The core protocol of WoopChain
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woop/consensus/quorum/quorom_test.go

596 lines
17 KiB

package quorum
import (
"math/big"
"strings"
"testing"
bls_core "github.com/harmony-one/bls/ffi/go/bls"
harmony_bls "github.com/harmony-one/harmony/crypto/bls"
shardingconfig "github.com/harmony-one/harmony/internal/configs/sharding"
"github.com/harmony-one/harmony/numeric"
"github.com/harmony-one/harmony/shard"
"github.com/stretchr/testify/assert"
"github.com/ethereum/go-ethereum/common"
"github.com/harmony-one/harmony/crypto/bls"
)
func TestPhaseStrings(t *testing.T) {
phases := []Phase{
Prepare,
Commit,
ViewChange,
}
expectations := make(map[Phase]string)
expectations[Prepare] = "Prepare"
expectations[Commit] = "Commit"
expectations[ViewChange] = "viewChange"
for _, phase := range phases {
expected := expectations[phase]
assert.Equal(t, expected, phase.String())
}
}
func TestPolicyStrings(t *testing.T) {
policies := []Policy{
SuperMajorityVote,
SuperMajorityStake,
}
expectations := make(map[Policy]string)
expectations[SuperMajorityVote] = "SuperMajorityVote"
expectations[SuperMajorityStake] = "SuperMajorityStake"
for _, policy := range policies {
expected := expectations[policy]
assert.Equal(t, expected, policy.String())
}
}
func TestAddingQuoromParticipants(t *testing.T) {
decider := NewDecider(SuperMajorityVote, shard.BeaconChainShardID)
assert.Equal(t, int64(0), decider.ParticipantsCount())
blsKeys := []harmony_bls.PublicKeyWrapper{}
keyCount := int64(5)
for i := int64(0); i < keyCount; i++ {
blsKey := harmony_bls.RandPrivateKey()
wrapper := harmony_bls.PublicKeyWrapper{Object: blsKey.GetPublicKey()}
wrapper.Bytes.FromLibBLSPublicKey(wrapper.Object)
blsKeys = append(blsKeys, wrapper)
}
decider.UpdateParticipants(blsKeys, []bls.PublicKeyWrapper{})
assert.Equal(t, keyCount, decider.ParticipantsCount())
}
func TestSubmitVote(test *testing.T) {
blockHash := [32]byte{}
copy(blockHash[:], []byte("random"))
blockNum := uint64(1000)
viewID := uint64(2)
decider := NewDecider(
SuperMajorityStake, shard.BeaconChainShardID,
)
message := "test string"
blsPriKey1 := bls.RandPrivateKey()
pubKeyWrapper1 := bls.PublicKeyWrapper{Object: blsPriKey1.GetPublicKey()}
pubKeyWrapper1.Bytes.FromLibBLSPublicKey(pubKeyWrapper1.Object)
blsPriKey2 := bls.RandPrivateKey()
pubKeyWrapper2 := bls.PublicKeyWrapper{Object: blsPriKey2.GetPublicKey()}
pubKeyWrapper2.Bytes.FromLibBLSPublicKey(pubKeyWrapper2.Object)
decider.UpdateParticipants([]bls.PublicKeyWrapper{pubKeyWrapper1, pubKeyWrapper2}, []bls.PublicKeyWrapper{})
if _, err := decider.submitVote(
Prepare,
[]bls.SerializedPublicKey{pubKeyWrapper1.Bytes},
blsPriKey1.Sign(message),
common.BytesToHash(blockHash[:]),
blockNum,
viewID,
); err != nil {
test.Log(err)
}
if _, err := decider.submitVote(
Prepare,
[]bls.SerializedPublicKey{pubKeyWrapper2.Bytes},
blsPriKey2.Sign(message),
common.BytesToHash(blockHash[:]),
blockNum,
viewID,
); err != nil {
test.Log(err)
}
if decider.SignersCount(Prepare) != 2 {
test.Fatal("submitVote failed")
}
aggSig := &bls_core.Sign{}
aggSig.Add(blsPriKey1.Sign(message))
aggSig.Add(blsPriKey2.Sign(message))
if decider.AggregateVotes(Prepare).SerializeToHexStr() != aggSig.SerializeToHexStr() {
test.Fatal("AggregateVotes failed")
}
}
func TestSubmitVoteAggregateSig(test *testing.T) {
blockHash := [32]byte{}
copy(blockHash[:], []byte("random"))
blockNum := uint64(1000)
viewID := uint64(2)
decider := NewDecider(
SuperMajorityStake, shard.BeaconChainShardID,
)
blsPriKey1 := bls.RandPrivateKey()
pubKeyWrapper1 := bls.PublicKeyWrapper{Object: blsPriKey1.GetPublicKey()}
pubKeyWrapper1.Bytes.FromLibBLSPublicKey(pubKeyWrapper1.Object)
blsPriKey2 := bls.RandPrivateKey()
pubKeyWrapper2 := bls.PublicKeyWrapper{Object: blsPriKey2.GetPublicKey()}
pubKeyWrapper2.Bytes.FromLibBLSPublicKey(pubKeyWrapper2.Object)
blsPriKey3 := bls.RandPrivateKey()
pubKeyWrapper3 := bls.PublicKeyWrapper{Object: blsPriKey3.GetPublicKey()}
pubKeyWrapper3.Bytes.FromLibBLSPublicKey(pubKeyWrapper3.Object)
decider.UpdateParticipants([]bls.PublicKeyWrapper{pubKeyWrapper1, pubKeyWrapper2}, []bls.PublicKeyWrapper{})
decider.submitVote(
Prepare,
[]bls.SerializedPublicKey{pubKeyWrapper1.Bytes},
blsPriKey1.SignHash(blockHash[:]),
common.BytesToHash(blockHash[:]),
blockNum,
viewID,
)
aggSig := &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{blsPriKey2, blsPriKey3} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
if _, err := decider.submitVote(
Prepare,
[]bls.SerializedPublicKey{pubKeyWrapper2.Bytes, pubKeyWrapper3.Bytes},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID,
); err != nil {
test.Log(err)
}
if decider.SignersCount(Prepare) != 3 {
test.Fatal("submitVote failed")
}
aggSig.Add(blsPriKey1.SignHash(blockHash[:]))
if decider.AggregateVotes(Prepare).SerializeToHexStr() != aggSig.SerializeToHexStr() {
test.Fatal("AggregateVotes failed")
}
if _, err := decider.submitVote(
Prepare,
[]bls.SerializedPublicKey{pubKeyWrapper2.Bytes},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID,
); err == nil {
test.Fatal("Expect error for duplicate votes from the same key")
}
}
func TestAddNewVote(test *testing.T) {
shard.Schedule = shardingconfig.LocalnetSchedule
blockHash := [32]byte{}
copy(blockHash[:], []byte("random"))
blockNum := uint64(1000)
viewID := uint64(2)
decider := NewDecider(
SuperMajorityStake, shard.BeaconChainShardID,
)
slotList := shard.SlotList{}
sKeys := []bls_core.SecretKey{}
pubKeys := []bls.PublicKeyWrapper{}
quorumNodes := 10
for i := 0; i < quorumNodes; i++ {
newSlot, sKey := generateRandomSlot()
if i < 3 {
newSlot.EffectiveStake = nil
}
sKeys = append(sKeys, sKey)
slotList = append(slotList, newSlot)
wrapper := bls.PublicKeyWrapper{Object: sKey.GetPublicKey()}
wrapper.Bytes.FromLibBLSPublicKey(wrapper.Object)
pubKeys = append(pubKeys, wrapper)
}
decider.UpdateParticipants(pubKeys, []bls.PublicKeyWrapper{})
decider.SetVoters(&shard.Committee{
3 years ago
ShardID: shard.BeaconChainShardID, Slots: slotList,
}, big.NewInt(3))
aggSig := &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[0], &sKeys[1], &sKeys[2]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
// aggregate sig from all of 3 harmony nodes
decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[0], &pubKeys[1], &pubKeys[2]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if !decider.IsQuorumAchieved(Prepare) {
test.Error("quorum should have been achieved with harmony nodes")
}
if decider.SignersCount(Prepare) != 3 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 3)
}
decider.ResetPrepareAndCommitVotes()
// aggregate sig from 3 external nodes, expect error
aggSig = &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[3], &sKeys[4], &sKeys[5]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
_, err := decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[3], &pubKeys[4], &pubKeys[5]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if err == nil {
test.Error("Should have error due to aggregate sig from multiple accounts")
}
if decider.IsQuorumAchieved(Prepare) {
test.Fatal("quorum shouldn't have been achieved with external nodes")
}
if decider.SignersCount(Prepare) != 0 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 0)
}
decider.ResetPrepareAndCommitVotes()
// one sig from external node
_, err = decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[3]},
sKeys[3].SignHash(blockHash[:]),
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if err != nil {
test.Error(err)
}
if decider.IsQuorumAchieved(Prepare) {
test.Fatal("quorum shouldn't have been achieved with only one key signing")
}
if decider.SignersCount(Prepare) != 1 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 1)
}
}
func TestAddNewVoteAggregateSig(test *testing.T) {
shard.Schedule = shardingconfig.LocalnetSchedule
blockHash := [32]byte{}
copy(blockHash[:], []byte("random"))
blockNum := uint64(1000)
viewID := uint64(2)
decider := NewDecider(
SuperMajorityStake, shard.BeaconChainShardID,
)
slotList := shard.SlotList{}
sKeys := []bls_core.SecretKey{}
pubKeys := []bls.PublicKeyWrapper{}
quorumNodes := 5
for i := 0; i < quorumNodes; i++ {
newSlot, sKey := generateRandomSlot()
if i < 3 {
newSlot.EffectiveStake = nil
}
sKeys = append(sKeys, sKey)
slotList = append(slotList, newSlot)
wrapper := bls.PublicKeyWrapper{Object: sKey.GetPublicKey()}
wrapper.Bytes.FromLibBLSPublicKey(wrapper.Object)
pubKeys = append(pubKeys, wrapper)
}
// make all external keys belong to same account
slotList[3].EcdsaAddress = slotList[4].EcdsaAddress
decider.UpdateParticipants(pubKeys, []bls.PublicKeyWrapper{})
decider.SetVoters(&shard.Committee{
3 years ago
ShardID: shard.BeaconChainShardID, Slots: slotList,
}, big.NewInt(3))
aggSig := &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[0], &sKeys[1]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
// aggregate sig from all of 2 harmony nodes
decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[0], &pubKeys[1]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if decider.IsQuorumAchieved(Prepare) {
test.Error("quorum should not have been achieved with 2 harmony nodes")
}
if decider.SignersCount(Prepare) != 2 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 2)
}
// aggregate sig from all of 2 external nodes
aggSig = &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[3], &sKeys[4]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[3], &pubKeys[4]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if !decider.IsQuorumAchieved(Prepare) {
test.Error("quorum should have been achieved with 2 harmony nodes")
}
if decider.SignersCount(Prepare) != 4 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 4)
}
}
func TestAddNewVoteInvalidAggregateSig(test *testing.T) {
shard.Schedule = shardingconfig.LocalnetSchedule
blockHash := [32]byte{}
copy(blockHash[:], []byte("random"))
blockNum := uint64(1000)
viewID := uint64(2)
decider := NewDecider(
SuperMajorityStake, shard.BeaconChainShardID,
)
slotList := shard.SlotList{}
sKeys := []bls_core.SecretKey{}
pubKeys := []bls.PublicKeyWrapper{}
quorumNodes := 8
for i := 0; i < quorumNodes; i++ {
newSlot, sKey := generateRandomSlot()
if i < 3 {
newSlot.EffectiveStake = nil
}
sKeys = append(sKeys, sKey)
slotList = append(slotList, newSlot)
wrapper := bls.PublicKeyWrapper{Object: sKey.GetPublicKey()}
wrapper.Bytes.FromLibBLSPublicKey(wrapper.Object)
pubKeys = append(pubKeys, wrapper)
}
// make all external keys belong to same account
slotList[3].EcdsaAddress = slotList[7].EcdsaAddress
slotList[4].EcdsaAddress = slotList[7].EcdsaAddress
slotList[5].EcdsaAddress = slotList[7].EcdsaAddress
slotList[6].EcdsaAddress = slotList[7].EcdsaAddress
decider.UpdateParticipants(pubKeys, []bls.PublicKeyWrapper{})
decider.SetVoters(&shard.Committee{
3 years ago
ShardID: shard.BeaconChainShardID, Slots: slotList,
}, big.NewInt(3))
aggSig := &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[0], &sKeys[1]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
// aggregate sig from all of 2 harmony nodes
decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[0], &pubKeys[1]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if decider.IsQuorumAchieved(Prepare) {
test.Error("quorum should not have been achieved with 2 harmony nodes")
}
if decider.SignersCount(Prepare) != 2 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 2)
}
aggSig = &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[3], &sKeys[4]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
// aggregate sig from all of 2 external nodes
_, err := decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[3], &pubKeys[4]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if err != nil {
test.Error(err, "expect no error")
}
if decider.SignersCount(Prepare) != 4 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 4)
}
// Aggregate Vote should only contain sig from 0, 1, 3, 4
fourSigs := decider.AggregateVotes(Prepare)
aggPubKey := &bls_core.PublicKey{}
for _, priKey := range []*bls_core.PublicKey{pubKeys[0].Object, pubKeys[1].Object, pubKeys[3].Object, pubKeys[4].Object} {
aggPubKey.Add(priKey)
}
if !fourSigs.VerifyHash(aggPubKey, blockHash[:]) {
test.Error("Failed to aggregate votes for 4 keys from 2 aggregate sigs")
}
_, err = decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[3], &pubKeys[7]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if !strings.Contains(err.Error(), "vote is already submitted") {
test.Error(err, "expect error due to already submitted votes")
}
if decider.SignersCount(Prepare) != 4 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 4)
}
_, err = decider.AddNewVote(Prepare,
[]*bls.PublicKeyWrapper{&pubKeys[6], &pubKeys[5], &pubKeys[6]},
aggSig,
common.BytesToHash(blockHash[:]),
blockNum,
viewID)
if !strings.Contains(err.Error(), "duplicate key found in votes") {
test.Error(err, "expect error due to duplicate keys in aggregated votes")
}
if decider.SignersCount(Prepare) != 4 {
test.Errorf("signers are incorrect for harmony nodes signing with aggregate sig: have %d, expect %d", decider.SignersCount(Prepare), 4)
}
}
func TestInvalidAggregateSig(test *testing.T) {
shard.Schedule = shardingconfig.LocalnetSchedule
blockHash := [32]byte{}
copy(blockHash[:], []byte("random"))
slotList := shard.SlotList{}
sKeys := []bls_core.SecretKey{}
pubKeys := []bls.PublicKeyWrapper{}
quorumNodes := 8
for i := 0; i < quorumNodes; i++ {
newSlot, sKey := generateRandomSlot()
if i < 3 {
newSlot.EffectiveStake = nil
}
sKeys = append(sKeys, sKey)
slotList = append(slotList, newSlot)
wrapper := bls.PublicKeyWrapper{Object: sKey.GetPublicKey()}
wrapper.Bytes.FromLibBLSPublicKey(wrapper.Object)
pubKeys = append(pubKeys, wrapper)
}
aggSig := &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[0], &sKeys[1], &sKeys[2], &sKeys[2]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
aggPubKey := &bls_core.PublicKey{}
for _, priKey := range []*bls_core.PublicKey{pubKeys[0].Object, pubKeys[1].Object, pubKeys[2].Object} {
aggPubKey.Add(priKey)
}
if aggSig.VerifyHash(aggPubKey, blockHash[:]) {
test.Error("Expect aggregate signature verification to fail due to duplicate signing from one key")
}
aggSig = &bls_core.Sign{}
for _, priKey := range []*bls_core.SecretKey{&sKeys[0], &sKeys[1], &sKeys[2]} {
if s := priKey.SignHash(blockHash[:]); s != nil {
aggSig.Add(s)
}
}
if !aggSig.VerifyHash(aggPubKey, blockHash[:]) {
test.Error("Expect aggregate signature verification to succeed with correctly matched keys and sigs")
}
}
func TestNthNextHmyExt(test *testing.T) {
numHmyNodes := 10
numAllExtNodes := 10
numAllowlistExtNodes := numAllExtNodes / 2
allowlist := shardingconfig.Allowlist{MaxLimitPerShard: numAllowlistExtNodes - 1}
blsKeys := []harmony_bls.PublicKeyWrapper{}
for i := 0; i < numHmyNodes+numAllExtNodes; i++ {
blsKey := harmony_bls.RandPrivateKey()
wrapper := harmony_bls.PublicKeyWrapper{Object: blsKey.GetPublicKey()}
wrapper.Bytes.FromLibBLSPublicKey(wrapper.Object)
blsKeys = append(blsKeys, wrapper)
}
allowlistLeaders := blsKeys[len(blsKeys)-allowlist.MaxLimitPerShard:]
allLeaders := append(blsKeys[:numHmyNodes], allowlistLeaders...)
decider := NewDecider(SuperMajorityVote, shard.BeaconChainShardID)
core, internal/configs: HIP28-v2 fee collection (#4410) * core, internal/configs: HIP28-v2 fee collection Based on the Snapshot vote that has passed, collect 50% of the fee to a community maintained account and the remainder to an account used to pay for infrastructure costs. Note that these accounts need to be decided and set in the code at this moment, and the feature needs to be activated by setting the `FeeCollectEpoch` of the `ChainConfig` object. The implementation for devnet is a bit different than compared to others because the feature was activated on devnet with 100% collection to an account. I have handled this case separately in `devnet.go`. * test: add test for StateTransition.ApplyMessage The objective of this unit test is to check that the fees of a transaction are appropriately credited to the fee collectors that are set. This means, for a transaction of 21,000 gas limit and 100 gwei gas price, two equal fee collectors get 10,500 * 100 gwei each. In addition, to be clear that the refund mechanism (in case a transaction with extra gas comes in) works, the tested transaction has a 50,000 gas limit of which only 21,000 gas limit is actually consumed. * sharding/config: clarify local fee collector pk * sharding/config: set testnet fee collector same as devnet * test: add test for truncated fee distribution * sharding/config: set fee collector addresses * test: hardcode the expected fee collected * goimports * params/config: set testnet fee collect epoch Schedule testnet hard fork epoch to be 1296, which begins around the time 2023-04-28 07:14:20+00:00 * params/config: schedule devnee fee collection Signed-off-by: MaxMustermann2 <82761650+MaxMustermann2@users.noreply.github.com>
2 years ago
fakeInstance := shardingconfig.MustNewInstance(2, 20, numHmyNodes, 0, numeric.OneDec(), nil, nil, allowlist, nil, nil, 0)
decider.UpdateParticipants(blsKeys, allowlistLeaders)
for i := 0; i < len(allLeaders); i++ {
leader := allLeaders[i]
for j := 0; j < len(allLeaders)*2; j++ {
expectNextLeader := allLeaders[(i+j)%len(allLeaders)]
found, nextLeader := decider.NthNextHmyExt(fakeInstance, &leader, j)
if !found {
test.Fatal("next leader not found")
}
if expectNextLeader.Bytes != nextLeader.Bytes {
test.Fatal("next leader is not expected")
}
preJ := -j
preIndex := (i + len(allLeaders) + preJ%len(allLeaders)) % len(allLeaders)
expectPreLeader := allLeaders[preIndex]
found, preLeader := decider.NthNextHmyExt(fakeInstance, &leader, preJ)
if !found {
test.Fatal("previous leader not found")
}
if expectPreLeader.Bytes != preLeader.Bytes {
test.Fatal("previous leader is not expected")
}
}
}
}