//! raw socket events into your non-internet-facing system and then send routing events back to
//! track the network on the less-secure system.
-use bitcoin::secp256k1::key::PublicKey;
-use bitcoin::secp256k1::Signature;
+use bitcoin::secp256k1::PublicKey;
+use bitcoin::secp256k1::ecdsa::Signature;
use bitcoin::secp256k1;
use bitcoin::blockdata::script::Script;
use bitcoin::hash_types::{Txid, BlockHash};
pub struct Init {
/// The relevant features which the sender supports
pub features: InitFeatures,
+ /// The receipient's network address. This adds the option to report a remote IP address
+ /// back to a connecting peer using the init message. A node can decide to use that information
+ /// to discover a potential update to its public IPv4 address (NAT) and use
+ /// that for a node_announcement update message containing the new address.
+ pub remote_network_address: Option<NetAddress>,
}
/// An error message to be sent or received from a peer
/// Called when a connection is established with a peer. This can be used to
/// perform routing table synchronization using a strategy defined by the
/// implementor.
- fn sync_routing_table(&self, their_node_id: &PublicKey, init: &Init);
+ fn peer_connected(&self, their_node_id: &PublicKey, init: &Init);
/// Handles the reply of a query we initiated to learn about channels
/// for a given range of blocks. We can expect to receive one or more
/// replies to a single query.
// global_features gets the bottom 13 bits of our features, and local_features gets all of
// our relevant feature bits. This keeps us compatible with old nodes.
self.features.write_up_to_13(w)?;
- self.features.write(w)
+ self.features.write(w)?;
+ encode_tlv_stream!(w, {
+ (3, self.remote_network_address, option)
+ });
+ Ok(())
}
}
fn read<R: Read>(r: &mut R) -> Result<Self, DecodeError> {
let global_features: InitFeatures = Readable::read(r)?;
let features: InitFeatures = Readable::read(r)?;
+ let mut remote_network_address: Option<NetAddress> = None;
+ decode_tlv_stream!(r, {
+ (3, remote_network_address, option)
+ });
Ok(Init {
features: features.or(global_features),
+ remote_network_address,
})
}
}
use bitcoin::blockdata::opcodes;
use bitcoin::hash_types::{Txid, BlockHash};
- use bitcoin::secp256k1::key::{PublicKey,SecretKey};
+ use bitcoin::secp256k1::{PublicKey,SecretKey};
use bitcoin::secp256k1::{Secp256k1, Message};
use io::Cursor;
($privkey: expr, $ctx: expr, $string: expr) => {
{
let sighash = Message::from_slice(&$string.into_bytes()[..]).unwrap();
- $ctx.sign(&sighash, &$privkey)
+ $ctx.sign_ecdsa(&sighash, &$privkey)
}
}
}
htlc_basepoint: pubkey_5,
first_per_commitment_point: pubkey_6,
channel_flags: if random_bit { 1 << 5 } else { 0 },
- shutdown_scriptpubkey: if shutdown { OptionalField::Present(Address::p2pkh(&::bitcoin::PublicKey{compressed: true, key: pubkey_1}, Network::Testnet).script_pubkey()) } else { OptionalField::Absent },
+ shutdown_scriptpubkey: if shutdown { OptionalField::Present(Address::p2pkh(&::bitcoin::PublicKey{compressed: true, inner: pubkey_1}, Network::Testnet).script_pubkey()) } else { OptionalField::Absent },
channel_type: if incl_chan_type { Some(ChannelTypeFeatures::empty()) } else { None },
};
let encoded_value = open_channel.encode();
delayed_payment_basepoint: pubkey_4,
htlc_basepoint: pubkey_5,
first_per_commitment_point: pubkey_6,
- shutdown_scriptpubkey: if shutdown { OptionalField::Present(Address::p2pkh(&::bitcoin::PublicKey{compressed: true, key: pubkey_1}, Network::Testnet).script_pubkey()) } else { OptionalField::Absent },
+ shutdown_scriptpubkey: if shutdown { OptionalField::Present(Address::p2pkh(&::bitcoin::PublicKey{compressed: true, inner: pubkey_1}, Network::Testnet).script_pubkey()) } else { OptionalField::Absent },
channel_type: None,
};
let encoded_value = accept_channel.encode();
let shutdown = msgs::Shutdown {
channel_id: [2; 32],
scriptpubkey:
- if script_type == 1 { Address::p2pkh(&::bitcoin::PublicKey{compressed: true, key: pubkey_1}, Network::Testnet).script_pubkey() }
- else if script_type == 2 { Address::p2sh(&script, Network::Testnet).script_pubkey() }
- else if script_type == 3 { Address::p2wpkh(&::bitcoin::PublicKey{compressed: true, key: pubkey_1}, Network::Testnet).unwrap().script_pubkey() }
+ if script_type == 1 { Address::p2pkh(&::bitcoin::PublicKey{compressed: true, inner: pubkey_1}, Network::Testnet).script_pubkey() }
+ else if script_type == 2 { Address::p2sh(&script, Network::Testnet).unwrap().script_pubkey() }
+ else if script_type == 3 { Address::p2wpkh(&::bitcoin::PublicKey{compressed: true, inner: pubkey_1}, Network::Testnet).unwrap().script_pubkey() }
else { Address::p2wsh(&script, Network::Testnet).script_pubkey() },
};
let encoded_value = shutdown.encode();
fn encoding_init() {
assert_eq!(msgs::Init {
features: InitFeatures::from_le_bytes(vec![0xFF, 0xFF, 0xFF]),
+ remote_network_address: None,
}.encode(), hex::decode("00023fff0003ffffff").unwrap());
assert_eq!(msgs::Init {
features: InitFeatures::from_le_bytes(vec![0xFF]),
+ remote_network_address: None,
}.encode(), hex::decode("0001ff0001ff").unwrap());
assert_eq!(msgs::Init {
features: InitFeatures::from_le_bytes(vec![]),
+ remote_network_address: None,
}.encode(), hex::decode("00000000").unwrap());
+
+ let init_msg = msgs::Init { features: InitFeatures::from_le_bytes(vec![]),
+ remote_network_address: Some(msgs::NetAddress::IPv4 {
+ addr: [127, 0, 0, 1],
+ port: 1000,
+ }),
+ };
+ let encoded_value = init_msg.encode();
+ let target_value = hex::decode("000000000307017f00000103e8").unwrap();
+ assert_eq!(encoded_value, target_value);
+ assert_eq!(msgs::Init::read(&mut Cursor::new(&target_value)).unwrap(), init_msg);
}
#[test]