int zmq::socket_base_t::term_endpoint (const char *addr_) { // Check whether the library haven't been shut down yet. if (unlikely (ctx_terminated)) { errno = ETERM; return -1; } // Check whether endpoint address passed to the function is valid. if (unlikely (!addr_)) { errno = EINVAL; return -1; } // Process pending commands, if any, since there could be pending unprocessed process_own()'s // (from launch_child() for example) we're asked to terminate now. int rc = process_commands (0, false); if (unlikely (rc != 0)) return -1; // Find the endpoints range (if any) corresponding to the addr_ string. std::pair <endpoints_t::iterator, endpoints_t::iterator> range = endpoints.equal_range (std::string (addr_)); if (range.first == range.second) return -1; for (endpoints_t::iterator it = range.first; it != range.second; ++it) term_child (it->second); endpoints.erase (range.first, range.second); return 0; }
int cleanup() { // shutdown child gdb_write("quit\n"); int rc = wait_for_child_gone(); if(!rc) rc = term_child(); return rc; }
int zmq::socket_base_t::term_endpoint (const char *addr_) { // Check whether the library haven't been shut down yet. if (unlikely (ctx_terminated)) { errno = ETERM; return -1; } // Check whether endpoint address passed to the function is valid. if (unlikely (!addr_)) { errno = EINVAL; return -1; } // Process pending commands, if any, since there could be pending unprocessed process_own()'s // (from launch_child() for example) we're asked to terminate now. int rc = process_commands (0, false); if (unlikely (rc != 0)) return -1; // Parse addr_ string. std::string protocol; std::string address; if (parse_uri (addr_, protocol, address) || check_protocol (protocol)) return -1; // Disconnect an inproc socket if (protocol == "inproc") { if (unregister_endpoint (std::string (addr_), this) == 0) return 0; std::pair <inprocs_t::iterator, inprocs_t::iterator> range = inprocs.equal_range (std::string (addr_)); if (range.first == range.second) { errno = ENOENT; return -1; } for (inprocs_t::iterator it = range.first; it != range.second; ++it) it->second->terminate (true); inprocs.erase (range.first, range.second); return 0; } // Find the endpoints range (if any) corresponding to the addr_ string. std::pair <endpoints_t::iterator, endpoints_t::iterator> range = endpoints.equal_range (std::string (addr_)); if (range.first == range.second) { errno = ENOENT; return -1; } for (endpoints_t::iterator it = range.first; it != range.second; ++it) { // If we have an associated pipe, terminate it. if (it->second.second != NULL) it->second.second->terminate (false); term_child (it->second.first); } endpoints.erase (range.first, range.second); return 0; }
int zmq::socket_base_t::term_endpoint (const char *addr_) { scoped_optional_lock_t sync_lock(thread_safe ? &sync : NULL); // Check whether the library haven't been shut down yet. if (unlikely (ctx_terminated)) { errno = ETERM; return -1; } // Check whether endpoint address passed to the function is valid. if (unlikely (!addr_)) { errno = EINVAL; return -1; } // Process pending commands, if any, since there could be pending unprocessed process_own()'s // (from launch_child() for example) we're asked to terminate now. int rc = process_commands (0, false); if (unlikely(rc != 0)) { return -1; } // Parse addr_ string. std::string protocol; std::string address; if (parse_uri(addr_, protocol, address) || check_protocol(protocol)) { return -1; } // Disconnect an inproc socket if (protocol == "inproc") { if (unregister_endpoint (std::string(addr_), this) == 0) { return 0; } std::pair <inprocs_t::iterator, inprocs_t::iterator> range = inprocs.equal_range (std::string (addr_)); if (range.first == range.second) { errno = ENOENT; return -1; } for (inprocs_t::iterator it = range.first; it != range.second; ++it) it->second->terminate (true); inprocs.erase (range.first, range.second); return 0; } std::string resolved_addr = std::string (addr_); std::pair <endpoints_t::iterator, endpoints_t::iterator> range; // The resolved last_endpoint is used as a key in the endpoints map. // The address passed by the user might not match in the TCP case due to // IPv4-in-IPv6 mapping (EG: tcp://[::ffff:127.0.0.1]:9999), so try to // resolve before giving up. Given at this stage we don't know whether a // socket is connected or bound, try with both. if (protocol == "tcp") { range = endpoints.equal_range (resolved_addr); if (range.first == range.second) { tcp_address_t *tcp_addr = new (std::nothrow) tcp_address_t (); alloc_assert (tcp_addr); rc = tcp_addr->resolve (address.c_str (), false, options.ipv6); if (rc == 0) { tcp_addr->to_string (resolved_addr); range = endpoints.equal_range (resolved_addr); if (range.first == range.second) { rc = tcp_addr->resolve (address.c_str (), true, options.ipv6); if (rc == 0) { tcp_addr->to_string (resolved_addr); } } } LIBZMQ_DELETE(tcp_addr); } } // Find the endpoints range (if any) corresponding to the addr_ string. range = endpoints.equal_range (resolved_addr); if (range.first == range.second) { errno = ENOENT; return -1; } for (endpoints_t::iterator it = range.first; it != range.second; ++it) { // If we have an associated pipe, terminate it. if (it->second.second != NULL) it->second.second->terminate (false); term_child (it->second.first); } endpoints.erase (range.first, range.second); return 0; }