static VALUE t_add(VALUE self, VALUE obj) {
Clist *array;
VALUE arrayv = rb_iv_get(self, "@clist");
Data_Get_Struct(arrayv, Clist, array);
clist_add(array, (void*)obj);
return Qnil;
}
void speech_trimmer_enqueue(SpeechTrimmer *self, Carr* pcm) {
if (self->eos_reached) {
carr_free(pcm);
return;
}
clist_add(self->queue, pcm);
if (bent_cent_marker_apply(self->bcm, pcm)) {
self->false_count = 0;
self->true_count += 1;
} else {
self->false_count += 1;
self->true_count = 0;
}
if (self->speech_started) {
if (self->false_count == self->ecs) {
self->eos_reached = TRUE;
int new_size = clist_size(self->queue) - self->ecs + self->trailer;
int i;
for (i=new_size; i<clist_size(self->queue); ++i)
carr_free(clist_get(self->queue, i));
clist_remove(self->queue, new_size, clist_size(self->queue));
}
} else if (self->true_count > self->scs) {
if (self->leader + self->scs < clist_size(self->queue)) {
int start = clist_size(self->queue) - self->leader - self->scs - 1;
int i;
for (i=0; i<start; ++i)
carr_free(clist_get(self->queue, i));
clist_remove(self->queue, 0, start);
}
self->speech_started = TRUE;
}
}
static void test_clist_add_one(void)
{
clist_node_t *list = NULL, *elem = &(tests_clist_buf[0]);
clist_add(&list, elem);
TEST_ASSERT_NOT_NULL(list);
TEST_ASSERT(list->next == list);
}
/*
* e_rnode_add
*
* adds an external node in the ext_rnode_cache list.
*/
void
e_rnode_add(ext_rnode_cache ** erc, ext_rnode * e_rnode, int rnode_pos,
u_int * counter)
{
ext_rnode_cache *p;
p = xzalloc(sizeof(ext_rnode_cache));
p->e = e_rnode;
p->rnode_pos = rnode_pos;
clist_add(erc, counter, p);
}
/*
* rnl_add
*
* adds a new rnode_list struct in the `*rnlist' list. The new
* allocated struct will be filled respectively with `rnode' and `dev'.
* It returns the added `rnode_list' struct.
*/
struct rnode_list *
rnl_add(struct rnode_list **rnlist, int *rnlist_counter,
map_node * rnode, interface * dev)
{
struct rnode_list *rnl;
rnl = xzalloc(sizeof(struct rnode_list));
rnl->node = (map_node *) rnode;
rnl->dev[0] = dev;
rnl->dev_n++;
clist_add(rnlist, rnlist_counter, rnl);
return rnl;
}
void sched_set_status(tcb_t *process, unsigned int status) {
if (status & STATUS_ON_RUNQUEUE) {
if (! (process->status & STATUS_ON_RUNQUEUE)) {
DEBUG("adding process %s to runqueue %u.\n", process->name, process->priority);
clist_add(&runqueues[process->priority], &(process->rq_entry));
runqueue_bitcache |= 1 << process->priority;
}
} else {
if (process->status & STATUS_ON_RUNQUEUE) {
DEBUG("removing process %s from runqueue %u.\n", process->name, process->priority);
clist_remove(&runqueues[process->priority], &(process->rq_entry));
if (! runqueues[process->priority] ) {
runqueue_bitcache &= ~(1 << process->priority);
}
}
}
process->status = status;
}
/*
* igw_add_node: adds a new gw in the `igws[`level']' llist.
* The pointer to the new inet_gw is returned.
*/
inet_gw *
igw_add_node(inet_gw ** igws, int *igws_counter, int level,
int gid, map_node * node, int ip[MAX_IP_INT],
u_char bandwidth)
{
inet_gw *igw;
node->flags |= MAP_IGW;
igw = xzalloc(sizeof(inet_gw));
memcpy(igw->ip, ip, MAX_IP_SZ);
igw->node = node;
igw->gid = gid;
igw->bandwidth = bandwidth;
clist_add(&igws[level], &igws_counter[level], igw);
return igw;
}
/*
* new_rnode_allowed
*
* add a new allowed rnode in the `alr' llist which has
* already `*alr_counter' members. `gid', `min_lvl', and `tot_lvl' are the
* respective field of the new allowed_rnode struct.
*/
void
new_rnode_allowed(struct allowed_rnode **alr, int *alr_counter,
int *gid, int min_lvl, int tot_lvl)
{
struct allowed_rnode *new_alr;
new_alr = xmalloc(sizeof(struct allowed_rnode));
new_alr->min_level = min_lvl;
new_alr->tot_level = tot_lvl;
setzero(new_alr->gid, sizeof(int) * MAX_LEVELS);
memcpy(&new_alr->gid[min_lvl], &gid[min_lvl],
sizeof(int) * (tot_lvl - min_lvl));
debug(DBG_SOFT,
"new_rnode_allowed: %d, %d, %d, %d. min_lvl: %d, tot_lvl: %d",
gid[0], gid[1], gid[2], gid[3], min_lvl, tot_lvl);
clist_add(alr, alr_counter, new_alr);
}
Cmat * speech_trimmer_apply(SpeechTrimmer *self, Carr* pcm) {
if (self->eos_reached)
return NULL;
Cmat *segment_matrix = segmenter_apply(self->seg, pcm);
if (segment_matrix == NULL)
return NULL;
Clist *speech_segments = clist_new();
int centisecond_count = segment_matrix->rows;
Carr **segments = mat2arrs(segment_matrix);
int speech_count = 0, i;
for (i=0; i<centisecond_count ;++i) {
speech_trimmer_enqueue(self, segments[i]);
Carr *centispeech = speech_trimmer_dequeue(self);
while (centispeech != NULL) {
clist_add(speech_segments, centispeech);
speech_count++;
centispeech = speech_trimmer_dequeue(self);
}
if (speech_trimmer_eos(self)) {
for (i+=1;i<centisecond_count; ++i)
carr_free(segments[i]);
break;
}
}
free(segments);
if (speech_trimmer_eos(self) && speech_count == 0) {
for (i=0; i<clist_size(speech_segments); ++i)
carr_free(clist_get(speech_segments, i));
clist_free(speech_segments);
return NULL;
}
Cmat *result = arrs2mat((Carr**)speech_segments->data, speech_count);
free(speech_segments);
return result;
}
int net_if_add_address(int if_id, net_if_addr_t *addr)
{
if (!addr || !addr->addr_data) {
DEBUG("Address addition: Precondition not met.\n");
return 0;
}
if (if_id < 0 || if_id >= NET_IF_MAX || !interfaces[if_id].initialized) {
DEBUG("Address addition: No interface initialized with ID %d.\n", if_id);
return 0;
}
mutex_lock(&interfaces[if_id].address_buffer_mutex);
interfaces[if_id].protocols |= addr->addr_protocol;
clist_add((clist_node_t **)&interfaces[if_id].addresses,
(clist_node_t *)addr);
mutex_unlock(&interfaces[if_id].address_buffer_mutex);
return 1;
}
void sched_set_status(thread_t *process, unsigned int status)
{
if (status >= STATUS_ON_RUNQUEUE) {
if (!(process->status >= STATUS_ON_RUNQUEUE)) {
DEBUG("sched_set_status: adding thread %" PRIkernel_pid " to runqueue %" PRIu16 ".\n",
process->pid, process->priority);
clist_add(&sched_runqueues[process->priority], &(process->rq_entry));
runqueue_bitcache |= 1 << process->priority;
}
}
else {
if (process->status >= STATUS_ON_RUNQUEUE) {
DEBUG("sched_set_status: removing thread %" PRIkernel_pid " to runqueue %" PRIu16 ".\n",
process->pid, process->priority);
clist_remove(&sched_runqueues[process->priority], &(process->rq_entry));
if (!sched_runqueues[process->priority]) {
runqueue_bitcache &= ~(1 << process->priority);
}
}
}
process->status = status;
}
static void test_netdev_dummy_send_data_with_ulhs(void)
{
netdev_hlist_t hlist_node = {NULL, NULL, NETDEV_PROTO_UNKNOWN, TEST_STRING8, 4};
netdev_hlist_t *hlist = NULL;
char dest[] = TEST_STRING64;
size_t dest_len = UNITTESTS_NETDEV_DUMMY_MAX_ADDR_LEN;
char data[] = TEST_STRING16;
#if UNITTESTS_NETDEV_DUMMY_MAX_PACKET < 12
size_t data_len = UNITTESTS_NETDEV_DUMMY_MAX_PACKET - 4;
char expected[UNITTESTS_NETDEV_DUMMY_MAX_PACKET];
#else
size_t data_len = 8;
char expected[12];
#endif
memcpy(expected, TEST_STRING8, 4);
memcpy(&(expected[4]), TEST_STRING16, data_len);
clist_add((clist_node_t **)&hlist, (clist_node_t *)&hlist_node);
TEST_ASSERT_EQUAL_INT((int)sizeof(expected), dev->driver->send_data(dev,
dest, dest_len, hlist, data, data_len));
TEST_ASSERT_EQUAL_INT(0, unittest_netdev_dummy_check_transmitted(dev,
dest, dest_len, expected, data_len + 4));
}
/* ARGSUSED */
static enum clnt_stat
clnt_rdma_kcallit(CLIENT *h, rpcproc_t procnum, xdrproc_t xdr_args,
caddr_t argsp, xdrproc_t xdr_results, caddr_t resultsp,
struct timeval wait)
{
cku_private_t *p = htop(h);
int try_call_again;
int refresh_attempt = AUTH_REFRESH_COUNT;
int status;
int msglen;
XDR *call_xdrp, callxdr; /* for xdrrdma encoding the RPC call */
XDR *reply_xdrp, replyxdr; /* for xdrrdma decoding the RPC reply */
XDR *rdmahdr_o_xdrs, *rdmahdr_i_xdrs;
struct rpc_msg reply_msg;
rdma_registry_t *m;
struct clist *cl_sendlist;
struct clist *cl_recvlist;
struct clist *cl;
struct clist *cl_rpcmsg;
struct clist *cl_rdma_reply;
struct clist *cl_rpcreply_wlist;
struct clist *cl_long_reply;
rdma_buf_t rndup;
uint_t vers;
uint_t op;
uint_t off;
uint32_t seg_array_len;
uint_t long_reply_len;
uint_t rpcsec_gss;
uint_t gss_i_or_p;
CONN *conn = NULL;
rdma_buf_t clmsg;
rdma_buf_t rpcmsg;
rdma_chunkinfo_lengths_t rcil;
clock_t ticks;
bool_t wlist_exists_reply;
uint32_t rdma_credit = rdma_bufs_rqst;
RCSTAT_INCR(rccalls);
call_again:
bzero(&clmsg, sizeof (clmsg));
bzero(&rpcmsg, sizeof (rpcmsg));
bzero(&rndup, sizeof (rndup));
try_call_again = 0;
cl_sendlist = NULL;
cl_recvlist = NULL;
cl = NULL;
cl_rpcmsg = NULL;
cl_rdma_reply = NULL;
call_xdrp = NULL;
reply_xdrp = NULL;
wlist_exists_reply = FALSE;
cl_rpcreply_wlist = NULL;
cl_long_reply = NULL;
rcil.rcil_len = 0;
rcil.rcil_len_alt = 0;
long_reply_len = 0;
rw_enter(&rdma_lock, RW_READER);
m = (rdma_registry_t *)p->cku_rd_handle;
if (m->r_mod_state == RDMA_MOD_INACTIVE) {
/*
* If we didn't find a matching RDMA module in the registry
* then there is no transport.
*/
rw_exit(&rdma_lock);
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
ticks = clnt_rdma_min_delay * drv_usectohz(1000000);
if (h->cl_nosignal == TRUE) {
delay(ticks);
} else {
if (delay_sig(ticks) == EINTR) {
p->cku_err.re_status = RPC_INTR;
p->cku_err.re_errno = EINTR;
}
}
return (RPC_CANTSEND);
}
/*
* Get unique xid
*/
if (p->cku_xid == 0)
p->cku_xid = alloc_xid();
status = RDMA_GET_CONN(p->cku_rd_mod->rdma_ops, &p->cku_srcaddr,
&p->cku_addr, p->cku_addrfmly, p->cku_rd_handle, &conn);
rw_exit(&rdma_lock);
/*
* If there is a problem with the connection reflect the issue
* back to the higher level to address, we MAY delay for a short
* period so that we are kind to the transport.
*/
if (conn == NULL) {
/*
* Connect failed to server. Could be because of one
* of several things. In some cases we don't want
* the caller to retry immediately - delay before
* returning to caller.
*/
switch (status) {
case RDMA_TIMEDOUT:
/*
* Already timed out. No need to delay
* some more.
*/
p->cku_err.re_status = RPC_TIMEDOUT;
p->cku_err.re_errno = ETIMEDOUT;
break;
case RDMA_INTR:
/*
* Failed because of an signal. Very likely
* the caller will not retry.
*/
p->cku_err.re_status = RPC_INTR;
p->cku_err.re_errno = EINTR;
break;
default:
/*
* All other failures - server down or service
* down or temporary resource failure. Delay before
* returning to caller.
*/
ticks = clnt_rdma_min_delay * drv_usectohz(1000000);
p->cku_err.re_status = RPC_CANTCONNECT;
p->cku_err.re_errno = EIO;
if (h->cl_nosignal == TRUE) {
delay(ticks);
} else {
if (delay_sig(ticks) == EINTR) {
p->cku_err.re_status = RPC_INTR;
p->cku_err.re_errno = EINTR;
}
}
break;
}
return (p->cku_err.re_status);
}
if (p->cku_srcaddr.maxlen < conn->c_laddr.len) {
if ((p->cku_srcaddr.maxlen != 0) &&
(p->cku_srcaddr.buf != NULL))
kmem_free(p->cku_srcaddr.buf, p->cku_srcaddr.maxlen);
p->cku_srcaddr.buf = kmem_zalloc(conn->c_laddr.maxlen,
KM_SLEEP);
p->cku_srcaddr.maxlen = conn->c_laddr.maxlen;
}
p->cku_srcaddr.len = conn->c_laddr.len;
bcopy(conn->c_laddr.buf, p->cku_srcaddr.buf, conn->c_laddr.len);
clnt_check_credit(conn);
status = CLNT_RDMA_FAIL;
rpcsec_gss = gss_i_or_p = FALSE;
if (IS_RPCSEC_GSS(h)) {
rpcsec_gss = TRUE;
if (rpc_gss_get_service_type(h->cl_auth) ==
rpc_gss_svc_integrity ||
rpc_gss_get_service_type(h->cl_auth) ==
rpc_gss_svc_privacy)
gss_i_or_p = TRUE;
}
/*
* Try a regular RDMA message if RPCSEC_GSS is not being used
* or if RPCSEC_GSS is being used for authentication only.
*/
if (rpcsec_gss == FALSE ||
(rpcsec_gss == TRUE && gss_i_or_p == FALSE)) {
/*
* Grab a send buffer for the request. Try to
* encode it to see if it fits. If not, then it
* needs to be sent in a chunk.
*/
rpcmsg.type = SEND_BUFFER;
if (rdma_buf_alloc(conn, &rpcmsg)) {
DTRACE_PROBE(krpc__e__clntrdma__callit_nobufs);
goto done;
}
/* First try to encode into regular send buffer */
op = RDMA_MSG;
call_xdrp = &callxdr;
xdrrdma_create(call_xdrp, rpcmsg.addr, rpcmsg.len,
rdma_minchunk, NULL, XDR_ENCODE, conn);
status = clnt_compose_rpcmsg(h, procnum, &rpcmsg, call_xdrp,
xdr_args, argsp);
if (status != CLNT_RDMA_SUCCESS) {
/* Clean up from previous encode attempt */
rdma_buf_free(conn, &rpcmsg);
XDR_DESTROY(call_xdrp);
} else {
XDR_CONTROL(call_xdrp, XDR_RDMA_GET_CHUNK_LEN, &rcil);
}
}
/* If the encode didn't work, then try a NOMSG */
if (status != CLNT_RDMA_SUCCESS) {
msglen = CKU_HDRSIZE + BYTES_PER_XDR_UNIT + MAX_AUTH_BYTES +
xdr_sizeof(xdr_args, argsp);
msglen = calc_length(msglen);
/* pick up the lengths for the reply buffer needed */
(void) xdrrdma_sizeof(xdr_args, argsp, 0,
&rcil.rcil_len, &rcil.rcil_len_alt);
/*
* Construct a clist to describe the CHUNK_BUFFER
* for the rpcmsg.
*/
cl_rpcmsg = clist_alloc();
cl_rpcmsg->c_len = msglen;
cl_rpcmsg->rb_longbuf.type = RDMA_LONG_BUFFER;
cl_rpcmsg->rb_longbuf.len = msglen;
if (rdma_buf_alloc(conn, &cl_rpcmsg->rb_longbuf)) {
clist_free(cl_rpcmsg);
goto done;
}
cl_rpcmsg->w.c_saddr3 = cl_rpcmsg->rb_longbuf.addr;
op = RDMA_NOMSG;
call_xdrp = &callxdr;
xdrrdma_create(call_xdrp, cl_rpcmsg->rb_longbuf.addr,
cl_rpcmsg->rb_longbuf.len, 0,
cl_rpcmsg, XDR_ENCODE, conn);
status = clnt_compose_rpcmsg(h, procnum, &rpcmsg, call_xdrp,
xdr_args, argsp);
if (status != CLNT_RDMA_SUCCESS) {
p->cku_err.re_status = RPC_CANTENCODEARGS;
p->cku_err.re_errno = EIO;
DTRACE_PROBE(krpc__e__clntrdma__callit__composemsg);
goto done;
}
}
/*
* During the XDR_ENCODE we may have "allocated" an RDMA READ or
* RDMA WRITE clist.
*
* First pull the RDMA READ chunk list from the XDR private
* area to keep it handy.
*/
XDR_CONTROL(call_xdrp, XDR_RDMA_GET_RLIST, &cl);
if (gss_i_or_p) {
long_reply_len = rcil.rcil_len + rcil.rcil_len_alt;
long_reply_len += MAX_AUTH_BYTES;
} else {
long_reply_len = rcil.rcil_len;
}
/*
* Update the chunk size information for the Long RPC msg.
*/
if (cl && op == RDMA_NOMSG)
cl->c_len = p->cku_outsz;
/*
* Prepare the RDMA header. On success xdrs will hold the result
* of xdrmem_create() for a SEND_BUFFER.
*/
status = clnt_compose_rdma_header(conn, h, &clmsg,
&rdmahdr_o_xdrs, &op);
if (status != CLNT_RDMA_SUCCESS) {
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
RCSTAT_INCR(rcnomem);
DTRACE_PROBE(krpc__e__clntrdma__callit__nobufs2);
goto done;
}
/*
* Now insert the RDMA READ list iff present
*/
status = clnt_setup_rlist(conn, rdmahdr_o_xdrs, call_xdrp);
if (status != CLNT_RDMA_SUCCESS) {
DTRACE_PROBE(krpc__e__clntrdma__callit__clistreg);
rdma_buf_free(conn, &clmsg);
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
goto done;
}
/*
* Setup RDMA WRITE chunk list for nfs read operation
* other operations will have a NULL which will result
* as a NULL list in the XDR stream.
*/
status = clnt_setup_wlist(conn, rdmahdr_o_xdrs, call_xdrp, &rndup);
if (status != CLNT_RDMA_SUCCESS) {
rdma_buf_free(conn, &clmsg);
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
goto done;
}
/*
* If NULL call and RPCSEC_GSS, provide a chunk such that
* large responses can flow back to the client.
* If RPCSEC_GSS with integrity or privacy is in use, get chunk.
*/
if ((procnum == 0 && rpcsec_gss == TRUE) ||
(rpcsec_gss == TRUE && gss_i_or_p == TRUE))
long_reply_len += 1024;
status = clnt_setup_long_reply(conn, &cl_long_reply, long_reply_len);
if (status != CLNT_RDMA_SUCCESS) {
rdma_buf_free(conn, &clmsg);
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
goto done;
}
/*
* XDR encode the RDMA_REPLY write chunk
*/
seg_array_len = (cl_long_reply ? 1 : 0);
(void) xdr_encode_reply_wchunk(rdmahdr_o_xdrs, cl_long_reply,
seg_array_len);
/*
* Construct a clist in "sendlist" that represents what we
* will push over the wire.
*
* Start with the RDMA header and clist (if any)
*/
clist_add(&cl_sendlist, 0, XDR_GETPOS(rdmahdr_o_xdrs), &clmsg.handle,
clmsg.addr, NULL, NULL);
/*
* Put the RPC call message in sendlist if small RPC
*/
if (op == RDMA_MSG) {
clist_add(&cl_sendlist, 0, p->cku_outsz, &rpcmsg.handle,
rpcmsg.addr, NULL, NULL);
} else {
/* Long RPC already in chunk list */
RCSTAT_INCR(rclongrpcs);
}
/*
* Set up a reply buffer ready for the reply
*/
status = rdma_clnt_postrecv(conn, p->cku_xid);
if (status != RDMA_SUCCESS) {
rdma_buf_free(conn, &clmsg);
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
goto done;
}
/*
* sync the memory for dma
*/
if (cl != NULL) {
status = clist_syncmem(conn, cl, CLIST_REG_SOURCE);
if (status != RDMA_SUCCESS) {
(void) rdma_clnt_postrecv_remove(conn, p->cku_xid);
rdma_buf_free(conn, &clmsg);
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
goto done;
}
}
/*
* Send the RDMA Header and RPC call message to the server
*/
status = RDMA_SEND(conn, cl_sendlist, p->cku_xid);
if (status != RDMA_SUCCESS) {
(void) rdma_clnt_postrecv_remove(conn, p->cku_xid);
p->cku_err.re_status = RPC_CANTSEND;
p->cku_err.re_errno = EIO;
goto done;
}
/*
* RDMA plugin now owns the send msg buffers.
* Clear them out and don't free them.
*/
clmsg.addr = NULL;
if (rpcmsg.type == SEND_BUFFER)
rpcmsg.addr = NULL;
/*
* Recv rpc reply
*/
status = RDMA_RECV(conn, &cl_recvlist, p->cku_xid);
/*
* Now check recv status
*/
if (status != 0) {
if (status == RDMA_INTR) {
p->cku_err.re_status = RPC_INTR;
p->cku_err.re_errno = EINTR;
RCSTAT_INCR(rcintrs);
} else if (status == RPC_TIMEDOUT) {
p->cku_err.re_status = RPC_TIMEDOUT;
p->cku_err.re_errno = ETIMEDOUT;
RCSTAT_INCR(rctimeouts);
} else {
p->cku_err.re_status = RPC_CANTRECV;
p->cku_err.re_errno = EIO;
}
goto done;
}
/*
* Process the reply message.
*
* First the chunk list (if any)
*/
rdmahdr_i_xdrs = &(p->cku_inxdr);
xdrmem_create(rdmahdr_i_xdrs,
(caddr_t)(uintptr_t)cl_recvlist->w.c_saddr3,
cl_recvlist->c_len, XDR_DECODE);
/*
* Treat xid as opaque (xid is the first entity
* in the rpc rdma message).
* Skip xid and set the xdr position accordingly.
*/
XDR_SETPOS(rdmahdr_i_xdrs, sizeof (uint32_t));
(void) xdr_u_int(rdmahdr_i_xdrs, &vers);
(void) xdr_u_int(rdmahdr_i_xdrs, &rdma_credit);
(void) xdr_u_int(rdmahdr_i_xdrs, &op);
(void) xdr_do_clist(rdmahdr_i_xdrs, &cl);
clnt_update_credit(conn, rdma_credit);
wlist_exists_reply = FALSE;
if (! xdr_decode_wlist(rdmahdr_i_xdrs, &cl_rpcreply_wlist,
&wlist_exists_reply)) {
DTRACE_PROBE(krpc__e__clntrdma__callit__wlist_decode);
p->cku_err.re_status = RPC_CANTDECODERES;
p->cku_err.re_errno = EIO;
goto done;
}
/*
* The server shouldn't have sent a RDMA_SEND that
* the client needs to RDMA_WRITE a reply back to
* the server. So silently ignoring what the
* server returns in the rdma_reply section of the
* header.
*/
(void) xdr_decode_reply_wchunk(rdmahdr_i_xdrs, &cl_rdma_reply);
off = xdr_getpos(rdmahdr_i_xdrs);
clnt_decode_long_reply(conn, cl_long_reply,
cl_rdma_reply, &replyxdr, &reply_xdrp,
cl, cl_recvlist, op, off);
if (reply_xdrp == NULL)
goto done;
if (wlist_exists_reply) {
XDR_CONTROL(reply_xdrp, XDR_RDMA_SET_WLIST, cl_rpcreply_wlist);
}
reply_msg.rm_direction = REPLY;
reply_msg.rm_reply.rp_stat = MSG_ACCEPTED;
reply_msg.acpted_rply.ar_stat = SUCCESS;
reply_msg.acpted_rply.ar_verf = _null_auth;
/*
* xdr_results will be done in AUTH_UNWRAP.
*/
reply_msg.acpted_rply.ar_results.where = NULL;
reply_msg.acpted_rply.ar_results.proc = xdr_void;
/*
* Decode and validate the response.
*/
if (xdr_replymsg(reply_xdrp, &reply_msg)) {
enum clnt_stat re_status;
_seterr_reply(&reply_msg, &(p->cku_err));
re_status = p->cku_err.re_status;
if (re_status == RPC_SUCCESS) {
/*
* Reply is good, check auth.
*/
if (!AUTH_VALIDATE(h->cl_auth,
&reply_msg.acpted_rply.ar_verf)) {
p->cku_err.re_status = RPC_AUTHERROR;
p->cku_err.re_why = AUTH_INVALIDRESP;
RCSTAT_INCR(rcbadverfs);
DTRACE_PROBE(
krpc__e__clntrdma__callit__authvalidate);
} else if (!AUTH_UNWRAP(h->cl_auth, reply_xdrp,
xdr_results, resultsp)) {
p->cku_err.re_status = RPC_CANTDECODERES;
p->cku_err.re_errno = EIO;
DTRACE_PROBE(
krpc__e__clntrdma__callit__authunwrap);
}
} else {
/* set errno in case we can't recover */
if (re_status != RPC_VERSMISMATCH &&
re_status != RPC_AUTHERROR &&
re_status != RPC_PROGVERSMISMATCH)
p->cku_err.re_errno = EIO;
if (re_status == RPC_AUTHERROR) {
if ((refresh_attempt > 0) &&
AUTH_REFRESH(h->cl_auth, &reply_msg,
p->cku_cred)) {
refresh_attempt--;
try_call_again = 1;
goto done;
}
try_call_again = 0;
/*
* We have used the client handle to
* do an AUTH_REFRESH and the RPC status may
* be set to RPC_SUCCESS; Let's make sure to
* set it to RPC_AUTHERROR.
*/
p->cku_err.re_status = RPC_AUTHERROR;
/*
* Map recoverable and unrecoverable
* authentication errors to appropriate
* errno
*/
switch (p->cku_err.re_why) {
case AUTH_BADCRED:
case AUTH_BADVERF:
case AUTH_INVALIDRESP:
case AUTH_TOOWEAK:
case AUTH_FAILED:
case RPCSEC_GSS_NOCRED:
case RPCSEC_GSS_FAILED:
p->cku_err.re_errno = EACCES;
break;
case AUTH_REJECTEDCRED:
case AUTH_REJECTEDVERF:
default:
p->cku_err.re_errno = EIO;
break;
}
}
DTRACE_PROBE1(krpc__e__clntrdma__callit__rpcfailed,
int, p->cku_err.re_why);
}
} else {
int
main ( int argc, char *argv[] )
{
if(argc !=2){
fprintf(stderr, "usage: snowcast_server tcpport\n");
exit(1);
}
/*<-SET UP PASSSIVE TCP SOCKET->*/
struct addrinfo hints;
memset(&hints, 0, sizeof hints);
hints.ai_family = AF_UNSPEC;
hints.ai_socktype = SOCK_STREAM;
hints.ai_flags = AI_PASSIVE;
tcp_sourcefd = socket_setup(hints,argv[1], NULL);
printf("tcp socket (fd %d) on port %d setup successful!\n",tcp_sourcefd, atoi(argv[1]));
/*<-SET UP PASSIVE UDP SOCKET->*/
memset(&hints, 0, sizeof hints);
hints.ai_family = AF_UNSPEC;
hints.ai_socktype = SOCK_DGRAM;
hints.ai_flags = AI_PASSIVE;
udp_sourcefd = socket_setup(hints, argv[1], NULL);
printf("udp socket (fd %d) on port %d setup successful!\n", udp_sourcefd, atoi(argv[1]));
/*<-SET UP STREAMING THREADS->*/
int i;
for(i=0;i<STATIONNUM;i++){
}
struct station_info *station_0;
spawn_stream_thread("test.text", &station_0);
struct station_info *station_1;
spawn_stream_thread("a.text", &station_1);
station_0->si_next = station_1;
/*<-MISC DECLARATION->*/
struct station_info *s;
struct client_info *pending_clients = NULL;
/*<-INITIATE SERVICE->*/
//for select()
fd_set masterfds, readfds;
FD_ZERO(&masterfds);
FD_SET(0, &masterfds);
FD_SET(tcp_sourcefd, &masterfds);
struct timeval tv, tvcop;
tv.tv_sec = 1;
int maxfd = tcp_sourcefd;
//for accepting new clients
struct sockaddr_storage their_addr;
socklen_t ss_size = sizeof their_addr;
char addr_str[INET6_ADDRSTRLEN];
if(listen(tcp_sourcefd, 10) == -1){
perror("program: error on listen");
exit(1);
}
//for talking to clients
uint16_t numStations = 1, udpPort;
unsigned char request[512];
int request_bytes, response_bytes, packetSize;
struct client_info *c;
uint8_t commandType;
//for talking to the user
char command[512];
ssize_t command_bytes;
while(1){
/* <-CLEAN UP FOR ANOTHER SELECT-> */
printf("waiting...\n");
readfds = masterfds;
tvcop = tv;
/*<-SELECT-> */
if(select(maxfd+1, &readfds, NULL, NULL, &tvcop) == -1){
perror("program: error on select()");
close(tcp_sourcefd);
//close(newfd);
exit(1);
}
/*<-ACTIVE TCP SOCKET CHECK for ACTIVE CLIENTS-> */
//expects setStation: 8 +16
for(s=station_0;s!=NULL;s=s->si_next){
printf("1\n");
for(c=s->client_list;c!=NULL;c=c->ci_next){
//did you say something, i?
printf("checking active client %d\n",c->ci_fd);
if(FD_ISSET(c->ci_fd, &readfds)){
printf("new message from active client %d\n", c->ci_fd);
if((request_bytes = recv(c->ci_fd, request, sizeof request, 0)) == -1){
perror("recv()");
continue;
}
if(!request_bytes){
printf("client quits\n");
//TODO get rid of the client from the active list
//TODO how to get the next highest fd number?
if(c->ci_fd == maxfd) maxfd = maxfd-1;
FD_CLR(c->ci_fd, &masterfds);
close(c->ci_fd);
continue;
}
unpack(request, "ch", &commandType, &udpPort);
printf("bytes_received: %d \n commandType: %hd\n udpPort: %d\n", request_bytes, commandType, udpPort);
}
}
}
/*<-PASSIVE TCP: New Client connect()-> */
if (FD_ISSET(tcp_sourcefd, &readfds)){
client_count++;
printf("new client!\n");
int clientfd = accept(tcp_sourcefd, (struct sockaddr *)&their_addr, &ss_size);
if ( clientfd == -1 ) {
perror("program: error on accept()\n");
close(tcp_sourcefd);
exit(1);
}
//announce new connection
inet_ntop(their_addr.ss_family,
get_in_addr( (struct sockaddr *)&their_addr),
addr_str, sizeof addr_str);
printf("connection accepted from: %s\n", addr_str);
//make client_info struct
struct client_info *newclient = (struct client_info *) malloc(sizeof(struct client_info));
newclient->ci_family = their_addr.ss_family;
newclient->ci_addr = addr_str;
newclient->ci_next = NULL;
newclient->ci_fd = clientfd;
//add client to the pending list
printf("new connection fd: %d\n",clientfd);
clist_add(newclient, &pending_clients);
clist_display(&pending_clients);
FD_SET(clientfd, &masterfds);
if(maxfd<clientfd)maxfd= clientfd;
}
/*<-ACTIVE TCP SOCKET CHECK for PENDING CLIENTS-> */
//expects hello: 8 + 16
for(c=pending_clients;c!= NULL;c=c->ci_next){
printf("checking pending client %d\n", c->ci_fd);
if(FD_ISSET(c->ci_fd, &readfds)){
printf("new message from pending client %d\n", c->ci_fd);
if((request_bytes = recv(c->ci_fd, request, sizeof request, 0)) == -1){
perror("recv()");
continue;
}
if(!request_bytes){
printf("client quits\n");
//TODO get rid of the client from the pending list
//-----unfortunately, this client has not been able to provide us with his
//-----UDP port. He passed away too early.
//TODO how to get the next highest fd number?
if(c->ci_fd == maxfd) maxfd = maxfd-1;
FD_CLR(c->ci_fd, &masterfds);
close(c->ci_fd);
continue;
}
unpack(request, "ch", &commandType, &udpPort);
printf("bytes_received: %d \n commandType: %hd\n udpPort: %d\n", request_bytes, commandType, udpPort);
//was that a hello?
if(commandType == 0){
printf("hello received\n");
//send back welcome
int welcomesize = sizeof(uint8_t) + sizeof(uint16_t);
unsigned char response[welcomesize];
packetSize = pack(response, "ch", (uint8_t)0, (uint16_t)numStations);
if( (response_bytes = send(c->ci_fd, response, sizeof response, 0)) == -1){
perror("send() failed");
exit(1);
}
if(packetSize != response_bytes){
printf("%d bytes have been packed, but %d bytes have been sent\n", packetSize, response_bytes);
exit(1);
}
//complete client's struct info
c->ci_udp = udpPort;
struct sockaddr_in *addr = malloc(sizeof(struct sockaddr_in));
addr->sin_family = c->ci_family;
addr->sin_port = htons(c->ci_udp);
addr->sin_addr = *((struct in_addr *) gethostbyname(c->ci_addr)->h_addr);
c->ci_udp_addr = (struct sockaddr *) addr;
//add client to default stations client list
printf("i->ci_fd: %d\n", c->ci_fd);
if(client_count==1)clist_add(c,&station_0->client_list);
if(client_count==2)clist_add(c,&station_1->client_list);
clist_remove(c,&pending_clients);
printf("pending list: ");
clist_display(&pending_clients);
printf("active list: ");
clist_display(&station_0->client_list);
} else {
//invalid command
clist_remove(c, &pending_clients);
FD_CLR(c->ci_fd, &masterfds);
}
}
}
/*<-STDIN CHECK-> */
if(FD_ISSET(0, &readfds)){
printf("new command!\n");
command_bytes = read(0, command, sizeof command);
if(command_bytes == -1){
perror("read()");
exit(1);
}
command[command_bytes] = '\0';
printf("server admin command: %s\n", command);
}
}
return EXIT_SUCCESS;
} /* ---------- end of function main ---------- */
void
add (hand *h, card c) {
clist_add(&h->cards, c);
}
/*
* add_radar_q
*
* It returns the radar_q struct which handles the pkt.from node.
* If the node is not present in the radar_q, it is added, and the
* relative struct will be returned.
*/
struct
radar_queue *
add_radar_q(PACKET pkt)
{
map_node *rnode;
quadro_group quadg;
struct radar_queue *rq;
u_int ret = 0;
int dev_pos;
if (me.cur_node->flags & MAP_HNODE) {
/*
* We are hooking, we haven't yet an int_map, an ext_map,
* a stable ip, so we create fake nodes that will be delete after
* the hook.
*/
if (!(rq = find_ip_radar_q(&pkt.from))) {
map_rnode rnn;
rnode = xmalloc(sizeof(map_node));
setzero(rnode, sizeof(map_node));
setzero(&rnn, sizeof(map_rnode));
rnn.r_node = (int *) me.cur_node;
rnode_add(rnode, &rnn);
} else
rnode = rq->node;
}
iptoquadg(pkt.from, me.ext_map, &quadg,
QUADG_GID | QUADG_GNODE | QUADG_IPSTART);
if (!(me.cur_node->flags & MAP_HNODE)) {
iptomap((u_int) me.int_map, pkt.from, me.cur_quadg.ipstart[1],
&rnode);
ret = quadg_gids_cmp(me.cur_quadg, quadg, 1);
}
if (!ret)
rq = find_node_radar_q(rnode);
else
rq = find_ip_radar_q(&pkt.from);
if (!rq) {
/*
* If pkt.from isn't already in the queue, add it.
*/
rq = xzalloc(sizeof(struct radar_queue));
if (ret)
rq->node = (map_node *) RADQ_EXT_RNODE;
else {
rq->node = rnode;
/* This pkt has been sent from another hooking
* node, let's remember this. */
if (pkt.hdr.flags & HOOK_PKT)
rq->node->flags |= MAP_HNODE;
}
if (pkt.hdr.flags & HOOK_PKT)
rq->flags |= MAP_HNODE;
inet_copy(&rq->ip, &pkt.from);
memcpy(&rq->quadg, &quadg, sizeof(quadro_group));
rq->dev[0] = pkt.dev;
rq->dev_n++;
clist_add(&radar_q, &radar_q_counter, rq);
} else {
/*
* Check if the input device is in the rq->dev array,
* if not add it.
*/
if (rq->dev_n < MAX_INTERFACES) {
dev_pos = FIND_PTR(pkt.dev, rq->dev, rq->dev_n);
if (dev_pos < 0)
rq->dev[rq->dev_n++] = pkt.dev;
}
}
return rq;
}
