core: types: less allocations when hashing and tx handling (#21265)
* core, crypto: various allocation savings regarding tx handling * core: reduce allocs for gas price comparison This change reduces the allocations needed for comparing different transactions to each other. A call to `tx.GasPrice()` copies the gas price as it has to be safe against modifications and also needs to be threadsafe. For comparing and ordering different transactions we don't need these guarantees * core: added tx.GasPriceIntCmp for comparison without allocation adds a method to remove unneeded allocation in comparison to tx.gasPrice * core/types: pool legacykeccak256 objects in rlpHash rlpHash is by far the most used function in core that allocates a legacyKeccak256 object on each call. Since it is so widely used it makes sense to add pooling here so we relieve the GC. On my machine these changes result in > 100 MILLION less allocations and > 30 GB less allocated memory. * reverted some changes * reverted some changes * trie: use crypto.KeccakState instead of replicating code Co-authored-by: Martin Holst Swende <martin@swende.se>
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e376d2fb31
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@ -256,7 +256,7 @@ func (l *txList) Add(tx *types.Transaction, priceBump uint64) (bool, *types.Tran
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// Have to ensure that the new gas price is higher than the old gas
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// price as well as checking the percentage threshold to ensure that
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// this is accurate for low (Wei-level) gas price replacements
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if old.GasPrice().Cmp(tx.GasPrice()) >= 0 || threshold.Cmp(tx.GasPrice()) > 0 {
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if old.GasPriceCmp(tx) >= 0 || tx.GasPriceIntCmp(threshold) < 0 {
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return false, nil
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}
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}
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@ -372,7 +372,7 @@ func (h priceHeap) Swap(i, j int) { h[i], h[j] = h[j], h[i] }
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func (h priceHeap) Less(i, j int) bool {
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// Sort primarily by price, returning the cheaper one
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switch h[i].GasPrice().Cmp(h[j].GasPrice()) {
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switch h[i].GasPriceCmp(h[j]) {
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case -1:
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return true
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case 1:
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@ -449,7 +449,7 @@ func (l *txPricedList) Cap(threshold *big.Int, local *accountSet) types.Transact
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continue
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}
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// Stop the discards if we've reached the threshold
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if tx.GasPrice().Cmp(threshold) >= 0 {
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if tx.GasPriceIntCmp(threshold) >= 0 {
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save = append(save, tx)
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break
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}
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@ -489,7 +489,7 @@ func (l *txPricedList) Underpriced(tx *types.Transaction, local *accountSet) boo
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return false
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}
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cheapest := []*types.Transaction(*l.items)[0]
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return cheapest.GasPrice().Cmp(tx.GasPrice()) >= 0
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return cheapest.GasPriceCmp(tx) >= 0
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}
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// Discard finds a number of most underpriced transactions, removes them from the
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@ -17,6 +17,7 @@
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package core
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import (
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"math/big"
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"math/rand"
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"testing"
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@ -49,3 +50,21 @@ func TestStrictTxListAdd(t *testing.T) {
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}
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}
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}
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func BenchmarkTxListAdd(t *testing.B) {
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// Generate a list of transactions to insert
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key, _ := crypto.GenerateKey()
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txs := make(types.Transactions, 100000)
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for i := 0; i < len(txs); i++ {
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txs[i] = transaction(uint64(i), 0, key)
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}
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// Insert the transactions in a random order
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list := newTxList(true)
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priceLimit := big.NewInt(int64(DefaultTxPoolConfig.PriceLimit))
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t.ResetTimer()
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for _, v := range rand.Perm(len(txs)) {
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list.Add(txs[v], DefaultTxPoolConfig.PriceBump)
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list.Filter(priceLimit, DefaultTxPoolConfig.PriceBump)
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}
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}
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@ -534,7 +534,7 @@ func (pool *TxPool) validateTx(tx *types.Transaction, local bool) error {
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}
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// Drop non-local transactions under our own minimal accepted gas price
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local = local || pool.locals.contains(from) // account may be local even if the transaction arrived from the network
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if !local && pool.gasPrice.Cmp(tx.GasPrice()) > 0 {
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if !local && tx.GasPriceIntCmp(pool.gasPrice) < 0 {
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return ErrUnderpriced
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}
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// Ensure the transaction adheres to nonce ordering
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@ -1187,15 +1187,15 @@ func (pool *TxPool) promoteExecutables(accounts []common.Address) []*types.Trans
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for _, tx := range forwards {
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hash := tx.Hash()
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pool.all.Remove(hash)
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log.Trace("Removed old queued transaction", "hash", hash)
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}
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log.Trace("Removed old queued transactions", "count", len(forwards))
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// Drop all transactions that are too costly (low balance or out of gas)
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drops, _ := list.Filter(pool.currentState.GetBalance(addr), pool.currentMaxGas)
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for _, tx := range drops {
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hash := tx.Hash()
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pool.all.Remove(hash)
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log.Trace("Removed unpayable queued transaction", "hash", hash)
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}
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log.Trace("Removed unpayable queued transactions", "count", len(drops))
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queuedNofundsMeter.Mark(int64(len(drops)))
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// Gather all executable transactions and promote them
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@ -1203,10 +1203,10 @@ func (pool *TxPool) promoteExecutables(accounts []common.Address) []*types.Trans
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for _, tx := range readies {
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hash := tx.Hash()
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if pool.promoteTx(addr, hash, tx) {
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log.Trace("Promoting queued transaction", "hash", hash)
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promoted = append(promoted, tx)
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}
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}
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log.Trace("Promoted queued transactions", "count", len(promoted))
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queuedGauge.Dec(int64(len(readies)))
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// Drop all transactions over the allowed limit
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@ -23,11 +23,13 @@ import (
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"io"
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"math/big"
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"reflect"
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"sync"
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"sync/atomic"
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"time"
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"github.com/ethereum/go-ethereum/common"
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"github.com/ethereum/go-ethereum/common/hexutil"
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"github.com/ethereum/go-ethereum/crypto"
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"github.com/ethereum/go-ethereum/rlp"
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"golang.org/x/crypto/sha3"
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)
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@ -129,10 +131,19 @@ func (h *Header) SanityCheck() error {
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return nil
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}
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// hasherPool holds LegacyKeccak hashers.
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var hasherPool = sync.Pool{
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New: func() interface{} {
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return sha3.NewLegacyKeccak256()
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},
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}
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func rlpHash(x interface{}) (h common.Hash) {
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hw := sha3.NewLegacyKeccak256()
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rlp.Encode(hw, x)
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hw.Sum(h[:0])
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sha := hasherPool.Get().(crypto.KeccakState)
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defer hasherPool.Put(sha)
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sha.Reset()
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rlp.Encode(sha, x)
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sha.Read(h[:])
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return h
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}
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@ -175,9 +175,15 @@ func (tx *Transaction) UnmarshalJSON(input []byte) error {
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func (tx *Transaction) Data() []byte { return common.CopyBytes(tx.data.Payload) }
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func (tx *Transaction) Gas() uint64 { return tx.data.GasLimit }
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func (tx *Transaction) GasPrice() *big.Int { return new(big.Int).Set(tx.data.Price) }
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func (tx *Transaction) Value() *big.Int { return new(big.Int).Set(tx.data.Amount) }
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func (tx *Transaction) Nonce() uint64 { return tx.data.AccountNonce }
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func (tx *Transaction) CheckNonce() bool { return true }
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func (tx *Transaction) GasPriceCmp(other *Transaction) int {
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return tx.data.Price.Cmp(other.data.Price)
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}
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func (tx *Transaction) GasPriceIntCmp(other *big.Int) int {
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return tx.data.Price.Cmp(other)
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}
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func (tx *Transaction) Value() *big.Int { return new(big.Int).Set(tx.data.Amount) }
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func (tx *Transaction) Nonce() uint64 { return tx.data.AccountNonce }
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func (tx *Transaction) CheckNonce() bool { return true }
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// To returns the recipient address of the transaction.
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// It returns nil if the transaction is a contract creation.
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@ -24,6 +24,7 @@ import (
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"encoding/hex"
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"errors"
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"fmt"
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"hash"
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"io"
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"io/ioutil"
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"math/big"
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@ -51,23 +52,33 @@ var (
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var errInvalidPubkey = errors.New("invalid secp256k1 public key")
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// KeccakState wraps sha3.state. In addition to the usual hash methods, it also supports
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// Read to get a variable amount of data from the hash state. Read is faster than Sum
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// because it doesn't copy the internal state, but also modifies the internal state.
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type KeccakState interface {
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hash.Hash
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Read([]byte) (int, error)
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}
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// Keccak256 calculates and returns the Keccak256 hash of the input data.
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func Keccak256(data ...[]byte) []byte {
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d := sha3.NewLegacyKeccak256()
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b := make([]byte, 32)
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d := sha3.NewLegacyKeccak256().(KeccakState)
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for _, b := range data {
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d.Write(b)
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}
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return d.Sum(nil)
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d.Read(b)
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return b
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}
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// Keccak256Hash calculates and returns the Keccak256 hash of the input data,
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// converting it to an internal Hash data structure.
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func Keccak256Hash(data ...[]byte) (h common.Hash) {
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d := sha3.NewLegacyKeccak256()
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d := sha3.NewLegacyKeccak256().(KeccakState)
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for _, b := range data {
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d.Write(b)
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}
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d.Sum(h[:0])
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d.Read(h[:])
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return h
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}
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@ -156,7 +156,7 @@ type transactionsByGasPrice []*types.Transaction
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func (t transactionsByGasPrice) Len() int { return len(t) }
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func (t transactionsByGasPrice) Swap(i, j int) { t[i], t[j] = t[j], t[i] }
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func (t transactionsByGasPrice) Less(i, j int) bool { return t[i].GasPrice().Cmp(t[j].GasPrice()) < 0 }
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func (t transactionsByGasPrice) Less(i, j int) bool { return t[i].GasPriceCmp(t[j]) < 0 }
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// getBlockPrices calculates the lowest transaction gas price in a given block
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// and sends it to the result channel. If the block is empty, price is nil.
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@ -22,6 +22,7 @@ import (
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"sync"
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"github.com/ethereum/go-ethereum/common"
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"github.com/ethereum/go-ethereum/crypto"
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"github.com/ethereum/go-ethereum/rlp"
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"golang.org/x/crypto/sha3"
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)
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@ -46,7 +47,7 @@ type leaf struct {
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// processed sequentially - onleaf will never be called in parallel or out of order.
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type committer struct {
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tmp sliceBuffer
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sha keccakState
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sha crypto.KeccakState
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onleaf LeafCallback
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leafCh chan *leaf
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@ -57,7 +58,7 @@ var committerPool = sync.Pool{
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New: func() interface{} {
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return &committer{
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tmp: make(sliceBuffer, 0, 550), // cap is as large as a full fullNode.
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sha: sha3.NewLegacyKeccak256().(keccakState),
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sha: sha3.NewLegacyKeccak256().(crypto.KeccakState),
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}
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},
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}
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@ -17,21 +17,13 @@
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package trie
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import (
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"hash"
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"sync"
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"github.com/ethereum/go-ethereum/crypto"
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"github.com/ethereum/go-ethereum/rlp"
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"golang.org/x/crypto/sha3"
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)
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// keccakState wraps sha3.state. In addition to the usual hash methods, it also supports
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// Read to get a variable amount of data from the hash state. Read is faster than Sum
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// because it doesn't copy the internal state, but also modifies the internal state.
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type keccakState interface {
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hash.Hash
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Read([]byte) (int, error)
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}
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type sliceBuffer []byte
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func (b *sliceBuffer) Write(data []byte) (n int, err error) {
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@ -46,7 +38,7 @@ func (b *sliceBuffer) Reset() {
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// hasher is a type used for the trie Hash operation. A hasher has some
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// internal preallocated temp space
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type hasher struct {
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sha keccakState
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sha crypto.KeccakState
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tmp sliceBuffer
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parallel bool // Whether to use paralallel threads when hashing
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}
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@ -56,7 +48,7 @@ var hasherPool = sync.Pool{
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New: func() interface{} {
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return &hasher{
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tmp: make(sliceBuffer, 0, 550), // cap is as large as a full fullNode.
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sha: sha3.NewLegacyKeccak256().(keccakState),
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sha: sha3.NewLegacyKeccak256().(crypto.KeccakState),
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}
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},
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}
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