void
bgp_adj_out_set (struct bgp_node *rn, struct peer *peer, struct prefix *p,
struct attr *attr, afi_t afi, safi_t safi,
struct bgp_info *binfo)
{
struct bgp_adj_out *adj = NULL;
struct bgp_advertise *adv;
#ifdef DISABLE_BGP_ANNOUNCE
return;
#endif /* DISABLE_BGP_ANNOUNCE */
/* Look for adjacency information. */
if (rn)
{
for (adj = rn->adj_out; adj; adj = adj->next)
if (adj->peer == peer)
break;
}
if (! adj)
{
adj = XCALLOC (MTYPE_BGP_ADJ_OUT, sizeof (struct bgp_adj_out));
adj->peer = peer_lock (peer); /* adj_out peer reference */
if (rn)
{
BGP_ADJ_OUT_ADD (rn, adj);
bgp_lock_node (rn);
}
}
if (adj->adv)
bgp_advertise_clean (peer, adj, afi, safi);
adj->adv = bgp_advertise_new ();
adv = adj->adv;
adv->rn = rn;
assert (adv->binfo == NULL);
adv->binfo = bgp_info_lock (binfo); /* bgp_info adj_out reference */
if (attr)
adv->baa = bgp_advertise_intern (peer->hash[afi][safi], attr);
else
adv->baa = baa_new ();
adv->adj = adj;
/* Add new advertisement to advertisement attribute list. */
bgp_advertise_add (adv->baa, adv);
FIFO_ADD (&peer->sync[afi][safi]->update, &adv->fifo);
}
void
bgp_adj_out_unset (struct bgp_node *rn, struct peer *peer, struct prefix *p,
afi_t afi, safi_t safi)
{
struct bgp_adj_out *adj;
struct bgp_advertise *adv;
#ifdef DISABLE_BGP_ANNOUNCE
return;
#endif /* DISABLE_BGP_ANNOUNCE */
/* Lookup existing adjacency, if it is not there return immediately. */
for (adj = rn->adj_out; adj; adj = adj->next)
if (adj->peer == peer)
break;
if (! adj)
return;
/* Clearn up previous advertisement. */
if (adj->adv)
bgp_advertise_clean (peer, adj, afi, safi);
if (adj->attr)
{
/* We need advertisement structure. */
adj->adv = bgp_advertise_new ();
adv = adj->adv;
adv->rn = rn;
adv->adj = adj;
/* Add to synchronization entry for withdraw announcement. */
FIFO_ADD (&peer->sync[afi][safi]->withdraw, &adv->fifo);
/* Schedule packet write. */
BGP_WRITE_ON (peer->t_write, bgp_write, peer->fd);
}
else
{
/* Remove myself from adjacency. */
BGP_ADJ_OUT_DEL (rn, adj);
/* Free allocated information. */
bgp_adj_out_free (adj);
bgp_unlock_node (rn);
}
}
/* Enqueu message. */
void
zebra_server_enqueue (int sock, u_char *buf, unsigned long length,
unsigned long written)
{
struct zebra_message_queue *queue;
queue = XCALLOC (MTYPE_TMP, sizeof (struct zebra_message_queue));
queue->buf = XMALLOC (MTYPE_TMP, length);
memcpy (queue->buf, buf, length);
queue->length = length;
queue->written = written;
FIFO_ADD (&message_queue, queue);
THREAD_WRITE_ON (zebrad.master, t_write, zebra_server_dequeue, NULL, sock);
}
/* BGP Peer Incoming Connection Accept thread handler */
s_int32_t
bpn_sock_accept (struct thread *t_accept)
{
struct bgp_listen_sock_lnode *tmp_lnode;
struct bgp_peer_inconn_req *peer_icr;
u_int8_t su_buf [SU_ADDRSTRLEN];
pal_sock_handle_t accept_sock;
pal_sock_handle_t bgp_sock;
struct lib_globals *blg;
struct bgp_peer *peer;
union sockunion su;
struct bgp *bgp;
s_int32_t ret;
bgp_sock = THREAD_FD (t_accept);
blg = THREAD_GLOB (t_accept);
bgp = THREAD_ARG (t_accept);
ret = 0;
/* Sanity check thread variables */
if (! blg || &BLG != blg)
{
ret = -1;
goto EXIT;
}
if (! bgp)
{
zlog_err (&BLG, "[NETWORK] Accept Thread: Invalid Vital Vars, "
"blg(%p) bgp(%p)", blg, bgp);
ret = -1;
goto EXIT;
}
/* Verify integrity of thread variables */
for (tmp_lnode = bgp->listen_sock_lnode; tmp_lnode;
tmp_lnode = tmp_lnode->next)
{
if (tmp_lnode->listen_sock == bgp_sock)
break;
}
if (! tmp_lnode)
{
zlog_err (&BLG, "[NETWORK] Accept Thread: Mismatch in thread args"
"blg(%p) bgp(%p)", blg, bgp);
ret = -1;
goto EXIT;
}
/* Set BGP VR Context */
BGP_SET_VR_CONTEXT (&BLG, bgp->owning_bvr);
/* Re-regiser accept thread */
t_accept = NULL;
BGP_READ_ON (&BLG, t_accept, bgp, bpn_sock_accept, bgp_sock);
/* Update the Accept Thread List Node */
tmp_lnode->t_accept = t_accept;
/* Accept Incoming Connection (Blocking) */
accept_sock = sockunion_accept (&BLG, bgp_sock, &su);
if (accept_sock < 0)
{
zlog_err (&BLG, "[NETWORK] Accept Thread: accept() Failed for Server"
" Sock %d, Err:%d-%s", bgp_sock, errno, pal_strerror (errno));
ret = -1;
goto EXIT;
}
if (BGP_DEBUG (events, EVENTS))
zlog_info (&BLG, "[NETWORK] Accept Thread: Incoming conn from host"
" %s (FD=%u)", inet_sutop (&su, su_buf), accept_sock);
/* Search for Configured Peer with same Remote IP address */
peer = bgp_peer_search (bgp, &su);
if (! peer)
{
if (BGP_DEBUG (events, EVENTS))
zlog_info (&BLG, "[NETWORK] Accept Thread: %s - No such Peer "
"configured", inet_sutop (&su, su_buf));
SSOCK_FD_CLOSE (&BLG, accept_sock);
ret = -1;
goto EXIT;
}
/* Prepare an Incoming Connection Req. Info structure */
peer_icr = XCALLOC (MTYPE_TMP, sizeof (struct bgp_peer_inconn_req));
if (! peer_icr)
{
zlog_err (&BLG, "[NETWORK] Accept Thread:"
" Cannot allocate memory (%d) @ %s:%d",
sizeof (struct bgp_peer_inconn_req), __FILE__, __LINE__);
SSOCK_FD_CLOSE (&BLG, accept_sock);
ret = -1;
goto EXIT;
}
/* Initialize the FIFO Node */
FIFO_INIT (&peer_icr->icr_fifo);
/* Store the ICR Information */
peer_icr->icr_sock = accept_sock;
switch (su.sa.sa_family)
{
case AF_INET:
peer_icr->icr_port = su.sin.sin_port;
break;
#ifdef HAVE_IPV6
case AF_INET6:
peer_icr->icr_port = su.sin6.sin6_port;
break;
#endif /* HAVE_IPV6 */
}
/* Enqueue into Peer's 'bicr_fifo' */
FIFO_ADD (&peer->bicr_fifo, &peer_icr->icr_fifo);
/* Generate BGP Peer FSM ICR Event */
BGP_PEER_FSM_EVENT_ADD (&BLG, peer, BPF_EVENT_TCP_CONN_VALID);
EXIT:
return ret;
}
int camFillColor(CamImage *image, int x, int y, int fillcolor, int tolerance)
{
int first=0,last=0;
int i,j,d,xp,yp;
CAM_PIXEL *ptr,*ptrx;
const int nx[4]={-1,0,+1,0},ny[4]={0,-1,0,+1};
CAM_PIXEL pcolor[4],initcolor[4]; // 4 is the maximum number of channels
CamInternalROIPolicyStruct iROI;
int acc=1;
int queuex[FIFO_SIZE];
int queuey[FIFO_SIZE];
// ROI (Region Of Interest) management
CAM_CHECK(camFillColor,camInternalROIPolicy(image, NULL, &iROI, 0));
CAM_CHECK_ARGS(camFillColor, ((iROI.nChannels==1)||(image->dataOrder==CAM_DATA_ORDER_PIXEL)));
if ((x>=iROI.srcroi.xOffset)&&(y>=iROI.srcroi.yOffset)&&(x<iROI.srcroi.xOffset+iROI.srcroi.width)&&(y<iROI.srcroi.yOffset+iROI.srcroi.height)) {
for (i=0;i<iROI.nChannels;i++) {
pcolor[i]=(fillcolor>>(i*8))&0xff;
}
ptr=ptrx=(CAM_PIXEL*)(image->imageData+iROI.srcchoffset+y*image->widthStep)+x*iROI.srcinc;
if (tolerance>=0) {
for (i=0;i<iROI.nChannels;i++) {
initcolor[i]=*ptrx++;
}
FIFO_ADD(x,y);
for (ptrx=ptr,i=0;i<iROI.nChannels;i++,ptrx++) {
*ptrx=pcolor[i];
}
while (!FIFO_EMPTY()) {
x=queuex[first];
y=queuey[first];
FIFO_NEXT();
for (j=0;j<4;j++) {
xp=x+nx[j];
yp=y+ny[j];
if ((xp>=iROI.srcroi.xOffset)&&(yp>=iROI.srcroi.yOffset)&&(xp<iROI.srcroi.xOffset+iROI.srcroi.width)&&(yp<iROI.srcroi.yOffset+iROI.srcroi.height)) {
// Get the color at (xp,yp)
ptr=ptrx=(CAM_PIXEL*)(image->imageData+iROI.srcchoffset+yp*image->widthStep)+xp*iROI.srcinc;
// Is it the same color as the initial color?
// Compute distance between colors
d=0;
for (i=0;i<iROI.nChannels;i++,ptrx++) {
if (*ptrx>initcolor[i]) d+=*ptrx-initcolor[i];
else d+=initcolor[i]-*ptrx;
}
if (d<=tolerance) {
// Yes, then this pixel should be repainted and added to the queue
FIFO_ADD(xp,yp);
for (ptrx=ptr,i=0;i<iROI.nChannels;i++,ptrx++) {
*ptrx=pcolor[i];
}
acc++;
}
}
}
}
} else {
FIFO_ADD(x,y);
for (ptrx=ptr,i=0;i<iROI.nChannels;i++,ptrx++) {
*ptrx=pcolor[i];
}
while (!FIFO_EMPTY()) {
x=queuex[first];
y=queuey[first];
FIFO_NEXT();
for (j=0;j<4;j++) {
xp=x+nx[j];
yp=y+ny[j];
if ((xp>=iROI.srcroi.xOffset)&&(yp>=iROI.srcroi.yOffset)&&(xp<iROI.srcroi.xOffset+iROI.srcroi.width)&&(yp<iROI.srcroi.yOffset+iROI.srcroi.height)) {
// Get the color at (xp,yp)
ptr=ptrx=(CAM_PIXEL*)(image->imageData+iROI.srcchoffset+yp*image->widthStep)+xp*iROI.srcinc;
for (i=0;i<iROI.nChannels;i++,ptrx++) if (*ptrx!=pcolor[i]) break;
// Is it the same color as the fill color?
if (i!=iROI.nChannels) {
// Yes, then this pixel should be repainted and added to the queue
FIFO_ADD(xp,yp);
for (ptrx=ptr,i=0;i<iROI.nChannels;i++,ptrx++) {
*ptrx=pcolor[i];
}
acc++;
}
}
}
}
}
}
return acc;
}
