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package synchronizer
import (
"context"
"database/sql"
"fmt"
"math/big"
"github.com/ethereum/go-ethereum"
"github.com/hermeznetwork/hermez-node/common"
"github.com/hermeznetwork/hermez-node/db/historydb"
"github.com/hermeznetwork/hermez-node/db/statedb"
"github.com/hermeznetwork/hermez-node/eth"
"github.com/hermeznetwork/hermez-node/log"
)
var (
// ErrNotAbleToSync is used when there is not possible to find a valid block to sync
// ErrNotAbleToSync = errors.New("it has not been possible to synchronize any block")
)
// // SyncronizerState describes the synchronization progress of the smart contracts
// type SyncronizerState struct {
// LastUpdate time.Time // last time this information was updated
// CurrentBatchNum BatchNum // Last batch that was forged on the blockchain
// CurrentBlockNum uint64 // Last block that was mined on Ethereum
// CurrentToForgeL1TxsNum uint32
// LastSyncedBatchNum BatchNum // last batch synchronized by the coordinator
// LastSyncedBlockNum uint64 // last Ethereum block synchronized by the coordinator
// LastSyncedToForgeL1TxsNum uint32
// }
// // SyncStatus is returned by the Status method of the Synchronizer
// type SyncStatus struct {
// CurrentBlock int64
// CurrentBatch BatchNum
// CurrentForgerAddr ethCommon.Address
// NextForgerAddr ethCommon.Address
// Synchronized bool
// }
// ConfigStartBlockNum sets the first block used to start tracking the smart
// contracts
type ConfigStartBlockNum struct {
Rollup int64 `validate:"required"`
Auction int64 `validate:"required"`
WDelayer int64 `validate:"required"`
}
// SCVariables joins all the smart contract variables in a single struct
type SCVariables struct {
Rollup common.RollupVariables `validate:"required"`
Auction common.AuctionVariables `validate:"required"`
WDelayer common.WDelayerVariables `validate:"required"`
}
// Config is the Synchronizer configuration
type Config struct {
StartBlockNum ConfigStartBlockNum
InitialVariables SCVariables
}
// Synchronizer implements the Synchronizer type
type Synchronizer struct {
ethClient eth.ClientInterface
auctionConstants common.AuctionConstants
rollupConstants common.RollupConstants
wDelayerConstants common.WDelayerConstants
historyDB *historydb.HistoryDB
stateDB *statedb.StateDB
cfg Config
startBlockNum int64
vars SCVariables
// firstSavedBlock *common.Block
// mux sync.Mutex
}
// NewSynchronizer creates a new Synchronizer
func NewSynchronizer(ethClient eth.ClientInterface, historyDB *historydb.HistoryDB,
stateDB *statedb.StateDB, cfg Config) (*Synchronizer, error) {
auctionConstants, err := ethClient.AuctionConstants()
if err != nil {
log.Errorw("NewSynchronizer ethClient.AuctionConstants()", "err", err)
return nil, err
}
rollupConstants, err := ethClient.RollupConstants()
if err != nil {
log.Errorw("NewSynchronizer ethClient.RollupConstants()", "err", err)
return nil, err
}
wDelayerConstants, err := ethClient.WDelayerConstants()
if err != nil {
log.Errorw("NewSynchronizer ethClient.WDelayerConstants()", "err", err)
return nil, err
}
// Set startBlockNum to the minimum between Auction, Rollup and
// WDelayer StartBlockNum
startBlockNum := cfg.StartBlockNum.Auction
if startBlockNum < cfg.StartBlockNum.Rollup {
startBlockNum = cfg.StartBlockNum.Rollup
}
if startBlockNum < cfg.StartBlockNum.WDelayer {
startBlockNum = cfg.StartBlockNum.WDelayer
}
s := &Synchronizer{
ethClient: ethClient,
auctionConstants: *auctionConstants,
rollupConstants: *rollupConstants,
wDelayerConstants: *wDelayerConstants,
historyDB: historyDB,
stateDB: stateDB,
cfg: cfg,
startBlockNum: startBlockNum,
}
return s, s.init()
}
// AuctionConstants returns the AuctionConstants read from the smart contract
func (s *Synchronizer) AuctionConstants() *common.AuctionConstants {
return &s.auctionConstants
}
// RollupConstants returns the RollupConstants read from the smart contract
func (s *Synchronizer) RollupConstants() *common.RollupConstants {
return &s.rollupConstants
}
// WDelayerConstants returns the WDelayerConstants read from the smart contract
func (s *Synchronizer) WDelayerConstants() *common.WDelayerConstants {
return &s.wDelayerConstants
}
func (s *Synchronizer) init() error {
rollup, auction, wDelayer, err := s.historyDB.GetSCVars()
if err == sql.ErrNoRows {
rollup = &s.cfg.InitialVariables.Rollup
auction = &s.cfg.InitialVariables.Auction
wDelayer = &s.cfg.InitialVariables.WDelayer
log.Debug("Setting initial SCVars in HistoryDB")
if err = s.historyDB.SetInitialSCVars(rollup, auction, wDelayer); err != nil {
return err
}
}
s.vars.Rollup = *rollup
s.vars.Auction = *auction
s.vars.WDelayer = *wDelayer
return nil
}
// Sync2 attems to synchronize an ethereum block starting from lastSavedBlock.
// If lastSavedBlock is nil, the lastSavedBlock value is obtained from de DB.
// If a block is synched, it will be returned and also stored in the DB. If a
// reorg is detected, the number of discarded blocks will be returned and no
// synchronization will be made.
// TODO: Be smart about locking: only lock during the read/write operations
func (s *Synchronizer) Sync2(ctx context.Context, lastSavedBlock *common.Block) (*common.BlockData, *int64, error) {
var nextBlockNum int64 // next block number to sync
if lastSavedBlock == nil {
var err error
// Get lastSavedBlock from History DB
lastSavedBlock, err = s.historyDB.GetLastBlock()
if err != nil && err != sql.ErrNoRows {
return nil, nil, err
}
// If we don't have any stored block, we must do a full sync
// starting from the startBlockNum
if err == sql.ErrNoRows || lastSavedBlock.EthBlockNum == 0 {
nextBlockNum = s.startBlockNum
lastSavedBlock = nil
}
}
if lastSavedBlock != nil {
nextBlockNum = lastSavedBlock.EthBlockNum + 1
}
ethBlock, err := s.ethClient.EthBlockByNumber(ctx, nextBlockNum)
if err == ethereum.NotFound {
return nil, nil, nil
} else if err != nil {
return nil, nil, err
}
log.Debugf("ethBlock: num: %v, parent: %v, hash: %v", ethBlock.EthBlockNum, ethBlock.ParentHash.String(), ethBlock.Hash.String())
log.Debugw("Syncing...", "block", nextBlockNum)
// Check that the obtianed ethBlock.ParentHash == prevEthBlock.Hash; if not, reorg!
if lastSavedBlock != nil {
if lastSavedBlock.Hash != ethBlock.ParentHash {
// Reorg detected
log.Debugw("Reorg Detected",
"blockNum", ethBlock.EthBlockNum,
"block.parent(got)", ethBlock.ParentHash, "parent.hash(exp)", lastSavedBlock.Hash)
lastDBBlockNum, err := s.reorg(lastSavedBlock)
if err != nil {
return nil, nil, err
}
discarded := lastSavedBlock.EthBlockNum - lastDBBlockNum
return nil, &discarded, nil
}
}
// Get data from the rollup contract
rollupData, err := s.rollupSync(ethBlock)
if err != nil {
return nil, nil, err
}
// Get data from the auction contract
auctionData, err := s.auctionSync(ethBlock)
if err != nil {
return nil, nil, err
}
// Get data from the WithdrawalDelayer contract
wDelayerData, err := s.wdelayerSync(ethBlock)
if err != nil {
return nil, nil, err
}
for i := range rollupData.Withdrawals {
withdrawal := &rollupData.Withdrawals[i]
if !withdrawal.InstantWithdraw {
wDelayerTransfer, ok := wDelayerData.DepositsByTxHash[withdrawal.TxHash]
if !ok {
return nil, nil, fmt.Errorf("WDelayer deposit corresponding to " +
"non-instant rollup withdrawal not found")
}
withdrawal.Owner = wDelayerTransfer.Owner
withdrawal.Token = wDelayerTransfer.Token
}
}
// Group all the block data into the structs to save into HistoryDB
blockData := common.BlockData{
Block: *ethBlock,
Rollup: *rollupData,
Auction: *auctionData,
WDelayer: *wDelayerData,
}
// log.Debugw("Sync()", "block", blockData)
// err = s.historyDB.AddBlock(blockData.Block)
// if err != nil {
// return err
// }
err = s.historyDB.AddBlockSCData(&blockData)
if err != nil {
return nil, nil, err
}
return &blockData, nil, nil
}
// reorg manages a reorg, updating History and State DB as needed. Keeps
// checking previous blocks from the HistoryDB against the blockchain until a
// block hash match is found. All future blocks in the HistoryDB and
// corresponding batches in StateBD are discarded. Returns the last valid
// blockNum from the HistoryDB.
func (s *Synchronizer) reorg(uncleBlock *common.Block) (int64, error) {
blockNum := uncleBlock.EthBlockNum
for blockNum >= s.startBlockNum {
ethBlock, err := s.ethClient.EthBlockByNumber(context.Background(), blockNum)
if err != nil {
return 0, err
}
block, err := s.historyDB.GetBlock(blockNum)
if err != nil {
return 0, err
}
if block.Hash == ethBlock.Hash {
log.Debugf("Found valid block: %v", blockNum)
break
}
blockNum--
}
total := uncleBlock.EthBlockNum - blockNum
log.Debugw("Discarding blocks", "total", total, "from", uncleBlock.EthBlockNum, "to", blockNum+1)
// Set History DB and State DB to the correct state
err := s.historyDB.Reorg(blockNum)
if err != nil {
return 0, err
}
batchNum, err := s.historyDB.GetLastBatchNum()
if err != nil && err != sql.ErrNoRows {
return 0, err
}
if batchNum != 0 {
err = s.stateDB.Reset(batchNum)
if err != nil {
return 0, err
}
}
return blockNum, nil
}
// TODO: Figure out who will use the Status output, and only return what's strictly need
/*
// Status returns current status values from the Synchronizer
func (s *Synchronizer) Status() (*common.SyncStatus, error) {
// Avoid possible inconsistencies
s.mux.Lock()
defer s.mux.Unlock()
var status *common.SyncStatus
// TODO: Join all queries to the DB into a single transaction so that
// we can remove the mutex locking here:
// - HistoryDB.GetLastBlock
// - HistoryDB.GetLastBatchNum
// - HistoryDB.GetCurrentForgerAddr
// - HistoryDB.GetNextForgerAddr
// Get latest block in History DB
lastSavedBlock, err := s.historyDB.GetLastBlock()
if err != nil {
return nil, err
}
status.CurrentBlock = lastSavedBlock.EthBlockNum
// Get latest batch in History DB
lastSavedBatch, err := s.historyDB.GetLastBatchNum()
if err != nil && err != sql.ErrNoRows {
return nil, err
}
status.CurrentBatch = lastSavedBatch
// Get latest blockNum in blockchain
latestBlockNum, err := s.ethClient.EthCurrentBlock()
if err != nil {
return nil, err
}
// TODO: Get CurrentForgerAddr & NextForgerAddr from the Auction SC / Or from the HistoryDB
// Check if Synchronizer is synchronized
status.Synchronized = status.CurrentBlock == latestBlockNum
return status, nil
}
*/
// rollupSync retreives all the Rollup Smart Contract Data that happened at
// ethBlock.blockNum with ethBlock.Hash.
func (s *Synchronizer) rollupSync(ethBlock *common.Block) (*common.RollupData, error) {
blockNum := ethBlock.EthBlockNum
var rollupData = common.NewRollupData()
// var forgeL1TxsNum int64
// Get rollup events in the block, and make sure the block hash matches
// the expected one.
rollupEvents, blockHash, err := s.ethClient.RollupEventsByBlock(blockNum)
if err != nil {
return nil, err
}
// No events in this block
if blockHash == nil {
return &rollupData, nil
}
if *blockHash != ethBlock.Hash {
log.Errorw("Block hash mismatch in Rollup events", "expected", ethBlock.Hash.String(),
"got", blockHash.String())
return nil, eth.ErrBlockHashMismatchEvent
}
var nextForgeL1TxsNum int64 // forgeL1TxsNum for the next L1Batch
nextForgeL1TxsNumPtr, err := s.historyDB.GetLastL1TxsNum()
if err != nil {
return nil, err
}
if nextForgeL1TxsNumPtr != nil {
nextForgeL1TxsNum = *nextForgeL1TxsNumPtr + 1
} else {
nextForgeL1TxsNum = 0
}
// Get L1UserTX
rollupData.L1UserTxs, err = getL1UserTx(rollupEvents.L1UserTx, blockNum)
if err != nil {
return nil, err
}
// Get ForgeBatch events to get the L1CoordinatorTxs
for _, evtForgeBatch := range rollupEvents.ForgeBatch {
batchData := common.NewBatchData()
position := 0
// Get the input for each Tx
forgeBatchArgs, sender, err := s.ethClient.RollupForgeBatchArgs(evtForgeBatch.EthTxHash)
if err != nil {
return nil, err
}
batchNum := common.BatchNum(evtForgeBatch.BatchNum)
var l1UserTxs []common.L1Tx
// Check if this is a L1Batch to get L1 Tx from it
if forgeBatchArgs.L1Batch {
// Get L1UserTxs with toForgeL1TxsNum, which correspond
// to the L1UserTxs that are forged in this batch, so
// that stateDB can process them.
// First try to find them in HistoryDB.
l1UserTxs, err = s.historyDB.GetL1UserTxs(nextForgeL1TxsNum)
if err != nil {
return nil, err
}
// Apart from the DB, try to find them in this block.
// This could happen because in a block there could be
// multiple batches with L1Batch = true (although it's
// a very rare case). If not found in the DB and the
// block doesn't contain the l1UserTxs, it means that
// the L1UserTxs queue with toForgeL1TxsNum was closed
// empty, so we leave `l1UserTxs` as an empty slice.
for _, l1UserTx := range rollupData.L1UserTxs {
if *l1UserTx.ToForgeL1TxsNum == nextForgeL1TxsNum {
l1UserTxs = append(l1UserTxs, l1UserTx)
}
}
position = len(l1UserTxs)
}
// Get L1 Coordinator Txs
for i := range forgeBatchArgs.L1CoordinatorTxs {
l1CoordinatorTx := forgeBatchArgs.L1CoordinatorTxs[i]
l1CoordinatorTx.Position = position
// l1CoordinatorTx.ToForgeL1TxsNum = &forgeL1TxsNum
l1CoordinatorTx.UserOrigin = false
l1CoordinatorTx.EthBlockNum = blockNum
l1CoordinatorTx.BatchNum = &batchNum
l1Tx, err := common.NewL1Tx(&l1CoordinatorTx)
if err != nil {
return nil, err
}
batchData.L1CoordinatorTxs = append(batchData.L1CoordinatorTxs, *l1Tx)
position++
// fmt.Println("DGB l1coordtx")
}
// Insert all the txs forged in this batch (l1UserTxs,
// L1CoordinatorTxs, PoolL2Txs) into stateDB so that they are
// processed.
poolL2Txs := common.L2TxsToPoolL2Txs(forgeBatchArgs.L2TxsData) // NOTE: This is a big ugly, find a better way
// ProcessTxs updates poolL2Txs adding: Nonce (and also TokenID, but we don't use it).
processTxsOut, err := s.stateDB.ProcessTxs(forgeBatchArgs.FeeIdxCoordinator, l1UserTxs,
batchData.L1CoordinatorTxs, poolL2Txs)
if err != nil {
return nil, err
}
// Set batchNum in exits
for i := range processTxsOut.ExitInfos {
exit := &processTxsOut.ExitInfos[i]
exit.BatchNum = batchNum
}
batchData.ExitTree = processTxsOut.ExitInfos
l2Txs, err := common.PoolL2TxsToL2Txs(poolL2Txs) // NOTE: This is a big uggly, find a better way
if err != nil {
return nil, err
}
for i := range l2Txs {
tx := &l2Txs[i]
tx.Position = position
tx.EthBlockNum = blockNum
tx.BatchNum = batchNum
nTx, err := common.NewL2Tx(tx)
if err != nil {
return nil, err
}
batchData.L2Txs = append(batchData.L2Txs, *nTx)
position++
}
for i := range processTxsOut.CreatedAccounts {
createdAccount := &processTxsOut.CreatedAccounts[i]
createdAccount.Nonce = 0
createdAccount.Balance = big.NewInt(0)
createdAccount.BatchNum = batchNum
}
batchData.CreatedAccounts = processTxsOut.CreatedAccounts
slotNum := int64(0)
if ethBlock.EthBlockNum >= s.auctionConstants.GenesisBlockNum {
slotNum = (ethBlock.EthBlockNum - s.auctionConstants.GenesisBlockNum) /
int64(s.auctionConstants.BlocksPerSlot)
}
// Get Batch information
batch := common.Batch{
BatchNum: batchNum,
EthBlockNum: blockNum,
ForgerAddr: *sender,
CollectedFees: processTxsOut.CollectedFees,
FeeIdxsCoordinator: forgeBatchArgs.FeeIdxCoordinator,
StateRoot: forgeBatchArgs.NewStRoot,
NumAccounts: len(batchData.CreatedAccounts),
LastIdx: forgeBatchArgs.NewLastIdx,
ExitRoot: forgeBatchArgs.NewExitRoot,
SlotNum: slotNum,
}
nextForgeL1TxsNumCpy := nextForgeL1TxsNum
if forgeBatchArgs.L1Batch {
batch.ForgeL1TxsNum = &nextForgeL1TxsNumCpy
batchData.L1Batch = true
nextForgeL1TxsNum++
}
batchData.Batch = batch
rollupData.Batches = append(rollupData.Batches, *batchData)
}
// Get Registered Tokens
for _, evtAddToken := range rollupEvents.AddToken {
var token common.Token
token.TokenID = common.TokenID(evtAddToken.TokenID)
token.EthAddr = evtAddToken.TokenAddress
token.EthBlockNum = blockNum
if consts, err := s.ethClient.EthERC20Consts(evtAddToken.TokenAddress); err != nil {
log.Warnw("Error retreiving ERC20 token constants", "addr", evtAddToken.TokenAddress)
token.Name = "ERC20_ETH_ERROR"
token.Symbol = "ERROR"
token.Decimals = 1
} else {
token.Name = cutStringMax(consts.Name, 20)
token.Symbol = cutStringMax(consts.Symbol, 10)
token.Decimals = consts.Decimals
}
rollupData.AddedTokens = append(rollupData.AddedTokens, token)
}
varsUpdate := false
for _, evtUpdateForgeL1L2BatchTimeout := range rollupEvents.UpdateForgeL1L2BatchTimeout {
s.vars.Rollup.ForgeL1L2BatchTimeout = evtUpdateForgeL1L2BatchTimeout.NewForgeL1L2BatchTimeout
varsUpdate = true
}
for _, evtUpdateFeeAddToken := range rollupEvents.UpdateFeeAddToken {
s.vars.Rollup.FeeAddToken = evtUpdateFeeAddToken.NewFeeAddToken
varsUpdate = true
}
// NOTE: WithdrawDelay update doesn't have event, so we can't track changes
// NOTE: Buckets update dones't have event, so we can't track changes
for _, evtWithdraw := range rollupEvents.Withdraw {
rollupData.Withdrawals = append(rollupData.Withdrawals, common.WithdrawInfo{
Idx: common.Idx(evtWithdraw.Idx),
NumExitRoot: common.BatchNum(evtWithdraw.NumExitRoot),
InstantWithdraw: evtWithdraw.InstantWithdraw,
TxHash: evtWithdraw.TxHash,
})
}
if varsUpdate {
s.vars.Rollup.EthBlockNum = blockNum
rollupData.Vars = &s.vars.Rollup
}
return &rollupData, nil
}
func cutStringMax(s string, max int) string {
if len(s) > max {
return s[:max]
}
return s
}
// auctionSync gets information from the Auction Contract
func (s *Synchronizer) auctionSync(ethBlock *common.Block) (*common.AuctionData, error) {
blockNum := ethBlock.EthBlockNum
var auctionData = common.NewAuctionData()
// Get auction events in the block
auctionEvents, blockHash, err := s.ethClient.AuctionEventsByBlock(blockNum)
if err != nil {
return nil, err
}
// No events in this block
if blockHash == nil {
return &auctionData, nil
}
if *blockHash != ethBlock.Hash {
log.Errorw("Block hash mismatch in Auction events", "expected", ethBlock.Hash.String(),
"got", blockHash.String())
return nil, eth.ErrBlockHashMismatchEvent
}
// Get bids
for _, evtNewBid := range auctionEvents.NewBid {
bid := common.Bid{
SlotNum: evtNewBid.Slot,
BidValue: evtNewBid.BidAmount,
Bidder: evtNewBid.Bidder,
EthBlockNum: blockNum,
}
auctionData.Bids = append(auctionData.Bids, bid)
}
// Get Coordinators
for _, evtSetCoordinator := range auctionEvents.SetCoordinator {
coordinator := common.Coordinator{
Bidder: evtSetCoordinator.BidderAddress,
Forger: evtSetCoordinator.ForgerAddress,
URL: evtSetCoordinator.CoordinatorURL,
}
auctionData.Coordinators = append(auctionData.Coordinators, coordinator)
}
varsUpdate := false
for _, evt := range auctionEvents.NewSlotDeadline {
s.vars.Auction.SlotDeadline = evt.NewSlotDeadline
varsUpdate = true
}
for _, evt := range auctionEvents.NewClosedAuctionSlots {
s.vars.Auction.ClosedAuctionSlots = evt.NewClosedAuctionSlots
varsUpdate = true
}
for _, evt := range auctionEvents.NewOutbidding {
s.vars.Auction.Outbidding = evt.NewOutbidding
varsUpdate = true
}
for _, evt := range auctionEvents.NewDonationAddress {
s.vars.Auction.DonationAddress = evt.NewDonationAddress
varsUpdate = true
}
for _, evt := range auctionEvents.NewBootCoordinator {
s.vars.Auction.BootCoordinator = evt.NewBootCoordinator
varsUpdate = true
}
for _, evt := range auctionEvents.NewOpenAuctionSlots {
s.vars.Auction.OpenAuctionSlots = evt.NewOpenAuctionSlots
varsUpdate = true
}
for _, evt := range auctionEvents.NewAllocationRatio {
s.vars.Auction.AllocationRatio = evt.NewAllocationRatio
varsUpdate = true
}
for _, evt := range auctionEvents.NewDefaultSlotSetBid {
if evt.SlotSet > 6 { //nolint:gomnd
return nil, fmt.Errorf("unexpected SlotSet in "+
"auctionEvents.NewDefaultSlotSetBid: %v", evt.SlotSet)
}
s.vars.Auction.DefaultSlotSetBid[evt.SlotSet] = evt.NewInitialMinBid
varsUpdate = true
}
// NOTE: We ignore NewForgeAllocated
// NOTE: We ignore NewForge because we're already tracking ForgeBatch event from Rollup
// NOTE: We ignore HEZClaimed
if varsUpdate {
s.vars.Auction.EthBlockNum = blockNum
auctionData.Vars = &s.vars.Auction
}
return &auctionData, nil
}
// wdelayerSync gets information from the Withdrawal Delayer Contract
func (s *Synchronizer) wdelayerSync(ethBlock *common.Block) (*common.WDelayerData, error) {
blockNum := ethBlock.EthBlockNum
wDelayerData := common.NewWDelayerData()
// Get wDelayer events in the block
wDelayerEvents, blockHash, err := s.ethClient.WDelayerEventsByBlock(blockNum)
if err != nil {
return nil, err
}
// No events in this block
if blockHash == nil {
return &wDelayerData, nil
}
if *blockHash != ethBlock.Hash {
log.Errorw("Block hash mismatch in WDelayer events", "expected", ethBlock.Hash.String(),
"got", blockHash.String())
return nil, eth.ErrBlockHashMismatchEvent
}
for _, evt := range wDelayerEvents.Deposit {
wDelayerData.Deposits = append(wDelayerData.Deposits, common.WDelayerTransfer{
Owner: evt.Owner,
Token: evt.Token,
Amount: evt.Amount,
})
wDelayerData.DepositsByTxHash[evt.TxHash] =
&wDelayerData.Deposits[len(wDelayerData.Deposits)-1]
}
for _, evt := range wDelayerEvents.Withdraw {
wDelayerData.Withdrawals = append(wDelayerData.Withdrawals, common.WDelayerTransfer{
Owner: evt.Owner,
Token: evt.Token,
Amount: evt.Amount,
})
}
varsUpdate := false
// TODO EscapeHatchWithdrawal
for range wDelayerEvents.EmergencyModeEnabled {
s.vars.WDelayer.EmergencyMode = true
varsUpdate = true
}
for _, evt := range wDelayerEvents.NewWithdrawalDelay {
s.vars.WDelayer.WithdrawalDelay = evt.WithdrawalDelay
varsUpdate = true
}
for _, evt := range wDelayerEvents.NewHermezKeeperAddress {
s.vars.WDelayer.HermezKeeperAddress = evt.NewHermezKeeperAddress
varsUpdate = true
}
for _, evt := range wDelayerEvents.NewWhiteHackGroupAddress {
s.vars.WDelayer.WhiteHackGroupAddress = evt.NewWhiteHackGroupAddress
varsUpdate = true
}
for _, evt := range wDelayerEvents.NewHermezGovernanceDAOAddress {
s.vars.WDelayer.HermezGovernanceDAOAddress = evt.NewHermezGovernanceDAOAddress
varsUpdate = true
}
if varsUpdate {
s.vars.WDelayer.EthBlockNum = blockNum
wDelayerData.Vars = &s.vars.WDelayer
}
return &wDelayerData, nil
}
func getL1UserTx(eventsL1UserTx []eth.RollupEventL1UserTx, blockNum int64) ([]common.L1Tx, error) {
l1Txs := make([]common.L1Tx, len(eventsL1UserTx))
for i := range eventsL1UserTx {
eventsL1UserTx[i].L1UserTx.EthBlockNum = blockNum
// Check validity of L1UserTx
l1Tx, err := common.NewL1Tx(&eventsL1UserTx[i].L1UserTx)
if err != nil {
return nil, err
}
l1Txs[i] = *l1Tx
}
return l1Txs, nil
}