Reformat the source code

This commit is contained in:
Artem Vorotnikov
2020-08-05 07:08:03 +03:00
parent 253ff3f37b
commit 610d9baba4
742 changed files with 175791 additions and 141379 deletions

View File

@@ -14,251 +14,288 @@
// You should have received a copy of the GNU General Public License
// along with Parity Ethereum. If not, see <http://www.gnu.org/licenses/>.
use std::sync::Arc;
use ethcore::client::{TestBlockChainClient, BlockChainClient, BlockId, EachBlockWith, ChainInfo, BlockInfo};
use chain::{SyncState};
use super::helpers::*;
use {SyncConfig, WarpSync};
use chain::SyncState;
use ethcore::client::{
BlockChainClient, BlockId, BlockInfo, ChainInfo, EachBlockWith, TestBlockChainClient,
};
use std::sync::Arc;
use SyncConfig;
use WarpSync;
#[test]
fn two_peers() {
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(1000, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(1000, EachBlockWith::Uncle);
net.sync();
assert!(net.peer(0).chain.block(BlockId::Number(1000)).is_some());
assert_eq!(*net.peer(0).chain.blocks.read(), *net.peer(1).chain.blocks.read());
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(1000, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(1000, EachBlockWith::Uncle);
net.sync();
assert!(net.peer(0).chain.block(BlockId::Number(1000)).is_some());
assert_eq!(
*net.peer(0).chain.blocks.read(),
*net.peer(1).chain.blocks.read()
);
}
#[test]
fn long_chain() {
::env_logger::try_init().ok();
let mut net = TestNet::new(2);
net.peer(1).chain.add_blocks(50000, EachBlockWith::Nothing);
net.sync();
assert!(net.peer(0).chain.block(BlockId::Number(50000)).is_some());
assert_eq!(*net.peer(0).chain.blocks.read(), *net.peer(1).chain.blocks.read());
::env_logger::try_init().ok();
let mut net = TestNet::new(2);
net.peer(1).chain.add_blocks(50000, EachBlockWith::Nothing);
net.sync();
assert!(net.peer(0).chain.block(BlockId::Number(50000)).is_some());
assert_eq!(
*net.peer(0).chain.blocks.read(),
*net.peer(1).chain.blocks.read()
);
}
#[test]
fn status_after_sync() {
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(1000, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(1000, EachBlockWith::Uncle);
net.sync();
let status = net.peer(0).sync.read().status();
assert_eq!(status.state, SyncState::Idle);
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(1000, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(1000, EachBlockWith::Uncle);
net.sync();
let status = net.peer(0).sync.read().status();
assert_eq!(status.state, SyncState::Idle);
}
#[test]
fn takes_few_steps() {
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(100, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(100, EachBlockWith::Uncle);
let total_steps = net.sync();
assert!(total_steps < 20);
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(100, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(100, EachBlockWith::Uncle);
let total_steps = net.sync();
assert!(total_steps < 20);
}
#[test]
fn empty_blocks() {
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
for n in 0..200 {
let with = if n % 2 == 0 { EachBlockWith::Nothing } else { EachBlockWith::Uncle };
net.peer(1).chain.add_blocks(5, with.clone());
net.peer(2).chain.add_blocks(5, with);
}
net.sync();
assert!(net.peer(0).chain.block(BlockId::Number(1000)).is_some());
assert_eq!(*net.peer(0).chain.blocks.read(), *net.peer(1).chain.blocks.read());
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
for n in 0..200 {
let with = if n % 2 == 0 {
EachBlockWith::Nothing
} else {
EachBlockWith::Uncle
};
net.peer(1).chain.add_blocks(5, with.clone());
net.peer(2).chain.add_blocks(5, with);
}
net.sync();
assert!(net.peer(0).chain.block(BlockId::Number(1000)).is_some());
assert_eq!(
*net.peer(0).chain.blocks.read(),
*net.peer(1).chain.blocks.read()
);
}
#[test]
fn forked() {
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(0).chain.add_blocks(30, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(30, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(30, EachBlockWith::Uncle);
net.peer(0).chain.add_blocks(10, EachBlockWith::Nothing); //fork
net.peer(1).chain.add_blocks(20, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(20, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(10, EachBlockWith::Uncle); //fork between 1 and 2
net.peer(2).chain.add_blocks(1, EachBlockWith::Nothing);
// peer 1 has the best chain of 601 blocks
let peer1_chain = net.peer(1).chain.numbers.read().clone();
net.sync();
assert_eq!(*net.peer(0).chain.difficulty.read(), *net.peer(1).chain.difficulty.read());
assert_eq!(&*net.peer(0).chain.numbers.read(), &peer1_chain);
assert_eq!(&*net.peer(1).chain.numbers.read(), &peer1_chain);
assert_eq!(&*net.peer(2).chain.numbers.read(), &peer1_chain);
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(0).chain.add_blocks(30, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(30, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(30, EachBlockWith::Uncle);
net.peer(0).chain.add_blocks(10, EachBlockWith::Nothing); //fork
net.peer(1).chain.add_blocks(20, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(20, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(10, EachBlockWith::Uncle); //fork between 1 and 2
net.peer(2).chain.add_blocks(1, EachBlockWith::Nothing);
// peer 1 has the best chain of 601 blocks
let peer1_chain = net.peer(1).chain.numbers.read().clone();
net.sync();
assert_eq!(
*net.peer(0).chain.difficulty.read(),
*net.peer(1).chain.difficulty.read()
);
assert_eq!(&*net.peer(0).chain.numbers.read(), &peer1_chain);
assert_eq!(&*net.peer(1).chain.numbers.read(), &peer1_chain);
assert_eq!(&*net.peer(2).chain.numbers.read(), &peer1_chain);
}
#[test]
fn forked_with_misbehaving_peer() {
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
let mut alt_spec = ::ethcore::spec::Spec::new_test();
alt_spec.extra_data = b"fork".to_vec();
// peer 0 is on a totally different chain with higher total difficulty
net.peer_mut(0).chain = Arc::new(TestBlockChainClient::new_with_spec(alt_spec));
net.peer(0).chain.add_blocks(50, EachBlockWith::Nothing);
net.peer(1).chain.add_blocks(10, EachBlockWith::Nothing);
net.peer(2).chain.add_blocks(10, EachBlockWith::Nothing);
let mut alt_spec = ::ethcore::spec::Spec::new_test();
alt_spec.extra_data = b"fork".to_vec();
// peer 0 is on a totally different chain with higher total difficulty
net.peer_mut(0).chain = Arc::new(TestBlockChainClient::new_with_spec(alt_spec));
net.peer(0).chain.add_blocks(50, EachBlockWith::Nothing);
net.peer(1).chain.add_blocks(10, EachBlockWith::Nothing);
net.peer(2).chain.add_blocks(10, EachBlockWith::Nothing);
net.peer(1).chain.add_blocks(10, EachBlockWith::Nothing);
net.peer(2).chain.add_blocks(20, EachBlockWith::Uncle);
// peer 1 should sync to peer 2, others should not change
let peer0_chain = net.peer(0).chain.numbers.read().clone();
let peer2_chain = net.peer(2).chain.numbers.read().clone();
net.sync();
assert_eq!(&*net.peer(0).chain.numbers.read(), &peer0_chain);
assert_eq!(&*net.peer(1).chain.numbers.read(), &peer2_chain);
assert_eq!(&*net.peer(2).chain.numbers.read(), &peer2_chain);
net.peer(1).chain.add_blocks(10, EachBlockWith::Nothing);
net.peer(2).chain.add_blocks(20, EachBlockWith::Uncle);
// peer 1 should sync to peer 2, others should not change
let peer0_chain = net.peer(0).chain.numbers.read().clone();
let peer2_chain = net.peer(2).chain.numbers.read().clone();
net.sync();
assert_eq!(&*net.peer(0).chain.numbers.read(), &peer0_chain);
assert_eq!(&*net.peer(1).chain.numbers.read(), &peer2_chain);
assert_eq!(&*net.peer(2).chain.numbers.read(), &peer2_chain);
}
#[test]
fn net_hard_fork() {
::env_logger::try_init().ok();
let ref_client = TestBlockChainClient::new();
ref_client.add_blocks(50, EachBlockWith::Uncle);
{
let mut net = TestNet::new_with_fork(2, Some((50, ref_client.block_hash(BlockId::Number(50)).unwrap())));
net.peer(0).chain.add_blocks(100, EachBlockWith::Uncle);
net.sync();
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 100);
}
{
let mut net = TestNet::new_with_fork(2, Some((50, ref_client.block_hash(BlockId::Number(50)).unwrap())));
net.peer(0).chain.add_blocks(100, EachBlockWith::Nothing);
net.sync();
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 0);
}
::env_logger::try_init().ok();
let ref_client = TestBlockChainClient::new();
ref_client.add_blocks(50, EachBlockWith::Uncle);
{
let mut net = TestNet::new_with_fork(
2,
Some((50, ref_client.block_hash(BlockId::Number(50)).unwrap())),
);
net.peer(0).chain.add_blocks(100, EachBlockWith::Uncle);
net.sync();
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 100);
}
{
let mut net = TestNet::new_with_fork(
2,
Some((50, ref_client.block_hash(BlockId::Number(50)).unwrap())),
);
net.peer(0).chain.add_blocks(100, EachBlockWith::Nothing);
net.sync();
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 0);
}
}
#[test]
fn restart() {
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(1000, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(1000, EachBlockWith::Uncle);
::env_logger::try_init().ok();
let mut net = TestNet::new(3);
net.peer(1).chain.add_blocks(1000, EachBlockWith::Uncle);
net.peer(2).chain.add_blocks(1000, EachBlockWith::Uncle);
net.sync();
net.sync();
// make sure that sync has actually happened
assert!(net.peer(0).chain.chain_info().best_block_number > 100);
net.restart_peer(0);
// make sure that sync has actually happened
assert!(net.peer(0).chain.chain_info().best_block_number > 100);
net.restart_peer(0);
let status = net.peer(0).sync.read().status();
assert_eq!(status.state, SyncState::Idle);
let status = net.peer(0).sync.read().status();
assert_eq!(status.state, SyncState::Idle);
}
#[test]
fn status_empty() {
let net = TestNet::new(2);
assert_eq!(net.peer(0).sync.read().status().state, SyncState::Idle);
let mut config = SyncConfig::default();
config.warp_sync = WarpSync::Enabled;
let net = TestNet::new_with_config(2, config);
assert_eq!(net.peer(0).sync.read().status().state, SyncState::WaitingPeers);
let net = TestNet::new(2);
assert_eq!(net.peer(0).sync.read().status().state, SyncState::Idle);
let mut config = SyncConfig::default();
config.warp_sync = WarpSync::Enabled;
let net = TestNet::new_with_config(2, config);
assert_eq!(
net.peer(0).sync.read().status().state,
SyncState::WaitingPeers
);
}
#[test]
fn status_packet() {
let mut net = TestNet::new(2);
net.peer(0).chain.add_blocks(100, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(1, EachBlockWith::Uncle);
let mut net = TestNet::new(2);
net.peer(0).chain.add_blocks(100, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(1, EachBlockWith::Uncle);
net.start();
net.start();
net.sync_step_peer(0);
net.sync_step_peer(0);
assert_eq!(1, net.peer(0).queue.read().len());
assert_eq!(0x00, net.peer(0).queue.read()[0].packet_id);
assert_eq!(1, net.peer(0).queue.read().len());
assert_eq!(0x00, net.peer(0).queue.read()[0].packet_id);
}
#[test]
fn propagate_hashes() {
let mut net = TestNet::new(6);
net.peer(1).chain.add_blocks(10, EachBlockWith::Uncle);
net.sync();
let mut net = TestNet::new(6);
net.peer(1).chain.add_blocks(10, EachBlockWith::Uncle);
net.sync();
net.peer(0).chain.add_blocks(10, EachBlockWith::Uncle);
net.sync();
net.trigger_chain_new_blocks(0); //first event just sets the marker
net.trigger_chain_new_blocks(0);
net.peer(0).chain.add_blocks(10, EachBlockWith::Uncle);
net.sync();
net.trigger_chain_new_blocks(0); //first event just sets the marker
net.trigger_chain_new_blocks(0);
// 5 peers with NewHahses, 4 with blocks
assert_eq!(9, net.peer(0).queue.read().len());
let mut hashes = 0;
let mut blocks = 0;
for i in 0..net.peer(0).queue.read().len() {
if net.peer(0).queue.read()[i].packet_id == 0x1 {
hashes += 1;
}
if net.peer(0).queue.read()[i].packet_id == 0x7 {
blocks += 1;
}
}
assert_eq!(blocks, 4);
assert_eq!(hashes, 5);
// 5 peers with NewHahses, 4 with blocks
assert_eq!(9, net.peer(0).queue.read().len());
let mut hashes = 0;
let mut blocks = 0;
for i in 0..net.peer(0).queue.read().len() {
if net.peer(0).queue.read()[i].packet_id == 0x1 {
hashes += 1;
}
if net.peer(0).queue.read()[i].packet_id == 0x7 {
blocks += 1;
}
}
assert_eq!(blocks, 4);
assert_eq!(hashes, 5);
}
#[test]
fn propagate_blocks() {
let mut net = TestNet::new(20);
net.peer(1).chain.add_blocks(10, EachBlockWith::Uncle);
net.sync();
let mut net = TestNet::new(20);
net.peer(1).chain.add_blocks(10, EachBlockWith::Uncle);
net.sync();
net.peer(0).chain.add_blocks(10, EachBlockWith::Uncle);
net.trigger_chain_new_blocks(0); //first event just sets the marker
net.trigger_chain_new_blocks(0);
net.peer(0).chain.add_blocks(10, EachBlockWith::Uncle);
net.trigger_chain_new_blocks(0); //first event just sets the marker
net.trigger_chain_new_blocks(0);
assert!(!net.peer(0).queue.read().is_empty());
// NEW_BLOCK_PACKET
let blocks = net.peer(0).queue.read().iter().filter(|p| p.packet_id == 0x7).count();
assert!(blocks > 0);
assert!(!net.peer(0).queue.read().is_empty());
// NEW_BLOCK_PACKET
let blocks = net
.peer(0)
.queue
.read()
.iter()
.filter(|p| p.packet_id == 0x7)
.count();
assert!(blocks > 0);
}
#[test]
fn restart_on_malformed_block() {
::env_logger::try_init().ok();
let mut net = TestNet::new(2);
net.peer(1).chain.add_blocks(5, EachBlockWith::Nothing);
net.peer(1).chain.add_block(EachBlockWith::Nothing, |mut header| {
header.set_extra_data(b"This extra data is way too long to be considered valid".to_vec());
header
});
net.sync_steps(20);
::env_logger::try_init().ok();
let mut net = TestNet::new(2);
net.peer(1).chain.add_blocks(5, EachBlockWith::Nothing);
net.peer(1)
.chain
.add_block(EachBlockWith::Nothing, |mut header| {
header
.set_extra_data(b"This extra data is way too long to be considered valid".to_vec());
header
});
net.sync_steps(20);
// This gets accepted just fine since the TestBlockChainClient performs no validation.
// Probably remove this test?
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 6);
// This gets accepted just fine since the TestBlockChainClient performs no validation.
// Probably remove this test?
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 6);
}
#[test]
fn reject_on_broken_chain() {
let mut net = TestNet::new(2);
net.peer(1).chain.add_blocks(10, EachBlockWith::Nothing);
net.peer(1).chain.corrupt_block_parent(6);
net.sync_steps(20);
let mut net = TestNet::new(2);
net.peer(1).chain.add_blocks(10, EachBlockWith::Nothing);
net.peer(1).chain.corrupt_block_parent(6);
net.sync_steps(20);
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 0);
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 0);
}
#[test]
fn disconnect_on_unrelated_chain() {
::env_logger::try_init().ok();
let mut net = TestNet::new(2);
net.peer(0).chain.set_history(Some(20));
net.peer(1).chain.set_history(Some(20));
net.restart_peer(0);
net.restart_peer(1);
net.peer(0).chain.add_blocks(500, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(300, EachBlockWith::Nothing);
net.sync();
assert_eq!(net.disconnect_events, vec![(0, 0)]);
::env_logger::try_init().ok();
let mut net = TestNet::new(2);
net.peer(0).chain.set_history(Some(20));
net.peer(1).chain.set_history(Some(20));
net.restart_peer(0);
net.restart_peer(1);
net.peer(0).chain.add_blocks(500, EachBlockWith::Uncle);
net.peer(1).chain.add_blocks(300, EachBlockWith::Nothing);
net.sync();
assert_eq!(net.disconnect_events, vec![(0, 0)]);
}

View File

@@ -14,111 +14,161 @@
// You should have received a copy of the GNU General Public License
// along with Parity Ethereum. If not, see <http://www.gnu.org/licenses/>.
use std::sync::Arc;
use hash::keccak;
use ethereum_types::{U256, Address};
use io::{IoHandler, IoChannel};
use ethcore::client::{ChainInfo, ClientIoMessage};
use ethcore::engines;
use ethcore::spec::Spec;
use ethcore::miner::{self, MinerService};
use ethkey::{KeyPair, Secret};
use types::transaction::{Action, PendingTransaction, Transaction};
use super::helpers::*;
use ethcore::{
client::{ChainInfo, ClientIoMessage},
engines,
miner::{self, MinerService},
spec::Spec,
};
use ethereum_types::{Address, U256};
use ethkey::{KeyPair, Secret};
use hash::keccak;
use io::{IoChannel, IoHandler};
use std::sync::Arc;
use types::transaction::{Action, PendingTransaction, Transaction};
use SyncConfig;
fn new_tx(secret: &Secret, nonce: U256, chain_id: u64) -> PendingTransaction {
let signed = Transaction {
nonce: nonce.into(),
gas_price: 0.into(),
gas: 21000.into(),
action: Action::Call(Address::default()),
value: 0.into(),
data: Vec::new(),
}.sign(secret, Some(chain_id));
PendingTransaction::new(signed, None)
let signed = Transaction {
nonce: nonce.into(),
gas_price: 0.into(),
gas: 21000.into(),
action: Action::Call(Address::default()),
value: 0.into(),
data: Vec::new(),
}
.sign(secret, Some(chain_id));
PendingTransaction::new(signed, None)
}
#[test]
fn authority_round() {
let s0 = KeyPair::from_secret_slice(&keccak("1")).unwrap();
let s1 = KeyPair::from_secret_slice(&keccak("0")).unwrap();
let s0 = KeyPair::from_secret_slice(&keccak("1")).unwrap();
let s1 = KeyPair::from_secret_slice(&keccak("0")).unwrap();
let chain_id = Spec::new_test_round().chain_id();
let mut net = TestNet::with_spec(2, SyncConfig::default(), Spec::new_test_round);
let io_handler0: Arc<IoHandler<ClientIoMessage>> = Arc::new(TestIoHandler::new(net.peer(0).chain.clone()));
let io_handler1: Arc<IoHandler<ClientIoMessage>> = Arc::new(TestIoHandler::new(net.peer(1).chain.clone()));
// Push transaction to both clients. Only one of them gets lucky to produce a block.
net.peer(0).miner.set_author(miner::Author::Sealer(engines::signer::from_keypair(s0.clone())));
net.peer(1).miner.set_author(miner::Author::Sealer(engines::signer::from_keypair(s1.clone())));
net.peer(0).chain.engine().register_client(Arc::downgrade(&net.peer(0).chain) as _);
net.peer(1).chain.engine().register_client(Arc::downgrade(&net.peer(1).chain) as _);
net.peer(0).chain.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler1)));
net.peer(1).chain.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler0)));
// exchange statuses
net.sync();
// Trigger block proposal
net.peer(0).miner.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 0.into(), chain_id)).unwrap();
net.peer(1).miner.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 0.into(), chain_id)).unwrap();
// Sync a block
net.sync();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 1);
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 1);
let chain_id = Spec::new_test_round().chain_id();
let mut net = TestNet::with_spec(2, SyncConfig::default(), Spec::new_test_round);
let io_handler0: Arc<IoHandler<ClientIoMessage>> =
Arc::new(TestIoHandler::new(net.peer(0).chain.clone()));
let io_handler1: Arc<IoHandler<ClientIoMessage>> =
Arc::new(TestIoHandler::new(net.peer(1).chain.clone()));
// Push transaction to both clients. Only one of them gets lucky to produce a block.
net.peer(0)
.miner
.set_author(miner::Author::Sealer(engines::signer::from_keypair(
s0.clone(),
)));
net.peer(1)
.miner
.set_author(miner::Author::Sealer(engines::signer::from_keypair(
s1.clone(),
)));
net.peer(0)
.chain
.engine()
.register_client(Arc::downgrade(&net.peer(0).chain) as _);
net.peer(1)
.chain
.engine()
.register_client(Arc::downgrade(&net.peer(1).chain) as _);
net.peer(0)
.chain
.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler1)));
net.peer(1)
.chain
.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler0)));
// exchange statuses
net.sync();
// Trigger block proposal
net.peer(0)
.miner
.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 0.into(), chain_id))
.unwrap();
net.peer(1)
.miner
.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 0.into(), chain_id))
.unwrap();
// Sync a block
net.sync();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 1);
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 1);
net.peer(0).miner.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 1.into(), chain_id)).unwrap();
net.peer(1).miner.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 1.into(), chain_id)).unwrap();
// Move to next proposer step.
net.peer(0).chain.engine().step();
net.peer(1).chain.engine().step();
net.sync();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 2);
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 2);
net.peer(0)
.miner
.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 1.into(), chain_id))
.unwrap();
net.peer(1)
.miner
.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 1.into(), chain_id))
.unwrap();
// Move to next proposer step.
net.peer(0).chain.engine().step();
net.peer(1).chain.engine().step();
net.sync();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 2);
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 2);
// Fork the network with equal height.
net.peer(0).miner.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 2.into(), chain_id)).unwrap();
net.peer(1).miner.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 2.into(), chain_id)).unwrap();
// Let both nodes build one block.
net.peer(0).chain.engine().step();
let early_hash = net.peer(0).chain.chain_info().best_block_hash;
net.peer(1).chain.engine().step();
net.peer(0).chain.engine().step();
net.peer(1).chain.engine().step();
let ci0 = net.peer(0).chain.chain_info();
let ci1 = net.peer(1).chain.chain_info();
assert_eq!(ci0.best_block_number, 3);
assert_eq!(ci1.best_block_number, 3);
assert!(ci0.best_block_hash != ci1.best_block_hash);
// Reorg to the chain with earlier view.
net.sync();
let ci0 = net.peer(0).chain.chain_info();
let ci1 = net.peer(1).chain.chain_info();
assert_eq!(ci0.best_block_number, 3);
assert_eq!(ci1.best_block_number, 3);
assert_eq!(ci0.best_block_hash, ci1.best_block_hash);
assert_eq!(ci1.best_block_hash, early_hash);
// Fork the network with equal height.
net.peer(0)
.miner
.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 2.into(), chain_id))
.unwrap();
net.peer(1)
.miner
.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 2.into(), chain_id))
.unwrap();
// Let both nodes build one block.
net.peer(0).chain.engine().step();
let early_hash = net.peer(0).chain.chain_info().best_block_hash;
net.peer(1).chain.engine().step();
net.peer(0).chain.engine().step();
net.peer(1).chain.engine().step();
let ci0 = net.peer(0).chain.chain_info();
let ci1 = net.peer(1).chain.chain_info();
assert_eq!(ci0.best_block_number, 3);
assert_eq!(ci1.best_block_number, 3);
assert!(ci0.best_block_hash != ci1.best_block_hash);
// Reorg to the chain with earlier view.
net.sync();
let ci0 = net.peer(0).chain.chain_info();
let ci1 = net.peer(1).chain.chain_info();
assert_eq!(ci0.best_block_number, 3);
assert_eq!(ci1.best_block_number, 3);
assert_eq!(ci0.best_block_hash, ci1.best_block_hash);
assert_eq!(ci1.best_block_hash, early_hash);
// Selfish miner
net.peer(0).miner.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 3.into(), chain_id)).unwrap();
net.peer(1).miner.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 3.into(), chain_id)).unwrap();
// Node 0 is an earlier primary.
net.peer(0).chain.engine().step();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 4);
net.peer(0).chain.engine().step();
net.peer(0).chain.engine().step();
net.peer(0).chain.engine().step();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 4);
// Node 1 makes 2 blocks, but is a later primary on the first one.
net.peer(1).chain.engine().step();
net.peer(1).chain.engine().step();
net.peer(1).miner.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 4.into(), chain_id)).unwrap();
net.peer(1).chain.engine().step();
net.peer(1).chain.engine().step();
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 5);
// Reorg to the longest chain one not ealier view one.
net.sync();
let ci0 = net.peer(0).chain.chain_info();
let ci1 = net.peer(1).chain.chain_info();
assert_eq!(ci0.best_block_number, 5);
assert_eq!(ci1.best_block_number, 5);
assert_eq!(ci0.best_block_hash, ci1.best_block_hash);
// Selfish miner
net.peer(0)
.miner
.import_own_transaction(&*net.peer(0).chain, new_tx(s0.secret(), 3.into(), chain_id))
.unwrap();
net.peer(1)
.miner
.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 3.into(), chain_id))
.unwrap();
// Node 0 is an earlier primary.
net.peer(0).chain.engine().step();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 4);
net.peer(0).chain.engine().step();
net.peer(0).chain.engine().step();
net.peer(0).chain.engine().step();
assert_eq!(net.peer(0).chain.chain_info().best_block_number, 4);
// Node 1 makes 2 blocks, but is a later primary on the first one.
net.peer(1).chain.engine().step();
net.peer(1).chain.engine().step();
net.peer(1)
.miner
.import_own_transaction(&*net.peer(1).chain, new_tx(s1.secret(), 4.into(), chain_id))
.unwrap();
net.peer(1).chain.engine().step();
net.peer(1).chain.engine().step();
assert_eq!(net.peer(1).chain.chain_info().best_block_number, 5);
// Reorg to the longest chain one not ealier view one.
net.sync();
let ci0 = net.peer(0).chain.chain_info();
let ci1 = net.peer(1).chain.chain_info();
assert_eq!(ci0.best_block_number, 5);
assert_eq!(ci1.best_block_number, 5);
assert_eq!(ci0.best_block_hash, ci1.best_block_hash);
}

File diff suppressed because it is too large Load Diff

View File

@@ -14,11 +14,11 @@
// You should have received a copy of the GNU General Public License
// along with Parity Ethereum. If not, see <http://www.gnu.org/licenses/>.
pub mod helpers;
pub mod snapshot;
mod chain;
mod consensus;
pub mod helpers;
mod private;
pub mod snapshot;
#[cfg(feature = "ipc")]
mod rpc;

View File

@@ -14,141 +14,187 @@
// You should have received a copy of the GNU General Public License
// along with Parity Ethereum. If not, see <http://www.gnu.org/licenses/>.
use std::sync::Arc;
use hash::keccak;
use io::{IoHandler, IoChannel};
use types::transaction::{Transaction, Action};
use types::ids::BlockId;
use ethcore::CreateContractAddress;
use ethcore::client::{ClientIoMessage, BlockChainClient};
use ethcore::executive::{contract_address};
use ethcore::engines;
use ethcore::miner::{self, MinerService};
use ethcore::spec::Spec;
use ethcore::test_helpers::{push_block_with_transactions};
use ethcore_private_tx::{Provider, ProviderConfig, NoopEncryptor, Importer, SignedPrivateTransaction, StoringKeyProvider};
use ethcore::{
client::{BlockChainClient, ClientIoMessage},
engines,
executive::contract_address,
miner::{self, MinerService},
spec::Spec,
test_helpers::push_block_with_transactions,
CreateContractAddress,
};
use ethcore_private_tx::{
Importer, NoopEncryptor, Provider, ProviderConfig, SignedPrivateTransaction, StoringKeyProvider,
};
use ethkey::KeyPair;
use tests::helpers::{TestNet, TestIoHandler};
use rustc_hex::FromHex;
use hash::keccak;
use io::{IoChannel, IoHandler};
use rlp::Rlp;
use rustc_hex::FromHex;
use std::sync::Arc;
use tests::helpers::{TestIoHandler, TestNet};
use types::{
ids::BlockId,
transaction::{Action, Transaction},
};
use SyncConfig;
fn seal_spec() -> Spec {
let spec_data = include_str!("../res/private_spec.json");
Spec::load(&::std::env::temp_dir(), spec_data.as_bytes()).unwrap()
let spec_data = include_str!("../res/private_spec.json");
Spec::load(&::std::env::temp_dir(), spec_data.as_bytes()).unwrap()
}
#[test]
fn send_private_transaction() {
// Setup two clients
let s0 = KeyPair::from_secret_slice(&keccak("1")).unwrap();
let s1 = KeyPair::from_secret_slice(&keccak("0")).unwrap();
// Setup two clients
let s0 = KeyPair::from_secret_slice(&keccak("1")).unwrap();
let s1 = KeyPair::from_secret_slice(&keccak("0")).unwrap();
let signer = Arc::new(ethcore_private_tx::KeyPairSigner(vec![s0.clone(), s1.clone()]));
let signer = Arc::new(ethcore_private_tx::KeyPairSigner(vec![
s0.clone(),
s1.clone(),
]));
let mut net = TestNet::with_spec(2, SyncConfig::default(), seal_spec);
let client0 = net.peer(0).chain.clone();
let client1 = net.peer(1).chain.clone();
let io_handler0: Arc<IoHandler<ClientIoMessage>> = Arc::new(TestIoHandler::new(net.peer(0).chain.clone()));
let io_handler1: Arc<IoHandler<ClientIoMessage>> = Arc::new(TestIoHandler::new(net.peer(1).chain.clone()));
let mut net = TestNet::with_spec(2, SyncConfig::default(), seal_spec);
let client0 = net.peer(0).chain.clone();
let client1 = net.peer(1).chain.clone();
let io_handler0: Arc<IoHandler<ClientIoMessage>> =
Arc::new(TestIoHandler::new(net.peer(0).chain.clone()));
let io_handler1: Arc<IoHandler<ClientIoMessage>> =
Arc::new(TestIoHandler::new(net.peer(1).chain.clone()));
net.peer(0).miner.set_author(miner::Author::Sealer(engines::signer::from_keypair(s0.clone())));
net.peer(1).miner.set_author(miner::Author::Sealer(engines::signer::from_keypair(s1.clone())));
net.peer(0).chain.engine().register_client(Arc::downgrade(&net.peer(0).chain) as _);
net.peer(1).chain.engine().register_client(Arc::downgrade(&net.peer(1).chain) as _);
net.peer(0).chain.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler0)));
net.peer(1).chain.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler1)));
net.peer(0)
.miner
.set_author(miner::Author::Sealer(engines::signer::from_keypair(
s0.clone(),
)));
net.peer(1)
.miner
.set_author(miner::Author::Sealer(engines::signer::from_keypair(
s1.clone(),
)));
net.peer(0)
.chain
.engine()
.register_client(Arc::downgrade(&net.peer(0).chain) as _);
net.peer(1)
.chain
.engine()
.register_client(Arc::downgrade(&net.peer(1).chain) as _);
net.peer(0)
.chain
.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler0)));
net.peer(1)
.chain
.set_io_channel(IoChannel::to_handler(Arc::downgrade(&io_handler1)));
let (address, _) = contract_address(CreateContractAddress::FromSenderAndNonce, &s0.address(), &0.into(), &[]);
let chain_id = client0.signing_chain_id();
let (address, _) = contract_address(
CreateContractAddress::FromSenderAndNonce,
&s0.address(),
&0.into(),
&[],
);
let chain_id = client0.signing_chain_id();
// Exhange statuses
net.sync();
// Exhange statuses
net.sync();
// Setup private providers
let validator_config = ProviderConfig{
validator_accounts: vec![s1.address()],
signer_account: None,
};
// Setup private providers
let validator_config = ProviderConfig {
validator_accounts: vec![s1.address()],
signer_account: None,
};
let signer_config = ProviderConfig{
validator_accounts: Vec::new(),
signer_account: Some(s0.address()),
};
let signer_config = ProviderConfig {
validator_accounts: Vec::new(),
signer_account: Some(s0.address()),
};
let private_keys = Arc::new(StoringKeyProvider::default());
let private_keys = Arc::new(StoringKeyProvider::default());
let pm0 = Arc::new(Provider::new(
client0.clone(),
net.peer(0).miner.clone(),
signer.clone(),
Box::new(NoopEncryptor::default()),
signer_config,
IoChannel::to_handler(Arc::downgrade(&io_handler0)),
private_keys.clone(),
));
pm0.add_notify(net.peers[0].clone());
let pm0 = Arc::new(Provider::new(
client0.clone(),
net.peer(0).miner.clone(),
signer.clone(),
Box::new(NoopEncryptor::default()),
signer_config,
IoChannel::to_handler(Arc::downgrade(&io_handler0)),
private_keys.clone(),
));
pm0.add_notify(net.peers[0].clone());
let pm1 = Arc::new(Provider::new(
client1.clone(),
net.peer(1).miner.clone(),
signer.clone(),
Box::new(NoopEncryptor::default()),
validator_config,
IoChannel::to_handler(Arc::downgrade(&io_handler1)),
private_keys.clone(),
));
pm1.add_notify(net.peers[1].clone());
let pm1 = Arc::new(Provider::new(
client1.clone(),
net.peer(1).miner.clone(),
signer.clone(),
Box::new(NoopEncryptor::default()),
validator_config,
IoChannel::to_handler(Arc::downgrade(&io_handler1)),
private_keys.clone(),
));
pm1.add_notify(net.peers[1].clone());
// Create and deploy contract
let private_contract_test = "6060604052341561000f57600080fd5b60d88061001d6000396000f30060606040526000357c0100000000000000000000000000000000000000000000000000000000900463ffffffff1680630c55699c146046578063bc64b76d14607457600080fd5b3415605057600080fd5b60566098565b60405180826000191660001916815260200191505060405180910390f35b3415607e57600080fd5b6096600480803560001916906020019091905050609e565b005b60005481565b8060008160001916905550505600a165627a7a723058206acbdf4b15ca4c2d43e1b1879b830451a34f1e9d02ff1f2f394d8d857e79d2080029".from_hex().unwrap();
let mut private_create_tx = Transaction::default();
private_create_tx.action = Action::Create;
private_create_tx.data = private_contract_test;
private_create_tx.gas = 200000.into();
let private_create_tx_signed = private_create_tx.sign(&s0.secret(), None);
let validators = vec![s1.address()];
let (public_tx, _) = pm0.public_creation_transaction(BlockId::Latest, &private_create_tx_signed, &validators, 0.into()).unwrap();
let public_tx = public_tx.sign(&s0.secret(), chain_id);
// Create and deploy contract
let private_contract_test = "6060604052341561000f57600080fd5b60d88061001d6000396000f30060606040526000357c0100000000000000000000000000000000000000000000000000000000900463ffffffff1680630c55699c146046578063bc64b76d14607457600080fd5b3415605057600080fd5b60566098565b60405180826000191660001916815260200191505060405180910390f35b3415607e57600080fd5b6096600480803560001916906020019091905050609e565b005b60005481565b8060008160001916905550505600a165627a7a723058206acbdf4b15ca4c2d43e1b1879b830451a34f1e9d02ff1f2f394d8d857e79d2080029".from_hex().unwrap();
let mut private_create_tx = Transaction::default();
private_create_tx.action = Action::Create;
private_create_tx.data = private_contract_test;
private_create_tx.gas = 200000.into();
let private_create_tx_signed = private_create_tx.sign(&s0.secret(), None);
let validators = vec![s1.address()];
let (public_tx, _) = pm0
.public_creation_transaction(
BlockId::Latest,
&private_create_tx_signed,
&validators,
0.into(),
)
.unwrap();
let public_tx = public_tx.sign(&s0.secret(), chain_id);
let public_tx_copy = public_tx.clone();
push_block_with_transactions(&client0, &[public_tx]);
push_block_with_transactions(&client1, &[public_tx_copy]);
let public_tx_copy = public_tx.clone();
push_block_with_transactions(&client0, &[public_tx]);
push_block_with_transactions(&client1, &[public_tx_copy]);
net.sync();
net.sync();
//Create private transaction for modifying state
let mut private_tx = Transaction::default();
private_tx.action = Action::Call(address.clone());
private_tx.data = "bc64b76d2a00000000000000000000000000000000000000000000000000000000000000".from_hex().unwrap(); //setX(42)
private_tx.gas = 120000.into();
private_tx.nonce = 1.into();
let private_tx = private_tx.sign(&s0.secret(), None);
assert!(pm0.create_private_transaction(private_tx).is_ok());
//Create private transaction for modifying state
let mut private_tx = Transaction::default();
private_tx.action = Action::Call(address.clone());
private_tx.data = "bc64b76d2a00000000000000000000000000000000000000000000000000000000000000"
.from_hex()
.unwrap(); //setX(42)
private_tx.gas = 120000.into();
private_tx.nonce = 1.into();
let private_tx = private_tx.sign(&s0.secret(), None);
assert!(pm0.create_private_transaction(private_tx).is_ok());
//send private transaction message to validator
net.sync();
//send private transaction message to validator
net.sync();
let validator_handler = net.peer(1).private_tx_handler.clone();
let received_private_transactions = validator_handler.txs.lock().clone();
assert_eq!(received_private_transactions.len(), 1);
let validator_handler = net.peer(1).private_tx_handler.clone();
let received_private_transactions = validator_handler.txs.lock().clone();
assert_eq!(received_private_transactions.len(), 1);
//process received private transaction message
let private_transaction = received_private_transactions[0].clone();
assert!(pm1.import_private_transaction(&private_transaction).is_ok());
//process received private transaction message
let private_transaction = received_private_transactions[0].clone();
assert!(pm1.import_private_transaction(&private_transaction).is_ok());
//send signed response
net.sync();
//send signed response
net.sync();
let sender_handler = net.peer(0).private_tx_handler.clone();
let received_signed_private_transactions = sender_handler.signed_txs.lock().clone();
assert_eq!(received_signed_private_transactions.len(), 1);
let sender_handler = net.peer(0).private_tx_handler.clone();
let received_signed_private_transactions = sender_handler.signed_txs.lock().clone();
assert_eq!(received_signed_private_transactions.len(), 1);
//process signed response
let signed_private_transaction = received_signed_private_transactions[0].clone();
assert!(pm0.import_signed_private_transaction(&signed_private_transaction).is_ok());
let signature: SignedPrivateTransaction = Rlp::new(&signed_private_transaction).as_val().unwrap();
assert!(pm0.process_signature(&signature).is_ok());
let local_transactions = net.peer(0).miner.local_transactions();
assert_eq!(local_transactions.len(), 1);
//process signed response
let signed_private_transaction = received_signed_private_transactions[0].clone();
assert!(pm0
.import_signed_private_transaction(&signed_private_transaction)
.is_ok());
let signature: SignedPrivateTransaction =
Rlp::new(&signed_private_transaction).as_val().unwrap();
assert!(pm0.process_signature(&signature).is_ok());
let local_transactions = net.peer(0).miner.local_transactions();
assert_eq!(local_transactions.len(), 1);
}

View File

@@ -15,15 +15,15 @@
// along with Parity Ethereum. If not, see <http://www.gnu.org/licenses/>.
use super::super::NetworkConfiguration;
use ipc::binary::{deserialize, serialize};
use network::NetworkConfiguration as BasicNetworkConfiguration;
use std::convert::From;
use ipc::binary::{serialize, deserialize};
#[test]
fn network_settings_serialize() {
let net_cfg = NetworkConfiguration::from(BasicNetworkConfiguration::new_local());
let serialized = serialize(&net_cfg).unwrap();
let deserialized = deserialize::<NetworkConfiguration>(&serialized).unwrap();
let net_cfg = NetworkConfiguration::from(BasicNetworkConfiguration::new_local());
let serialized = serialize(&net_cfg).unwrap();
let deserialized = deserialize::<NetworkConfiguration>(&serialized).unwrap();
assert_eq!(net_cfg.udp_port, deserialized.udp_port);
assert_eq!(net_cfg.udp_port, deserialized.udp_port);
}

View File

@@ -14,145 +14,203 @@
// You should have received a copy of the GNU General Public License
// along with Parity Ethereum. If not, see <http://www.gnu.org/licenses/>.
use std::collections::HashMap;
use std::sync::Arc;
use hash::keccak;
use ethereum_types::H256;
use parking_lot::Mutex;
use bytes::Bytes;
use ethcore::snapshot::{SnapshotService, ManifestData, RestorationStatus};
use ethcore::client::EachBlockWith;
use types::BlockNumber;
use super::helpers::*;
use {SyncConfig, WarpSync};
use bytes::Bytes;
use ethcore::{
client::EachBlockWith,
snapshot::{ManifestData, RestorationStatus, SnapshotService},
};
use ethereum_types::H256;
use hash::keccak;
use parking_lot::Mutex;
use std::{collections::HashMap, sync::Arc};
use types::BlockNumber;
use SyncConfig;
use WarpSync;
pub struct TestSnapshotService {
manifest: Option<ManifestData>,
chunks: HashMap<H256, Bytes>,
manifest: Option<ManifestData>,
chunks: HashMap<H256, Bytes>,
restoration_manifest: Mutex<Option<ManifestData>>,
state_restoration_chunks: Mutex<HashMap<H256, Bytes>>,
block_restoration_chunks: Mutex<HashMap<H256, Bytes>>,
restoration_manifest: Mutex<Option<ManifestData>>,
state_restoration_chunks: Mutex<HashMap<H256, Bytes>>,
block_restoration_chunks: Mutex<HashMap<H256, Bytes>>,
}
impl TestSnapshotService {
pub fn new() -> TestSnapshotService {
TestSnapshotService {
manifest: None,
chunks: HashMap::new(),
restoration_manifest: Mutex::new(None),
state_restoration_chunks: Mutex::new(HashMap::new()),
block_restoration_chunks: Mutex::new(HashMap::new()),
}
}
pub fn new() -> TestSnapshotService {
TestSnapshotService {
manifest: None,
chunks: HashMap::new(),
restoration_manifest: Mutex::new(None),
state_restoration_chunks: Mutex::new(HashMap::new()),
block_restoration_chunks: Mutex::new(HashMap::new()),
}
}
pub fn new_with_snapshot(num_chunks: usize, block_hash: H256, block_number: BlockNumber) -> TestSnapshotService {
let num_state_chunks = num_chunks / 2;
let num_block_chunks = num_chunks - num_state_chunks;
let state_chunks: Vec<Bytes> = (0..num_state_chunks).map(|_| H256::random().to_vec()).collect();
let block_chunks: Vec<Bytes> = (0..num_block_chunks).map(|_| H256::random().to_vec()).collect();
let manifest = ManifestData {
version: 2,
state_hashes: state_chunks.iter().map(|data| keccak(data)).collect(),
block_hashes: block_chunks.iter().map(|data| keccak(data)).collect(),
state_root: H256::new(),
block_number: block_number,
block_hash: block_hash,
};
let mut chunks: HashMap<H256, Bytes> = state_chunks.into_iter().map(|data| (keccak(&data), data)).collect();
chunks.extend(block_chunks.into_iter().map(|data| (keccak(&data), data)));
TestSnapshotService {
manifest: Some(manifest),
chunks: chunks,
restoration_manifest: Mutex::new(None),
state_restoration_chunks: Mutex::new(HashMap::new()),
block_restoration_chunks: Mutex::new(HashMap::new()),
}
}
pub fn new_with_snapshot(
num_chunks: usize,
block_hash: H256,
block_number: BlockNumber,
) -> TestSnapshotService {
let num_state_chunks = num_chunks / 2;
let num_block_chunks = num_chunks - num_state_chunks;
let state_chunks: Vec<Bytes> = (0..num_state_chunks)
.map(|_| H256::random().to_vec())
.collect();
let block_chunks: Vec<Bytes> = (0..num_block_chunks)
.map(|_| H256::random().to_vec())
.collect();
let manifest = ManifestData {
version: 2,
state_hashes: state_chunks.iter().map(|data| keccak(data)).collect(),
block_hashes: block_chunks.iter().map(|data| keccak(data)).collect(),
state_root: H256::new(),
block_number: block_number,
block_hash: block_hash,
};
let mut chunks: HashMap<H256, Bytes> = state_chunks
.into_iter()
.map(|data| (keccak(&data), data))
.collect();
chunks.extend(block_chunks.into_iter().map(|data| (keccak(&data), data)));
TestSnapshotService {
manifest: Some(manifest),
chunks: chunks,
restoration_manifest: Mutex::new(None),
state_restoration_chunks: Mutex::new(HashMap::new()),
block_restoration_chunks: Mutex::new(HashMap::new()),
}
}
}
impl SnapshotService for TestSnapshotService {
fn manifest(&self) -> Option<ManifestData> {
self.manifest.as_ref().cloned()
}
fn manifest(&self) -> Option<ManifestData> {
self.manifest.as_ref().cloned()
}
fn supported_versions(&self) -> Option<(u64, u64)> {
Some((1, 2))
}
fn supported_versions(&self) -> Option<(u64, u64)> {
Some((1, 2))
}
fn completed_chunks(&self) -> Option<Vec<H256>> {
Some(vec![])
}
fn completed_chunks(&self) -> Option<Vec<H256>> {
Some(vec![])
}
fn chunk(&self, hash: H256) -> Option<Bytes> {
self.chunks.get(&hash).cloned()
}
fn chunk(&self, hash: H256) -> Option<Bytes> {
self.chunks.get(&hash).cloned()
}
fn status(&self) -> RestorationStatus {
match *self.restoration_manifest.lock() {
Some(ref manifest) if self.state_restoration_chunks.lock().len() == manifest.state_hashes.len() &&
self.block_restoration_chunks.lock().len() == manifest.block_hashes.len() => RestorationStatus::Inactive,
Some(ref manifest) => RestorationStatus::Ongoing {
state_chunks: manifest.state_hashes.len() as u32,
block_chunks: manifest.block_hashes.len() as u32,
state_chunks_done: self.state_restoration_chunks.lock().len() as u32,
block_chunks_done: self.block_restoration_chunks.lock().len() as u32,
},
None => RestorationStatus::Inactive,
}
}
fn status(&self) -> RestorationStatus {
match *self.restoration_manifest.lock() {
Some(ref manifest)
if self.state_restoration_chunks.lock().len() == manifest.state_hashes.len()
&& self.block_restoration_chunks.lock().len()
== manifest.block_hashes.len() =>
{
RestorationStatus::Inactive
}
Some(ref manifest) => RestorationStatus::Ongoing {
state_chunks: manifest.state_hashes.len() as u32,
block_chunks: manifest.block_hashes.len() as u32,
state_chunks_done: self.state_restoration_chunks.lock().len() as u32,
block_chunks_done: self.block_restoration_chunks.lock().len() as u32,
},
None => RestorationStatus::Inactive,
}
}
fn begin_restore(&self, manifest: ManifestData) {
let mut restoration_manifest = self.restoration_manifest.lock();
fn begin_restore(&self, manifest: ManifestData) {
let mut restoration_manifest = self.restoration_manifest.lock();
if let Some(ref c_manifest) = *restoration_manifest {
if c_manifest.state_root == manifest.state_root {
return;
}
}
if let Some(ref c_manifest) = *restoration_manifest {
if c_manifest.state_root == manifest.state_root {
return;
}
}
*restoration_manifest = Some(manifest);
self.state_restoration_chunks.lock().clear();
self.block_restoration_chunks.lock().clear();
}
*restoration_manifest = Some(manifest);
self.state_restoration_chunks.lock().clear();
self.block_restoration_chunks.lock().clear();
}
fn abort_restore(&self) {
*self.restoration_manifest.lock() = None;
self.state_restoration_chunks.lock().clear();
self.block_restoration_chunks.lock().clear();
}
fn abort_restore(&self) {
*self.restoration_manifest.lock() = None;
self.state_restoration_chunks.lock().clear();
self.block_restoration_chunks.lock().clear();
}
fn abort_snapshot(&self) {}
fn abort_snapshot(&self) {}
fn restore_state_chunk(&self, hash: H256, chunk: Bytes) {
if self.restoration_manifest.lock().as_ref().map_or(false, |m| m.state_hashes.iter().any(|h| h == &hash)) {
self.state_restoration_chunks.lock().insert(hash, chunk);
}
}
fn restore_state_chunk(&self, hash: H256, chunk: Bytes) {
if self
.restoration_manifest
.lock()
.as_ref()
.map_or(false, |m| m.state_hashes.iter().any(|h| h == &hash))
{
self.state_restoration_chunks.lock().insert(hash, chunk);
}
}
fn restore_block_chunk(&self, hash: H256, chunk: Bytes) {
if self.restoration_manifest.lock().as_ref().map_or(false, |m| m.block_hashes.iter().any(|h| h == &hash)) {
self.block_restoration_chunks.lock().insert(hash, chunk);
}
}
fn restore_block_chunk(&self, hash: H256, chunk: Bytes) {
if self
.restoration_manifest
.lock()
.as_ref()
.map_or(false, |m| m.block_hashes.iter().any(|h| h == &hash))
{
self.block_restoration_chunks.lock().insert(hash, chunk);
}
}
fn shutdown(&self) {
self.abort_restore();
}
fn shutdown(&self) {
self.abort_restore();
}
}
#[test]
fn snapshot_sync() {
::env_logger::try_init().ok();
let mut config = SyncConfig::default();
config.warp_sync = WarpSync::Enabled;
let mut net = TestNet::new_with_config(5, config);
let snapshot_service = Arc::new(TestSnapshotService::new_with_snapshot(16, H256::new(), 500000));
for i in 0..4 {
net.peer_mut(i).snapshot_service = snapshot_service.clone();
net.peer(i).chain.add_blocks(1, EachBlockWith::Nothing);
}
net.sync_steps(50);
assert_eq!(net.peer(4).snapshot_service.state_restoration_chunks.lock().len(), net.peer(0).snapshot_service.manifest.as_ref().unwrap().state_hashes.len());
assert_eq!(net.peer(4).snapshot_service.block_restoration_chunks.lock().len(), net.peer(0).snapshot_service.manifest.as_ref().unwrap().block_hashes.len());
::env_logger::try_init().ok();
let mut config = SyncConfig::default();
config.warp_sync = WarpSync::Enabled;
let mut net = TestNet::new_with_config(5, config);
let snapshot_service = Arc::new(TestSnapshotService::new_with_snapshot(
16,
H256::new(),
500000,
));
for i in 0..4 {
net.peer_mut(i).snapshot_service = snapshot_service.clone();
net.peer(i).chain.add_blocks(1, EachBlockWith::Nothing);
}
net.sync_steps(50);
assert_eq!(
net.peer(4)
.snapshot_service
.state_restoration_chunks
.lock()
.len(),
net.peer(0)
.snapshot_service
.manifest
.as_ref()
.unwrap()
.state_hashes
.len()
);
assert_eq!(
net.peer(4)
.snapshot_service
.block_restoration_chunks
.lock()
.len(),
net.peer(0)
.snapshot_service
.manifest
.as_ref()
.unwrap()
.block_hashes
.len()
);
}