struct MoneyLossDetector<'a> {
manager: Arc<ChannelManager<EnforcingChannelKeys, Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>, Arc<TestBroadcaster>, Arc<KeyProvider>, Arc<FuzzEstimator>, Arc<dyn Logger>>>,
monitor: Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>,
- handler: PeerManager<Peer<'a>, Arc<ChannelManager<EnforcingChannelKeys, Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>, Arc<TestBroadcaster>, Arc<KeyProvider>, Arc<FuzzEstimator>, Arc<dyn Logger>>>>,
+ handler: PeerManager<Peer<'a>, Arc<ChannelManager<EnforcingChannelKeys, Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>, Arc<TestBroadcaster>, Arc<KeyProvider>, Arc<FuzzEstimator>, Arc<dyn Logger>>>, Arc<dyn Logger>>,
peers: &'a RefCell<[bool; 256]>,
funding_txn: Vec<Transaction>,
pub fn new(peers: &'a RefCell<[bool; 256]>,
manager: Arc<ChannelManager<EnforcingChannelKeys, Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>, Arc<TestBroadcaster>, Arc<KeyProvider>, Arc<FuzzEstimator>, Arc<dyn Logger>>>,
monitor: Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>,
- handler: PeerManager<Peer<'a>, Arc<ChannelManager<EnforcingChannelKeys, Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>, Arc<TestBroadcaster>, Arc<KeyProvider>, Arc<FuzzEstimator>, Arc<dyn Logger>>>>) -> Self {
+ handler: PeerManager<Peer<'a>, Arc<ChannelManager<EnforcingChannelKeys, Arc<channelmonitor::SimpleManyChannelMonitor<OutPoint, EnforcingChannelKeys, Arc<TestBroadcaster>, Arc<FuzzEstimator>, Arc<dyn Logger>, Arc<ChainWatchInterfaceUtil>>>, Arc<TestBroadcaster>, Arc<KeyProvider>, Arc<FuzzEstimator>, Arc<dyn Logger>>>, Arc<dyn Logger>>) -> Self {
MoneyLossDetector {
manager,
monitor,
use lightning::ln::peer_handler;
use lightning::ln::peer_handler::SocketDescriptor as LnSocketTrait;
use lightning::ln::msgs::ChannelMessageHandler;
+use lightning::util::logger::Logger;
use std::{task, thread};
use std::net::SocketAddr;
_ => panic!()
}
}
- async fn schedule_read<CMH: ChannelMessageHandler + 'static>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>>>, us: Arc<Mutex<Self>>, mut reader: io::ReadHalf<TcpStream>, mut read_wake_receiver: mpsc::Receiver<()>, mut write_avail_receiver: mpsc::Receiver<()>) {
+ async fn schedule_read<CMH: ChannelMessageHandler + 'static, L: Logger + 'static + ?Sized>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>, Arc<L>>>, us: Arc<Mutex<Self>>, mut reader: io::ReadHalf<TcpStream>, mut read_wake_receiver: mpsc::Receiver<()>, mut write_avail_receiver: mpsc::Receiver<()>) {
let peer_manager_ref = peer_manager.clone();
// 8KB is nice and big but also should never cause any issues with stack overflowing.
let mut buf = [0; 8192];
/// not need to poll the provided future in order to make progress.
///
/// See the module-level documentation for how to handle the event_notify mpsc::Sender.
-pub fn setup_inbound<CMH: ChannelMessageHandler + 'static>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>>>, event_notify: mpsc::Sender<()>, stream: TcpStream) -> impl std::future::Future<Output=()> {
+pub fn setup_inbound<CMH: ChannelMessageHandler + 'static, L: Logger + 'static + ?Sized>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>, Arc<L>>>, event_notify: mpsc::Sender<()>, stream: TcpStream) -> impl std::future::Future<Output=()> {
let (reader, write_receiver, read_receiver, us) = Connection::new(event_notify, stream);
#[cfg(debug_assertions)]
let last_us = Arc::clone(&us);
/// not need to poll the provided future in order to make progress.
///
/// See the module-level documentation for how to handle the event_notify mpsc::Sender.
-pub fn setup_outbound<CMH: ChannelMessageHandler + 'static>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>>>, event_notify: mpsc::Sender<()>, their_node_id: PublicKey, stream: TcpStream) -> impl std::future::Future<Output=()> {
+pub fn setup_outbound<CMH: ChannelMessageHandler + 'static, L: Logger + 'static + ?Sized>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>, Arc<L>>>, event_notify: mpsc::Sender<()>, their_node_id: PublicKey, stream: TcpStream) -> impl std::future::Future<Output=()> {
let (reader, mut write_receiver, read_receiver, us) = Connection::new(event_notify, stream);
#[cfg(debug_assertions)]
let last_us = Arc::clone(&us);
/// make progress.
///
/// See the module-level documentation for how to handle the event_notify mpsc::Sender.
-pub async fn connect_outbound<CMH: ChannelMessageHandler + 'static>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>>>, event_notify: mpsc::Sender<()>, their_node_id: PublicKey, addr: SocketAddr) -> Option<impl std::future::Future<Output=()>> {
+pub async fn connect_outbound<CMH: ChannelMessageHandler + 'static, L: Logger + 'static + ?Sized>(peer_manager: Arc<peer_handler::PeerManager<SocketDescriptor, Arc<CMH>, Arc<L>>>, event_notify: mpsc::Sender<()>, their_node_id: PublicKey, addr: SocketAddr) -> Option<impl std::future::Future<Output=()>> {
if let Ok(Ok(stream)) = time::timeout(Duration::from_secs(10), TcpStream::connect(&addr)).await {
Some(setup_outbound(peer_manager, event_notify, their_node_id, stream))
} else { None }
/// lifetimes). Other times you can afford a reference, which is more efficient, in which case
/// SimpleRefPeerManager is the more appropriate type. Defining these type aliases prevents
/// issues such as overly long function definitions.
-pub type SimpleArcPeerManager<SD, M, T, F, L> = Arc<PeerManager<SD, SimpleArcChannelManager<M, T, F, L>>>;
+pub type SimpleArcPeerManager<SD, M, T, F, L> = Arc<PeerManager<SD, SimpleArcChannelManager<M, T, F, L>, Arc<L>>>;
/// SimpleRefPeerManager is a type alias for a PeerManager reference, and is the reference
/// counterpart to the SimpleArcPeerManager type alias. Use this type by default when you don't
/// usage of lightning-net-tokio (since tokio::spawn requires parameters with static lifetimes).
/// But if this is not necessary, using a reference is more efficient. Defining these type aliases
/// helps with issues such as long function definitions.
-pub type SimpleRefPeerManager<'a, 'b, 'c, 'd, 'e, SD, M, T, F, L> = PeerManager<SD, SimpleRefChannelManager<'a, 'b, 'c, 'd, 'e, M, T, F, L>>;
+pub type SimpleRefPeerManager<'a, 'b, 'c, 'd, 'e, SD, M, T, F, L> = PeerManager<SD, SimpleRefChannelManager<'a, 'b, 'c, 'd, 'e, M, T, F, L>, &'e L>;
/// A PeerManager manages a set of peers, described by their SocketDescriptor and marshalls socket
/// events into messages which it passes on to its MessageHandlers.
/// essentially you should default to using a SimpleRefPeerManager, and use a
/// SimpleArcPeerManager when you require a PeerManager with a static lifetime, such as when
/// you're using lightning-net-tokio.
-pub struct PeerManager<Descriptor: SocketDescriptor, CM: Deref> where CM::Target: msgs::ChannelMessageHandler {
+pub struct PeerManager<Descriptor: SocketDescriptor, CM: Deref, L: Deref> where CM::Target: msgs::ChannelMessageHandler, L::Target: Logger {
message_handler: MessageHandler<CM>,
peers: Mutex<PeerHolder<Descriptor>>,
our_node_secret: SecretKey,
peer_counter_low: AtomicUsize,
peer_counter_high: AtomicUsize,
- logger: Arc<Logger>,
+ logger: L,
}
macro_rules! encode_msg {
/// Manages and reacts to connection events. You probably want to use file descriptors as PeerIds.
/// PeerIds may repeat, but only after socket_disconnected() has been called.
-impl<Descriptor: SocketDescriptor, CM: Deref> PeerManager<Descriptor, CM> where CM::Target: msgs::ChannelMessageHandler {
+impl<Descriptor: SocketDescriptor, CM: Deref, L: Deref> PeerManager<Descriptor, CM, L> where CM::Target: msgs::ChannelMessageHandler, L::Target: Logger {
/// Constructs a new PeerManager with the given message handlers and node_id secret key
/// ephemeral_random_data is used to derive per-connection ephemeral keys and must be
/// cryptographically secure random bytes.
- pub fn new(message_handler: MessageHandler<CM>, our_node_secret: SecretKey, ephemeral_random_data: &[u8; 32], logger: Arc<Logger>) -> PeerManager<Descriptor, CM> {
+ pub fn new(message_handler: MessageHandler<CM>, our_node_secret: SecretKey, ephemeral_random_data: &[u8; 32], logger: L) -> PeerManager<Descriptor, CM, L> {
let mut ephemeral_key_midstate = Sha256::engine();
ephemeral_key_midstate.input(ephemeral_random_data);
PeerManager {
- message_handler: message_handler,
+ message_handler,
peers: Mutex::new(PeerHolder {
peers: HashMap::new(),
peers_needing_send: HashSet::new(),
node_id_to_descriptor: HashMap::new()
}),
- our_node_secret: our_node_secret,
+ our_node_secret,
ephemeral_key_midstate,
peer_counter_low: AtomicUsize::new(0),
peer_counter_high: AtomicUsize::new(0),
use ln::features::ChannelFeatures;
use util::events;
use util::test_utils;
- use util::logger::Logger;
use bitcoin::secp256k1::Secp256k1;
use bitcoin::secp256k1::key::{SecretKey, PublicKey};
fn disconnect_socket(&mut self) {}
}
- fn create_chan_handlers(peer_count: usize) -> Vec<test_utils::TestChannelMessageHandler> {
- let mut chan_handlers = Vec::new();
+ struct PeerManagerCfg {
+ chan_handler: test_utils::TestChannelMessageHandler,
+ logger: test_utils::TestLogger,
+ }
+
+ fn create_peermgr_cfgs(peer_count: usize) -> Vec<PeerManagerCfg> {
+ let mut cfgs = Vec::new();
for _ in 0..peer_count {
let chan_handler = test_utils::TestChannelMessageHandler::new();
- chan_handlers.push(chan_handler);
+ let logger = test_utils::TestLogger::new();
+ cfgs.push(
+ PeerManagerCfg{
+ chan_handler,
+ logger,
+ }
+ );
}
- chan_handlers
+ cfgs
}
- fn create_network<'a>(peer_count: usize, chan_handlers: &'a Vec<test_utils::TestChannelMessageHandler>, routing_handlers: Option<&'a Vec<Arc<msgs::RoutingMessageHandler>>>) -> Vec<PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler>> {
+ fn create_network<'a>(peer_count: usize, cfgs: &'a Vec<PeerManagerCfg>, routing_handlers: Option<&'a Vec<Arc<msgs::RoutingMessageHandler>>>) -> Vec<PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler, &'a test_utils::TestLogger>> {
let mut peers = Vec::new();
let mut rng = thread_rng();
- let logger : Arc<Logger> = Arc::new(test_utils::TestLogger::new());
let mut ephemeral_bytes = [0; 32];
rng.fill_bytes(&mut ephemeral_bytes);
rng.fill_bytes(&mut key_slice);
SecretKey::from_slice(&key_slice).unwrap()
};
- let msg_handler = MessageHandler { chan_handler: &chan_handlers[i], route_handler: router };
- let peer = PeerManager::new(msg_handler, node_id, &ephemeral_bytes, Arc::clone(&logger));
+ let msg_handler = MessageHandler { chan_handler: &cfgs[i].chan_handler, route_handler: router };
+ let peer = PeerManager::new(msg_handler, node_id, &ephemeral_bytes, &cfgs[i].logger);
peers.push(peer);
}
peers
}
- fn establish_connection<'a>(peer_a: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler>, peer_b: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler>) -> (FileDescriptor, FileDescriptor) {
+ fn establish_connection<'a>(peer_a: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler, &'a test_utils::TestLogger>, peer_b: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler, &'a test_utils::TestLogger>) -> (FileDescriptor, FileDescriptor) {
let secp_ctx = Secp256k1::new();
let a_id = PublicKey::from_secret_key(&secp_ctx, &peer_a.our_node_secret);
let mut fd_a = FileDescriptor { fd: 1, outbound_data: Arc::new(Mutex::new(Vec::new())) };
(fd_a.clone(), fd_b.clone())
}
- fn establish_connection_and_read_events<'a>(peer_a: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler>, peer_b: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler>) -> (FileDescriptor, FileDescriptor) {
+ fn establish_connection_and_read_events<'a>(peer_a: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler, &'a test_utils::TestLogger>, peer_b: &PeerManager<FileDescriptor, &'a test_utils::TestChannelMessageHandler, &'a test_utils::TestLogger>) -> (FileDescriptor, FileDescriptor) {
let (mut fd_a, mut fd_b) = establish_connection(peer_a, peer_b);
assert_eq!(peer_b.read_event(&mut fd_b, &fd_a.outbound_data.lock().unwrap().split_off(0)).unwrap(), false);
assert_eq!(peer_a.read_event(&mut fd_a, &fd_b.outbound_data.lock().unwrap().split_off(0)).unwrap(), false);
fn test_disconnect_peer() {
// Simple test which builds a network of PeerManager, connects and brings them to NoiseState::Finished and
// push a DisconnectPeer event to remove the node flagged by id
- let chan_handlers = create_chan_handlers(2);
+ let cfgs = create_peermgr_cfgs(2);
let chan_handler = test_utils::TestChannelMessageHandler::new();
- let mut peers = create_network(2, &chan_handlers, None);
+ let mut peers = create_network(2, &cfgs, None);
establish_connection(&peers[0], &peers[1]);
assert_eq!(peers[0].peers.lock().unwrap().peers.len(), 1);
#[test]
fn test_timer_tick_occurred() {
// Create peers, a vector of two peer managers, perform initial set up and check that peers[0] has one Peer.
- let chan_handlers = create_chan_handlers(2);
- let peers = create_network(2, &chan_handlers, None);
+ let cfgs = create_peermgr_cfgs(2);
+ let peers = create_network(2, &cfgs, None);
establish_connection(&peers[0], &peers[1]);
assert_eq!(peers[0].peers.lock().unwrap().peers.len(), 1);
#[test]
fn test_do_attempt_write_data() {
// Create 2 peers with custom TestRoutingMessageHandlers and connect them.
- let chan_handlers = create_chan_handlers(2);
+ let cfgs = create_peermgr_cfgs(2);
let mut routing_handlers: Vec<Arc<msgs::RoutingMessageHandler>> = Vec::new();
let mut routing_handlers_concrete: Vec<Arc<TestRoutingMessageHandler>> = Vec::new();
for _ in 0..2 {
routing_handlers.push(routing_handler.clone());
routing_handlers_concrete.push(routing_handler.clone());
}
- let peers = create_network(2, &chan_handlers, Some(&routing_handlers));
+ let peers = create_network(2, &cfgs, Some(&routing_handlers));
// By calling establish_connect, we trigger do_attempt_write_data between
// the peers. Previously this function would mistakenly enter an infinite loop
fn limit_initial_routing_sync_requests() {
// Inbound peer 0 requests initial_routing_sync, but outbound peer 1 does not.
{
- let chan_handlers = create_chan_handlers(2);
+ let cfgs = create_peermgr_cfgs(2);
let routing_handlers: Vec<Arc<msgs::RoutingMessageHandler>> = vec![
Arc::new(test_utils::TestRoutingMessageHandler::new().set_request_full_sync()),
Arc::new(test_utils::TestRoutingMessageHandler::new()),
];
- let peers = create_network(2, &chan_handlers, Some(&routing_handlers));
+ let peers = create_network(2, &cfgs, Some(&routing_handlers));
let (fd_0_to_1, fd_1_to_0) = establish_connection_and_read_events(&peers[0], &peers[1]);
let peer_0 = peers[0].peers.lock().unwrap();
// Outbound peer 1 requests initial_routing_sync, but inbound peer 0 does not.
{
- let chan_handlers = create_chan_handlers(2);
+ let cfgs = create_peermgr_cfgs(2);
let routing_handlers: Vec<Arc<msgs::RoutingMessageHandler>> = vec![
Arc::new(test_utils::TestRoutingMessageHandler::new()),
Arc::new(test_utils::TestRoutingMessageHandler::new().set_request_full_sync()),
];
- let peers = create_network(2, &chan_handlers, Some(&routing_handlers));
+ let peers = create_network(2, &cfgs, Some(&routing_handlers));
let (fd_0_to_1, fd_1_to_0) = establish_connection_and_read_events(&peers[0], &peers[1]);
let peer_0 = peers[0].peers.lock().unwrap();
projects / rust-lightning / commitdiff