// 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 . package miner import ( "encoding/base64" "math/big" "math/rand" "sync/atomic" "testing" "time" "github.com/ethereum/go-ethereum/accounts" "github.com/ethereum/go-ethereum/common" "github.com/ethereum/go-ethereum/consensus" "github.com/ethereum/go-ethereum/consensus/clique" "github.com/ethereum/go-ethereum/consensus/ethash" "github.com/ethereum/go-ethereum/core" "github.com/ethereum/go-ethereum/core/mps" "github.com/ethereum/go-ethereum/core/rawdb" "github.com/ethereum/go-ethereum/core/types" "github.com/ethereum/go-ethereum/core/vm" "github.com/ethereum/go-ethereum/crypto" "github.com/ethereum/go-ethereum/ethdb" "github.com/ethereum/go-ethereum/event" "github.com/ethereum/go-ethereum/params" "github.com/ethereum/go-ethereum/private" "github.com/ethereum/go-ethereum/private/engine" "github.com/golang/mock/gomock" "github.com/stretchr/testify/assert" ) 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, GasFloor: params.GenesisGasLimit, GasCeil: params.GenesisGasLimit, } ) func init() { testTxPoolConfig = core.DefaultTxPoolConfig testTxPoolConfig.Journal = "" ethashChainConfig = params.TestChainConfig cliqueChainConfig = params.TestChainConfig cliqueChainConfig.Clique = ¶ms.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, }) pendingTxs = append(pendingTxs, tx1) tx2 := types.MustSignNewTx(testBankKey, signer, &types.LegacyTx{ Nonce: 1, To: &testUserAddress, Value: big.NewInt(1000), Gas: params.TxGas, }) 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) 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{}, nil, 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) ChainDb() ethdb.Database { return b.db } func (b *testWorkerBackend) BlockChain() *core.BlockChain { return b.chain } func (b *testWorkerBackend) TxPool() *core.TxPool { return b.txPool } 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, private bool) *types.Transaction { var signer types.Signer signer = types.HomesteadSigner{} if private { signer = types.QuorumPrivateTxSigner{} } var tx *types.Transaction if creation { tx, _ = types.SignTx(types.NewContractCreation(b.txPool.Nonce(testBankAddress), big.NewInt(0), testGas, nil, common.FromHex(testCode)), signer, testBankKey) } else { tx, _ = types.SignTx(types.NewTransaction(b.txPool.Nonce(testBankAddress), testUserAddress, big.NewInt(1000), params.TxGas, nil, nil), signer, 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) w.setEtherbase(testBankAddress) return w, backend } func TestGenerateBlockAndImportEthash(t *testing.T) { testGenerateBlockAndImport(t, false) } 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 chainConfig.Clique = ¶ms.CliqueConfig{Period: 1, Epoch: 30000} engine = clique.New(chainConfig.Clique, db) } else { chainConfig = params.AllEthashProtocolChanges engine = ethash.NewFaker() } 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{}, nil, nil, nil) defer chain.Stop() // Ignore empty commit here for less noise. w.skipSealHook = func(task *task) bool { return len(task.receipts) == 0 } // 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, false)) b.txPool.AddLocal(b.newRandomTx(false, false)) w.postSideBlock(core.ChainSideEvent{Block: b.newRandomUncle()}) w.postSideBlock(core.ChainSideEvent{Block: b.newRandomUncle()}) 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 TestEmptyWorkEthash(t *testing.T) { testEmptyWork(t, ethashChainConfig, ethash.NewFaker()) } func TestEmptyWorkClique(t *testing.T) { testEmptyWork(t, cliqueChainConfig, clique.New(cliqueChainConfig.Clique, rawdb.NewMemoryDatabase())) } func testEmptyWork(t *testing.T, chainConfig *params.ChainConfig, engine consensus.Engine) { defer engine.Close() w, _ := newTestWorker(t, chainConfig, engine, rawdb.NewMemoryDatabase(), 0) defer w.close() var ( taskIndex int taskCh = make(chan struct{}, 2) ) checkEqual := func(t *testing.T, task *task, index int) { // The first empty work without any txs included receiptLen, balance := 0, big.NewInt(0) if index == 1 { // The second full work with 1 tx included receiptLen, balance = 1, big.NewInt(1000) } if len(task.receipts) != receiptLen { t.Fatalf("receipt number mismatch: have %d, want %d", len(task.receipts), receiptLen) } if task.state.GetBalance(testUserAddress).Cmp(balance) != 0 { t.Fatalf("account balance mismatch: have %d, want %d", task.state.GetBalance(testUserAddress), balance) } } w.newTaskHook = func(task *task) { if task.block.NumberU64() == 1 { checkEqual(t, task, taskIndex) taskIndex += 1 taskCh <- struct{}{} } } w.skipSealHook = func(task *task) bool { return true } w.fullTaskHook = func() { time.Sleep(100 * time.Millisecond) } w.start() // Start mining! for i := 0; i < 2; i += 1 { select { case <-taskCh: case <-time.NewTimer(3 * time.Second).C: t.Error("new task timeout") } } } func TestStreamUncleBlock(t *testing.T) { ethash := ethash.NewFaker() defer ethash.Close() w, b := newTestWorker(t, ethashChainConfig, ethash, rawdb.NewMemoryDatabase(), 1) defer w.close() var taskCh = make(chan struct{}) taskIndex := 0 w.newTaskHook = func(task *task) { if task.block.NumberU64() == 2 { // The first task is an empty task, the second // one has 1 pending tx, the third one has 1 tx // and 1 uncle. if taskIndex == 2 { have := task.block.Header().UncleHash want := types.CalcUncleHash([]*types.Header{b.uncleBlock.Header()}) if have != want { t.Errorf("uncle hash mismatch: have %s, want %s", have.Hex(), want.Hex()) } } taskCh <- struct{}{} taskIndex += 1 } } w.skipSealHook = func(task *task) bool { return true } w.fullTaskHook = func() { time.Sleep(100 * time.Millisecond) } w.start() for i := 0; i < 2; i += 1 { select { case <-taskCh: case <-time.NewTimer(time.Second).C: t.Error("new task timeout") } } w.postSideBlock(core.ChainSideEvent{Block: b.uncleBlock}) select { case <-taskCh: case <-time.NewTimer(time.Second).C: t.Error("new task timeout") } } func TestRegenerateMiningBlockEthash(t *testing.T) { testRegenerateMiningBlock(t, ethashChainConfig, ethash.NewFaker()) } func TestRegenerateMiningBlockClique(t *testing.T) { testRegenerateMiningBlock(t, cliqueChainConfig, clique.New(cliqueChainConfig.Clique, rawdb.NewMemoryDatabase())) } func testRegenerateMiningBlock(t *testing.T, chainConfig *params.ChainConfig, engine consensus.Engine) { defer engine.Close() w, b := newTestWorker(t, chainConfig, engine, rawdb.NewMemoryDatabase(), 0) defer w.close() var taskCh = make(chan struct{}) taskIndex := 0 w.newTaskHook = func(task *task) { if task.block.NumberU64() == 1 { // The first task is an empty task, the second // one has 1 pending tx, the third one has 2 txs if taskIndex == 2 { receiptLen, balance := 2, big.NewInt(2000) if len(task.receipts) != receiptLen { t.Errorf("receipt number mismatch: have %d, want %d", len(task.receipts), receiptLen) } if task.state.GetBalance(testUserAddress).Cmp(balance) != 0 { t.Errorf("account balance mismatch: have %d, want %d", task.state.GetBalance(testUserAddress), balance) } } taskCh <- struct{}{} taskIndex += 1 } } w.skipSealHook = func(task *task) bool { return true } w.fullTaskHook = func() { time.Sleep(100 * time.Millisecond) } w.start() // Ignore the first two works for i := 0; i < 2; i += 1 { select { case <-taskCh: case <-time.NewTimer(time.Second).C: t.Error("new task timeout") } } b.txPool.AddLocals(newTxs) time.Sleep(time.Second) select { case <-taskCh: case <-time.NewTimer(time.Second).C: t.Error("new task timeout") } } func TestAdjustIntervalEthash(t *testing.T) { testAdjustInterval(t, ethashChainConfig, ethash.NewFaker()) } func TestAdjustIntervalClique(t *testing.T) { testAdjustInterval(t, cliqueChainConfig, clique.New(cliqueChainConfig.Clique, rawdb.NewMemoryDatabase())) } func testAdjustInterval(t *testing.T, chainConfig *params.ChainConfig, engine consensus.Engine) { defer engine.Close() w, _ := newTestWorker(t, chainConfig, engine, rawdb.NewMemoryDatabase(), 0) defer w.close() w.skipSealHook = func(task *task) bool { return true } w.fullTaskHook = func() { time.Sleep(100 * time.Millisecond) } var ( progress = make(chan struct{}, 10) result = make([]float64, 0, 10) index = 0 start uint32 ) w.resubmitHook = func(minInterval time.Duration, recommitInterval time.Duration) { // Short circuit if interval checking hasn't started. if atomic.LoadUint32(&start) == 0 { return } var wantMinInterval, wantRecommitInterval time.Duration switch index { case 0: wantMinInterval, wantRecommitInterval = 3*time.Second, 3*time.Second case 1: origin := float64(3 * time.Second.Nanoseconds()) estimate := origin*(1-intervalAdjustRatio) + intervalAdjustRatio*(origin/0.8+intervalAdjustBias) wantMinInterval, wantRecommitInterval = 3*time.Second, time.Duration(estimate)*time.Nanosecond case 2: estimate := result[index-1] min := float64(3 * time.Second.Nanoseconds()) estimate = estimate*(1-intervalAdjustRatio) + intervalAdjustRatio*(min-intervalAdjustBias) wantMinInterval, wantRecommitInterval = 3*time.Second, time.Duration(estimate)*time.Nanosecond case 3: wantMinInterval, wantRecommitInterval = time.Second, time.Second } // Check interval if minInterval != wantMinInterval { t.Errorf("resubmit min interval mismatch: have %v, want %v ", minInterval, wantMinInterval) } if recommitInterval != wantRecommitInterval { t.Errorf("resubmit interval mismatch: have %v, want %v", recommitInterval, wantRecommitInterval) } result = append(result, float64(recommitInterval.Nanoseconds())) index += 1 progress <- struct{}{} } w.start() time.Sleep(time.Second) // Ensure two tasks have been summitted due to start opt atomic.StoreUint32(&start, 1) w.setRecommitInterval(3 * time.Second) select { case <-progress: case <-time.NewTimer(time.Second).C: t.Error("interval reset timeout") } w.resubmitAdjustCh <- &intervalAdjust{inc: true, ratio: 0.8} select { case <-progress: case <-time.NewTimer(time.Second).C: t.Error("interval reset timeout") } w.resubmitAdjustCh <- &intervalAdjust{inc: false} select { case <-progress: case <-time.NewTimer(time.Second).C: t.Error("interval reset timeout") } w.setRecommitInterval(500 * time.Millisecond) select { case <-progress: case <-time.NewTimer(time.Second).C: t.Error("interval reset timeout") } } var PSI1PSM = mps.PrivateStateMetadata{ ID: "psi1", Name: "psi1", Description: "private state 1", Type: mps.Resident, Addresses: nil, } var PSI2PSM = mps.PrivateStateMetadata{ ID: "psi2", Name: "psi2", Description: "private state 2", Type: mps.Resident, Addresses: nil, } func TestPrivatePSMRStateCreated(t *testing.T) { mockCtrl := gomock.NewController(t) defer mockCtrl.Finish() mockptm := private.NewMockPrivateTransactionManager(mockCtrl) mockptm.EXPECT().HasFeature(engine.MultiplePrivateStates).Return(true) mockptm.EXPECT().Groups().Return([]engine.PrivacyGroup{ { Type: "RESIDENT", Name: PSI1PSM.Name, PrivacyGroupId: base64.StdEncoding.EncodeToString([]byte(PSI1PSM.ID)), Description: "Resident Group 1", From: "", Members: []string{"psi1"}, }, { Type: "RESIDENT", Name: PSI2PSM.Name, PrivacyGroupId: base64.StdEncoding.EncodeToString([]byte(PSI2PSM.ID)), Description: "Resident Group 2", From: "", Members: []string{"psi2"}, }, }, nil) saved := private.P defer func() { private.P = saved }() private.P = mockptm db := rawdb.NewMemoryDatabase() chainConfig := params.AllCliqueProtocolChanges chainConfig.IsQuorum = true chainConfig.IsMPS = true defer func() { chainConfig.IsQuorum = false }() defer func() { chainConfig.IsMPS = false }() w, b := newTestWorker(t, chainConfig, clique.New(chainConfig.Clique, db), db, 0) defer w.close() newBlock := make(chan *types.Block) listenNewBlock := func() { sub := w.mux.Subscribe(core.NewMinedBlockEvent{}) defer sub.Unsubscribe() for item := range sub.Chan() { newBlock <- item.Data.(core.NewMinedBlockEvent).Block } } w.start() // Start mining! // Ignore first 2 commits caused by start operation ignored := make(chan struct{}, 2) w.skipSealHook = func(task *task) bool { ignored <- struct{}{} return true } timer := time.NewTimer(3 * time.Second) for i := 0; i < 2; i++ { select { case <-ignored: case <-timer.C: t.Fatalf("timeout") } } timer.Stop() go listenNewBlock() // Ignore empty commit here for less noise w.skipSealHook = func(task *task) bool { return len(task.receipts) == 0 } for i := 0; i < 5; i++ { randomPrivateTx := b.newRandomTx(true, true) mockptm.EXPECT().Receive(common.BytesToEncryptedPayloadHash(randomPrivateTx.Data())).Return("", []string{"psi1", "psi2"}, common.FromHex(testCode), nil, nil).AnyTimes() mockptm.EXPECT().Receive(common.EncryptedPayloadHash{}).Return("", []string{}, common.EncryptedPayloadHash{}.Bytes(), nil, nil).AnyTimes() expectedContractAddress := crypto.CreateAddress(randomPrivateTx.From(), randomPrivateTx.Nonce()) b.txPool.AddLocal(randomPrivateTx) select { case blk := <-newBlock: //check if the tx is present found := blk.Transaction(randomPrivateTx.Hash()) if found == nil { continue } latestBlockRoot := b.BlockChain().CurrentBlock().Root() _, privDb, err := b.BlockChain().StateAtPSI(latestBlockRoot, types.ToPrivateStateIdentifier("empty")) assert.NoError(t, err) assert.True(t, privDb.Exist(expectedContractAddress)) assert.Equal(t, privDb.GetCodeSize(expectedContractAddress), 0) //contract should exist on both psi states and not be empty _, privDb, _ = b.BlockChain().StateAtPSI(latestBlockRoot, types.ToPrivateStateIdentifier("psi1")) assert.True(t, privDb.Exist(expectedContractAddress)) assert.False(t, privDb.Empty(expectedContractAddress)) assert.NotEqual(t, privDb.GetCodeSize(expectedContractAddress), 0) _, privDb, _ = b.BlockChain().StateAtPSI(latestBlockRoot, types.ToPrivateStateIdentifier("psi2")) assert.True(t, privDb.Exist(expectedContractAddress)) assert.False(t, privDb.Empty(expectedContractAddress)) assert.NotEqual(t, privDb.GetCodeSize(expectedContractAddress), 0) //contract should exist on random state (delegated to emptystate) but no contract code _, privDb, _ = b.BlockChain().StateAtPSI(latestBlockRoot, types.ToPrivateStateIdentifier("other")) assert.True(t, privDb.Exist(expectedContractAddress)) assert.Equal(t, privDb.GetCodeSize(expectedContractAddress), 0) case <-time.NewTimer(3 * time.Second).C: // Worker needs 1s to include new changes. t.Fatalf("timeout") } } logsChan := make(chan []*types.Log) sub := b.BlockChain().SubscribeLogsEvent(logsChan) defer sub.Unsubscribe() logsContractData := "6080604052348015600f57600080fd5b507f24ec1d3ff24c2f6ff210738839dbc339cd45a5294d85c79361016243157aae7b60405160405180910390a1603e8060496000396000f3fe6080604052600080fdfea265627a7a72315820937805cb4f2481262ad95d420ab93220f11ceaea518c7ccf119fc2c58f58050d64736f6c63430005110032" tx, _ := types.SignTx(types.NewContractCreation(b.txPool.Nonce(testBankAddress), big.NewInt(0), 470000, nil, common.FromHex(logsContractData)), types.QuorumPrivateTxSigner{}, testBankKey) mockptm.EXPECT().Receive(common.BytesToEncryptedPayloadHash(tx.Data())).Return("", []string{"psi1", "psi2"}, common.FromHex(logsContractData), nil, nil).AnyTimes() b.txPool.AddLocal(tx) select { case logs := <-logsChan: assert.Len(t, logs, 2) assert.Contains(t, []types.PrivateStateIdentifier{logs[0].PSI, logs[1].PSI}, types.PrivateStateIdentifier("psi1")) assert.Contains(t, []types.PrivateStateIdentifier{logs[0].PSI, logs[1].PSI}, types.PrivateStateIdentifier("psi2")) case <-time.NewTimer(3 * time.Second).C: t.Error("timeout") } } func TestPrivateLegacyStateCreated(t *testing.T) { mockCtrl := gomock.NewController(t) defer mockCtrl.Finish() mockptm := private.NewMockPrivateTransactionManager(mockCtrl) saved := private.P defer func() { private.P = saved }() private.P = mockptm db := rawdb.NewMemoryDatabase() chainConfig := params.AllCliqueProtocolChanges chainConfig.IsQuorum = true chainConfig.IsMPS = false defer func() { chainConfig.IsQuorum = false }() w, b := newTestWorker(t, chainConfig, clique.New(chainConfig.Clique, db), db, 0) defer w.close() newBlock := make(chan *types.Block) listenNewBlock := func() { sub := w.mux.Subscribe(core.NewMinedBlockEvent{}) defer sub.Unsubscribe() for item := range sub.Chan() { newBlock <- item.Data.(core.NewMinedBlockEvent).Block } } w.start() // Start mining! // Ignore first 2 commits caused by start operation ignored := make(chan struct{}, 2) w.skipSealHook = func(task *task) bool { ignored <- struct{}{} return true } for i := 0; i < 2; i++ { <-ignored } go listenNewBlock() // Ignore empty commit here for less noise w.skipSealHook = func(task *task) bool { return len(task.receipts) == 0 } for i := 0; i < 5; i++ { mockptm.EXPECT().Receive(gomock.Any()).Return("", []string{}, common.FromHex(testCode), nil, nil).Times(1) randomPrivateTx := b.newRandomTx(true, true) expectedContractAddress := crypto.CreateAddress(randomPrivateTx.From(), randomPrivateTx.Nonce()) b.txPool.AddLocal(randomPrivateTx) select { case blk := <-newBlock: //check if the tx is present found := blk.Transaction(randomPrivateTx.Hash()) if found == nil { continue } latestBlockRoot := b.BlockChain().CurrentBlock().Root() //contract exists on default state _, privDb, _ := b.BlockChain().StateAtPSI(latestBlockRoot, types.DefaultPrivateStateIdentifier) assert.True(t, privDb.Exist(expectedContractAddress)) assert.NotEqual(t, privDb.GetCodeSize(expectedContractAddress), 0) //only "private" state on legacy psm _, _, err := b.BlockChain().StateAtPSI(latestBlockRoot, types.ToPrivateStateIdentifier("other")) assert.Error(t, err, "Only the 'private' psi is supported by the default private state manager") case <-time.NewTimer(3 * time.Second).C: // Worker needs 1s to include new changes. t.Fatalf("timeout") } } }