void mplEnd(void)
{
plItem *next;
if (!mplGotoTheNext && guiIntfStruct.Playing) {
mplGotoTheNext = 1;
return;
}
if (guiIntfStruct.Playing && (next = gtkSet(gtkGetNextPlItem, 0, NULL)) && (plLastPlayed != next)) {
plLastPlayed = next;
guiSetDF(guiIntfStruct.Filename, next->path, next->name);
guiIntfStruct.StreamType = STREAMTYPE_FILE;
guiIntfStruct.FilenameChanged = guiIntfStruct.NewPlay = 1;
gfree((void **)&guiIntfStruct.AudioFile);
gfree((void **)&guiIntfStruct.Subtitlename);
} else {
if (guiIntfStruct.FilenameChanged || guiIntfStruct.NewPlay)
return;
guiIntfStruct.TimeSec = 0;
guiIntfStruct.Position = 0;
guiIntfStruct.AudioType = 0;
guiIntfStruct.NoWindow = False;
#ifdef CONFIG_DVDREAD
guiIntfStruct.DVD.current_title = 1;
guiIntfStruct.DVD.current_chapter = 1;
guiIntfStruct.DVD.current_angle = 1;
#endif
if (!appMPlayer.subWindow.isFullScreen && gtkShowVideoWindow) {
wsResizeWindow(&appMPlayer.subWindow, appMPlayer.sub.width, appMPlayer.sub.height);
wsMoveWindow(&appMPlayer.subWindow, True, appMPlayer.sub.x, appMPlayer.sub.y);
} else
wsVisibleWindow(&appMPlayer.subWindow, wsHideWindow);
guiGetEvent(guiCEvent, guiSetStop);
mplSubRender = 1;
wsSetBackgroundRGB(&appMPlayer.subWindow, appMPlayer.sub.R, appMPlayer.sub.G, appMPlayer.sub.B);
wsClearWindow(appMPlayer.subWindow);
wsPostRedisplay(&appMPlayer.subWindow);
}
}
SplashState::~SplashState() {
delete strokePattern;
delete fillPattern;
delete screen;
gfree(lineDash);
delete clip;
if (deleteSoftMask && softMask) {
delete softMask;
}
}
static int ft_no_new_line(char **line, char *buf, int j)
{
char *tmp;
if (!(tmp = (char *)gmalloc(sizeof(*tmp) * BUFF_SIZE * j + 1)))
return (-1);
ft_strclr(tmp);
ft_strcpy(tmp, *line);
gfree((void *)*line);
j++;
if (!(*line = (char *)gmalloc(sizeof(**line) * BUFF_SIZE * j + 1)))
return (-1);
ft_strclr(*line);
ft_strcpy(*line, tmp);
gfree((void *)tmp);
ft_strcat(*line, buf);
buf[0] = '\0';
return (j);
}
/* Destruction de la tâche */
int comSunSpotTaskClose() {
/* close task */
int ret;
ret = pthread_cancel(comSunSpotThread);
if (sock != 0)
close(sock);
if (message != NULL)
gfree(message);
return (ret);
}
static t_env *ft_actualize(t_env *e, char *oldpwd, char **tab, int i)
{
char *pwd;
pwd = (char *)gmalloc(sizeof(char) * 20000);
getcwd(pwd, 20000);
if (!i && tab[1] && !tab[2])
{
ft_putstr_fd("cd: not a directory or permission denied: ", 2);
ft_putendl_fd(tab[1], 2);
}
else if (!i && tab[1] && tab[2])
ft_putendl_fd("cd: too args", 2);
else
e = ft_good_env(e, pwd, oldpwd);
ft_free_char2(tab);
gfree(oldpwd);
gfree(pwd);
return (e);
}
static void freeptrtab(unsigned char **ptrtab,int tot) {
int i,j;
for ( i=0; i<tot; ++i )
if ( ptrtab[i]!=NULL ) {
for ( j=i+1; j<tot; ++j )
if ( ptrtab[j]==ptrtab[i] )
ptrtab[j] = NULL;
gfree(ptrtab[i]);
}
}
int StopSimulationSensor() {
SimuThreadList* p_simuThreadCurrent, *p_simuThreadDelete;
p_simuThreadCurrent = p_simuThreadList;
p_simuThreadDelete = p_simuThreadList;
while (p_simuThreadCurrent != NULL) {
p_simuThreadCurrent = p_simuThreadDelete->next;
gfree(p_simuThreadDelete);
p_simuThreadDelete = p_simuThreadCurrent;
}
return 0;
}
OutlineItem::~OutlineItem() {
close();
if (title) {
gfree(title);
}
if (action) {
delete action;
}
firstRef.free();
lastRef.free();
nextRef.free();
}
void SplashState::setLineDash(SplashCoord *lineDashA, int lineDashLengthA,
SplashCoord lineDashPhaseA) {
gfree(lineDash);
lineDashLength = lineDashLengthA;
if (lineDashLength > 0) {
lineDash = (SplashCoord *)gmallocn(lineDashLength, sizeof(SplashCoord));
memcpy(lineDash, lineDashA, lineDashLength * sizeof(SplashCoord));
} else {
lineDash = NULL;
}
lineDashPhase = lineDashPhaseA;
}
void *c_calls(char *str, char *s1)
{
void *s2;
if (!ft_strcmp(str, "trim"))
s2 = ft_strtrim(s1);
else if (!(ft_strcmp(str, "dup")))
s2 = ft_strdup(s1);
else if (!(ft_strcmp(str, "plim")))
s2 = ft_strsplim(s1);
gfree(s1);
return (s2);
}
static void ft_delete_plist_elem(t_p **p, t_p **move)
{
t_p *tmp;
tmp = *move;
if (*move && (*move)->next)
{
*move = (*move)->next;
if (*p == (*move)->prev)
*p = (*p)->next;
if (tmp->prev)
{
tmp->prev->next = tmp->next;
tmp->next->prev = tmp->prev;
}
else
tmp->next->prev = NULL;
gfree((void *)tmp->tok);
gfree((void *)tmp);
}
else
ft_delete_plist_last_elem(p, move);
}
void gmem_test2()
{
int *table2 = 0, *table3 = 0;
int size2 = 8, size3 = 16;
unsigned mem2 = sizeof(int)*size2;
unsigned mem3 = sizeof(int)*size3;
unsigned initialAvailableMem = gmem_availableMem();
printf("Test 2 : running.\n");
table2 = (int*) gmalloc(mem2);
assert(table2 != NULL);
assert(gmem_availableMem() == __HEAP_SIZE - 2*hdrSize - mem2);
table3 = (int*) gmalloc(mem3);
assert(table3 != NULL);
assert(gmem_availableMem() == __HEAP_SIZE - 3*hdrSize - mem3 -mem2);
gmem_fill_tab(table2, size2);
gmem_fill_tab(table3, size3);
gfree(table2);
assert(gmem_availableMem() == __HEAP_SIZE - 3*hdrSize - mem3);
gfree(table3);
assert(gmem_availableMem() == __HEAP_SIZE - hdrSize);
assert(gmem_availableMem() == initialAvailableMem);
assert(gmem_sizeFreeBlockList() == 1);
assert((void*)((unsigned)heap + __HEAP_SIZE - 1U)
== (void*)((unsigned)firstHdr->blockNode.mem
+ firstHdr->blockNode.size - 1U));
printf("Test 2 : OK.\n");
}
GImage *GImageRead_Jpeg(FILE *infile) {
GImage *ret;
struct _GImage *base;
struct jpeg_decompress_struct cinfo;
struct my_error_mgr jerr;
JSAMPLE *rows[1];
struct jpegState js;
int ypos;
if ( libjpeg==NULL )
if ( !loadjpeg())
return( NULL );
cinfo.err = _jpeg_std_error(&jerr.pub);
jerr.pub.error_exit = my_error_exit;
if (setjmp(jerr.setjmp_buffer)) {
_jpeg_destroy_decompress(&cinfo);
return( NULL );
}
_jpeg_create_decompress(&cinfo,JPEG_LIB_VERSION,(size_t) sizeof(struct jpeg_decompress_struct));
_jpeg_stdio_src(&cinfo, infile);
(void) _jpeg_read_header(&cinfo, TRUE);
if ( cinfo.jpeg_color_space == JCS_GRAYSCALE )
cinfo.out_color_space = JCS_RGB;
ret = GImageCreate(it_true,cinfo.image_width, cinfo.image_height);
if ( ret==NULL ) {
_jpeg_destroy_decompress(&cinfo);
return( NULL );
}
base = ret->u.image;
(void) _jpeg_start_decompress(&cinfo);
rows[0] = galloc(3*cinfo.image_width);
js.cinfo = &cinfo; js.base = base; js.buffer = rows[0];
while (cinfo.output_scanline < cinfo.output_height) {
ypos = cinfo.output_scanline;
(void) _jpeg_read_scanlines(&cinfo, rows, 1);
transferBufferToImage(&js,ypos);
}
(void) _jpeg_finish_decompress(&cinfo);
_jpeg_destroy_decompress(&cinfo);
gfree(rows[0]);
return( ret );
}
void fs_PersistantHistory( char * subject )
{
int i;
if ( fsType != fsVideoSelector ) return;
for ( i=0;i < fsPersistant_MaxPos;i++ )
if ( fsHistory[i] && !strcmp( fsHistory[i],subject ) )
{
char * tmp = fsHistory[i]; fsHistory[i]=fsHistory[0]; fsHistory[0]=tmp;
return;
}
gfree( (void **)&fsHistory[fsPersistant_MaxPos - 1] );
for ( i=fsPersistant_MaxPos - 1;i;i-- ) fsHistory[i]=fsHistory[i - 1];
fsHistory[0]=gstrdup( subject );
}
static void checkResource(HWND hwnd, LPWORD lpBase, LPSTR lpText,...)
{
LPSTR lpBuff=gmalloc(1024);
int nOffset=0;
int nCheck;
if (!lpBuff) {
alert(hwnd, "gmalloc() failed in checkResource!");
return;
}
do {
va_list args;
LPSTR lpPtr;
int nPtr;
va_start(args, lpText);
lpPtr=lpBuff+wvsprintf(lpBuff, lpText, args)+4;
va_end(args);
lstrcat(lpBuff, "\r\n\r\n");
for (nPtr=0; nPtr<15; nPtr++) {
int nIndex=nPtr+nOffset;
UCHAR c1=lpBase[nIndex]>>8;
UCHAR c2=lpBase[nIndex]&0xff;
if (c1<32 || 126<c1)
c1=' ';
if (c2<32 || 126<c2)
c2=' ';
lpPtr+=wsprintf(lpPtr, "%04d: %04x %c%c\r\n", nIndex, lpBase[nIndex], c1, c2);
}
nCheck=query(hwnd, MB_YESNOCANCEL, lpBuff);
switch (nCheck) {
case IDYES: nOffset+=16; break;
case IDNO: nOffset-=16; break;
}
} while (nCheck!=IDCANCEL);
gfree(lpBuff); lpBuff = NULL;
}
void guiLoadFont(void)
{
#ifdef CONFIG_FREETYPE
load_font_ft(vo_image_width, vo_image_height, &vo_font, font_name, osd_font_scale_factor);
#else
if (vo_font) {
int i;
free(vo_font->name);
free(vo_font->fpath);
for (i = 0; i < 16; i++) {
if (vo_font->pic_a[i]) {
free(vo_font->pic_a[i]->bmp);
free(vo_font->pic_a[i]->pal);
}
}
for (i = 0; i < 16; i++) {
if (vo_font->pic_b[i]) {
free(vo_font->pic_b[i]->bmp);
free(vo_font->pic_b[i]->pal);
}
}
free(vo_font);
vo_font = NULL;
}
if (font_name) {
vo_font = read_font_desc(font_name, font_factor, 0);
if (!vo_font)
gmp_msg(MSGT_GPLAYER, MSGL_ERR, MSGTR_CantLoadFont, font_name);
} else {
font_name = gstrdup(get_path("font/font.desc"));
vo_font = read_font_desc(font_name, font_factor, 0);
if (!vo_font) {
gfree((void **)&font_name);
font_name = gstrdup(MPLAYER_DATADIR "/font/font.desc");
vo_font = read_font_desc(font_name, font_factor, 0);
}
}
#endif
}
GooList *OutlineItem::readItemList(Object *firstItemRef, Object *lastItemRef,
XRef *xrefA) {
GooList *items;
char* alreadyRead;
OutlineItem *item;
Object obj;
Object *p;
if (!lastItemRef->isRef())
return NULL;
items = new GooList();
alreadyRead = (char *)gmalloc(xrefA->getNumObjects());
memset(alreadyRead, 0, xrefA->getNumObjects());
p = firstItemRef;
while (p->isRef() &&
(p->getRefNum() >= 0) &&
(p->getRefNum() < xrefA->getNumObjects()) &&
!alreadyRead[p->getRefNum()]) {
if (!p->fetch(xrefA, &obj)->isDict()) {
obj.free();
break;
}
alreadyRead[p->getRefNum()] = 1;
item = new OutlineItem(obj.getDict(), xrefA);
obj.free();
items->append(item);
if (p->getRef().num == lastItemRef->getRef().num &&
p->getRef().gen == lastItemRef->getRef().gen) {
break;
}
p = &item->nextRef;
}
gfree(alreadyRead);
if (!items->getLength()) {
delete items;
items = NULL;
}
return items;
}
llist effacerListe(llist liste)
{
element* tmp = liste;
element* tmpnxt;
while(tmp != NULL)
{
tmpnxt = tmp->nxt;
gfree(tmp);
tmp = tmpnxt;
}
return NULL;
}
/* Tâche simulant un capteur de contact, de l'ajout de celui-ci jusqu'à l'envoi de trames à partir de ces capteurs.
* p_argSensor : Structure argument contenant les informations ID et EEP du capteur.
*/
void * SimulationSensorContact(void * p_argSensor) {
char message[29];
int contact, sleepingTime;
char contactHexa[3];
char id[9];
sleepingTime = ((struct ArgSensor*) p_argSensor)->sleepingTime;
strcpy(id, ((struct ArgSensor*) p_argSensor)->id);
gfree(p_argSensor);
/*AddSensor(((struct ArgSensor*)p_argSensor)->id, str_sub(((struct ArgSensor*)p_argSensor)->eep, 0, 1), str_sub(((struct ArgSensor*)p_argSensor)->eep, 2, 3), str_sub(((struct ArgSensor*)p_argSensor)->eep, 4, 5));*/
while (1) {
sleep(sleepingTime);
contact = rand() % 2;
sprintf(contactHexa, "%X", contact);
contactHexa[1] = contactHexa[0];
contactHexa[0] = '0';
contactHexa[2] = '\0';
/******* HEADER *******/
strcpy(message, "A55A"); /* Début d'un message */
strcat(message, "0B"); /* SYNC_BYTE */
strcat(message, "07"); /* LENGTH_BYTE */
/***** FIN HEADER *****/
/******* DATA BYTE *******/
strcat(message, "000000"); /* BYTE 3 à 1 */
strcat(message, contactHexa); /* BYTE 0 */
/***** FIN DATA BYTE *****/
/******* ID *******/
strcat(message, id); /* 4 octets */
/***** FIN ID *****/
strcat(message, "00"); /* STATUS BYTE */
strcat(message, "00"); /* CHECKSUM */
/*printf("Message du capteur de contact : %s\n",message);*/
mq_send(smq, message, MAX_MQ_SIZE, 0);
}
return (void*) NULL;
}
static void ecButtonReleased( GtkButton * button,gpointer user_data )
{
if ( (int)user_data )
{ // if you pressed Ok
gfree( (void **)>kEquChannel1 ); gtkEquChannel1=gstrdup( gtk_entry_get_text( GTK_ENTRY( CEChannel1 ) ) );
gfree( (void **)>kEquChannel2 ); gtkEquChannel2=gstrdup( gtk_entry_get_text( GTK_ENTRY( CEChannel2 ) ) );
gfree( (void **)>kEquChannel3 ); gtkEquChannel3=gstrdup( gtk_entry_get_text( GTK_ENTRY( CEChannel3 ) ) );
gfree( (void **)>kEquChannel4 ); gtkEquChannel4=gstrdup( gtk_entry_get_text( GTK_ENTRY( CEChannel4 ) ) );
gfree( (void **)>kEquChannel5 ); gtkEquChannel5=gstrdup( gtk_entry_get_text( GTK_ENTRY( CEChannel5 ) ) );
gfree( (void **)>kEquChannel6 ); gtkEquChannel6=gstrdup( gtk_entry_get_text( GTK_ENTRY( CEChannel6 ) ) );
eqSetChannelNames();
}
HideEquConfig();
}
/* Tâche simulant un capteur de présence, de l'ajout de celui-ci jusqu'à l'envoi de trames à partir de ces capteurs.
* p_argSensor : Structure argument contenant les informations ID du capteur.
*/
void * SimulationSensorOccupancy(void * p_argSensor) {
char message[29];
int occupancy, sleepingTime;
char occupancyHexa[3];
char id[9];
sleepingTime = ((struct ArgSensor*) p_argSensor)->sleepingTime;
strcpy(id, ((struct ArgSensor*) p_argSensor)->id);
gfree(p_argSensor);
while (1) {
sleep(sleepingTime);
occupancy = (rand() % 2) << 1;
sprintf(occupancyHexa, "%X", occupancy);
occupancyHexa[1] = occupancyHexa[0];
occupancyHexa[0] = '0';
occupancyHexa[2] = '\0';
/******* HEADER *******/
strcpy(message, "A55A"); /* Début d'un message */
strcat(message, "0B"); /* SYNC_BYTE */
strcat(message, "07"); /* LENGTH_BYTE */
/***** FIN HEADER *****/
/******* DATA BYTE *******/
strcat(message, "000000"); /* BYTE 3 à 1 */
strcat(message, occupancyHexa); /* BYTE 0 */
/***** FIN DATA BYTE *****/
/******* ID *******/
strcat(message, id); /* 4 octets */
/***** FIN ID *****/
strcat(message, "00"); /* STATUS BYTE */
strcat(message, "00"); /* CHECKSUM */
/*printf("Message du capteur de présence : %s\n",message);*/
mq_send(smq, message, MAX_MQ_SIZE, 0);
}
return (void*) NULL;
}
void help(char *file) {
if(file){
char* p_file = copy(file);
char* p_uri = p_file;
char* p_param = strrchr(p_file,'#');
if(p_param){
*p_param = '\0';
}
if(! GFileIsAbsolute(p_file)){
p_uri = (char*) galloc( 256 + strlen(GResourceProgramDir) + strlen(p_file) );
strcpy(p_uri, GResourceProgramDir); /* doc/fontforge/ja/file */
strcat(p_uri, "/doc/fontforge/");
AppendSupportedLocale(p_uri);
strcat(p_uri, p_file);
if(!GFileReadable(p_uri)){
strcpy(p_uri, GResourceProgramDir);/* doc/fontforge/file */
strcat(p_uri, "/doc/fontforge/");
strcat(p_uri, p_file);
if(!GFileReadable(p_uri)){
strcpy(p_uri, "http://fontforge.sourceforge.net/"); /* http://host/ja/file */
AppendSupportedLocale(p_uri);
strcat(p_uri, p_file);
}
}
}
if(p_param){
if(p_uri != p_file)
strcat(p_uri, p_param);
else
*p_param = '#';
}
/* using default browser */
ShellExecute(NULL, "open", p_uri, NULL, NULL, SW_SHOWDEFAULT);
if(p_uri != p_file) gfree(p_uri);
}
}
/* Tâche simulant un interrupteur à 4 etats, de l'ajout de celui-ci jusqu'à l'envoi de trames à partir de ces capteurs.
* p_argSensor : Structure argument contenant les informations ID du capteur.
*/
void * SimulationSensorSwitch(void * p_argSensor) {
char message[29];
int i_switch, sleepingTime;
char switchHexa[3];
char id[9];
sleepingTime = ((struct ArgSensor*) p_argSensor)->sleepingTime;
strcpy(id, ((struct ArgSensor*) p_argSensor)->id);
gfree(p_argSensor);
/* AddSensor(((struct ArgSensor*)p_argSensor)->id, str_sub(((struct ArgSensor*)p_argSensor)->eep, 0, 1), str_sub(((struct ArgSensor*)p_argSensor)->eep, 2, 3), str_sub(((struct ArgSensor*)p_argSensor)->eep, 4, 5));*/
while (1) {
sleep(sleepingTime);
i_switch = (rand() % 4) << 1;
sprintf(switchHexa, "%X", i_switch);
switchHexa[1] = '0';
switchHexa[2] = '\0';
/******* HEADER *******/
strcpy(message, "A55A"); /* Début d'un message */
strcat(message, "0B"); /* SYNC_BYTE */
strcat(message, "07"); /* LENGTH_BYTE */
/***** FIN HEADER *****/
/******* DATA BYTE *******/
strcat(message, switchHexa); /* BYTE 3 */
strcat(message, "000000"); /* BYTE 2 à 0 */
/***** FIN DATA BYTE *****/
/******* ID *******/
strcat(message, id); /* 4 octets */
/***** FIN ID *****/
strcat(message, "30"); /* STATUS BYTE */
strcat(message, "00"); /* CHECKSUM */
/* printf("Message du capteur d'interrupteur : %s\n",message);*/
mq_send(smq, message, MAX_MQ_SIZE, 0);
}
return (void*) NULL;
}
void NameToCharCode::add(char *name, CharCode c) {
NameToCharCodeEntry *oldTab;
int h, i, oldSize;
// expand the table if necessary
if (len >= size / 2) {
oldSize = size;
oldTab = tab;
size = 2*size + 1;
tab = (NameToCharCodeEntry *)gmallocn(size, sizeof(NameToCharCodeEntry));
for (h = 0; h < size; ++h) {
tab[h].name = NULL;
}
for (i = 0; i < oldSize; ++i) {
if (oldTab[i].name) {
h = hash(oldTab[i].name);
while (tab[h].name) {
if (++h == size) {
h = 0;
}
}
tab[h] = oldTab[i];
}
}
gfree(oldTab);
}
// add the new name
h = hash(name);
while (tab[h].name && strcmp(tab[h].name, name)) {
if (++h == size) {
h = 0;
}
}
if (!tab[h].name) {
tab[h].name = copyString(name);
}
tab[h].c = c;
++len;
}
GImage *GImageReadTiff(char *filename) {
TIFF* tif;
uint32 w, h, i,j;
uint32 *ipt, *fpt;
size_t npixels;
uint32* raster;
GImage *ret=NULL;
struct _GImage *base;
if ( libtiff==NULL )
if ( !loadtiff())
return( NULL );
tif = _TIFFOpen(filename, "r");
if (tif==NULL )
return( ret );
_TIFFGetField(tif, TIFFTAG_IMAGEWIDTH, &w);
_TIFFGetField(tif, TIFFTAG_IMAGELENGTH, &h);
npixels = w * h;
raster = (uint32*) galloc(npixels * sizeof (uint32));
if (raster != NULL) {
if (_TIFFReadRGBAImage(tif, w, h, raster, 0)) {
ret = GImageCreate(it_true,w,h);
if ( ret!=NULL ) {
base = ret->u.image;
for ( i=0; i<h; ++i ) {
ipt = (uint32 *) (base->data+i*base->bytes_per_line);
fpt = raster+(h-1-i)*w;
for ( j=0; j<w; ++j )
*ipt++ = COLOR_CREATE(
TIFFGetR(fpt[j]), TIFFGetG(fpt[j]), TIFFGetB(fpt[j]));
}
}
}
gfree(raster);
}
_TIFFClose(tif);
return( ret );
}
/* Lance une action sur un actionneur de courant
* Le courant est coupé si value = 7, et est en marche quand value = 5
*/
int actionCurrent(float value, struct Actuator * p_actuator, mqd_t smq) {
char message[29];
char valueHexa[3];
char *actuatorRealID;
sprintf(valueHexa,"%02X",(int)value);
actuatorRealID = str_sub(p_actuator->id, strlen(p_actuator->id)-2, strlen(p_actuator->id)-1);
/******* HEADER *******/
strcpy(message, "A55A"); /* Début d'un message */
strcat(message, "6B"); /* SYNC_BYTE */
strcat(message, "05"); /* LENGTH_BYTE */
/***** FIN HEADER *****/
/******* DATA BYTE *******/
strcat(message, valueHexa); /* BYTE 3 */
strcat(message, "000000"); /* BYTE 2 à 0 */
/***** FIN DATA BYTE *****/
/******* ID *******/
strcat(message, idReceptorEnOcean); /* 3 octets */
strcat(message, actuatorRealID); /* 1 octet */
/***** FIN ID *****/
strcat(message, "30"); /* STATUS BYTE */
strcat(message, "00\0"); /* CHECKSUM */
p_actuator->status = value;
if (value == (float) CURRENT_TURN_ON) {
printf("[Actuator] Action sur l'actionneur de courant : Mise en marche.\n");
} else {
printf("[Actuator] Action sur l'actionneur de courant : Extinction.\n");
}
mq_send(smq, message, MAX_MQ_SIZE, 0);
gLogsLog(p_actuator->id, p_actuator->status);
gfree(actuatorRealID);
return 0;
}
static bool manager_destroy_vnic(VNIC* vnic) {
for(int i = 0; i < MAX_VNIC_COUNT; i++) {
if(manager.vnics[i] != vnic)
continue;
manager.vnics[i] = NULL;
manager.vnic_count--;
__nics[i] = NULL;
__nic_count++;
break;
}
NICDevice* nic_dev = nicdev_get(vnic->parent);
if(!nic_dev)
return false;
if(!nicdev_unregister_vnic(nic_dev, vnic->id))
return false;
bfree(vnic->nic);
gfree(vnic);
return true;
}
int32
/* Start of GurumNetworks modification
TFFS_mount( IN FileSystemDriver* driver, OUT tffs_handle_t * phtffs)
End of GurumNetworks modification*/
TFFS_mount( IN FileSystemDriver* driver, int first_lba)
{
int32 ret;
tffs_t * tffs;
boot_sector_t * pbs = NULL;
DiskDriver* disk_driver = driver->driver;
tdir_t * proot_dir = NULL;
tdir_t * pcur_dir = NULL;
tfat_t * pfat = NULL;
uint32 rootdir_clus;
void* read_buf = NULL;
void* fat = NULL;
/* Start of GurumNetworks modification
tdev_handle_t hdev;
tcache_t * pcache = NULL;
End of GurumNetworks modification */
/* Start of GurumNetworks modification
if (!dev || !phtffs)
return ERR_TFFS_INVALID_PARAM;
End of GurumNetworks modification */
ret = TFFS_OK;
tffs = (tffs_t *)malloc(sizeof(tffs_t));
memset(tffs, 0, sizeof(tffs_t));
pbs = (boot_sector_t *)gmalloc(sizeof(boot_sector_t));
memset(pbs, 0, sizeof(boot_sector_t));
#ifdef _KERNEL_
ASSERT(sizeof(boot_sector_t) == 512);
#endif
/* Start of GurumNetworks modification
hdev = HAI_initdevice(dev, 512);
if (hdev == NULL) {
ret = ERR_TFFS_DEVICE_FAIL;
goto _release;
}
tffs->hdev = hdev;
if (HAI_readsector(hdev, 0, (ubyte *)pbs) != HAI_OK) {
ret = ERR_TFFS_DEVICE_FAIL;
goto _release;
}
End of GurumNetworks modification */
tffs->driver = driver;
tffs->first_lba = first_lba;
if(disk_driver->read(disk_driver, tffs->first_lba, 1, (void*)pbs) < 0)
goto _release;
tffs->pbs = pbs;
if (!_validate_bs(pbs)) {
ret = ERR_TFFS_BAD_BOOTSECTOR;
goto _release;
}
_parse_boot_sector(pbs, tffs);
DBG("tffs->fat_type:%d\n", tffs->fat_type);
DBG("tffs->sec_fat:%d\n", tffs->sec_fat);
DBG("tffs->sec_root_dir:%d\n", tffs->sec_root_dir);
DBG("tffs->sec_first_data:%d\n", tffs->sec_first_data);
if ((pfat = fat_init(tffs)) == NULL) {
ret = ERR_TFFS_BAD_FAT;
goto _release;
}
tffs->pfat = pfat;
/* Start of GurumNetworks modification
if ((pcache = cache_init(hdev, 32, tffs->pbs->byts_per_sec)) == NULL) {
WARN("TFFS: cache is disable.\n");
pcache = cache_init(hdev, 0, tffs->pbs->byts_per_sec);
}
tffs->pcache = pcache;
End of GurumNetworks modification */
rootdir_clus = tffs->fat_type == FT_FAT32 ? tffs->pbs->bh32.root_clus : ROOT_DIR_CLUS_FAT16;
if (dir_init_by_clus(tffs, rootdir_clus, &proot_dir) != DIR_OK ||
dir_init_by_clus(tffs, rootdir_clus, &pcur_dir) != DIR_OK) {
ret = ERR_TFFS_DEVICE_FAIL;
goto _release;
}
tffs->root_dir = proot_dir;
tffs->cur_dir = pcur_dir;
/* Start of GurumNetworks modification
*phtffs = (tffs_handle_t)tffs;
End of GurumNetworks modification */
int i = 0;
size_t read_size = 0;
size_t fat_size = tffs->fatsz * pbs->byts_per_sec;
read_buf = gmalloc(FS_BLOCK_SIZE);
fat = bmalloc();
while(read_size < fat_size) {
#define MIN(x, y) (((x) < (y)) ? (x) : (y))
if(disk_driver->read(disk_driver, tffs->sec_fat + i * FS_SECTOR_PER_BLOCK, FS_SECTOR_PER_BLOCK, read_buf) < 0) {
ret = -99; // TODO: errno for fat error
goto _release;
}
size_t copy_size = MIN(fat_size - read_size, FS_BLOCK_SIZE);
memcpy((uint8_t*)fat + read_size, read_buf, copy_size);
read_size += copy_size;
i++;
}
tffs->fat = fat;
DBG("tffs->fat:%p\n", tffs->fat);
DBG("tffs->fat size:%d\n", tffs->fatsz);
DBG("Tiny FAT file system mount OK.\n");
driver->priv = tffs;
gfree(read_buf);
return ret;
_release:
if (pfat)
fat_destroy(pfat);
if (proot_dir)
dir_destroy(proot_dir);
if (pcur_dir)
dir_destroy(pcur_dir);
if (HAI_closedevice(tffs->hdev) != HAI_OK)
ret = ERR_TFFS_DEVICE_FAIL;
if(read_buf)
gfree(read_buf);
if(fat)
free(fat);
free(pbs);
free(tffs);
return ret;
}
static int ft_test_ok(char **path, int i)
{
while (path[++i])
gfree((void *)path[i]);
return (gfree((void *)path));
}
void dma_free_coherent(struct device *dev, size_t size, void *kvaddr, dma_addr_t dma_handle) {
void* ptr = *((void**)((uint64_t)kvaddr - sizeof(void*)));
if(ptr)
gfree(ptr);
}
