APR_DECLARE_NONSTD(void) apr_terminate(void)
{
APP_DATA *app_data;
/* Get our instance data for shutting down. */
if (!(app_data = (APP_DATA*) get_app_data(gLibId)))
return;
/* Unregister the NLM. If it is not registered
then just return. */
if (unregister_NLM(app_data->gs_nlmhandle) != 0) {
return;
}
/* apr_pool_terminate() is being called from the
library shutdown code since the memory resources
belong to the library rather than the application */
/* Just clean up the memory for the app that is going
away. */
netware_pool_proc_cleanup ();
#ifdef USE_WINSOCK
UnregisterAppWithWinSock (app_data->gs_nlmhandle);
#endif
}
static int wsa_cleanup_with_handle (void *handle)
{
APP_DATA *app_data;
if (!(app_data = (APP_DATA*) get_app_data(gLibId)))
return APR_EGENERAL;
return WSACleanupRTag(app_data->gs_startup_rtag);
}
void* getGlobalPool()
{
APP_DATA *app_data = (APP_DATA*) get_app_data(gLibId);
if (app_data) {
return app_data->gPool;
}
return NULL;
}
int setGlobalPool(void *data)
{
APP_DATA *app_data = (APP_DATA*) get_app_data(gLibId);
NXLock(gLibLock);
if (app_data && !app_data->gPool) {
app_data->gPool = data;
}
NXUnlock(gLibLock);
return 1;
}
int unregister_NLM(void *NLMHandle)
{
APP_DATA *app_data = (APP_DATA*) get_app_data(gLibId);
NXLock(gLibLock);
if (app_data) {
app_data->initialized = 0;
NXUnlock(gLibLock);
return 0;
}
NXUnlock(gLibLock);
return 1;
}
int
on_screen_scroll(GtkAdjustment * adjustment, gpointer user_data)
{
GtkAdjustment *adj = NULL;
GtkWidget *w = NULL;
AppData *app_data = get_app_data();
ui_hide_arrows_if_exists(app_data->app_ui_data, FALSE);
pdf_viewer_scroller_changed((PDFScroll) GPOINTER_TO_UINT(user_data));
if ( display_mode ==1){
adj = gtk_layout_get_vadjustment(GTK_LAYOUT(app_data->app_ui_data->layout));
if ( !adj) {
/* Ignore when no document loaded */
if ( app_data->state == PDF_VIEWER_STATE_EMPTY ) {
ui_show_banner(GTK_WIDGET(app_data->app_ui_data->app_view),
_("pdfv_ib_menu_not_available") );
return TRUE;
}
adj = gtk_layout_get_hadjustment(GTK_LAYOUT(app_data->app_ui_data->layout));
}
/* If scroll is far left/top or page fits to screen then try to move to previous page */
//g_print("adj->value %f",adj->value);
if ( adj->upper <= adj->page_size || adj->value < 0.0001 ) {
w = gtk_ui_manager_get_widget(app_data->app_ui_data->ui_manager,
"/ToolBar/pdfv_me_menu_page_previous");
if ( (w != NULL) && (GTK_WIDGET_IS_SENSITIVE(w))) {
pdf_viewer_navigate_page(pdf_viewer_get_current_page()-1);
ui_update_current_page(app_data->app_ui_data);
adj = gtk_layout_get_vadjustment(GTK_LAYOUT(app_data->app_ui_data->layout));
gtk_adjustment_set_value(adj,adj->value + adj->upper - adj->page_size -0.0001);
} else {
if ( pdf_viewer_get_current_page() == 1) {
ui_show_banner(GTK_WIDGET(app_data->app_ui_data->app_view),
_("pdfv_ib_first_page_reached"));
}
}
return TRUE;
}
if ( adj->page_size < adj->upper &&adj->value < ( adj->upper - adj->page_size ) ) {
return TRUE;
} else {
if ( pdf_viewer_get_num_pages() != pdf_viewer_get_current_page() ) {
pdf_viewer_navigate_page(pdf_viewer_get_current_page()+1);
ui_update_current_page(app_data->app_ui_data);
adj = gtk_layout_get_vadjustment(GTK_LAYOUT(app_data->app_ui_data->layout));
gtk_adjustment_set_value(adj,adj->value + 0.0001);
}
}
return TRUE;
}
}
static int wsa_startup_with_handle (WORD wVersionRequested, LPWSADATA data, void *handle)
{
APP_DATA *app_data;
if (!(app_data = (APP_DATA*) get_app_data(gLibId)))
return APR_EGENERAL;
app_data->gs_startup_rtag = AllocateResourceTag(handle, "WinSock Start-up", WS_LOAD_ENTRY_SIGNATURE);
app_data->gs_socket_rtag = AllocateResourceTag(handle, "WinSock socket()", WS_SKT_SIGNATURE);
app_data->gs_lookup_rtag = AllocateResourceTag(handle, "WinSock Look-up", WS_LOOKUP_SERVICE_SIGNATURE);
app_data->gs_event_rtag = AllocateResourceTag(handle, "WinSock Event", WS_WSAEVENT_SIGNATURE);
app_data->gs_pcp_rtag = AllocateResourceTag(handle, "WinSock C-Port", WS_CPORT_SIGNATURE);
return WSAStartupRTags(wVersionRequested, data,
app_data->gs_startup_rtag,
app_data->gs_socket_rtag,
app_data->gs_lookup_rtag,
app_data->gs_event_rtag,
app_data->gs_pcp_rtag);
}
int register_NLM(void *NLMHandle)
{
APP_DATA *app_data = (APP_DATA*) get_app_data(gLibId);
NXLock(gLibLock);
if (!app_data) {
app_data = (APP_DATA*)library_malloc(gLibHandle, sizeof(APP_DATA));
if (app_data) {
memset (app_data, 0, sizeof(APP_DATA));
set_app_data(gLibId, app_data);
app_data->gs_nlmhandle = NLMHandle;
}
}
if (app_data && (!app_data->initialized)) {
app_data->initialized = 1;
NXUnlock(gLibLock);
return 0;
}
NXUnlock(gLibLock);
return 1;
}
int GetOrSetUpData(int id, libdata_t **appData,
libthreaddata_t **threadData )
{
int err;
libdata_t *app_data;
libthreaddata_t *thread_data;
NXKey_t key;
NX_LOCK_INFO_ALLOC(liblock, "Application Data Lock", 0);
err = 0;
thread_data = (libthreaddata_t *) NULL;
/*
** Attempt to get our data for the application calling us. This is where we
** store whatever application-specific information we need to carry in support
** of calling applications.
*/
app_data = (libdata_t *) get_app_data(id);
if(!app_data) {
/*
** This application hasn't called us before; set up application AND per-thread
** data. Of course, just in case a thread from this same application is calling
** us simultaneously, we better lock our application data-creation mutex. We
** also need to recheck for data after we acquire the lock because WE might be
** that other thread that was too late to create the data and the first thread
** in will have created it.
*/
NXLock(gLibLock);
if(!(app_data = (libdata_t *) get_app_data(id))) {
app_data = malloc(sizeof(libdata_t));
if(app_data) {
memset(app_data, 0, sizeof(libdata_t));
app_data->tenbytes = malloc(10);
app_data->lock = NXMutexAlloc(0, 0, &liblock);
if(!app_data->tenbytes || !app_data->lock) {
if(app_data->lock)
NXMutexFree(app_data->lock);
free(app_data);
app_data = (libdata_t *) NULL;
err = ENOMEM;
}
if(app_data) {
/*
** Here we burn in the application data that we were trying to get by calling
** get_app_data(). Next time we call the first function, we'll get this data
** we're just now setting. We also go on here to establish the per-thread data
** for the calling thread, something we'll have to do on each application
** thread the first time it calls us.
*/
err = set_app_data(gLibId, app_data);
if(err) {
free(app_data);
app_data = (libdata_t *) NULL;
err = ENOMEM;
}
else {
/* create key for thread-specific data... */
err = NXKeyCreate(DisposeThreadData, (void *) NULL, &key);
if(err) /* (no more keys left?) */
key = -1;
app_data->perthreadkey = key;
}
}
}
}
NXUnlock(gLibLock);
}
if(app_data) {
key = app_data->perthreadkey;
if(key != -1 /* couldn't create a key? no thread data */
&& !(err = NXKeyGetValue(key, (void **) &thread_data))
&& !thread_data) {
/*
** Allocate the per-thread data for the calling thread. Regardless of whether
** there was already application data or not, this may be the first call by a
** a new thread. The fact that we allocation 20 bytes on a pointer is not very
** important, this just helps to demonstrate that we can have arbitrarily
** complex per-thread data.
*/
thread_data = malloc(sizeof(libthreaddata_t));
if(thread_data) {
thread_data->_errno = 0;
thread_data->twentybytes = malloc(20);
if(!thread_data->twentybytes) {
free(thread_data);
thread_data = (libthreaddata_t *) NULL;
err = ENOMEM;
}
if((err = NXKeySetValue(key, thread_data))) {
free(thread_data->twentybytes);
free(thread_data);
thread_data = (libthreaddata_t *) NULL;
}
}
}
}
if(appData)
*appData = app_data;
if(threadData)
*threadData = thread_data;
return err;
}
int dcbx_clif_cmd(UNUSED void *data,
UNUSED struct sockaddr_un *from,
UNUSED socklen_t fromlen,
char *ibuf, int ilen,
char *rbuf, int rlen)
{
u8 status = cmd_success;
u8 cmd;
u8 feature;
u8 subtype;
u8 plen;
char port_id[MAX_U8_BUF];
pg_attribs pg_data;
pfc_attribs pfc_data;
app_attribs app_data;
llink_attribs llink_data;
struct dcbx_tlvs *dcbx;
int dcb_enable;
if (hexstr2bin(ibuf+DCB_CMD_OFF, &cmd, sizeof(cmd)) ||
hexstr2bin(ibuf+DCB_FEATURE_OFF, &feature, sizeof(feature)))
return cmd_invalid;
if (feature == FEATURE_DCBX)
return handle_dcbx_cmd(cmd, feature, ibuf, ilen, rbuf);
if (hexstr2bin(ibuf+DCB_SUBTYPE_OFF, &subtype, sizeof(subtype)) ||
hexstr2bin(ibuf+DCB_PORTLEN_OFF, &plen, sizeof(plen)))
return cmd_invalid;
if (ilen < DCB_PORT_OFF)
return cmd_invalid;
if (ibuf[DCB_VER_OFF] < (CLIF_DCBMSG_VERSION | 0x30)) {
printf("unsupported client interface message version %x %x\n",
ibuf[DCB_VER_OFF], CLIF_DCBMSG_VERSION | 0x30);
return cmd_ctrl_vers_not_compatible;
}
if (ilen < DCB_PORT_OFF+plen) {
printf("command too short\n");
return cmd_invalid;
}
/* append standard dcb command response content */
snprintf(rbuf , rlen, "%*.*s",
DCB_PORT_OFF+plen, DCB_PORT_OFF+plen, ibuf);
memcpy(port_id, ibuf+DCB_PORT_OFF, plen);
port_id[plen] = '\0';
if (get_hw_state(port_id, &dcb_enable) < 0)
return cmd_not_capable;
dcbx = dcbx_data(port_id);
/* OPER and PEER cmd not applicable while in IEEE-DCBX modes */
if ((!dcbx || dcbx->active == 0) &&
(cmd == CMD_GET_PEER || cmd == CMD_GET_OPER))
return cmd_not_applicable;
switch(feature) {
case FEATURE_DCB:
if (cmd == CMD_SET_CONFIG)
status = set_dcb_state(port_id, ibuf, ilen);
else if (cmd == CMD_GET_CONFIG)
status = get_dcb_state(port_id, rbuf+strlen(rbuf));
else
status = cmd_invalid;
break;
case FEATURE_PG:
if (cmd == CMD_GET_PEER) {
status = get_peer_pg(port_id, &pg_data);
} else {
status = get_pg(port_id, &pg_data);
}
if (status != cmd_success) {
printf("error[%d] getting PG data for %s\n",
status, port_id);
return status;
}
if (cmd == CMD_SET_CONFIG) {
if (ilen < (DCB_PORT_OFF + plen + CFG_LEN)) {
printf("set command too short\n");
status = cmd_invalid;
} else {
set_protocol_data(&pg_data.protocol, port_id,
ibuf, plen, NEAREST_BRIDGE);
status = set_pg_config(&pg_data, port_id, ibuf,
ilen);
}
} else {
status = get_cmd_protocol_data(&pg_data.protocol, cmd,
rbuf+strlen(rbuf));
if (status == cmd_success)
status = get_pg_data(&pg_data, cmd, port_id,
pg_data.protocol.dcbx_st,
rbuf+strlen(rbuf));
}
break;
case FEATURE_PFC:
if (cmd == CMD_GET_PEER) {
status = get_peer_pfc(port_id, &pfc_data);
} else {
status = get_pfc(port_id, &pfc_data);
}
if (status != cmd_success) {
printf("error[%d] getting PFC data for %s\n",
status, port_id);
return status;
}
if (cmd == CMD_SET_CONFIG) {
if (ilen < (DCB_PORT_OFF + plen + CFG_LEN)) {
printf("set command too short\n");
status = cmd_failed;
} else {
set_protocol_data(&pfc_data.protocol, port_id,
ibuf, plen, NEAREST_BRIDGE);
status = set_pfc_config(&pfc_data, port_id,
ibuf, ilen);
}
} else {
status = get_cmd_protocol_data(&pfc_data.protocol,
cmd, rbuf+strlen(rbuf));
if (status == cmd_success)
status = get_pfc_data(&pfc_data, cmd,
port_id, pfc_data.protocol.dcbx_st,
rbuf+strlen(rbuf));
}
break;
case FEATURE_APP:
if (cmd == CMD_GET_PEER) {
status = get_peer_app(port_id, (u32)subtype, &app_data);
} else {
status = get_app(port_id, (u32)subtype, &app_data);
}
if (status != cmd_success) {
printf("error[%d] getting APP data for %s\n", status,
port_id);
return status;
}
if (cmd == CMD_SET_CONFIG) {
if (ilen < (DCB_PORT_OFF + plen + CFG_LEN)) {
printf("set command too short\n");
status = cmd_failed;
} else {
set_app_protocol_data(port_id, ibuf, plen, ilen,
subtype, NEAREST_BRIDGE);
}
} else {
status = get_cmd_protocol_data(&app_data.protocol, cmd,
rbuf+strlen(rbuf));
if (status == cmd_success)
status = get_app_data(&app_data, cmd, port_id,
subtype, rbuf + strlen(rbuf));
}
break;
case FEATURE_LLINK:
if (cmd == CMD_GET_PEER) {
status = get_peer_llink(port_id, (u32)subtype,
&llink_data);
} else {
status = get_llink(port_id, (u32)subtype, &llink_data);
}
if (status != cmd_success) {
printf("error[%d] getting APP data for %s\n", status,
port_id);
return status;
}
if (cmd == CMD_SET_CONFIG) {
if (ilen < (DCB_PORT_OFF + plen + CFG_LEN)) {
printf("set command too short\n");
status = cmd_failed;
} else {
set_protocol_data(&llink_data.protocol, port_id,
ibuf, plen, NEAREST_BRIDGE);
status = set_llink_config(&llink_data, port_id,
(u32)subtype, ibuf, ilen);
}
} else {
status = get_cmd_protocol_data(&llink_data.protocol,
cmd, rbuf+strlen(rbuf));
if (status == cmd_success)
status = get_llink_data(&llink_data, cmd,
port_id, subtype, rbuf + strlen(rbuf));
}
break;
case FEATURE_PG_DESC:
if (cmd == CMD_GET_CONFIG) {
status = get_bwg_desc(port_id, ibuf, ilen,
rbuf+strlen(rbuf));
if (status != cmd_success) {
printf("error[%d] getting BWG desc for %s\n",
status, port_id);
return status;
}
} else if (cmd == CMD_SET_CONFIG) {
status = set_bwg_desc(port_id, ibuf, ilen);
}
break;
default:
break;
}
return status;
}
int8_t process_msc_setup_request(const struct setup_packet *setup)
{
uint8_t interface = setup->wIndex;
struct msc_application_data *msc;
#ifdef MULTI_CLASS_DEVICE
/* Check the interface first to make sure the destination is an
* MSC interface. Multi-class devices will need to call
* msc_set_interface_list() first.
*/
if (!interface_is_msc(interface))
return -1;
#endif
/* Get application data for this interface */
msc = get_app_data(interface);
if (!msc)
return -1;
/* BOT 3.2 says the GET_MAX_LUN request is optional if there's only one
* LUN, but stalling this request will cause Windows 7 to hang for 18
* seconds when a device is first connected. */
if (setup->bRequest == MSC_GET_MAX_LUN &&
setup->REQUEST.bmRequestType == 0xa1) {
/* Stall invalid value/length */
if (setup->wValue != 0 ||
setup->wLength != 1)
return -1;
usb_send_data_stage((void*)&msc->max_lun,
1, NULL, 0);
return 0;
}
if (setup->bRequest == MSC_BULK_ONLY_MASS_STORAGE_RESET &&
setup->REQUEST.bmRequestType == 0x21) {
struct msc_application_data *d = get_app_data(interface);
/* Stall invalid value/length */
if (setup->wValue != 0 ||
setup->wLength != 0)
return -1;
if (d)
d->state = MSC_IDLE;
else
return -1;
#ifdef MSC_BULK_ONLY_MASS_STORAGE_RESET_CALLBACK
int8_t res = 0;
res = MSC_BULK_ONLY_MASS_STORAGE_RESET_CALLBACK(interface);
if (res < 0)
return -1;
#endif
/* Clear the NEEDS_RESET_RECOVERY state */
msc->state = MSC_IDLE;
/* Return zero-length packet. No data stage. */
usb_send_data_stage(NULL, 0, NULL, NULL);
return 0;
}
return -1;
}
