package transfer import ( "database/sql" "fmt" "math/big" "testing" eth_common "github.com/ethereum/go-ethereum/common" "github.com/ethereum/go-ethereum/common/hexutil" "github.com/ethereum/go-ethereum/core/types" "github.com/status-im/status-go/services/wallet/bigint" "github.com/status-im/status-go/services/wallet/common" "github.com/status-im/status-go/services/wallet/testutils" "github.com/status-im/status-go/services/wallet/token" "github.com/stretchr/testify/require" ) type TestTransaction struct { Hash eth_common.Hash ChainID common.ChainID From eth_common.Address // [sender] Timestamp int64 BlkNumber int64 Success bool Nonce uint64 Contract eth_common.Address MultiTransactionID common.MultiTransactionIDType } type TestTransfer struct { TestTransaction To eth_common.Address // [address] Value int64 Token *token.Token } type TestCollectibleTransfer struct { TestTransfer TestCollectible } func SeedToToken(seed int) *token.Token { tokenIndex := seed % len(TestTokens) return TestTokens[tokenIndex] } func TestTrToToken(t *testing.T, tt *TestTransaction) (token *token.Token, isNative bool) { // Sanity check that none of the markers changed and they should be equal to seed require.Equal(t, tt.Timestamp, tt.BlkNumber) tokenIndex := int(tt.Timestamp) % len(TestTokens) isNative = testutils.SliceContains(NativeTokenIndices, tokenIndex) return TestTokens[tokenIndex], isNative } func generateTestTransaction(seed int) TestTransaction { token := SeedToToken(seed) return TestTransaction{ Hash: eth_common.HexToHash(fmt.Sprintf("0x1%d", seed)), ChainID: common.ChainID(token.ChainID), From: eth_common.HexToAddress(fmt.Sprintf("0x2%d", seed)), Timestamp: int64(seed), BlkNumber: int64(seed), Success: true, Nonce: uint64(seed), // In practice this is last20Bytes(Keccak256(RLP(From, nonce))) Contract: eth_common.HexToAddress(fmt.Sprintf("0x4%d", seed)), MultiTransactionID: common.NoMultiTransactionID, } } func generateTestTransfer(seed int) TestTransfer { tokenIndex := seed % len(TestTokens) token := TestTokens[tokenIndex] return TestTransfer{ TestTransaction: generateTestTransaction(seed), To: eth_common.HexToAddress(fmt.Sprintf("0x3%d", seed)), Value: int64(seed), Token: token, } } // Will be used in tests to generate a collectible transfer // nolint:unused func generateTestCollectibleTransfer(seed int) TestCollectibleTransfer { collectibleIndex := seed % len(TestCollectibles) collectible := TestCollectibles[collectibleIndex] tr := TestCollectibleTransfer{ TestTransfer: TestTransfer{ TestTransaction: generateTestTransaction(seed), To: eth_common.HexToAddress(fmt.Sprintf("0x3%d", seed)), Value: int64(seed), Token: &token.Token{ Address: collectible.TokenAddress, Name: "Collectible", ChainID: uint64(collectible.ChainID), }, }, TestCollectible: collectible, } tr.TestTransaction.ChainID = collectible.ChainID return tr } func GenerateTestSendMultiTransaction(tr TestTransfer) MultiTransaction { return MultiTransaction{ ID: multiTransactionIDGenerator(), Type: MultiTransactionSend, FromAddress: tr.From, ToAddress: tr.To, FromAsset: tr.Token.Symbol, ToAsset: tr.Token.Symbol, FromAmount: (*hexutil.Big)(big.NewInt(tr.Value)), ToAmount: (*hexutil.Big)(big.NewInt(0)), Timestamp: uint64(tr.Timestamp), } } func GenerateTestSwapMultiTransaction(tr TestTransfer, toToken string, toAmount int64) MultiTransaction { return MultiTransaction{ ID: multiTransactionIDGenerator(), Type: MultiTransactionSwap, FromAddress: tr.From, ToAddress: tr.To, FromAsset: tr.Token.Symbol, ToAsset: toToken, FromAmount: (*hexutil.Big)(big.NewInt(tr.Value)), ToAmount: (*hexutil.Big)(big.NewInt(toAmount)), Timestamp: uint64(tr.Timestamp), } } func GenerateTestBridgeMultiTransaction(fromTr, toTr TestTransfer) MultiTransaction { return MultiTransaction{ ID: multiTransactionIDGenerator(), Type: MultiTransactionBridge, FromAddress: fromTr.From, ToAddress: toTr.To, FromAsset: fromTr.Token.Symbol, ToAsset: toTr.Token.Symbol, FromAmount: (*hexutil.Big)(big.NewInt(fromTr.Value)), ToAmount: (*hexutil.Big)(big.NewInt(toTr.Value)), Timestamp: uint64(fromTr.Timestamp), } } func GenerateTestApproveMultiTransaction(tr TestTransfer) MultiTransaction { return MultiTransaction{ ID: multiTransactionIDGenerator(), Type: MultiTransactionApprove, FromAddress: tr.From, ToAddress: tr.To, FromAsset: tr.Token.Symbol, ToAsset: tr.Token.Symbol, FromAmount: (*hexutil.Big)(big.NewInt(tr.Value)), ToAmount: (*hexutil.Big)(big.NewInt(0)), Timestamp: uint64(tr.Timestamp), } } // GenerateTestTransfers will generate transaction based on the TestTokens index and roll over if there are more than // len(TestTokens) transactions func GenerateTestTransfers(tb testing.TB, db *sql.DB, firstStartIndex int, count int) (result []TestTransfer, fromAddresses, toAddresses []eth_common.Address) { for i := firstStartIndex; i < (firstStartIndex + count); i++ { tr := generateTestTransfer(i) fromAddresses = append(fromAddresses, tr.From) toAddresses = append(toAddresses, tr.To) result = append(result, tr) } return } type TestCollectible struct { TokenAddress eth_common.Address TokenID *big.Int ChainID common.ChainID } var TestCollectibles = []TestCollectible{ TestCollectible{ TokenAddress: eth_common.HexToAddress("0x97a04fda4d97c6e3547d66b572e29f4a4ff40392"), TokenID: big.NewInt(1), ChainID: 1, }, TestCollectible{ // Same token ID as above but different address TokenAddress: eth_common.HexToAddress("0x2cec8879915cdbd80c88d8b1416aa9413a24ddfa"), TokenID: big.NewInt(1), ChainID: 1, }, TestCollectible{ // TokenID (big.Int) value 0 might be problematic if not handled properly TokenAddress: eth_common.HexToAddress("0x97a04fda4d97c6e3547d66b572e29f4a4ff4ABCD"), TokenID: big.NewInt(0), ChainID: 420, }, TestCollectible{ TokenAddress: eth_common.HexToAddress("0x1dea7a3e04849840c0eb15fd26a55f6c40c4a69b"), TokenID: big.NewInt(11), ChainID: 5, }, TestCollectible{ // Same address as above but different token ID TokenAddress: eth_common.HexToAddress("0x1dea7a3e04849840c0eb15fd26a55f6c40c4a69b"), TokenID: big.NewInt(12), ChainID: 5, }, } var EthMainnet = token.Token{ Address: eth_common.HexToAddress("0x"), Name: "Ether", Symbol: "ETH", ChainID: 1, } var EthSepolia = token.Token{ Address: eth_common.HexToAddress("0x"), Name: "Ether", Symbol: "ETH", ChainID: 11155111, } var EthOptimism = token.Token{ Address: eth_common.HexToAddress("0x"), Name: "Ether", Symbol: "ETH", ChainID: 10, } var UsdcMainnet = token.Token{ Address: eth_common.HexToAddress("0xa0b86991c6218b36c1d19d4a2e9eb0ce3606eb48"), Name: "USD Coin", Symbol: "USDC", ChainID: 1, } var UsdcSepolia = token.Token{ Address: eth_common.HexToAddress("0x1c7D4B196Cb0C7B01d743Fbc6116a902379C7238"), Name: "USD Coin", Symbol: "USDC", Decimals: 6, ChainID: 11155111, } var UsdcOptimism = token.Token{ Address: eth_common.HexToAddress("0x7f5c764cbc14f9669b88837ca1490cca17c31607"), Name: "USD Coin", Symbol: "USDC", ChainID: 10, } var SntMainnet = token.Token{ Address: eth_common.HexToAddress("0x744d70fdbe2ba4cf95131626614a1763df805b9e"), Name: "Status Network Token", Symbol: "SNT", ChainID: 1, } var DaiMainnet = token.Token{ Address: eth_common.HexToAddress("0xf2edF1c091f683E3fb452497d9a98A49cBA84666"), Name: "DAI Stablecoin", Symbol: "DAI", ChainID: 5, } var DaiSepolia = token.Token{ Address: eth_common.HexToAddress("0x3e622317f8c93f7328350cf0b56d9ed4c620c5d6"), Name: "DAI Stablecoin", Symbol: "DAI", Decimals: 18, ChainID: 11155111, } // TestTokens contains ETH/Mainnet, ETH/Sepolia, ETH/Optimism, USDC/Mainnet, USDC/Sepolia, USDC/Optimism, SNT/Mainnet, DAI/Mainnet, DAI/Sepolia var TestTokens = []*token.Token{ &EthMainnet, &EthSepolia, &EthOptimism, &UsdcMainnet, &UsdcSepolia, &UsdcOptimism, &SntMainnet, &DaiMainnet, &DaiSepolia, } func LookupTokenIdentity(chainID uint64, address eth_common.Address, native bool) *token.Token { for _, token := range TestTokens { if token.ChainID == chainID && token.Address == address && token.IsNative() == native { return token } } return nil } var NativeTokenIndices = []int{0, 1, 2} func InsertTestTransfer(tb testing.TB, db *sql.DB, address eth_common.Address, tr *TestTransfer) { token := TestTokens[int(tr.Timestamp)%len(TestTokens)] InsertTestTransferWithOptions(tb, db, address, tr, &TestTransferOptions{ TokenAddress: token.Address, }) } type TestTransferOptions struct { TokenAddress eth_common.Address TokenID *big.Int NullifyAddresses []eth_common.Address Tx *types.Transaction Receipt *types.Receipt } func GenerateTxField(data []byte) *types.Transaction { return types.NewTx(&types.DynamicFeeTx{ Data: data, }) } func InsertTestTransferWithOptions(tb testing.TB, db *sql.DB, address eth_common.Address, tr *TestTransfer, opt *TestTransferOptions) { var ( tx *sql.Tx ) tx, err := db.Begin() require.NoError(tb, err) defer func() { if err == nil { err = tx.Commit() return } _ = tx.Rollback() }() blkHash := eth_common.HexToHash("4") block := blockDBFields{ chainID: uint64(tr.ChainID), account: address, blockNumber: big.NewInt(tr.BlkNumber), blockHash: blkHash, } // Respect `FOREIGN KEY(network_id,address,blk_hash)` of `transfers` table err = insertBlockDBFields(tx, block) require.NoError(tb, err) receiptStatus := uint64(0) if tr.Success { receiptStatus = 1 } tokenType := "eth" if (opt.TokenAddress != eth_common.Address{}) { if opt.TokenID == nil { tokenType = "erc20" } else { tokenType = "erc721" } } // Workaround to simulate writing of NULL values for addresses txTo := &tr.To txFrom := &tr.From for i := 0; i < len(opt.NullifyAddresses); i++ { if opt.NullifyAddresses[i] == tr.To { txTo = nil } if opt.NullifyAddresses[i] == tr.From { txFrom = nil } } transfer := transferDBFields{ chainID: uint64(tr.ChainID), id: tr.Hash, txHash: &tr.Hash, address: address, blockHash: blkHash, blockNumber: big.NewInt(tr.BlkNumber), sender: tr.From, transferType: common.Type(tokenType), timestamp: uint64(tr.Timestamp), multiTransactionID: tr.MultiTransactionID, baseGasFees: "0x0", receiptStatus: &receiptStatus, txValue: big.NewInt(tr.Value), txFrom: txFrom, txTo: txTo, txNonce: &tr.Nonce, tokenAddress: &opt.TokenAddress, contractAddress: &tr.Contract, tokenID: opt.TokenID, transaction: opt.Tx, receipt: opt.Receipt, } err = updateOrInsertTransfersDBFields(tx, []transferDBFields{transfer}) require.NoError(tb, err) } func InsertTestPendingTransaction(tb testing.TB, db *sql.DB, tr *TestTransfer) { _, err := db.Exec(` INSERT INTO pending_transactions (network_id, hash, timestamp, from_address, to_address, symbol, gas_price, gas_limit, value, data, type, additional_data, multi_transaction_id ) VALUES (?, ?, ?, ?, ?, 'ETH', 0, 0, ?, '', 'eth', '', ?)`, tr.ChainID, tr.Hash, tr.Timestamp, tr.From, tr.To, (*bigint.SQLBigIntBytes)(big.NewInt(tr.Value)), tr.MultiTransactionID) require.NoError(tb, err) } func InsertTestMultiTransaction(tb testing.TB, db *sql.DB, tr *MultiTransaction) common.MultiTransactionIDType { if tr.FromAsset == "" { tr.FromAsset = testutils.EthSymbol } if tr.ToAsset == "" { tr.ToAsset = testutils.EthSymbol } tr.ID = multiTransactionIDGenerator() multiTxDB := NewMultiTransactionDB(db) err := multiTxDB.CreateMultiTransaction(tr) require.NoError(tb, err) return tr.ID } // For using in tests only outside the package func SaveTransfersMarkBlocksLoaded(database *Database, chainID uint64, address eth_common.Address, transfers []Transfer, blocks []*big.Int) error { return saveTransfersMarkBlocksLoaded(database.client, chainID, address, transfers, blocks) } func SetMultiTransactionIDGenerator(f func() common.MultiTransactionIDType) { multiTransactionIDGenerator = f } func StaticIDCounter() (f func() common.MultiTransactionIDType) { var i int f = func() common.MultiTransactionIDType { i++ return common.MultiTransactionIDType(i) } return } type InMemMultiTransactionStorage struct { storage map[common.MultiTransactionIDType]*MultiTransaction } func NewInMemMultiTransactionStorage() *InMemMultiTransactionStorage { return &InMemMultiTransactionStorage{ storage: make(map[common.MultiTransactionIDType]*MultiTransaction), } } func (s *InMemMultiTransactionStorage) CreateMultiTransaction(multiTx *MultiTransaction) error { s.storage[multiTx.ID] = multiTx return nil } func (s *InMemMultiTransactionStorage) GetMultiTransaction(id common.MultiTransactionIDType) (*MultiTransaction, error) { multiTx, ok := s.storage[id] if !ok { return nil, nil } return multiTx, nil } func (s *InMemMultiTransactionStorage) UpdateMultiTransaction(multiTx *MultiTransaction) error { s.storage[multiTx.ID] = multiTx return nil } func (s *InMemMultiTransactionStorage) DeleteMultiTransaction(id common.MultiTransactionIDType) error { delete(s.storage, id) return nil } func (s *InMemMultiTransactionStorage) ReadMultiTransactions(details *MultiTxDetails) ([]*MultiTransaction, error) { var multiTxs []*MultiTransaction for _, multiTx := range s.storage { if len(details.IDs) > 0 && !testutils.SliceContains(details.IDs, multiTx.ID) { continue } if (details.AnyAddress != eth_common.Address{}) && (multiTx.FromAddress != details.AnyAddress && multiTx.ToAddress != details.AnyAddress) { continue } if (details.FromAddress != eth_common.Address{}) && multiTx.FromAddress != details.FromAddress { continue } if (details.ToAddress != eth_common.Address{}) && multiTx.ToAddress != details.ToAddress { continue } if details.ToChainID != 0 && multiTx.ToNetworkID != details.ToChainID { continue } if details.Type != MultiTransactionDBTypeInvalid && multiTx.Type != mtDBTypeToMTType(details.Type) { continue } if details.CrossTxID != "" && multiTx.CrossTxID != details.CrossTxID { continue } multiTxs = append(multiTxs, multiTx) } return multiTxs, nil }