int nn_cinproc_create (struct nn_ep *ep)
{
struct nn_cinproc *self;
self = nn_alloc (sizeof (struct nn_cinproc), "cinproc");
alloc_assert (self);
nn_ep_tran_setup (ep, &nn_cinproc_ops, self);
nn_ins_item_init (&self->item, ep);
nn_fsm_init_root (&self->fsm, nn_cinproc_handler, nn_cinproc_shutdown,
nn_ep_getctx (ep));
self->state = NN_CINPROC_STATE_IDLE;
nn_list_init (&self->sinprocs);
nn_ep_stat_increment (ep, NN_STAT_INPROGRESS_CONNECTIONS, 1);
/* Start the state machine. */
nn_fsm_start (&self->fsm);
/* Register the inproc endpoint into a global repository. */
nn_ins_connect (&self->item, nn_cinproc_connect);
return 0;
}
MgErr ftw_nanomsg_reserve(struct ftw_socket_callsite **inst)
{
static int callsite = 0;
/* Preconditions expected of LabVIEW. */
ftw_assert(inst);
/* Creates a list of socket instances for each CLFN callsite. */
if (*inst == NULL) {
callsite++;
ftw_debug("Reserving Socket Creation Callsite %d", callsite);
*inst = ftw_malloc(sizeof(struct ftw_socket_callsite));
ftw_assert(*inst);
nn_mutex_init(&(*inst)->sync);
nn_mutex_lock(&(*inst)->sync);
nn_list_init(&(*inst)->active_sockets);
(*inst)->id = callsite;
(*inst)->lifetime_sockets = 0;
nn_mutex_unlock(&(*inst)->sync);
}
else {
ftw_assert_unreachable("Reserve happened twice; this is a problem with LabVIEW.");
}
return mgNoErr;
}
int nn_binproc_create (void *hint, struct nn_epbase **epbase)
{
int rc;
struct nn_binproc *self;
self = nn_alloc (sizeof (struct nn_binproc), "binproc");
alloc_assert (self);
nn_ins_item_init (&self->item, &nn_binproc_vfptr, hint);
nn_fsm_init_root (&self->fsm, nn_binproc_handler, nn_binproc_shutdown,
nn_epbase_getctx (&self->item.epbase));
self->state = NN_BINPROC_STATE_IDLE;
nn_list_init (&self->sinprocs);
/* Start the state machine. */
nn_fsm_start (&self->fsm);
/* Register the inproc endpoint into a global repository. */
rc = nn_ins_bind (&self->item, nn_binproc_connect);
if (nn_slow (rc < 0)) {
nn_list_term (&self->sinprocs);
/* TODO: Now, this is ugly! We are getting the state machine into
the idle state manually. How should it be done correctly? */
self->fsm.state = 1;
nn_fsm_term (&self->fsm);
nn_ins_item_term (&self->item);
nn_free (self);
return rc;
}
*epbase = &self->item.epbase;
return 0;
}
struct nn_binproc *nn_binproc_create (void *hint)
{
struct nn_binproc *self;
size_t sz;
self = nn_alloc (sizeof (struct nn_binproc), "binproc");
alloc_assert (self);
nn_epbase_init (&self->epbase, &nn_binproc_vfptr, hint);
nn_fsm_init_root (&self->fsm, nn_binproc_handler,
nn_epbase_getctx (&self->epbase));
self->state = NN_BINPROC_STATE_IDLE;
nn_list_init (&self->sinprocs);
nn_list_item_init (&self->item);
sz = sizeof (self->protocol);
nn_epbase_getopt (&self->epbase, NN_SOL_SOCKET, NN_PROTOCOL,
&self->protocol, &sz);
nn_assert (sz == sizeof (self->protocol));
self->connects = 0;
/* Start the state machine. */
nn_fsm_start (&self->fsm);
return self;
}
int nn_bipc_create (void *hint, struct nn_epbase **epbase)
{
struct nn_bipc *self;
/* Allocate the new endpoint object. */
self = nn_alloc (sizeof (struct nn_bipc), "bipc");
alloc_assert (self);
/* Initialise the structure. */
nn_epbase_init (&self->epbase, &nn_bipc_epbase_vfptr, hint);
nn_fsm_init_root (&self->fsm, nn_bipc_handler,
nn_epbase_getctx (&self->epbase));
self->state = NN_BIPC_STATE_IDLE;
nn_usock_init (&self->usock, NN_BIPC_SRC_USOCK, &self->fsm);
self->aipc = NULL;
nn_list_init (&self->aipcs);
/* Start the state machine. */
nn_fsm_start (&self->fsm);
/* Return the base class as an out parameter. */
*epbase = &self->epbase;
return 0;
}
int nn_sockbase_init (struct nn_sockbase *self,
const struct nn_sockbase_vfptr *vfptr)
{
int rc;
/* Make sure that at least one message direction is supported. */
nn_assert (!(vfptr->flags & NN_SOCKBASE_FLAG_NOSEND) ||
!(vfptr->flags & NN_SOCKBASE_FLAG_NORECV));
/* Open the NN_SNDFD and NN_RCVFD efds. Do so, only if the socket type
supports send/recv, as appropriate. */
if (vfptr->flags & NN_SOCKBASE_FLAG_NOSEND)
memset (&self->sndfd, 0xcd, sizeof (self->sndfd));
else {
rc = nn_efd_init (&self->sndfd);
if (nn_slow (rc < 0))
return rc;
}
if (vfptr->flags & NN_SOCKBASE_FLAG_NORECV)
memset (&self->rcvfd, 0xcd, sizeof (self->rcvfd));
else {
rc = nn_efd_init (&self->rcvfd);
if (nn_slow (rc < 0)) {
if (!(vfptr->flags & NN_SOCKBASE_FLAG_NOSEND))
nn_efd_term (&self->sndfd);
return rc;
}
}
memset (&self->termsem, 0xcd, sizeof (self->termsem));
rc = nn_cp_init (&self->cp);
if (nn_slow (rc < 0)) {
if (!(vfptr->flags & NN_SOCKBASE_FLAG_NORECV))
nn_efd_term (&self->rcvfd);
if (!(vfptr->flags & NN_SOCKBASE_FLAG_NOSEND))
nn_efd_term (&self->sndfd);
return rc;
}
self->vfptr = vfptr;
self->flags = 0;
nn_clock_init (&self->clock);
nn_list_init (&self->eps);
self->eid = 1;
/* Default values for NN_SOL_SOCKET options. */
self->domain = -1;
self->protocol = -1;
self->linger = 1000;
self->sndbuf = 128 * 1024;
self->rcvbuf = 128 * 1024;
self->sndtimeo = -1;
self->rcvtimeo = -1;
self->reconnect_ivl = 100;
self->reconnect_ivl_max = 0;
self->sndprio = 8;
self->rcvprio = 8;
return 0;
}
void nn_priolist_init (struct nn_priolist *self)
{
int i;
for (i = 0; i != NN_PRIOLIST_SLOTS; ++i) {
nn_list_init (&self->slots [i].pipes);
self->slots [i].current = NULL;
}
self->current = -1;
}
int nn_tcpmuxd (int port)
{
int rc;
int tcp_listener;
int ipc_listener;
int opt;
struct sockaddr_in tcp_addr;
struct sockaddr_un ipc_addr;
struct nn_tcpmuxd_ctx *ctx;
/* Start listening on the specified TCP port. */
tcp_listener = socket (AF_INET, SOCK_STREAM, IPPROTO_TCP);
errno_assert (tcp_listener >= 0);
opt = 1;
rc = setsockopt (tcp_listener, SOL_SOCKET, SO_REUSEADDR, &opt,
sizeof (opt));
errno_assert (rc == 0);
memset (&tcp_addr, 0, sizeof (tcp_addr));
tcp_addr.sin_family = AF_INET;
tcp_addr.sin_port = htons (port);
tcp_addr.sin_addr.s_addr = INADDR_ANY;
rc = bind (tcp_listener, (struct sockaddr*) &tcp_addr, sizeof (tcp_addr));
errno_assert (rc == 0);
rc = listen (tcp_listener, 100);
errno_assert (rc == 0);
/* Start listening for incoming IPC connections. */
ipc_addr.sun_family = AF_UNIX;
snprintf (ipc_addr.sun_path, sizeof (ipc_addr.sun_path),
"/tmp/tcpmux-%d.ipc", (int) port);
unlink (ipc_addr.sun_path);
ipc_listener = socket (AF_UNIX, SOCK_STREAM, 0);
errno_assert (ipc_listener >= 0);
rc = bind (ipc_listener, (struct sockaddr*) &ipc_addr, sizeof (ipc_addr));
errno_assert (rc == 0);
rc = listen (ipc_listener, 100);
errno_assert (rc == 0);
/* Allocate a context for the daemon. */
ctx = nn_alloc (sizeof (struct nn_tcpmuxd_ctx), "tcpmuxd context");
alloc_assert (ctx);
ctx->tcp_listener = tcp_listener;
ctx->ipc_listener = ipc_listener;
nn_list_init (&ctx->conns);
/* Run the daemon in a dedicated thread. */
nn_thread_init (&ctx->thread, nn_tcpmuxd_routine, ctx);
return 0;
}
void nn_sws_init (struct nn_sws *self, int src,
struct nn_epbase *epbase, struct nn_fsm *owner)
{
nn_fsm_init (&self->fsm, nn_sws_handler, nn_sws_shutdown,
src, self, owner);
self->state = NN_SWS_STATE_IDLE;
nn_wshdr_init (&self->wshdr, NN_SWS_SRC_HANDSHAKE, &self->fsm);
self->usock = NULL;
self->usock_owner.src = -1;
self->usock_owner.fsm = NULL;
nn_pipebase_init (&self->pipebase, &nn_sws_pipebase_vfptr, epbase);
self->instate = -1;
nn_list_init (&self->inmsg_array);
self->outstate = -1;
nn_msg_init (&self->outmsg, 0);
self->continuing = 0;
nn_fsm_event_init (&self->done);
}
int nn_bipc_create (void *hint, struct nn_epbase **epbase)
{
struct nn_bipc *self;
int reconnect_ivl;
int reconnect_ivl_max;
size_t sz;
/* Allocate the new endpoint object. */
self = nn_alloc (sizeof (struct nn_bipc), "bipc");
alloc_assert (self);
/* Initialise the structure. */
nn_epbase_init (&self->epbase, &nn_bipc_epbase_vfptr, hint);
nn_fsm_init_root (&self->fsm, nn_bipc_handler, nn_bipc_shutdown,
nn_epbase_getctx (&self->epbase));
self->state = NN_BIPC_STATE_IDLE;
sz = sizeof (reconnect_ivl);
nn_epbase_getopt (&self->epbase, NN_SOL_SOCKET, NN_RECONNECT_IVL,
&reconnect_ivl, &sz);
nn_assert (sz == sizeof (reconnect_ivl));
sz = sizeof (reconnect_ivl_max);
nn_epbase_getopt (&self->epbase, NN_SOL_SOCKET, NN_RECONNECT_IVL_MAX,
&reconnect_ivl_max, &sz);
nn_assert (sz == sizeof (reconnect_ivl_max));
if (reconnect_ivl_max == 0)
reconnect_ivl_max = reconnect_ivl;
nn_backoff_init (&self->retry, NN_BIPC_SRC_RECONNECT_TIMER,
reconnect_ivl, reconnect_ivl_max, &self->fsm);
nn_usock_init (&self->usock, NN_BIPC_SRC_USOCK, &self->fsm);
self->aipc = NULL;
nn_list_init (&self->aipcs);
/* Start the state machine. */
nn_fsm_start (&self->fsm);
/* Return the base class as an out parameter. */
*epbase = &self->epbase;
return 0;
}
int nn_btcp_create (void *hint, struct nn_epbase **epbase)
{
int rc;
struct nn_btcp *self;
const char *addr;
const char *end;
const char *pos;
struct sockaddr_storage ss;
size_t sslen;
int ipv4only;
size_t ipv4onlylen;
/* Allocate the new endpoint object. */
self = nn_alloc (sizeof (struct nn_btcp), "btcp");
alloc_assert (self);
/* Initalise the epbase. */
nn_epbase_init (&self->epbase, &nn_btcp_epbase_vfptr, hint);
addr = nn_epbase_getaddr (&self->epbase);
/* Parse the port. */
end = addr + strlen (addr);
pos = strrchr (addr, ':');
if (nn_slow (!pos)) {
nn_epbase_term (&self->epbase);
return -EINVAL;
}
++pos;
rc = nn_port_resolve (pos, end - pos);
if (nn_slow (rc < 0)) {
nn_epbase_term (&self->epbase);
return -EINVAL;
}
/* Check whether IPv6 is to be used. */
ipv4onlylen = sizeof (ipv4only);
nn_epbase_getopt (&self->epbase, NN_SOL_SOCKET, NN_IPV4ONLY,
&ipv4only, &ipv4onlylen);
nn_assert (ipv4onlylen == sizeof (ipv4only));
/* Parse the address. */
rc = nn_iface_resolve (addr, pos - addr - 1, ipv4only, &ss, &sslen);
if (nn_slow (rc < 0)) {
nn_epbase_term (&self->epbase);
return -ENODEV;
}
/* Initialise the structure. */
nn_fsm_init_root (&self->fsm, nn_btcp_handler, nn_btcp_shutdown,
nn_epbase_getctx (&self->epbase));
self->state = NN_BTCP_STATE_IDLE;
nn_usock_init (&self->usock, NN_BTCP_SRC_USOCK, &self->fsm);
self->atcp = NULL;
nn_list_init (&self->atcps);
/* Start the state machine. */
nn_fsm_start (&self->fsm);
/* Return the base class as an out parameter. */
*epbase = &self->epbase;
return 0;
}
/* Initialize a socket. A hold is placed on the initialized socket for
the caller as well. */
int nn_sock_init (struct nn_sock *self, struct nn_socktype *socktype, int fd)
{
int rc;
int i;
/* Make sure that at least one message direction is supported. */
nn_assert (!(socktype->flags & NN_SOCKTYPE_FLAG_NOSEND) ||
!(socktype->flags & NN_SOCKTYPE_FLAG_NORECV));
/* Create the AIO context for the SP socket. */
nn_ctx_init (&self->ctx, nn_global_getpool (), nn_sock_onleave);
/* Initialise the state machine. */
nn_fsm_init_root (&self->fsm, nn_sock_handler,
nn_sock_shutdown, &self->ctx);
self->state = NN_SOCK_STATE_INIT;
/* Open the NN_SNDFD and NN_RCVFD efds. Do so, only if the socket type
supports send/recv, as appropriate. */
if (socktype->flags & NN_SOCKTYPE_FLAG_NOSEND)
memset (&self->sndfd, 0xcd, sizeof (self->sndfd));
else {
rc = nn_efd_init (&self->sndfd);
if (nn_slow (rc < 0))
return rc;
}
if (socktype->flags & NN_SOCKTYPE_FLAG_NORECV)
memset (&self->rcvfd, 0xcd, sizeof (self->rcvfd));
else {
rc = nn_efd_init (&self->rcvfd);
if (nn_slow (rc < 0)) {
if (!(socktype->flags & NN_SOCKTYPE_FLAG_NOSEND))
nn_efd_term (&self->sndfd);
return rc;
}
}
nn_sem_init (&self->termsem);
nn_sem_init (&self->relesem);
if (nn_slow (rc < 0)) {
if (!(socktype->flags & NN_SOCKTYPE_FLAG_NORECV))
nn_efd_term (&self->rcvfd);
if (!(socktype->flags & NN_SOCKTYPE_FLAG_NOSEND))
nn_efd_term (&self->sndfd);
return rc;
}
self->holds = 1; /* Callers hold. */
self->flags = 0;
nn_clock_init (&self->clock);
nn_list_init (&self->eps);
nn_list_init (&self->sdeps);
self->eid = 1;
/* Default values for NN_SOL_SOCKET options. */
self->linger = 1000;
self->sndbuf = 128 * 1024;
self->rcvbuf = 128 * 1024;
self->rcvmaxsize = 1024 * 1024;
self->sndtimeo = -1;
self->rcvtimeo = -1;
self->reconnect_ivl = 100;
self->reconnect_ivl_max = 0;
self->ep_template.sndprio = 8;
self->ep_template.rcvprio = 8;
self->ep_template.ipv4only = 1;
/* Initialize statistic entries */
self->statistics.established_connections = 0;
self->statistics.accepted_connections = 0;
self->statistics.dropped_connections = 0;
self->statistics.broken_connections = 0;
self->statistics.connect_errors = 0;
self->statistics.bind_errors = 0;
self->statistics.accept_errors = 0;
self->statistics.messages_sent = 0;
self->statistics.messages_received = 0;
self->statistics.bytes_sent = 0;
self->statistics.bytes_received = 0;
self->statistics.current_connections = 0;
self->statistics.inprogress_connections = 0;
self->statistics.current_snd_priority = 0;
self->statistics.current_ep_errors = 0;
/* Should be pretty much enough space for just the number */
sprintf(self->socket_name, "%d", fd);
/* The transport-specific options are not initialised immediately,
rather, they are allocated later on when needed. */
for (i = 0; i != NN_MAX_TRANSPORT; ++i)
self->optsets [i] = NULL;
/* Create the specific socket type itself. */
rc = socktype->create ((void*) self, &self->sockbase);
errnum_assert (rc == 0, -rc);
self->socktype = socktype;
/* Launch the state machine. */
nn_ctx_enter (&self->ctx);
nn_fsm_start (&self->fsm);
nn_ctx_leave (&self->ctx);
return 0;
}
static void nn_global_init (void)
{
int i;
#if defined NN_HAVE_WINDOWS
WSADATA data;
int rc;
#endif
/* Check whether the library was already initialised. If so, do nothing. */
if (self.socks)
return;
/* On Windows, initialise the socket library. */
#if defined NN_HAVE_WINDOWS
rc = WSAStartup (MAKEWORD (2, 2), &data);
nn_assert (rc == 0);
nn_assert (LOBYTE (data.wVersion) == 2 &&
HIBYTE (data.wVersion) == 2);
#endif
/* Initialise the memory allocation subsystem. */
nn_alloc_init ();
/* Seed the pseudo-random number generator. */
nn_random_seed ();
/* Allocate the global table of SP sockets. */
self.socks = nn_alloc ((sizeof (struct nn_sock*) * NN_MAX_SOCKETS) +
(sizeof (uint16_t) * NN_MAX_SOCKETS), "socket table");
alloc_assert (self.socks);
for (i = 0; i != NN_MAX_SOCKETS; ++i)
self.socks [i] = NULL;
self.nsocks = 0;
self.flags = 0;
/* Allocate the stack of unused file descriptors. */
self.unused = (uint16_t*) (self.socks + NN_MAX_SOCKETS);
alloc_assert (self.unused);
for (i = 0; i != NN_MAX_SOCKETS; ++i)
self.unused [i] = NN_MAX_SOCKETS - i - 1;
/* Initialise other parts of the global state. */
nn_list_init (&self.transports);
nn_list_init (&self.socktypes);
/* Plug in individual transports. */
nn_global_add_transport (nn_inproc);
#if !defined NN_HAVE_WINDOWS
nn_global_add_transport (nn_ipc);
#endif
nn_global_add_transport (nn_tcp);
/* Plug in individual socktypes. */
nn_global_add_socktype (nn_pair_socktype);
nn_global_add_socktype (nn_xpair_socktype);
nn_global_add_socktype (nn_pub_socktype);
nn_global_add_socktype (nn_sub_socktype);
nn_global_add_socktype (nn_rep_socktype);
nn_global_add_socktype (nn_req_socktype);
nn_global_add_socktype (nn_xrep_socktype);
nn_global_add_socktype (nn_xreq_socktype);
nn_global_add_socktype (nn_push_socktype);
nn_global_add_socktype (nn_xpush_socktype);
nn_global_add_socktype (nn_pull_socktype);
nn_global_add_socktype (nn_xpull_socktype);
nn_global_add_socktype (nn_respondent_socktype);
nn_global_add_socktype (nn_surveyor_socktype);
nn_global_add_socktype (nn_xrespondent_socktype);
nn_global_add_socktype (nn_xsurveyor_socktype);
nn_global_add_socktype (nn_bus_socktype);
nn_global_add_socktype (nn_xbus_socktype);
/* Start the worker threads. */
nn_pool_init (&self.pool);
}
void nn_ins_init (void)
{
nn_mutex_init (&self.sync);
nn_list_init (&self.bound);
nn_list_init (&self.connected);
}
static void nn_global_init (void)
{
int i;
char *envvar;
int rc;
char *addr;
#if defined NN_HAVE_WINDOWS
WSADATA data;
#endif
/* Check whether the library was already initialised. If so, do nothing. */
if (self.socks)
return;
/* On Windows, initialise the socket library. */
#if defined NN_HAVE_WINDOWS
rc = WSAStartup (MAKEWORD (2, 2), &data);
nn_assert (rc == 0);
nn_assert (LOBYTE (data.wVersion) == 2 &&
HIBYTE (data.wVersion) == 2);
#endif
/* Initialise the memory allocation subsystem. */
nn_alloc_init ();
/* Seed the pseudo-random number generator. */
nn_random_seed ();
/* Allocate the global table of SP sockets. */
self.socks = nn_alloc ((sizeof (struct nn_sock*) * NN_MAX_SOCKETS) +
(sizeof (uint16_t) * NN_MAX_SOCKETS), "socket table");
alloc_assert (self.socks);
for (i = 0; i != NN_MAX_SOCKETS; ++i)
self.socks [i] = NULL;
self.nsocks = 0;
self.flags = 0;
/* Print connection and accepting errors to the stderr */
envvar = getenv("NN_PRINT_ERRORS");
/* any non-empty string is true */
self.print_errors = envvar && *envvar;
/* Print socket statistics to stderr */
envvar = getenv("NN_PRINT_STATISTICS");
self.print_statistics = envvar && *envvar;
/* Allocate the stack of unused file descriptors. */
self.unused = (uint16_t*) (self.socks + NN_MAX_SOCKETS);
alloc_assert (self.unused);
for (i = 0; i != NN_MAX_SOCKETS; ++i)
self.unused [i] = NN_MAX_SOCKETS - i - 1;
/* Initialise other parts of the global state. */
nn_list_init (&self.transports);
nn_list_init (&self.socktypes);
/* Plug in individual transports. */
nn_global_add_transport (nn_inproc);
nn_global_add_transport (nn_ipc);
nn_global_add_transport (nn_tcp);
nn_global_add_transport (nn_ws);
nn_global_add_transport (nn_tcpmux);
/* Plug in individual socktypes. */
nn_global_add_socktype (nn_pair_socktype);
nn_global_add_socktype (nn_xpair_socktype);
nn_global_add_socktype (nn_pub_socktype);
nn_global_add_socktype (nn_sub_socktype);
nn_global_add_socktype (nn_xpub_socktype);
nn_global_add_socktype (nn_xsub_socktype);
nn_global_add_socktype (nn_rep_socktype);
nn_global_add_socktype (nn_req_socktype);
nn_global_add_socktype (nn_xrep_socktype);
nn_global_add_socktype (nn_xreq_socktype);
nn_global_add_socktype (nn_push_socktype);
nn_global_add_socktype (nn_xpush_socktype);
nn_global_add_socktype (nn_pull_socktype);
nn_global_add_socktype (nn_xpull_socktype);
nn_global_add_socktype (nn_respondent_socktype);
nn_global_add_socktype (nn_surveyor_socktype);
nn_global_add_socktype (nn_xrespondent_socktype);
nn_global_add_socktype (nn_xsurveyor_socktype);
nn_global_add_socktype (nn_bus_socktype);
nn_global_add_socktype (nn_xbus_socktype);
/* Start the worker threads. */
nn_pool_init (&self.pool);
/* Start FSM */
nn_fsm_init_root (&self.fsm, nn_global_handler, nn_global_shutdown,
&self.ctx);
self.state = NN_GLOBAL_STATE_IDLE;
nn_ctx_init (&self.ctx, nn_global_getpool (), NULL);
nn_timer_init (&self.stat_timer, NN_GLOBAL_SRC_STAT_TIMER, &self.fsm);
nn_fsm_start (&self.fsm);
/* Initializing special sockets. */
addr = getenv ("NN_STATISTICS_SOCKET");
if (addr) {
self.statistics_socket = nn_global_create_socket (AF_SP, NN_PUB);
errno_assert (self.statistics_socket >= 0);
rc = nn_global_create_ep (self.statistics_socket, addr, 0);
errno_assert (rc >= 0);
} else {
self.statistics_socket = -1;
}
addr = getenv ("NN_APPLICATION_NAME");
if (addr) {
strncpy (self.appname, addr, 63);
self.appname[63] = '\0';
} else {
/* No cross-platform way to find out application binary.
Also, MSVC suggests using _getpid() instead of getpid(),
however, it's not clear whether the former is supported
by older versions of Windows/MSVC. */
#if defined _MSC_VER
#pragma warning (push)
#pragma warning (disable:4996)
#endif
sprintf (self.appname, "nanomsg.%d", getpid());
#if defined _MSC_VER
#pragma warning (pop)
#endif
}
addr = getenv ("NN_HOSTNAME");
if (addr) {
strncpy (self.hostname, addr, 63);
self.hostname[63] = '\0';
} else {
rc = gethostname (self.hostname, 63);
errno_assert (rc == 0);
self.hostname[63] = '\0';
}
}
static void nn_inproc_ctx_init (void)
{
nn_list_init (&self.bound);
nn_list_init (&self.connected);
}
void nn_dist_init (struct nn_dist *self)
{
self->count = 0;
nn_list_init (&self->pipes);
}
