package snapshot_test import ( "fmt" "math/rand" "path/filepath" "testing" "time" "github.com/cerc-io/eth-testing/chains" "github.com/cerc-io/plugeth-statediff/indexer/models" "github.com/ethereum/go-ethereum/common" "github.com/ethereum/go-ethereum/crypto" "github.com/stretchr/testify/require" "github.com/cerc-io/ipld-eth-state-snapshot/internal/mocks" . "github.com/cerc-io/ipld-eth-state-snapshot/pkg/snapshot" fixture "github.com/cerc-io/ipld-eth-state-snapshot/test" ) var ( rng = rand.New(rand.NewSource(time.Now().UnixNano())) // Note: block 1 doesn't have storage nodes. TODO: add fixtures with storage nodes // chainAblock1StateKeys = sliceToSet(fixture.ChainA_Block1_StateNodeLeafKeys) chainAblock1IpldCids = sliceToSet(fixture.ChainA_Block1_IpldCids) subtrieWorkerCases = []uint{1, 4, 8, 16, 32} ) type selectiveData struct { StateNodes map[string]*models.StateNodeModel StorageNodes map[string]map[string]*models.StorageNodeModel } func testConfig(ethdbpath, ancientdbpath string) *Config { return &Config{ Eth: &EthDBConfig{ DBPath: ethdbpath, AncientDBPath: ancientdbpath, NodeInfo: DefaultNodeInfo, }, DB: &DefaultPgConfig, } } func TestSnapshot(t *testing.T) { runCase := func(t *testing.T, workers uint) { params := SnapshotParams{Height: 1, Workers: workers} data := doSnapshot(t, fixture.ChainA, params) verify_chainAblock1(t, data) } for _, tc := range subtrieWorkerCases { t.Run(fmt.Sprintf("with %d subtries", tc), func(t *testing.T) { runCase(t, tc) }) } } func TestAccountSelectiveSnapshot(t *testing.T) { height := uint64(32) watchedAddresses, expected := watchedAccountData_chainBblock32() runCase := func(t *testing.T, workers uint) { params := SnapshotParams{ Height: height, Workers: workers, WatchedAddresses: watchedAddresses, } data := doSnapshot(t, fixture.ChainB, params) expected.verify(t, data) } for _, tc := range subtrieWorkerCases { t.Run(fmt.Sprintf("with %d subtries", tc), func(t *testing.T) { runCase(t, tc) }) } } func TestSnapshotRecovery(t *testing.T) { runCase := func(t *testing.T, workers uint, interruptAt uint) { params := SnapshotParams{Height: 1, Workers: workers} data := doSnapshotWithRecovery(t, fixture.ChainA, params, interruptAt) verify_chainAblock1(t, data) } interrupts := make([]uint, 4) for i := 0; i < len(interrupts); i++ { N := len(fixture.ChainA_Block1_StateNodeLeafKeys) interrupts[i] = uint(rand.Intn(N/2) + N/4) } for _, tc := range subtrieWorkerCases { for i, interrupt := range interrupts { t.Run( fmt.Sprintf("with %d subtries %d", tc, i), func(t *testing.T) { runCase(t, tc, interrupt) }, ) } } } func TestAccountSelectiveSnapshotRecovery(t *testing.T) { height := uint64(32) watchedAddresses, expected := watchedAccountData_chainBblock32() runCase := func(t *testing.T, workers uint, interruptAt uint) { params := SnapshotParams{ Height: height, Workers: workers, WatchedAddresses: watchedAddresses, } data := doSnapshotWithRecovery(t, fixture.ChainB, params, interruptAt) expected.verify(t, data) } for _, tc := range subtrieWorkerCases { t.Run( fmt.Sprintf("with %d subtries", tc), func(t *testing.T) { runCase(t, tc, 1) }, ) } } func verify_chainAblock1(t *testing.T, data mocks.IndexerData) { // Extract indexed keys and sort them for comparison var indexedStateKeys []string for _, stateNode := range data.StateNodes { stateKey := common.BytesToHash(stateNode.AccountWrapper.LeafKey).String() indexedStateKeys = append(indexedStateKeys, stateKey) } require.ElementsMatch(t, fixture.ChainA_Block1_StateNodeLeafKeys, indexedStateKeys) ipldCids := make(map[string]struct{}) for _, ipld := range data.IPLDs { ipldCids[ipld.CID] = struct{}{} } require.Equal(t, chainAblock1IpldCids, ipldCids) } func watchedAccountData_chainBblock32() ([]common.Address, selectiveData) { watchedAddresses := []common.Address{ // hash 0xcabc5edb305583e33f66322ceee43088aa99277da772feb5053512d03a0a702b common.HexToAddress("0x825a6eec09e44Cb0fa19b84353ad0f7858d7F61a"), // hash 0x33153abc667e873b6036c8a46bdd847e2ade3f89b9331c78ef2553fea194c50d common.HexToAddress("0x0616F59D291a898e796a1FAD044C5926ed2103eC"), } var expected selectiveData expected.StateNodes = make(map[string]*models.StateNodeModel) for _, index := range []int{0, 4} { node := &fixture.ChainB_Block32_StateNodes[index] expected.StateNodes[node.StateKey] = node } // Map account leaf keys to corresponding storage expectedStorageNodeIndexes := []struct { address common.Address indexes []int }{ {watchedAddresses[0], []int{9, 11}}, {watchedAddresses[1], []int{0, 1, 2, 4, 6}}, } expected.StorageNodes = make(map[string]map[string]*models.StorageNodeModel) for _, account := range expectedStorageNodeIndexes { leafKey := crypto.Keccak256Hash(account.address[:]).String() storageNodes := make(map[string]*models.StorageNodeModel) for _, index := range account.indexes { node := &fixture.ChainB_Block32_StorageNodes[index] storageNodes[node.StorageKey] = node } expected.StorageNodes[leafKey] = storageNodes } return watchedAddresses, expected } func (expected selectiveData) verify(t *testing.T, data mocks.IndexerData) { // check that all indexed nodes are expected and correct indexedStateKeys := make(map[string]struct{}) for _, stateNode := range data.StateNodes { stateKey := common.BytesToHash(stateNode.AccountWrapper.LeafKey).String() indexedStateKeys[stateKey] = struct{}{} require.Contains(t, expected.StateNodes, stateKey, "unexpected state node") model := expected.StateNodes[stateKey] require.Equal(t, model.CID, stateNode.AccountWrapper.CID) require.Equal(t, model.Balance, stateNode.AccountWrapper.Account.Balance.String()) require.Equal(t, model.StorageRoot, stateNode.AccountWrapper.Account.Root.String()) expectedStorage := expected.StorageNodes[stateKey] indexedStorageKeys := make(map[string]struct{}) for _, storageNode := range stateNode.StorageDiff { storageKey := common.BytesToHash(storageNode.LeafKey).String() indexedStorageKeys[storageKey] = struct{}{} require.Contains(t, expectedStorage, storageKey, "unexpected storage node") require.Equal(t, expectedStorage[storageKey].CID, storageNode.CID) require.Equal(t, expectedStorage[storageKey].Value, storageNode.Value) } // check for completeness for storageNode := range expectedStorage { require.Contains(t, indexedStorageKeys, storageNode, "missing storage node") } } // check for completeness for stateNode := range expected.StateNodes { require.Contains(t, indexedStateKeys, stateNode, "missing state node") } } func doSnapshot(t *testing.T, chain *chains.Paths, params SnapshotParams) mocks.IndexerData { chainDataPath, ancientDataPath := chain.ChainData, chain.Ancient config := testConfig(chainDataPath, ancientDataPath) edb, err := NewEthDB(config.Eth) require.NoError(t, err) defer edb.Close() idx := mocks.NewIndexer(t) recovery := filepath.Join(t.TempDir(), "recover.csv") service, err := NewSnapshotService(edb, idx, recovery) require.NoError(t, err) err = service.CreateSnapshot(params) require.NoError(t, err) return idx.IndexerData } func doSnapshotWithRecovery( t *testing.T, chain *chains.Paths, params SnapshotParams, failAfter uint, ) mocks.IndexerData { chainDataPath, ancientDataPath := chain.ChainData, chain.Ancient config := testConfig(chainDataPath, ancientDataPath) edb, err := NewEthDB(config.Eth) require.NoError(t, err) defer edb.Close() indexer := &mocks.InterruptingIndexer{ Indexer: mocks.NewIndexer(t), InterruptAfter: failAfter, } t.Logf("Will interrupt after %d state nodes", failAfter) recoveryFile := filepath.Join(t.TempDir(), "recover.csv") service, err := NewSnapshotService(edb, indexer, recoveryFile) require.NoError(t, err) err = service.CreateSnapshot(params) require.Error(t, err) require.FileExists(t, recoveryFile) // We should only have processed nodes up to the break, plus an extra node per worker require.LessOrEqual(t, len(indexer.StateNodes), int(indexer.InterruptAfter+params.Workers)) // use the nested mock indexer, to continue where it left off recoveryIndexer := indexer.Indexer service, err = NewSnapshotService(edb, recoveryIndexer, recoveryFile) require.NoError(t, err) err = service.CreateSnapshot(params) require.NoError(t, err) return recoveryIndexer.IndexerData } func sliceToSet[T comparable](slice []T) map[T]struct{} { set := make(map[T]struct{}) for _, v := range slice { set[v] = struct{}{} } return set }