thread_io = processors_io_out_thread;
}
// g_warning("processor %s io %p thread_io %p", pd->processor->name, io, thread_io);
if( thread_io != NULL )
{
struct bistream *bistream = pd->bistream;
bistream_data_add(bistream, direction, data, size);
g_mutex_lock(&pd->queued.mutex);
if( pd->queued.refs == 0 )
{
pd->queued.refs++;
GError *thread_error;
struct thread *t = thread_new(con, pd, thread_io);
connection_ref(con);
g_thread_pool_push(g_dionaea->threads->pool, t, &thread_error);
}
g_mutex_unlock(&pd->queued.mutex);
}else
if( io != NULL )
{
io(con, pd, data, size);
}
}
/*
---------------------------------------
打开 UDPv4 通讯接口
---------------------------------------
*/
static bool_t
qst_com_udpv4 (
__CR_IN__ void_t* parm,
__CR_IN__ uint_t argc,
__CR_IN__ ansi_t** argv
)
{
uint_t port;
socket_t netw;
/* 参数解析 <目标地址> <端口号> */
if (argc < 3)
return (FALSE);
port = str2intxA(argv[2]);
if (port > 65535)
return (FALSE);
sQstComm* ctx = (sQstComm*)parm;
/* 关闭当前接口并打开 UDPv4 连接 */
netw = client_udp_open(argv[1], (int16u)port);
if (netw == NULL)
return (FALSE);
socket_set_timeout(netw, QCOM_SNDTOUT, QCOM_CUTDOWN);
/* 设置工作参数 */
qst_com_close(parm, argc, argv);
ctx->comm.obj.netw = netw;
ctx->comm.send = qst_udpv4_send;
/* 启动接收线程 */
ctx->comm.thrd = thread_new(0, qst_udpv4_main, parm, FALSE);
if (ctx->comm.thrd == NULL) {
socket_close(netw);
return (FALSE);
}
TRY_FREE(ctx->comm.title);
ctx->comm.title = str_fmtA(" - UDPv4 \"%s\", %u", argv[1], port);
qst_update_title(ctx);
return (TRUE);
}
int main() {
THREAD *t = thread_new();
thread_setFunction(t, sub, NULL);
thread_run(t);
int i;
for (i = 0; i < 10; ++i) {
if (thread_isRunning(t)) {
printf ("Thread 1 is still running\n");
sleep(1);
}
}
thread_wait(t);
printf("Thread 1 has the status %d\n", thread_getStatus(t));
printf("Thread 1 has the exit-code %d\n", thread_getExit(t));
thread_free(t);
return EXIT_SUCCESS;
}
int zfp_transport_new(zfp_transport_t **ptransport, session_id_t session)
{
if (ptransport == NULL)
return ZISS_ERROR;
zfp_transport_t *new_transport = (zfp_transport_t*)malloc(sizeof(zfp_transport_t));
if (new_transport == NULL) {
LOG_ERROR("Fail to malloc");
return ZISS_ERROR;
}
memset(new_transport, 0, sizeof(zfp_transport_t));
new_transport->session = session;
if (thread_new(&new_transport->thread) == ZISS_ERROR) {
LOG_ERROR("Fail to new thread");
free(new_transport);
new_transport = NULL;
return ZISS_ERROR;
}
*ptransport = new_transport;
return ZISS_OK;
}
static bool lazy_initialize(void) {
assert(alarms == NULL);
pthread_mutex_init(&monitor, NULL);
alarms = list_new(NULL);
if (!alarms) {
LOG_ERROR("%s unable to allocate alarm list.", __func__);
return false;
}
struct sigevent sigevent;
memset(&sigevent, 0, sizeof(sigevent));
sigevent.sigev_notify = SIGEV_THREAD;
sigevent.sigev_notify_function = (void (*)(union sigval))timer_callback;
if (timer_create(CLOCK_ID, &sigevent, &timer) == -1) {
LOG_ERROR("%s unable to create timer: %s", __func__, strerror(errno));
return false;
}
alarm_expired = semaphore_new(0);
if (!alarm_expired) {
LOG_ERROR("%s unable to create alarm expired semaphore", __func__);
return false;
}
callback_thread_active = true;
callback_thread = thread_new("alarm_callbacks");
if (!callback_thread) {
LOG_ERROR("%s unable to create alarm callback thread.", __func__);
return false;
}
thread_set_priority(callback_thread, CALLBACK_THREAD_PRIORITY_HIGH);
thread_post(callback_thread, callback_dispatch, NULL);
return true;
}
/*
---------------------------------------
启动一个工作单元
---------------------------------------
*/
static bool_t
qst_wrk_wakeup (
__CR_IO__ sQstWork* work,
__CR_IN__ ansi_t* name,
__CR_IN__ socket_t netw,
__CR_IN__ mt_main_t proc
)
{
thrd_t thrd;
uint_t count;
/* 查找空闲单元 */
count = work[0].cnt;
for (uint_t idx = 0; idx < count; idx++) {
if (work[idx].over) {
if (!netw_ack_send(netw, TRUE))
return (FALSE);
thrd = thread_new(0, proc, &work[idx], TRUE);
if (thrd == NULL)
return (FALSE);
work[idx].name = name;
work[idx].netw = netw;
work[idx].over = FALSE;
if (thread_goon(thrd))
{
/* 显示已经连线 */
_ENTER_SHOW_CIN_
printf("[%s] is online.\n", name);
_LEAVE_SHOW_CIN_
}
thread_del(thrd);
return (TRUE);
}
}
netw_ack_send(netw, FALSE);
return (FALSE);
}
LIBIMOBILEDEVICE_API np_error_t np_set_notify_callback( np_client_t client, np_notify_cb_t notify_cb, void *user_data )
{
if (!client)
return NP_E_INVALID_ARG;
np_error_t res = NP_E_UNKNOWN_ERROR;
np_lock(client);
if (client->notifier) {
debug_info("callback already set, removing");
property_list_service_client_t parent = client->parent;
client->parent = NULL;
thread_join(client->notifier);
thread_free(client->notifier);
client->notifier = (thread_t)NULL;
client->parent = parent;
}
if (notify_cb) {
struct np_thread *npt = (struct np_thread*)malloc(sizeof(struct np_thread));
if (npt) {
npt->client = client;
npt->cbfunc = notify_cb;
npt->user_data = user_data;
if (thread_new(&client->notifier, np_notifier, npt) == 0) {
res = NP_E_SUCCESS;
}
}
} else {
debug_info("no callback set");
}
np_unlock(client);
return res;
}
void
gtkutil_file_req (const char *title, void *callback, void *userdata, char *filter, char *extensions,
int flags)
{
struct file_req *freq;
GtkWidget *dialog;
GtkFileFilter *filefilter;
extern char *get_xdir_fs (void);
char *token;
char *tokenbuffer;
#if 0 /* native file dialogs */
#ifdef WIN32
if (!(flags & FRF_WRITE))
{
freq = malloc (sizeof (struct file_req));
freq->th = thread_new ();
freq->flags = 0;
freq->multiple = (flags & FRF_MULTIPLE);
freq->callback = callback;
freq->userdata = userdata;
freq->title = g_locale_from_utf8 (title, -1, 0, 0, 0);
if (!filter)
{
freq->filter = "All files\0*.*\0"
"Executables\0*.exe\0"
"ZIP files\0*.zip\0\0";
}
else
{
freq->filter = filter;
}
thread_start (freq->th, win32_thread, freq);
fe_input_add (freq->th->pipe_fd[0], FIA_FD|FIA_READ, win32_read_thread, freq);
return;
}
else {
freq = malloc (sizeof (struct file_req));
freq->th = thread_new ();
freq->flags = 0;
freq->multiple = (flags & FRF_MULTIPLE);
freq->callback = callback;
freq->userdata = userdata;
freq->title = g_locale_from_utf8 (title, -1, 0, 0, 0);
if (!filter)
{
freq->filter = "All files\0*.*\0\0";
}
else
{
freq->filter = filter;
}
thread_start (freq->th, win32_thread2, freq);
fe_input_add (freq->th->pipe_fd[0], FIA_FD|FIA_READ, win32_read_thread, freq);
return;
}
#endif
#endif
if (flags & FRF_WRITE)
{
dialog = gtk_file_chooser_dialog_new (title, NULL,
GTK_FILE_CHOOSER_ACTION_SAVE,
GTK_STOCK_CANCEL, GTK_RESPONSE_CANCEL,
GTK_STOCK_SAVE, GTK_RESPONSE_ACCEPT,
NULL);
if (filter && filter[0]) /* filter becomes initial name when saving */
{
char temp[1024];
path_part (filter, temp, sizeof (temp));
gtk_file_chooser_set_current_folder (GTK_FILE_CHOOSER (dialog), temp);
gtk_file_chooser_set_current_name (GTK_FILE_CHOOSER (dialog), file_part (filter));
}
if (!(flags & FRF_NOASKOVERWRITE))
gtk_file_chooser_set_do_overwrite_confirmation (GTK_FILE_CHOOSER (dialog), TRUE);
}
else
dialog = gtk_file_chooser_dialog_new (title, NULL,
GTK_FILE_CHOOSER_ACTION_OPEN,
GTK_STOCK_CANCEL, GTK_RESPONSE_CANCEL,
GTK_STOCK_OK, GTK_RESPONSE_ACCEPT,
NULL);
if (flags & FRF_MULTIPLE)
gtk_file_chooser_set_select_multiple (GTK_FILE_CHOOSER (dialog), TRUE);
if (last_dir[0])
gtk_file_chooser_set_current_folder (GTK_FILE_CHOOSER (dialog), last_dir);
if (flags & FRF_ADDFOLDER)
gtk_file_chooser_add_shortcut_folder (GTK_FILE_CHOOSER (dialog),
get_xdir_fs (), NULL);
if (flags & FRF_CHOOSEFOLDER)
{
gtk_file_chooser_set_action (GTK_FILE_CHOOSER (dialog), GTK_FILE_CHOOSER_ACTION_SELECT_FOLDER);
gtk_file_chooser_set_current_folder (GTK_FILE_CHOOSER (dialog), filter);
}
else
{
if (filter && (flags & FRF_FILTERISINITIAL))
gtk_file_chooser_set_current_folder (GTK_FILE_CHOOSER (dialog), filter);
}
if (flags & FRF_EXTENSIONS && extensions != NULL)
{
filefilter = gtk_file_filter_new ();
tokenbuffer = g_strdup (extensions);
token = strtok (tokenbuffer, ";");
while (token != NULL)
{
gtk_file_filter_add_pattern (filefilter, token);
token = strtok (NULL, ";");
}
g_free (tokenbuffer);
gtk_file_chooser_set_filter (GTK_FILE_CHOOSER (dialog), filefilter);
}
freq = malloc (sizeof (struct file_req));
freq->dialog = dialog;
freq->flags = flags;
freq->callback = callback;
freq->userdata = userdata;
g_signal_connect (G_OBJECT (dialog), "response",
G_CALLBACK (gtkutil_file_req_response), freq);
g_signal_connect (G_OBJECT (dialog), "destroy",
G_CALLBACK (gtkutil_file_req_destroy), (gpointer) freq);
gtk_widget_show (dialog);
}