use std::io::ErrorKind;

use std::sync::Arc;

use std::thread::JoinHandle;

use std::{io, thread};

use crossbeam_channel::{unbounded, Receiver, TryRecvError};

use mio::event::{Event, Source};

use mio::{Events, Interest, Poll, Waker};

use thiserror::Error;

    type Transport: EventHandler + Source + Send + Debug + WriteAtomic;

    /// Method called by the reactor on the start of each event loop once the poll has returned.

    /// Method called by the reactor when a previously set timeout is fired.

    ///

        &mut self,

        token: Token,

        reaction: <Self::Listener as EventHandler>::Reaction,

    );

    /// Method called by the reactor upon a reaction to an I/O event on a transport resource.

        &mut self,

        token: Token,

        reaction: <Self::Transport as EventHandler>::Reaction,

    );

    /// Method called by the reactor when a given resource was successfully registered

    fn run(mut self) {

        loop {

            let timeout = self

                .timeouts

                .next_expiring_from(before_poll)

            // Blocking

            let res = self.poll.poll(&mut events, Some(timeout));

            // The way this is currently used basically ignores which keys have

            // timed out. So as long as *something* timed out, we wake the service.

            if timers_fired > 0 {

                log::trace!(target: "reactor", "Timer has fired");

                self.service.timer_reacted();

                self.service.handle_error(Error::Poll(err));

            }

            // Process the commands only if we awoken by the waker.

            if awoken {

                }

            }

        }

    }

    /// # Returns

    ///

    /// Whether one of the events was originated from the waker.

        log::trace!(target: "reactor", "Handling events");

        let mut awoken = false;

        let mut deregistered = Vec::new();

                        .handle(event)

                        .into_iter()

                        .for_each(|service_event| {

                        });

                } else {

                    let listener = self.deregister_listener(token).unwrap_or_else(|| {

                        .handle(event)

                        .into_iter()

                        .for_each(|service_event| {

                        });

                } else {

                    let transport = self.deregister_transport(token).unwrap_or_else(|| {

        awoken

    }

        while let Some(action) = self.service.next() {

            log::trace!(target: "reactor", "Handling action {action} from the service");

            // Deadlock may happen here if the service will generate events over and over

            // in the handle_* calls we may never get out of this loop

                log::error!(target: "reactor", "Error: {err}");

                self.service.handle_error(err);

            }

    fn handle_action(

        &mut self,

        action: Action<H::Listener, H::Transport>,

    ) -> Result<(), Error<H::Listener, H::Transport>> {

        match action {

            Action::RegisterListener(token, mut listener) => {

            Action::SetTimer(duration) => {

                log::trace!(target: "reactor", "Adding timer {duration:?} from now");

            }

        }

        Ok(())

use std::time::Duration;

/// Manages timers and triggers timeouts.

#[derive(Debug, Default)]

pub struct Timer {

    /// Timeouts are durations since the UNIX epoch.

}

impl Timer {

    }

    /// Register a new timeout relative to a certain point in time.

        self.timeouts.insert(time);

    }

    /// Get the first timeout expiring right at or after certain moment of time.

    /// Returns [`None`] if there are no timeouts.

        let time = time.into();

        let last = *self.timeouts.first()?;

        Some(if last >= time {

        } else {

        })

    }

    /// Removes timeouts which expire by a certain moment of time (inclusive),

    /// returning total number of timeouts which were removed.

        // Since `split_off` returns everything *after* the given key, including the key,

        // if a timer is set for exactly the given time, it would remain in the "after"

        // set of unexpired keys. This isn't what we want, therefore we add `1` to the

        // given time value so that it is put in the "before" set that gets expired

        // and overwritten.

        let unexpired = self.timeouts.split_off(&at);

        let fired = self.timeouts.len();

        self.timeouts = unexpired;

    fn test_wake_exact() {

        let mut tm = Timer::new();

        tm.set_timeout(Duration::from_secs(8), now);

        tm.set_timeout(Duration::from_secs(9), now);

        tm.set_timeout(Duration::from_secs(10), now);

        assert_eq!(tm.count(), 1);

    }

    fn test_wake() {

        let mut tm = Timer::new();

        tm.set_timeout(Duration::from_secs(8), now);

        tm.set_timeout(Duration::from_secs(16), now);

        tm.set_timeout(Duration::from_secs(64), now);

        assert_eq!(tm.remove_expired_by(now), 0);

        assert_eq!(tm.count(), 4);

        assert_eq!(tm.count(), 3, "one timeout has expired");

        assert_eq!(tm.count(), 1, "another two timeouts have expired");

        assert!(!tm.has_timeouts(), "all timeouts have expired");

    }

    fn test_next() {

        let mut tm = Timer::new();

        tm.set_timeout(Duration::from_secs(3), now);

        assert_eq!(tm.next_expiring_from(now), Some(Duration::from_secs(3)));

        assert_eq!(tm.next_expiring_from(now), Some(Duration::from_secs(1)));

        assert_eq!(tm.next_expiring_from(now), Some(Duration::from_secs(0)));

        assert_eq!(tm.next_expiring_from(now), Some(Duration::from_secs(0)));

        assert_eq!(tm.remove_expired_by(now), 1);

use std::collections::VecDeque;

use std::fmt::Debug;

use std::sync::Arc;

use std::{io, net, time};

use crossbeam_channel as chan;

use cyphernet::encrypt::noise::{HandshakePattern, Keyset, NoiseState};

use cyphernet::proxy::socks5;

use cyphernet::{Digest, EcSk, Ecdh, Sha256};

use mio::net::TcpStream;

use radicle::node::device::Device;

    }

}

/// Wire protocol implementation for a set of peers.

pub(crate) struct Wire<D, S, G: crypto::signature::Signer<crypto::Signature> + Ecdh> {

    /// Backing service instance.

    peers: Peers,

    /// A (practically) infinite source of tokens to identify transports and listeners.

    tokens: Tokens,

}

impl<D, S, G> Wire<D, S, G>

            listening: RandomMap::default(),

            peers: Peers(RandomMap::default()),

            tokens: Tokens::default(),

        }

    }

    pub fn listen(&mut self, socket: Listener) {

        let token = self.tokens.advance();

        self.listening.insert(token, socket.local_addr());

    type Listener = Listener;

    type Transport = Transport<WireSession<G>>;

        self.metrics.open_channels = self

            .peers

            .iter()

            })

            .sum();

        self.metrics.worker_queue_size = self.worker.len();

    }

    fn timer_reacted(&mut self) {

        &mut self,

        _: Token, // Note that this is the token of the listener socket.

        event: io::Result<(TcpStream, std::net::SocketAddr)>,

    ) {

        match event {

            Ok((connection, peer)) => {

        }

    }

        match event {

            SessionEvent::Established(ProtocolArtifact { state, session }) => {

                // SAFETY: With the NoiseXK protocol, there is always a remote static key.