go-ethereum/miner/scroll_worker_test.go
Jonas Theis b4f36b2489
feat(MessageQueueV2): add reading of MessageQueueV2 and transition logic from V1 to V2 for EuclidV2 (#1108)
* port changes from #1013

* port changes from #1068

* go.mod tidy

* fix compile error

* fix goimports

* fix log

* address review comments

* upgrade golang.org/x/net to 0.23.0

* port changes from #1018

* fix tests and linter errors

* address review comments

* refactor rollup sync service / verifier to use CalldataBlobSource to retrieve data from L1

* add configuration and initialize blob clients

* fix unit tests

* remove unused code

* address review comments

* address more review comments

* implement first version of new da-codec and to handle multiple batches submitted in one transaction

* add CommitBatchDAV7 and handle multiple commit events submitted in a single transactions

* fix bug due to previous batch being empty when processing the first batch within a set of batches

* Allow using MPT

* implement reading of QueueTransaction from  L1MessageQueueV1 and V2

* implement access to V1 and V2 messages and replace usage so that V1 is used before EuclidV2 fork and V2 afterward

* add tests

* update to latest da-codec

* add field to CommittedBatchMeta to store LastL1MessageQueueHash for CodecV7 batches

* adjust rollup verifier to support CodecV7 batches

* address review comments

* consume all L1 messages before EuclidV2 fork

* address review comments

* address review comments

* fix issues after merge

* go mod tidy

* fix unit tests

* update da-codec

* add test TestValidateBatchCodecV7

* go mod tidy

* do not log error on shutdown

* add flag to explicitly disable L1MessageQueueV2

* add TestEuclidV2HardForkMessageQueue to scroll worker

* add sanity check for version to deserialization of committedBatchMetaV7

* add mechanism for nodes to retrieve V2 messages even if they upgrade after L1MessageQueueV2 is deployed

* chore: auto version bump [bot]

* address review comments

* Update core/rawdb/accessors_l1_message.go

Co-authored-by: colin <102356659+colinlyguo@users.noreply.github.com>

* address review comments

---------

Co-authored-by: Ömer Faruk Irmak <omerfirmak@gmail.com>
Co-authored-by: Thegaram <Thegaram@users.noreply.github.com>
Co-authored-by: colin <102356659+colinlyguo@users.noreply.github.com>
Co-authored-by: Péter Garamvölgyi <peter@scroll.io>
2025-02-14 12:57:07 +01:00

1357 lines
47 KiB
Go

// Copyright 2018 The go-ethereum Authors
// This file is part of the go-ethereum library.
//
// The go-ethereum library is free software: you can redistribute it and/or modify
// it under the terms of the GNU Lesser General Public License as published by
// the Free Software Foundation, either version 3 of the License, or
// (at your option) any later version.
//
// The go-ethereum library 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 Lesser General Public License for more details.
//
// You should have received a copy of the GNU Lesser General Public License
// along with the go-ethereum library. If not, see <http://www.gnu.org/licenses/>.
package miner
import (
"fmt"
"math"
"math/big"
"math/rand"
"testing"
"time"
"github.com/agiledragon/gomonkey/v2"
"github.com/stretchr/testify/assert"
"github.com/stretchr/testify/require"
"github.com/scroll-tech/go-ethereum/accounts"
"github.com/scroll-tech/go-ethereum/common"
"github.com/scroll-tech/go-ethereum/consensus"
"github.com/scroll-tech/go-ethereum/consensus/clique"
"github.com/scroll-tech/go-ethereum/consensus/ethash"
"github.com/scroll-tech/go-ethereum/core"
"github.com/scroll-tech/go-ethereum/core/rawdb"
"github.com/scroll-tech/go-ethereum/core/types"
"github.com/scroll-tech/go-ethereum/core/vm"
"github.com/scroll-tech/go-ethereum/crypto"
"github.com/scroll-tech/go-ethereum/ethdb"
"github.com/scroll-tech/go-ethereum/event"
"github.com/scroll-tech/go-ethereum/params"
"github.com/scroll-tech/go-ethereum/rollup/sync_service"
)
const (
// testCode is the testing contract binary code which will initialises some
// variables in constructor
testCode = "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"
// testGas is the gas required for contract deployment.
testGas = 144109
)
var (
// Test chain configurations
testTxPoolConfig core.TxPoolConfig
ethashChainConfig *params.ChainConfig
cliqueChainConfig *params.ChainConfig
// Test accounts
testBankKey, _ = crypto.GenerateKey()
testBankAddress = crypto.PubkeyToAddress(testBankKey.PublicKey)
testBankFunds = big.NewInt(1000000000000000000)
testUserKey, _ = crypto.GenerateKey()
testUserAddress = crypto.PubkeyToAddress(testUserKey.PublicKey)
// Test transactions
pendingTxs []*types.Transaction
newTxs []*types.Transaction
testConfig = &Config{
Recommit: time.Second,
GasCeil: params.GenesisGasLimit,
MaxAccountsNum: math.MaxInt,
CCCMaxWorkers: 2,
}
)
func init() {
testTxPoolConfig = core.DefaultTxPoolConfig
testTxPoolConfig.Journal = ""
ethashChainConfig = new(params.ChainConfig)
*ethashChainConfig = *params.TestChainConfig
cliqueChainConfig = new(params.ChainConfig)
*cliqueChainConfig = *params.TestChainConfig
cliqueChainConfig.Clique = &params.CliqueConfig{
Period: 10,
Epoch: 30000,
}
signer := types.LatestSigner(params.TestChainConfig)
tx1 := types.MustSignNewTx(testBankKey, signer, &types.AccessListTx{
ChainID: params.TestChainConfig.ChainID,
Nonce: 0,
To: &testUserAddress,
Value: big.NewInt(1000),
Gas: params.TxGas,
GasPrice: big.NewInt(params.InitialBaseFee),
})
pendingTxs = append(pendingTxs, tx1)
tx2 := types.MustSignNewTx(testBankKey, signer, &types.LegacyTx{
Nonce: 1,
To: &testUserAddress,
Value: big.NewInt(1000),
Gas: params.TxGas,
GasPrice: big.NewInt(params.InitialBaseFee),
})
newTxs = append(newTxs, tx2)
rand.Seed(time.Now().UnixNano())
}
// testWorkerBackend implements worker.Backend interfaces and wraps all information needed during the testing.
type testWorkerBackend struct {
db ethdb.Database
txPool *core.TxPool
chain *core.BlockChain
testTxFeed event.Feed
genesis *core.Genesis
uncleBlock *types.Block
}
func newTestWorkerBackend(t *testing.T, chainConfig *params.ChainConfig, engine consensus.Engine, db ethdb.Database, n int) *testWorkerBackend {
var gspec = core.Genesis{
Config: chainConfig,
Alloc: core.GenesisAlloc{testBankAddress: {Balance: testBankFunds}},
}
switch e := engine.(type) {
case *clique.Clique:
gspec.ExtraData = make([]byte, 32+common.AddressLength+crypto.SignatureLength)
gspec.Timestamp = uint64(time.Now().Unix())
copy(gspec.ExtraData[32:32+common.AddressLength], testBankAddress.Bytes())
e.Authorize(testBankAddress, func(account accounts.Account, s string, data []byte) ([]byte, error) {
return crypto.Sign(crypto.Keccak256(data), testBankKey)
})
case *ethash.Ethash:
default:
t.Fatalf("unexpected consensus engine type: %T", engine)
}
genesis := gspec.MustCommit(db)
chain, _ := core.NewBlockChain(db, &core.CacheConfig{TrieDirtyDisabled: true}, gspec.Config, engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true})}, nil, nil)
txpool := core.NewTxPool(testTxPoolConfig, chainConfig, chain)
// Generate a small n-block chain and an uncle block for it
if n > 0 {
blocks, _ := core.GenerateChain(chainConfig, genesis, engine, db, n, func(i int, gen *core.BlockGen) {
gen.SetCoinbase(testBankAddress)
})
if _, err := chain.InsertChain(blocks); err != nil {
t.Fatalf("failed to insert origin chain: %v", err)
}
}
parent := genesis
if n > 0 {
parent = chain.GetBlockByHash(chain.CurrentBlock().ParentHash())
}
blocks, _ := core.GenerateChain(chainConfig, parent, engine, db, 1, func(i int, gen *core.BlockGen) {
gen.SetCoinbase(testUserAddress)
})
return &testWorkerBackend{
db: db,
chain: chain,
txPool: txpool,
genesis: &gspec,
uncleBlock: blocks[0],
}
}
func (b *testWorkerBackend) BlockChain() *core.BlockChain { return b.chain }
func (b *testWorkerBackend) TxPool() *core.TxPool { return b.txPool }
func (b *testWorkerBackend) ChainDb() ethdb.Database { return b.db }
func (b *testWorkerBackend) SyncService() *sync_service.SyncService { return nil }
func (b *testWorkerBackend) newRandomUncle() *types.Block {
var parent *types.Block
cur := b.chain.CurrentBlock()
if cur.NumberU64() == 0 {
parent = b.chain.Genesis()
} else {
parent = b.chain.GetBlockByHash(b.chain.CurrentBlock().ParentHash())
}
blocks, _ := core.GenerateChain(b.chain.Config(), parent, b.chain.Engine(), b.db, 1, func(i int, gen *core.BlockGen) {
var addr = make([]byte, common.AddressLength)
rand.Read(addr)
gen.SetCoinbase(common.BytesToAddress(addr))
})
return blocks[0]
}
func (b *testWorkerBackend) newRandomTx(creation bool) *types.Transaction {
var tx *types.Transaction
gasPrice := big.NewInt(10 * params.InitialBaseFee)
if creation {
tx, _ = types.SignTx(types.NewContractCreation(b.txPool.Nonce(testBankAddress), big.NewInt(0), testGas, gasPrice, common.FromHex(testCode)), types.HomesteadSigner{}, testBankKey)
} else {
tx, _ = types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress), testUserAddress, big.NewInt(1000), params.TxGas, gasPrice, nil), types.HomesteadSigner{}, testBankKey)
}
return tx
}
func newTestWorker(t *testing.T, chainConfig *params.ChainConfig, engine consensus.Engine, db ethdb.Database, blocks int) (*worker, *testWorkerBackend) {
backend := newTestWorkerBackend(t, chainConfig, engine, db, blocks)
backend.txPool.AddLocals(pendingTxs)
w := newWorker(testConfig, chainConfig, engine, backend, new(event.TypeMux), nil, false, false)
w.setEtherbase(testBankAddress)
return w, backend
}
func TestGenerateBlockAndImportClique(t *testing.T) {
testGenerateBlockAndImport(t, true)
}
func testGenerateBlockAndImport(t *testing.T, isClique bool) {
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
if isClique {
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
engine = clique.New(chainConfig.Clique, db)
} else {
chainConfig = params.AllEthashProtocolChanges.Clone()
engine = ethash.NewFaker()
}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
db2 := rawdb.NewMemoryDatabase()
b.genesis.MustCommit(db2)
chain, _ := core.NewBlockChain(db2, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
// Start mining!
w.start()
for i := 0; i < 5; i++ {
b.txPool.AddLocal(b.newRandomTx(true))
b.txPool.AddLocal(b.newRandomTx(false))
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
case <-time.After(3 * time.Second): // Worker needs 1s to include new changes.
t.Fatalf("timeout")
}
}
}
func TestGenerateBlockWithL1MsgClique(t *testing.T) {
testGenerateBlockWithL1Msg(t, true)
}
func testGenerateBlockWithL1Msg(t *testing.T, isClique bool) {
assert := assert.New(t)
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 21016, To: &common.Address{3}, Data: []byte{0x01}, Sender: common.Address{4}},
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}}
rawdb.WriteL1Messages(db, msgs)
if isClique {
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
engine = clique.New(chainConfig.Clique, db)
} else {
chainConfig = params.AllEthashProtocolChanges.Clone()
engine = ethash.NewFaker()
}
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 1,
}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
// Start mining!
w.start()
for i := 0; i < 2; i++ {
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
assert.Equal(1, len(block.Transactions()))
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(i+1), *queueIndex)
case <-time.After(3 * time.Second):
t.Fatalf("timeout")
}
}
}
func TestAcceptableTxlimit(t *testing.T) {
assert := assert.New(t)
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
engine = clique.New(chainConfig.Clique, db)
// Set maxTxPerBlock = 4, which >= non-l1msg + non-skipped l1msg txs
maxTxPerBlock := 4
chainConfig.Scroll.MaxTxPerBlock = &maxTxPerBlock
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 3,
}
// Insert 3 l1msgs, with one be skipped.
l1msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 10000000, To: &common.Address{3}, Data: []byte{0x01}, Sender: common.Address{4}}, // over gas limit
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{4}},
{QueueIndex: 2, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}}
rawdb.WriteL1Messages(db, l1msgs)
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
// Insert 2 non-l1msg txs
b.txPool.AddLocal(b.newRandomTx(true))
b.txPool.AddLocal(b.newRandomTx(false))
// Start mining!
w.start()
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
assert.Equal(4, len(block.Transactions()))
case <-time.After(3 * time.Second):
t.Fatalf("timeout")
}
}
func TestUnacceptableTxlimit(t *testing.T) {
assert := assert.New(t)
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
engine = clique.New(chainConfig.Clique, db)
// Set maxTxPerBlock = 3, which < non-l1msg + l1msg txs
maxTxPerBlock := 3
chainConfig.Scroll.MaxTxPerBlock = &maxTxPerBlock
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 2,
}
// Insert 2 l1msgs
l1msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 21016, To: &common.Address{3}, Data: []byte{0x01}, Sender: common.Address{4}},
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}}
rawdb.WriteL1Messages(db, l1msgs)
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
// Insert 2 non-l1msg txs
b.txPool.AddLocal(b.newRandomTx(true))
b.txPool.AddLocal(b.newRandomTx(false))
// Start mining!
w.start()
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
assert.Equal(3, len(block.Transactions()))
case <-time.After(3 * time.Second):
t.Fatalf("timeout")
}
}
func TestL1MsgCorrectOrder(t *testing.T) {
assert := assert.New(t)
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
engine = clique.New(chainConfig.Clique, db)
maxTxPerBlock := 4
chainConfig.Scroll.MaxTxPerBlock = &maxTxPerBlock
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 10,
}
// Insert 3 l1msgs
l1msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 21016, To: &common.Address{3}, Data: []byte{0x01}, Sender: common.Address{4}},
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 2, Gas: 21016, To: &common.Address{3}, Data: []byte{0x01}, Sender: common.Address{4}}}
rawdb.WriteL1Messages(db, l1msgs)
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
// Insert local tx
b.txPool.AddLocal(b.newRandomTx(true))
// Start mining!
w.start()
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
assert.Equal(4, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx() && block.Transactions()[1].IsL1MessageTx() && block.Transactions()[2].IsL1MessageTx())
assert.Equal(uint64(0), block.Transactions()[0].AsL1MessageTx().QueueIndex)
assert.Equal(uint64(1), block.Transactions()[1].AsL1MessageTx().QueueIndex)
assert.Equal(uint64(2), block.Transactions()[2].AsL1MessageTx().QueueIndex)
case <-time.After(3 * time.Second):
t.Fatalf("timeout")
}
}
func l1MessageTest(t *testing.T, msgs []types.L1MessageTx, withL2Tx bool, callback func(i int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool) {
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
rawdb.WriteL1Messages(db, msgs)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
chainConfig.Scroll.UseZktrie = true
engine = clique.New(chainConfig.Clique, db)
maxTxPerBlock := 4
chainConfig.Scroll.MaxTxPerBlock = &maxTxPerBlock
maxPayload := 1024
chainConfig.Scroll.MaxTxPayloadBytesPerBlock = &maxPayload
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 3,
}
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
if withL2Tx {
b.txPool.AddLocal(b.newRandomTx(false))
}
// Start mining!
w.start()
// call once before first block
callback(0, nil, db, w, chain)
// timeout for all blocks
globalTimeout := time.After(3 * time.Second)
for ii := 1; true; ii++ {
select {
case <-globalTimeout:
t.Fatalf("timeout")
default:
}
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if done := callback(ii, block, db, w, chain); done {
return
}
// timeout for one block
case <-time.After(3 * time.Second):
t.Fatalf("timeout")
}
}
}
func TestL1SingleMessageOverGasLimit(t *testing.T) {
assert := assert.New(t)
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 10000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}, // over gas limit
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}, // same sender
{QueueIndex: 2, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{3}}, // different sender
}
l1MessageTest(t, msgs, false, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
return false
case 1:
// skip #0, include #1 and #2
assert.Equal(2, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(1), block.Transactions()[0].AsL1MessageTx().QueueIndex)
assert.True(block.Transactions()[1].IsL1MessageTx())
assert.Equal(uint64(2), block.Transactions()[1].AsL1MessageTx().QueueIndex)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(3), *queueIndex)
return true
default:
return true
}
})
}
func TestL1CombinedMessagesOverGasLimit(t *testing.T) {
assert := assert.New(t)
// message #0 is over the gas limit
// we should skip #0 but not #1 and #2
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 4000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 1, Gas: 4000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}, // same sender
{QueueIndex: 2, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{3}}, // different sender
}
l1MessageTest(t, msgs, false, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
return false
case 1:
// block #1 only includes 1 message
assert.Equal(1, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(0), block.Transactions()[0].AsL1MessageTx().QueueIndex)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(1), *queueIndex)
return false
case 2:
// block #2 includes the other 2 messages
assert.Equal(2, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(1), block.Transactions()[0].AsL1MessageTx().QueueIndex)
assert.True(block.Transactions()[1].IsL1MessageTx())
assert.Equal(uint64(2), block.Transactions()[1].AsL1MessageTx().QueueIndex)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(3), *queueIndex)
return true
default:
return true
}
})
}
func TestLargeL1MessageSkipPayloadCheck(t *testing.T) {
assert := assert.New(t)
// message #0 is over the L2 block payload size limit
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 25100, To: &common.Address{1}, Data: make([]byte, 1025), Sender: common.Address{2}},
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}, // same sender
{QueueIndex: 2, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{3}}, // different sender
}
l1MessageTest(t, msgs, true, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
return false
case 1:
// include #0, #1 and #2 + one L2 tx
assert.Equal(4, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(0), block.Transactions()[0].AsL1MessageTx().QueueIndex)
assert.True(block.Transactions()[1].IsL1MessageTx())
assert.Equal(uint64(1), block.Transactions()[1].AsL1MessageTx().QueueIndex)
assert.True(block.Transactions()[2].IsL1MessageTx())
assert.Equal(uint64(2), block.Transactions()[2].AsL1MessageTx().QueueIndex)
// since L1 messages do not count against the block size limit,
// we can include additional L2 transaction
assert.False(block.Transactions()[3].IsL1MessageTx())
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(3), *queueIndex)
return true
default:
return true
}
})
}
func TestSkipMessageWithStrangeError(t *testing.T) {
assert := assert.New(t)
msgs := []types.L1MessageTx{
// message #0 is skipped because of `GasLimit`
// (cannot happen in practice, this is checked in the contracts)
{QueueIndex: 0, Gas: 20000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
// messages #1 and #2 are correct
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 2, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{3}},
}
l1MessageTest(t, msgs, false, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
return false
case 1:
// skip #0, include #1 and #2
assert.Equal(2, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(1), block.Transactions()[0].AsL1MessageTx().QueueIndex)
assert.True(block.Transactions()[1].IsL1MessageTx())
assert.Equal(uint64(2), block.Transactions()[1].AsL1MessageTx().QueueIndex)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(3), *queueIndex)
return true
default:
return false
}
})
}
func TestL1MessageWithInsufficientBalanceNotSkipped(t *testing.T) {
assert := assert.New(t)
msgs := []types.L1MessageTx{
// message #0 sends more funds than available in the sender account
{QueueIndex: 0, Gas: 25100, To: &common.Address{1}, Data: make([]byte, 1025), Sender: common.Address{2}, Value: big.NewInt(1)},
// #message #1 is a correct msg
{QueueIndex: 1, Gas: 25100, To: &common.Address{1}, Data: make([]byte, 1025), Sender: common.Address{2}},
}
l1MessageTest(t, msgs, false, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
return false
case 1:
// include both #0 and #1
assert.Equal(2, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(0), block.Transactions()[0].AsL1MessageTx().QueueIndex)
assert.True(block.Transactions()[1].IsL1MessageTx())
assert.Equal(uint64(1), block.Transactions()[1].AsL1MessageTx().QueueIndex)
// #0 fails, #1 succeeds
receipts := bc.GetReceiptsByHash(block.Hash())
assert.Equal(2, len(receipts))
assert.Equal(types.ReceiptStatusFailed, receipts[0].Status)
assert.Equal(types.ReceiptStatusSuccessful, receipts[1].Status)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(2), *queueIndex)
return true
default:
return true
}
})
}
func TestSkipAllL1MessagesInBlock(t *testing.T) {
assert := assert.New(t)
// messages are skipped because of `GasLimit`
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 20000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 1, Gas: 20000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 2, Gas: 20000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{3}},
}
l1MessageTest(t, msgs, true, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
return false
case 1:
// skip all 3 L1 messages, include 1 L2 tx
assert.Equal(1, len(block.Transactions()))
assert.False(block.Transactions()[0].IsL1MessageTx())
// db is updated correctly
// note: this should return 0 but on the signer we store 3 instead so
// that we do not process the same messages again for the next block.
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(3), *queueIndex)
return true
default:
return true
}
})
}
func TestOversizedTxThenNormal(t *testing.T) {
assert := assert.New(t)
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 25100, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 2, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{3}},
}
l1MessageTest(t, msgs, false, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
// schedule to skip 2nd call to ccc
w.scheduleCCCError(2)
return false
case 1:
// include #0, fail on #1, then seal the block
assert.Equal(1, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(0), block.Transactions()[0].AsL1MessageTx().QueueIndex)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(1), *queueIndex)
// schedule to skip next call to ccc
w.scheduleCCCError(1)
return false
case 2:
// skip #1, include #2, then seal the block
assert.Equal(1, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(2), block.Transactions()[0].AsL1MessageTx().QueueIndex)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(3), *queueIndex)
return true
default:
return true
}
})
}
func TestPrioritizeOverflowTx(t *testing.T) {
assert := assert.New(t)
var (
chainConfig = params.AllCliqueProtocolChanges.Clone()
db = rawdb.NewMemoryDatabase()
)
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
chainConfig.LondonBlock = big.NewInt(0)
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
engine := clique.New(chainConfig.Clique, db)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
db2 := rawdb.NewMemoryDatabase()
b.genesis.MustCommit(db2)
chain, _ := core.NewBlockChain(db2, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
// Define 3 transactions:
// A --> B (nonce: 0, gas: 20)
tx0, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress), testUserAddress, big.NewInt(100000000000000000), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testBankKey)
// A --> B (nonce: 1, gas: 5)
tx1, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress)+1, testUserAddress, big.NewInt(0), params.TxGas, big.NewInt(5*params.InitialBaseFee), nil), types.HomesteadSigner{}, testBankKey)
// B --> A (nonce: 0, gas: 20)
tx2, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testUserAddress), testBankAddress, big.NewInt(0), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testUserKey)
// B --> A (nonce: 1, gas: 20)
tx3, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testUserAddress)+1, testBankAddress, big.NewInt(0), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testUserKey)
// B --> A (nonce: 2, gas: 20)
tx4, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testUserAddress)+2, testBankAddress, big.NewInt(0), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testUserKey)
// A --> B (nonce: 2, gas: 5)
tx5, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress)+2, testUserAddress, big.NewInt(0), params.TxGas, big.NewInt(5*params.InitialBaseFee), nil), types.HomesteadSigner{}, testBankKey)
// Process 2 transactions with gas order: tx0 > tx1, tx1 will overflow.
b.txPool.AddRemotesSync([]*types.Transaction{tx0, tx1})
w.scheduleCCCError(2)
w.start()
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
assert.Equal(1, len(block.Transactions()))
assert.Equal(tx0.Hash(), block.Transactions()[0].Hash())
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
case <-time.After(3 * time.Second): // Worker needs 1s to include new changes.
t.Fatalf("timeout")
}
// Process 2 transactions with gas order: tx2 > tx1,
// but we will prioritize tx1.
b.txPool.AddRemotesSync([]*types.Transaction{tx2})
select {
case ev := <-sub.Chan():
w.stop()
block := ev.Data.(core.NewMinedBlockEvent).Block
assert.Equal(2, len(block.Transactions()))
// note: txs are not included according to their gas fee order
assert.Equal(tx1.Hash(), block.Transactions()[0].Hash())
assert.Equal(tx2.Hash(), block.Transactions()[1].Hash())
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
case <-time.After(3 * time.Second): // Worker needs 1s to include new changes.
t.Fatalf("timeout")
}
w.skip(tx4.Hash())
assert.Equal([]error{nil, nil, nil}, b.txPool.AddRemotesSync([]*types.Transaction{tx3, tx4, tx5}))
w.start()
expectedTxns := []common.Hash{tx3.Hash(), tx5.Hash()}
for i := 0; i < 2; i++ {
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
assert.Equal(1, len(block.Transactions()))
assert.Equal(expectedTxns[i], block.Transactions()[0].Hash())
if _, err := chain.InsertChain([]*types.Block{block}); err != nil {
t.Fatalf("failed to insert new mined block %d: %v", block.NumberU64(), err)
}
case <-time.After(3 * time.Second): // Worker needs 1s to include new changes.
t.Fatalf("timeout")
}
}
assert.False(b.txPool.Has(tx4.Hash()))
}
func TestSkippedTransactionDatabaseEntries(t *testing.T) {
assert := assert.New(t)
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 10000000, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}}, // over gas limit
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
}
l1MessageTest(t, msgs, false, func(blockNum int, block *types.Block, db ethdb.Database, w *worker, bc *core.BlockChain) bool {
switch blockNum {
case 0:
return false
case 1:
// skip #0, include #1
assert.Equal(1, len(block.Transactions()))
assert.True(block.Transactions()[0].IsL1MessageTx())
assert.Equal(uint64(1), block.Transactions()[0].AsL1MessageTx().QueueIndex)
// db is updated correctly
queueIndex := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
assert.NotNil(queueIndex)
assert.Equal(uint64(2), *queueIndex)
l1msg := rawdb.ReadL1Message(db, 0)
assert.NotNil(l1msg)
hash := types.NewTx(l1msg).Hash()
stx := rawdb.ReadSkippedTransaction(db, hash)
assert.NotNil(stx)
assert.True(stx.Tx.IsL1MessageTx())
assert.Equal(uint64(0), stx.Tx.AsL1MessageTx().QueueIndex)
assert.Equal("gas limit reached", stx.Reason)
assert.Equal(block.NumberU64(), stx.BlockNumber)
assert.Nil(stx.BlockHash)
numSkipped := rawdb.ReadNumSkippedTransactions(db)
assert.Equal(uint64(1), numSkipped)
hash2 := rawdb.ReadSkippedTransactionHash(db, 0)
assert.NotNil(hash2)
assert.Equal(&hash, hash2)
// iterator API
it := rawdb.IterateSkippedTransactionsFrom(db, 0)
hasMore := it.Next()
assert.True(hasMore)
assert.Equal(uint64(0), it.Index())
hash3 := it.TransactionHash()
assert.Equal(hash, hash3)
hasMore = it.Next()
assert.False(hasMore)
return true
default:
return true
}
})
}
func TestPending(t *testing.T) {
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
engine = clique.New(chainConfig.Clique, db)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Define 3 transactions:
// A --> B (nonce: 0, gas: 20)
tx0, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress), testUserAddress, big.NewInt(100000000000000000), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testBankKey)
// A --> B (nonce: 1, gas: 5)
tx1, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress)+1, testUserAddress, big.NewInt(0), params.TxGas, big.NewInt(5*params.InitialBaseFee), nil), types.HomesteadSigner{}, testBankKey)
// B --> A (nonce: 0, gas: 20)
tx2, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testUserAddress), testBankAddress, big.NewInt(0), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testUserKey)
// B --> A (nonce: 1, gas: 20)
tx3, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testUserAddress)+1, testBankAddress, big.NewInt(0), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testUserKey)
// B --> A (nonce: 2, gas: 20)
tx4, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testUserAddress)+2, testBankAddress, big.NewInt(0), params.TxGas, big.NewInt(20*params.InitialBaseFee), nil), types.HomesteadSigner{}, testUserKey)
// A --> B (nonce: 2, gas: 5)
tx5, _ := types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress)+2, testUserAddress, big.NewInt(0), params.TxGas, big.NewInt(5*params.InitialBaseFee), nil), types.HomesteadSigner{}, testBankKey)
b.txPool.AddRemotesSync([]*types.Transaction{tx0, tx1, tx2, tx3, tx4, tx5})
// start building pending block
w.startCh <- struct{}{}
time.Sleep(time.Second)
pending := w.pendingBlock()
assert.NotNil(t, pending)
assert.NotEmpty(t, pending.Transactions())
}
func TestReorg(t *testing.T) {
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000, RelaxedPeriod: true}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
engine = clique.New(chainConfig.Clique, db)
maxTxPerBlock := 2
chainConfig.Scroll.MaxTxPerBlock = &maxTxPerBlock
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 10,
}
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{}, nil, nil)
defer chain.Stop()
// Insert local tx
for i := 0; i < 40; i++ {
b.txPool.AddLocal(b.newRandomTx(true))
}
const firstReorgHeight = 5
w.asyncChecker.ScheduleError(firstReorgHeight, 1)
// Start mining!
w.start()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
var oldBlock *types.Block
var newBlock *types.Block
firstReorg:
for {
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if block.NumberU64() == firstReorgHeight {
if oldBlock == nil {
oldBlock = block
} else {
newBlock = block
break firstReorg
}
}
case <-time.After(3 * time.Second): // Worker needs 1s to include new changes.
t.Fatalf("timeout")
}
}
require.Equal(t, oldBlock.NumberU64(), newBlock.NumberU64())
// should skip second txn
require.Equal(t, oldBlock.Transactions()[:1].Len(), newBlock.Transactions().Len())
for i := 0; i < newBlock.Transactions().Len(); i++ {
require.Equal(t, oldBlock.Transactions()[:1][i].Hash(), newBlock.Transactions()[i].Hash())
}
time.Sleep(time.Second * 5)
const secondReorgHeight = 15
w.asyncChecker.ScheduleError(secondReorgHeight, 0)
sub.Unsubscribe()
// Insert local tx
for i := 0; i < 20; i++ {
b.txPool.AddLocal(b.newRandomTx(true))
}
// resubscribe
sub = w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
oldBlock = nil
newBlock = nil
secondReorg:
for {
select {
case ev := <-sub.Chan():
block := ev.Data.(core.NewMinedBlockEvent).Block
if block.NumberU64() == secondReorgHeight {
if oldBlock == nil {
oldBlock = block
} else {
newBlock = block
break secondReorg
}
}
case <-time.After(3 * time.Second): // Worker needs 1s to include new changes.
t.Fatalf("timeout")
}
}
require.Equal(t, oldBlock.NumberU64(), newBlock.NumberU64())
// should skip first txn and the next txn will fail nonce check
require.Equal(t, 0, newBlock.Transactions().Len())
for i := 0; i < newBlock.Transactions().Len(); i++ {
require.Equal(t, oldBlock.Transactions()[1:][i].Hash(), newBlock.Transactions()[i].Hash())
}
}
func TestRestartHeadCCC(t *testing.T) {
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000, RelaxedPeriod: true}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = true
engine = clique.New(chainConfig.Clique, db)
maxTxPerBlock := 2
chainConfig.Scroll.MaxTxPerBlock = &maxTxPerBlock
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 10,
}
chainConfig.LondonBlock = big.NewInt(0)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
// Insert local tx
for i := 0; i < 10; i++ {
b.txPool.AddLocal(b.newRandomTx(true))
}
// Start mining!
w.start()
time.Sleep(time.Second * 5)
w.stop()
headHash := w.chain.CurrentHeader().Hash()
rawdb.DeleteBlockRowConsumption(db, headHash)
require.Nil(t, rawdb.ReadBlockRowConsumption(db, headHash))
w.start()
time.Sleep(time.Second)
// head should be rechecked by CCC
require.NotNil(t, rawdb.ReadBlockRowConsumption(db, headHash))
}
func newUint64(val uint64) *uint64 { return &val }
// TestEuclidV2MessageQueue tests L1 messages are correctly processed and included in the block during the
// transition from Euclid to EuclidV2 hard fork.
// - Before EuclidV2 only L1 messages V1 can be included.
// - During the hard fork, we need to ensure that blocks are backdated and all L1 messages V1 are included before the hard fork time.
// - After EuclidV2 only L1 messages V2 can be included.
func TestEuclidV2HardForkMessageQueue(t *testing.T) {
// patch time.Now() to be able to simulate hard fork time
patches := gomonkey.NewPatches()
defer patches.Reset()
// EuclidV2 hard fork time, leave a big gap so that we can test before and after the hard fork time
euclidV2Time := uint64(10000)
var timeCount int64
patches.ApplyFunc(time.Now, func() time.Time {
timeCount++
return time.Unix(timeCount, 0)
})
var (
engine consensus.Engine
chainConfig *params.ChainConfig
db = rawdb.NewMemoryDatabase()
)
msgs := []types.L1MessageTx{
{QueueIndex: 0, Gas: 21016, To: &common.Address{3}, Data: []byte{0x01}, Sender: common.Address{4}},
{QueueIndex: 1, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 2, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 3, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 4, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
{QueueIndex: 5, Gas: 21016, To: &common.Address{1}, Data: []byte{0x01}, Sender: common.Address{2}},
}
rawdb.WriteL1Messages(db, msgs)
rawdb.WriteL1MessageV2StartIndex(db, 4)
chainConfig = params.AllCliqueProtocolChanges.Clone()
chainConfig.Clique = &params.CliqueConfig{Period: 1, Epoch: 30000}
engine = clique.New(chainConfig.Clique, db)
chainConfig.Scroll.L1Config = &params.L1Config{
NumL1MessagesPerBlock: 1,
}
chainConfig.Scroll.FeeVaultAddress = &common.Address{}
chainConfig.Scroll.UseZktrie = false
chainConfig.EuclidTime = newUint64(0)
chainConfig.EuclidV2Time = newUint64(euclidV2Time)
w, b := newTestWorker(t, chainConfig, engine, db, 0)
defer w.close()
// This test chain imports the mined blocks.
b.genesis.MustCommit(db)
chain, _ := core.NewBlockChain(db, nil, b.chain.Config(), engine, vm.Config{
Debug: true,
Tracer: vm.NewStructLogger(&vm.LogConfig{EnableMemory: true, EnableReturnData: true})}, nil, nil)
defer chain.Stop()
// Wait for mined blocks.
sub := w.mux.Subscribe(core.NewMinedBlockEvent{})
defer sub.Unsubscribe()
// Start mining!
w.start()
var block1Time uint64
for i := 0; i < 6; i++ {
select {
case ev := <-sub.Chan():
// After we received the first block, we activate EuclidV2
if i == 0 {
timeCount = int64(euclidV2Time)
}
block := ev.Data.(core.NewMinedBlockEvent).Block
fmt.Println("block", block.NumberU64(), block.Time())
_, err := chain.InsertChain([]*types.Block{block})
require.NoError(t, err, "failed to insert new mined block %d", block.NumberU64())
require.Equal(t, 1, len(block.Transactions()))
queueIndex := block.Transactions()[0].AsL1MessageTx().QueueIndex
require.Equal(t, uint64(i), queueIndex)
switch i {
case 0:
block1Time = block.Time()
case 1, 2, 3:
// pre EuclidV2, we should include 1 L1 message V1 per block.
// we expect backdated blocks (same time as parent) and all L1 messages V1 to be included before the hard fork time.
if i == 1 {
require.GreaterOrEqual(t, block.Time(), block1Time, "block %d", block.NumberU64())
block1Time = block.Time() // due to concurrent mining it might be that block2 is mined before the hard fork time is set
}
// make sure the block is backdated
require.Equal(t, block1Time, block.Time(), "block %d", block.NumberU64())
// since the block contains L1 message V1 it needs to be included before the hard fork time
require.Less(t, block.Time(), euclidV2Time, "block %d", block.NumberU64())
case 4, 5:
// after EuclidV2 and when all L1 messages are consumed, we should include 1 L1 message V2 per block
require.GreaterOrEqual(t, block.Time(), euclidV2Time, "block %d", block.NumberU64())
}
// make sure DB is updated correctly
queueIndexNotInDB := rawdb.ReadFirstQueueIndexNotInL2Block(db, block.Hash())
require.NotNil(t, queueIndexNotInDB)
require.Equal(t, uint64(i+1), *queueIndexNotInDB)
case <-time.After(3 * time.Second):
t.Fatalf("timeout")
}
}
}