all: implement forkid changes for shanghai

This commit is contained in:
Marius van der Wijden 2022-11-10 15:25:32 +01:00 committed by Péter Szilágyi
parent efc9409ca9
commit a4e19c5ca3
No known key found for this signature in database
GPG Key ID: E9AE538CEDF8293D
11 changed files with 277 additions and 48 deletions

@ -76,7 +76,7 @@ func (c *Chain) RootAt(height int) common.Hash {
// ForkID gets the fork id of the chain.
func (c *Chain) ForkID() forkid.ID {
return forkid.NewID(c.chainConfig, c.blocks[0].Hash(), uint64(c.Len()))
return forkid.NewID(c.chainConfig, c.blocks[0].Hash(), uint64(c.Len()), c.blocks[0].Time())
}
// Shorten returns a copy chain of a desired height from the imported

@ -24,6 +24,7 @@ import (
"math"
"math/big"
"reflect"
"sort"
"strings"
"github.com/ethereum/go-ethereum/common"
@ -65,19 +66,28 @@ type ID struct {
// Filter is a fork id filter to validate a remotely advertised ID.
type Filter func(id ID) error
// NewID calculates the Ethereum fork ID from the chain config, genesis hash, and head.
func NewID(config *params.ChainConfig, genesis common.Hash, head uint64) ID {
// NewID calculates the Ethereum fork ID from the chain config, genesis hash, head and time.
func NewID(config *params.ChainConfig, genesis common.Hash, head, time uint64) ID {
// Calculate the starting checksum from the genesis hash
hash := crc32.ChecksumIEEE(genesis[:])
// Calculate the current fork checksum and the next fork block
var next uint64
for _, fork := range gatherForks(config) {
forks, forksByTime := gatherForks(config)
for _, fork := range forks {
if fork <= head {
// Fork already passed, checksum the previous hash and the fork number
hash = checksumUpdate(hash, fork)
continue
}
return ID{Hash: checksumToBytes(hash), Next: fork}
}
var next uint64
for _, fork := range forksByTime {
if time >= fork {
// Fork passed, checksum previous hash and fork time
hash = checksumUpdate(hash, fork)
continue
}
next = fork
break
}
@ -90,6 +100,7 @@ func NewIDWithChain(chain Blockchain) ID {
chain.Config(),
chain.Genesis().Hash(),
chain.CurrentHeader().Number.Uint64(),
chain.CurrentHeader().Time,
)
}
@ -99,36 +110,40 @@ func NewFilter(chain Blockchain) Filter {
return newFilter(
chain.Config(),
chain.Genesis().Hash(),
func() uint64 {
return chain.CurrentHeader().Number.Uint64()
func() (uint64, uint64) {
return chain.CurrentHeader().Number.Uint64(), chain.CurrentHeader().Time
},
)
}
// NewStaticFilter creates a filter at block zero.
func NewStaticFilter(config *params.ChainConfig, genesis common.Hash) Filter {
head := func() uint64 { return 0 }
head := func() (uint64, uint64) { return 0, 0 }
return newFilter(config, genesis, head)
}
// newFilter is the internal version of NewFilter, taking closures as its arguments
// instead of a chain. The reason is to allow testing it without having to simulate
// an entire blockchain.
func newFilter(config *params.ChainConfig, genesis common.Hash, headfn func() uint64) Filter {
func newFilter(config *params.ChainConfig, genesis common.Hash, headfn func() (uint64, uint64)) Filter {
// Calculate the all the valid fork hash and fork next combos
var (
forks = gatherForks(config)
sums = make([][4]byte, len(forks)+1) // 0th is the genesis
forks, forksByTime = gatherForks(config)
sums = make([][4]byte, len(forks)+len(forksByTime)+1) // 0th is the genesis
)
allForks := append(forks, forksByTime...)
hash := crc32.ChecksumIEEE(genesis[:])
sums[0] = checksumToBytes(hash)
for i, fork := range forks {
for i, fork := range allForks {
hash = checksumUpdate(hash, fork)
sums[i+1] = checksumToBytes(hash)
}
// Add two sentries to simplify the fork checks and don't require special
// casing the last one.
forks = append(forks, math.MaxUint64) // Last fork will never be passed
if len(forksByTime) == 0 {
forks = append(forks, math.MaxUint64)
}
forksByTime = append(forksByTime, math.MaxUint64) // Last fork will never be passed
// Create a validator that will filter out incompatible chains
return func(id ID) error {
@ -151,19 +166,14 @@ func newFilter(config *params.ChainConfig, genesis common.Hash, headfn func() ui
// the remote, but at this current point in time we don't have enough
// information.
// 4. Reject in all other cases.
head := headfn()
for i, fork := range forks {
// If our head is beyond this fork, continue to the next (we have a dummy
// fork of maxuint64 as the last item to always fail this check eventually).
if head >= fork {
continue
}
verify := func(index int, headOrTime uint64) error {
// Found the first unpassed fork block, check if our current state matches
// the remote checksum (rule #1).
if sums[i] == id.Hash {
if sums[index] == id.Hash {
// Fork checksum matched, check if a remote future fork block already passed
// locally without the local node being aware of it (rule #1a).
if id.Next > 0 && head >= id.Next {
if id.Next > 0 && headOrTime >= id.Next {
return ErrLocalIncompatibleOrStale
}
// Haven't passed locally a remote-only fork, accept the connection (rule #1b).
@ -171,10 +181,10 @@ func newFilter(config *params.ChainConfig, genesis common.Hash, headfn func() ui
}
// The local and remote nodes are in different forks currently, check if the
// remote checksum is a subset of our local forks (rule #2).
for j := 0; j < i; j++ {
for j := 0; j < index; j++ {
if sums[j] == id.Hash {
// Remote checksum is a subset, validate based on the announced next fork
if forks[j] != id.Next {
if allForks[j] != id.Next {
return ErrRemoteStale
}
return nil
@ -182,7 +192,7 @@ func newFilter(config *params.ChainConfig, genesis common.Hash, headfn func() ui
}
// Remote chain is not a subset of our local one, check if it's a superset by
// any chance, signalling that we're simply out of sync (rule #3).
for j := i + 1; j < len(sums); j++ {
for j := index + 1; j < len(sums); j++ {
if sums[j] == id.Hash {
// Yay, remote checksum is a superset, ignore upcoming forks
return nil
@ -191,6 +201,27 @@ func newFilter(config *params.ChainConfig, genesis common.Hash, headfn func() ui
// No exact, subset or superset match. We are on differing chains, reject.
return ErrLocalIncompatibleOrStale
}
head, time := headfn()
// Verify forks by block
for i, fork := range forks {
// If our head is beyond this fork, continue to the next (we have a dummy
// fork of maxuint64 as the last item to always fail this check eventually).
if head >= fork {
continue
}
return verify(i, head)
}
// Verify forks by time
for i, fork := range forksByTime {
// If our head is beyond this fork, continue to the next (we have a dummy
// fork of maxuint64 as the last item to always fail this check eventually).
if time >= fork {
continue
}
return verify(len(forks)+i, time)
}
log.Error("Impossible fork ID validation", "id", id)
return nil // Something's very wrong, accept rather than reject
}
@ -212,17 +243,22 @@ func checksumToBytes(hash uint32) [4]byte {
}
// gatherForks gathers all the known forks and creates a sorted list out of them.
func gatherForks(config *params.ChainConfig) []uint64 {
func gatherForks(config *params.ChainConfig) ([]uint64, []uint64) {
// Gather all the fork block numbers via reflection
kind := reflect.TypeOf(params.ChainConfig{})
conf := reflect.ValueOf(config).Elem()
var forks []uint64
var forksByTime []uint64
for i := 0; i < kind.NumField(); i++ {
// Fetch the next field and skip non-fork rules
field := kind.Field(i)
time := false
if !strings.HasSuffix(field.Name, "Block") {
continue
if !strings.HasSuffix(field.Name, "Time") {
continue
}
time = true
}
if field.Type != reflect.TypeOf(new(big.Int)) {
continue
@ -230,17 +266,17 @@ func gatherForks(config *params.ChainConfig) []uint64 {
// Extract the fork rule block number and aggregate it
rule := conf.Field(i).Interface().(*big.Int)
if rule != nil {
forks = append(forks, rule.Uint64())
}
}
// Sort the fork block numbers to permit chronological XOR
for i := 0; i < len(forks); i++ {
for j := i + 1; j < len(forks); j++ {
if forks[i] > forks[j] {
forks[i], forks[j] = forks[j], forks[i]
if time {
forksByTime = append(forksByTime, rule.Uint64())
} else {
forks = append(forks, rule.Uint64())
}
}
}
sort.Slice(forks, func(i, j int) bool { return forks[i] < forks[j] })
sort.Slice(forksByTime, func(i, j int) bool { return forksByTime[i] < forksByTime[j] })
// Deduplicate block numbers applying multiple forks
for i := 1; i < len(forks); i++ {
if forks[i] == forks[i-1] {
@ -248,9 +284,18 @@ func gatherForks(config *params.ChainConfig) []uint64 {
i--
}
}
for i := 1; i < len(forksByTime); i++ {
if forksByTime[i] == forksByTime[i-1] {
forksByTime = append(forksByTime[:i], forksByTime[i+1:]...)
i--
}
}
// Skip any forks in block 0, that's the genesis ruleset
if len(forks) > 0 && forks[0] == 0 {
forks = forks[1:]
}
return forks
if len(forksByTime) > 0 && forksByTime[0] == 0 {
forksByTime = forksByTime[1:]
}
return forks, forksByTime
}

@ -185,7 +185,105 @@ func TestCreation(t *testing.T) {
}
for i, tt := range tests {
for j, ttt := range tt.cases {
if have := NewID(tt.config, tt.genesis, ttt.head); have != ttt.want {
if have := NewID(tt.config, tt.genesis, ttt.head, 0); have != ttt.want {
t.Errorf("test %d, case %d: fork ID mismatch: have %x, want %x", i, j, have, ttt.want)
}
}
}
}
// TestCreationWithTimestamps tests that different genesis and fork rule combinations result in
// the correct fork ID even for time based forks.
func TestCreationWithTimestamps(t *testing.T) {
mergeConfig := *params.MainnetChainConfig
mergeConfig.MergeNetsplitBlock = big.NewInt(18000000)
withdrawalConfig := *params.MainnetChainConfig
withdrawalConfig.MergeNetsplitBlock = big.NewInt(18000000)
withdrawalConfig.ShanghaiTime = big.NewInt(1668000000)
type testcase struct {
head uint64
time uint64
want ID
}
tests := []struct {
config *params.ChainConfig
genesis common.Hash
cases []testcase
}{
// Mainnet test cases
{
params.MainnetChainConfig,
params.MainnetGenesisHash,
[]testcase{
{0, 0, ID{Hash: checksumToBytes(0xfc64ec04), Next: 1150000}}, // Unsynced
{1149999, 0, ID{Hash: checksumToBytes(0xfc64ec04), Next: 1150000}}, // Last Frontier block
{1150000, 0, ID{Hash: checksumToBytes(0x97c2c34c), Next: 1920000}}, // First Homestead block
{1919999, 0, ID{Hash: checksumToBytes(0x97c2c34c), Next: 1920000}}, // Last Homestead block
{1920000, 0, ID{Hash: checksumToBytes(0x91d1f948), Next: 2463000}}, // First DAO block
{2462999, 0, ID{Hash: checksumToBytes(0x91d1f948), Next: 2463000}}, // Last DAO block
{2463000, 0, ID{Hash: checksumToBytes(0x7a64da13), Next: 2675000}}, // First Tangerine block
{2674999, 0, ID{Hash: checksumToBytes(0x7a64da13), Next: 2675000}}, // Last Tangerine block
{2675000, 0, ID{Hash: checksumToBytes(0x3edd5b10), Next: 4370000}}, // First Spurious block
{4369999, 0, ID{Hash: checksumToBytes(0x3edd5b10), Next: 4370000}}, // Last Spurious block
{4370000, 0, ID{Hash: checksumToBytes(0xa00bc324), Next: 7280000}}, // First Byzantium block
{7279999, 0, ID{Hash: checksumToBytes(0xa00bc324), Next: 7280000}}, // Last Byzantium block
{7280000, 0, ID{Hash: checksumToBytes(0x668db0af), Next: 9069000}}, // First and last Constantinople, first Petersburg block
{9068999, 0, ID{Hash: checksumToBytes(0x668db0af), Next: 9069000}}, // Last Petersburg block
{9069000, 0, ID{Hash: checksumToBytes(0x879d6e30), Next: 9200000}}, // First Istanbul and first Muir Glacier block
{9199999, 0, ID{Hash: checksumToBytes(0x879d6e30), Next: 9200000}}, // Last Istanbul and first Muir Glacier block
{9200000, 0, ID{Hash: checksumToBytes(0xe029e991), Next: 12244000}}, // First Muir Glacier block
{12243999, 0, ID{Hash: checksumToBytes(0xe029e991), Next: 12244000}}, // Last Muir Glacier block
{12244000, 0, ID{Hash: checksumToBytes(0x0eb440f6), Next: 12965000}}, // First Berlin block
{12964999, 0, ID{Hash: checksumToBytes(0x0eb440f6), Next: 12965000}}, // Last Berlin block
{12965000, 0, ID{Hash: checksumToBytes(0xb715077d), Next: 13773000}}, // First London block
{13772999, 0, ID{Hash: checksumToBytes(0xb715077d), Next: 13773000}}, // Last London block
{13773000, 0, ID{Hash: checksumToBytes(0x20c327fc), Next: 15050000}}, // First Arrow Glacier block
{15049999, 0, ID{Hash: checksumToBytes(0x20c327fc), Next: 15050000}}, // Last Arrow Glacier block
{15050000, 0, ID{Hash: checksumToBytes(0xf0afd0e3), Next: 0}}, // First Gray Glacier block
{20000000, 0, ID{Hash: checksumToBytes(0xf0afd0e3), Next: 0}}, // Future Gray Glacier block
},
},
// Withdrawal test cases
{
&withdrawalConfig,
params.MainnetGenesisHash,
[]testcase{
{0, 0, ID{Hash: checksumToBytes(0xfc64ec04), Next: 1150000}}, // Unsynced
{1149999, 0, ID{Hash: checksumToBytes(0xfc64ec04), Next: 1150000}}, // Last Frontier block
{1150000, 0, ID{Hash: checksumToBytes(0x97c2c34c), Next: 1920000}}, // First Homestead block
{1919999, 0, ID{Hash: checksumToBytes(0x97c2c34c), Next: 1920000}}, // Last Homestead block
{1920000, 0, ID{Hash: checksumToBytes(0x91d1f948), Next: 2463000}}, // First DAO block
{2462999, 0, ID{Hash: checksumToBytes(0x91d1f948), Next: 2463000}}, // Last DAO block
{2463000, 0, ID{Hash: checksumToBytes(0x7a64da13), Next: 2675000}}, // First Tangerine block
{2674999, 0, ID{Hash: checksumToBytes(0x7a64da13), Next: 2675000}}, // Last Tangerine block
{2675000, 0, ID{Hash: checksumToBytes(0x3edd5b10), Next: 4370000}}, // First Spurious block
{4369999, 0, ID{Hash: checksumToBytes(0x3edd5b10), Next: 4370000}}, // Last Spurious block
{4370000, 0, ID{Hash: checksumToBytes(0xa00bc324), Next: 7280000}}, // First Byzantium block
{7279999, 0, ID{Hash: checksumToBytes(0xa00bc324), Next: 7280000}}, // Last Byzantium block
{7280000, 0, ID{Hash: checksumToBytes(0x668db0af), Next: 9069000}}, // First and last Constantinople, first Petersburg block
{9068999, 0, ID{Hash: checksumToBytes(0x668db0af), Next: 9069000}}, // Last Petersburg block
{9069000, 0, ID{Hash: checksumToBytes(0x879d6e30), Next: 9200000}}, // First Istanbul and first Muir Glacier block
{9199999, 0, ID{Hash: checksumToBytes(0x879d6e30), Next: 9200000}}, // Last Istanbul and first Muir Glacier block
{9200000, 0, ID{Hash: checksumToBytes(0xe029e991), Next: 12244000}}, // First Muir Glacier block
{12243999, 0, ID{Hash: checksumToBytes(0xe029e991), Next: 12244000}}, // Last Muir Glacier block
{12244000, 0, ID{Hash: checksumToBytes(0x0eb440f6), Next: 12965000}}, // First Berlin block
{12964999, 0, ID{Hash: checksumToBytes(0x0eb440f6), Next: 12965000}}, // Last Berlin block
{12965000, 0, ID{Hash: checksumToBytes(0xb715077d), Next: 13773000}}, // First London block
{13772999, 0, ID{Hash: checksumToBytes(0xb715077d), Next: 13773000}}, // Last London block
{13773000, 0, ID{Hash: checksumToBytes(0x20c327fc), Next: 15050000}}, // First Arrow Glacier block
{15049999, 0, ID{Hash: checksumToBytes(0x20c327fc), Next: 15050000}}, // Last Arrow Glacier block
{15050000, 0, ID{Hash: checksumToBytes(0xf0afd0e3), Next: 18000000}}, // First Gray Glacier block
{18000000, 0, ID{Hash: checksumToBytes(0x4fb8a872), Next: 1668000000}}, // First Merge Start block
{20000000, 0, ID{Hash: checksumToBytes(0x4fb8a872), Next: 1668000000}}, // Last Merge Start block
{20000000, 1668000000, ID{Hash: checksumToBytes(0xc1fdf181), Next: 0}}, // First Merge Start block
{20000000, 2668000000, ID{Hash: checksumToBytes(0xc1fdf181), Next: 0}}, // Future Merge Start block
},
},
}
for i, tt := range tests {
for j, ttt := range tt.cases {
if have := NewID(tt.config, tt.genesis, ttt.head, ttt.time); have != ttt.want {
t.Errorf("test %d, case %d: fork ID mismatch: have %x, want %x", i, j, have, ttt.want)
}
}
@ -267,7 +365,93 @@ func TestValidation(t *testing.T) {
{7279999, ID{Hash: checksumToBytes(0xa00bc324), Next: 7279999}, ErrLocalIncompatibleOrStale},
}
for i, tt := range tests {
filter := newFilter(params.MainnetChainConfig, params.MainnetGenesisHash, func() uint64 { return tt.head })
filter := newFilter(params.MainnetChainConfig, params.MainnetGenesisHash, func() (uint64, uint64) { return tt.head, 0 })
if err := filter(tt.id); err != tt.err {
t.Errorf("test %d: validation error mismatch: have %v, want %v", i, err, tt.err)
}
}
}
// TestValidationByTimestamp tests that a local peer correctly validates and accepts a remote
// fork ID.
func TestValidationByTimestamp(t *testing.T) {
withdrawalConfig := *params.MainnetChainConfig
withdrawalConfig.MergeNetsplitBlock = big.NewInt(18000000)
withdrawalConfig.ShanghaiTime = big.NewInt(1668000000)
tests := []struct {
head uint64
time uint64
id ID
err error
}{
// Local is mainnet Withdrawals, remote announces the same. No future fork is announced.
{20000000, 1668000001, ID{Hash: checksumToBytes(0xc1fdf181), Next: 0}, nil},
// Local is mainnet Withdrawals, remote announces the same also announces a next fork
// at block/time 0xffffffff, but that is uncertain.
{20000000, 1668000001, ID{Hash: checksumToBytes(0xc1fdf181), Next: math.MaxUint64}, nil},
// Local is mainnet currently in Byzantium only (so it's aware of Petersburg & Withdrawals), remote announces
// also Byzantium, but it's not yet aware of Petersburg (e.g. non updated node before the fork).
// In this case we don't know if Petersburg passed yet or not.
{7279999, 1667999999, ID{Hash: checksumToBytes(0xa00bc324), Next: 0}, nil},
// Local is mainnet currently in Byzantium only (so it's aware of Petersburg & Withdrawals), remote announces
// also Byzantium, and it's also aware of Petersburg (e.g. updated node before the fork). We
// don't know if Petersburg passed yet (will pass) or not.
{7279999, 1667999999, ID{Hash: checksumToBytes(0xa00bc324), Next: 7280000}, nil},
// Local is mainnet currently in Byzantium only (so it's aware of Petersburg & Withdrawals), remote announces
// also Byzantium, and it's also aware of some random fork (e.g. misconfigured Petersburg). As
// neither forks passed at neither nodes, they may mismatch, but we still connect for now.
{7279999, 1667999999, ID{Hash: checksumToBytes(0xa00bc324), Next: math.MaxUint64}, nil},
// Local is mainnet exactly on Withdrawals, remote announces Byzantium + knowledge about Petersburg. Remote
// is simply out of sync, accept.
{20000000, 1668000000, ID{Hash: checksumToBytes(0xa00bc324), Next: 7280000}, nil},
// Local is mainnet Withdrawals, remote announces Byzantium + knowledge about Petersburg. Remote
// is simply out of sync, accept.
{20000000, 1668000001, ID{Hash: checksumToBytes(0xa00bc324), Next: 7280000}, nil},
// Local is mainnet Withdrawals, remote announces Spurious + knowledge about Byzantium. Remote
// is definitely out of sync. It may or may not need the Petersburg update, we don't know yet.
{20000000, 1668000001, ID{Hash: checksumToBytes(0x3edd5b10), Next: 4370000}, nil},
// Local is mainnet Byzantium & pre-withdrawals, remote announces Petersburg. Local is out of sync, accept.
{7279999, 1667999999, ID{Hash: checksumToBytes(0x668db0af), Next: 0}, nil},
// Local is mainnet Spurious, remote announces Byzantium, but is not aware of Petersburg. Local
// out of sync. Local also knows about a future fork, but that is uncertain yet.
{4369999, 1667999999, ID{Hash: checksumToBytes(0xa00bc324), Next: 0}, nil},
// Local is mainnet Withdrawals. remote announces Byzantium but is not aware of further forks.
// Remote needs software update.
{20000000, 1668000001, ID{Hash: checksumToBytes(0xa00bc324), Next: 0}, ErrRemoteStale},
// Local is mainnet Withdrawals, and isn't aware of more forks. Remote announces Petersburg +
// 0xffffffff. Local needs software update, reject.
{20000000, 1668000001, ID{Hash: checksumToBytes(0x5cddc0e1), Next: 0}, ErrLocalIncompatibleOrStale},
// Local is mainnet Withdrawals, and is aware of Petersburg. Remote announces Petersburg +
// 0xffffffff. Local needs software update, reject.
{20000000, 1668000001, ID{Hash: checksumToBytes(0x5cddc0e1), Next: 0}, ErrLocalIncompatibleOrStale},
// Local is mainnet Withdrawals, remote is Rinkeby Petersburg.
{20000000, 1668000001, ID{Hash: checksumToBytes(0xafec6b27), Next: 0}, ErrLocalIncompatibleOrStale},
// Local is mainnet Withdrawals, far in the future. Remote announces Gopherium (non existing fork)
// at some future block 88888888, for itself, but past block for local. Local is incompatible.
//
// This case detects non-upgraded nodes with majority hash power (typical Ropsten mess).
{88888888, 1668000001, ID{Hash: checksumToBytes(0xf0afd0e3), Next: 88888888}, ErrRemoteStale},
// Local is mainnet Withdrawals. Remote is in Byzantium, but announces Gopherium (non existing
// fork) at block 7279999, before Petersburg. Local is incompatible.
{20000000, 1668000001, ID{Hash: checksumToBytes(0xa00bc324), Next: 7279999}, ErrRemoteStale},
}
for i, tt := range tests {
filter := newFilter(&withdrawalConfig, params.MainnetGenesisHash, func() (uint64, uint64) { return tt.head, tt.time })
if err := filter(tt.id); err != tt.err {
t.Errorf("test %d: validation error mismatch: have %v, want %v", i, err, tt.err)
}

@ -331,7 +331,7 @@ func (h *handler) runEthPeer(peer *eth.Peer, handler eth.Handler) error {
number = head.Number.Uint64()
td = h.chain.GetTd(hash, number)
)
forkID := forkid.NewID(h.chain.Config(), h.chain.Genesis().Hash(), h.chain.CurrentHeader().Number.Uint64())
forkID := forkid.NewID(h.chain.Config(), h.chain.Genesis().Hash(), h.chain.CurrentHeader().Number.Uint64(), h.chain.CurrentHeader().Time)
if err := peer.Handshake(h.networkID, td, hash, genesis.Hash(), forkID, h.forkFilter); err != nil {
peer.Log().Debug("Ethereum handshake failed", "err", err)
return err

@ -60,6 +60,6 @@ func StartENRUpdater(chain *core.BlockChain, ln *enode.LocalNode) {
// currentENREntry constructs an `eth` ENR entry based on the current state of the chain.
func currentENREntry(chain *core.BlockChain) *enrEntry {
return &enrEntry{
ForkID: forkid.NewID(chain.Config(), chain.Genesis().Hash(), chain.CurrentHeader().Number.Uint64()),
ForkID: forkid.NewID(chain.Config(), chain.Genesis().Hash(), chain.CurrentHeader().Number.Uint64(), chain.CurrentHeader().Time),
}
}

@ -40,7 +40,7 @@ func testHandshake(t *testing.T, protocol uint) {
genesis = backend.chain.Genesis()
head = backend.chain.CurrentBlock()
td = backend.chain.GetTd(head.Hash(), head.NumberU64())
forkID = forkid.NewID(backend.chain.Config(), backend.chain.Genesis().Hash(), backend.chain.CurrentHeader().Number.Uint64())
forkID = forkid.NewID(backend.chain.Config(), backend.chain.Genesis().Hash(), backend.chain.CurrentHeader().Number.Uint64(), backend.chain.CurrentHeader().Time)
)
tests := []struct {
code uint64

@ -111,7 +111,7 @@ func (h *clientHandler) handle(p *serverPeer, noInitAnnounce bool) error {
p.Log().Debug("Light Ethereum peer connected", "name", p.Name())
// Execute the LES handshake
forkid := forkid.NewID(h.backend.blockchain.Config(), h.backend.genesis, h.backend.blockchain.CurrentHeader().Number.Uint64())
forkid := forkid.NewID(h.backend.blockchain.Config(), h.backend.genesis, h.backend.blockchain.CurrentHeader().Number.Uint64(), h.backend.blockchain.CurrentHeader().Time)
if err := p.Handshake(h.backend.blockchain.Genesis().Hash(), forkid, h.forkFilter); err != nil {
p.Log().Debug("Light Ethereum handshake failed", "err", err)
return err

@ -124,8 +124,8 @@ func TestHandshake(t *testing.T) {
genesis = common.HexToHash("cafebabe")
chain1, chain2 = &fakeChain{}, &fakeChain{}
forkID1 = forkid.NewID(chain1.Config(), chain1.Genesis().Hash(), chain1.CurrentHeader().Number.Uint64())
forkID2 = forkid.NewID(chain2.Config(), chain2.Genesis().Hash(), chain2.CurrentHeader().Number.Uint64())
forkID1 = forkid.NewID(chain1.Config(), chain1.Genesis().Hash(), chain1.CurrentHeader().Number.Uint64(), chain1.CurrentHeader().Time)
forkID2 = forkid.NewID(chain2.Config(), chain2.Genesis().Hash(), chain2.CurrentHeader().Number.Uint64(), chain2.CurrentHeader().Time)
filter1, filter2 = forkid.NewFilter(chain1), forkid.NewFilter(chain2)
)

@ -117,7 +117,7 @@ func (h *serverHandler) handle(p *clientPeer) error {
hash = head.Hash()
number = head.Number.Uint64()
td = h.blockchain.GetTd(hash, number)
forkID = forkid.NewID(h.blockchain.Config(), h.blockchain.Genesis().Hash(), h.blockchain.CurrentBlock().NumberU64())
forkID = forkid.NewID(h.blockchain.Config(), h.blockchain.Genesis().Hash(), h.blockchain.CurrentBlock().NumberU64(), h.blockchain.CurrentBlock().Time())
)
if err := p.Handshake(td, hash, number, h.blockchain.Genesis().Hash(), forkID, h.forkFilter, h.server); err != nil {
p.Log().Debug("Light Ethereum handshake failed", "err", err)

@ -489,7 +489,7 @@ func (client *testClient) newRawPeer(t *testing.T, name string, version int, rec
head = client.handler.backend.blockchain.CurrentHeader()
td = client.handler.backend.blockchain.GetTd(head.Hash(), head.Number.Uint64())
)
forkID := forkid.NewID(client.handler.backend.blockchain.Config(), genesis.Hash(), head.Number.Uint64())
forkID := forkid.NewID(client.handler.backend.blockchain.Config(), genesis.Hash(), head.Number.Uint64(), head.Time)
tp.handshakeWithClient(t, td, head.Hash(), head.Number.Uint64(), genesis.Hash(), forkID, testCostList(0), recentTxLookup) // disable flow control by default
// Ensure the connection is established or exits when any error occurs
@ -553,7 +553,7 @@ func (server *testServer) newRawPeer(t *testing.T, name string, version int) (*t
head = server.handler.blockchain.CurrentHeader()
td = server.handler.blockchain.GetTd(head.Hash(), head.Number.Uint64())
)
forkID := forkid.NewID(server.handler.blockchain.Config(), genesis.Hash(), head.Number.Uint64())
forkID := forkid.NewID(server.handler.blockchain.Config(), genesis.Hash(), head.Number.Uint64(), head.Time)
tp.handshakeWithServer(t, td, head.Hash(), head.Number.Uint64(), genesis.Hash(), forkID)
// Ensure the connection is established or exits when any error occurs

@ -183,7 +183,7 @@ func runBenchmark(b *testing.B, t *StateTest) {
b.Error(err)
return
}
var rules = config.Rules(new(big.Int), false)
var rules = config.Rules(new(big.Int), false, new(big.Int))
vmconfig.ExtraEips = eips
block := t.genesis(config).ToBlock()