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/* * This file is part of Tokio ZMQ. * * Copyright © 2017 Riley Trautman * * Tokio ZMQ is free software: you can redistribute it and/or modify * it under the terms of the GNU General Public License as published by * the Free Software Foundation, either version 3 of the License, or * (at your option) any later version. * * Tokio ZMQ is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with Tokio ZMQ. If not, see <http://www.gnu.org/licenses/>. */ #![feature(conservative_impl_trait)] #![feature(try_from)] //! Tokio ZMQ, bringing Zero MQ to the Tokio event loop //! //! This crate provides Streams, Sinks, and Futures for Zero MQ Sockets, which deal in structures //! caled Multiparts. Currently, a Multipart is a simple VecDeque<zmq::Message>, but possibly in //! the future this can be represented as a struct, or VecDeque<S: zmq::Sendable> with the zmq 0.9 //! release. //! //! # Creating a socket //! //! To get a new socket, you must invoke the Socket builder. The Socket Builder can output a //! 'raw' Socket, or any specific kind of socket, such as Rep, Req, etc. The result of the builder //! can be any compatable kind of socket, so specifiying a type is important. //! //! Once you have a socket, if it implements `StreamSocket`, you can use the socket's `.stream()`, if //! it implements `SinkSocket`, you can use the socket's `.sink()`, and if it implements //! `FutureSocket`, you can use the `send` and `recv` methods. //! //! Without further ado, creating and using a socket: //! //! ```rust //! #![feature(try_from)] //! //! extern crate zmq; //! extern crate futures; //! extern crate tokio_core; //! extern crate tokio_zmq; //! //! use std::convert::TryInto; //! use std::rc::Rc; //! //! use futures::Stream; //! use tokio_core::reactor::Core; //! use tokio_zmq::prelude::*; //! use tokio_zmq::{Socket, Pub, Sub, Error}; //! //! fn run() -> Result<(), Error> { //! // Create a new Event Loop. Typically this will happen somewhere near the start of your //! // application. //! let mut core = Core::new()?; //! //! // Create a new ZeroMQ Context. This context will be used to create all the sockets. //! let context = Rc::new(zmq::Context::new()); //! //! // Create our two sockets using the Socket builder pattern. //! // Note that the variable is named zpub, since pub is a keyword //! let zpub: Pub = Socket::new(Rc::clone(&context), core.handle()) //! .bind("tcp://*:5561") //! .try_into()?; //! //! let sub: Sub = Socket::new(context, core.handle()) //! .bind("tcp://*:5562") //! .filter(b"") //! .try_into()?; //! //! // Create our simple server. This forwards messages from the Subscriber socket to the //! // Publisher socket, and prints them as they go by. //! let runner = sub.stream() //! .map(|multipart| { //! for msg in &multipart { //! if let Some(msg) = msg.as_str() { //! println!("Forwarding: {}", msg); //! } //! } //! multipart //! }) //! .forward(zpub.sink::<Error>()); //! //! // To avoid an infinte doctest, the actual core.run is commented out. //! // core.run(runner)?; //! # let _ = runner; //! # Ok(()) //! } //! //! # fn main() { //! # run().unwrap(); //! # } //! ``` extern crate zmq; extern crate futures; extern crate tokio_core; extern crate tokio_file_unix; #[macro_use] extern crate log; pub mod async; pub mod error; pub mod socket; pub mod file; pub mod prelude; pub use self::error::Error; pub use socket::Socket; pub use socket::{Dealer, Rep, Req, Router, Pub, Sub, Push, Pull, Xpub, Xsub, Pair};