Golang store.FindClusters函數代碼示例

func TestClusterStorePasshphraseRotationForRootCA(t *testing.T) {
	if !*integrationTests {
		t.Skip("integration test")
	}
	os.Setenv(ca.PassphraseENVVar, "password1")
	defer os.Setenv(ca.PassphraseENVVar, "")
	defer os.Setenv(ca.PassphraseENVVarPrev, "")

	mCount, aCount := 5, 15
	c := createManagersCluster(t, mCount, aCount)
	require.NoError(t, testutils.PollFunc(nil, c.pollRegister))

	// Get the leader
	leader, err := c.leader()
	assert.NoError(t, err)

	// check key material in store
	var clusters []*api.Cluster
	leader.m.RaftNode.MemoryStore().View(func(tx store.ReadTx) {
		clusters, err = store.FindClusters(tx, store.All)
	})
	assert.NoError(t, err)
	assert.Len(t, clusters, 1, "there should be one cluster")
	assert.NotNil(t, clusters[0].RootCA.CACert)
	assert.NotNil(t, clusters[0].RootCA.CAKey)
	assert.Contains(t, string(clusters[0].RootCA.CAKey), "Proc-Type: 4,ENCRYPTED")

	firstEncryptedKey := clusters[0].RootCA.CAKey

	// Set an ENV passphrase and kill the current leader
	os.Setenv(ca.PassphraseENVVarPrev, "password1")
	os.Setenv(ca.PassphraseENVVar, "password2")
	require.NoError(t, c.destroyLeader())

	// ensure that cluster will converge to expected number of agents, we need big timeout because of heartbeat times
	require.NoError(t, testutils.PollFuncWithTimeout(nil, c.pollRegister, 30*time.Second))

	// Get the new leader
	leader, err = c.leader()
	assert.NoError(t, err)
	// check key material in store
	leader.m.RaftNode.MemoryStore().View(func(tx store.ReadTx) {
		clusters, err = store.FindClusters(tx, store.All)
	})
	assert.NoError(t, err)
	assert.Len(t, clusters, 1, "there should be one cluster")
	assert.NotNil(t, clusters[0].RootCA.CACert)
	assert.NotNil(t, clusters[0].RootCA.CAKey)
	assert.Contains(t, string(clusters[0].RootCA.CAKey), "Proc-Type: 4,ENCRYPTED")
	assert.NotEqual(t, firstEncryptedKey, clusters[0].RootCA.CAKey)

}

// Verify the key generation and rotation for default subsystems
func TestKeyManagerDefaultSubsystem(t *testing.T) {
	st := store.NewMemoryStore(nil)
	defer st.Close()
	createCluster(t, st, "default", "default")

	k := New(st, DefaultConfig())

	ctx := context.Background()
	go k.Run(ctx)
	time.Sleep(250 * time.Millisecond)

	// verify the number of keys allocated matches the keyring size.
	var (
		clusters []*api.Cluster
		err      error
	)
	k.store.View(func(readTx store.ReadTx) {
		clusters, err = store.FindClusters(readTx, store.ByName(k.config.ClusterName))
	})

	assert.NoError(t, err)
	assert.Equal(t, len(clusters[0].NetworkBootstrapKeys), len(k.config.Subsystems)*keyringSize)

	key1 := clusters[0].NetworkBootstrapKeys[0].Key

	k.rotateKey(ctx)

	// verify that after a rotation oldest key has been removed from the keyring
	assert.Equal(t, len(k.keyRing.keys), len(k.config.Subsystems)*keyringSize)
	for _, key := range k.keyRing.keys {
		match := bytes.Equal(key.Key, key1)
		assert.False(t, match)
	}
}

// WaitForCluster waits until node observes that the cluster wide config is
// committed to raft. This ensures that we can see and serve informations
// related to the cluster.
func WaitForCluster(ctx context.Context, n *Node) (cluster *api.Cluster, err error) {
	watch, cancel := state.Watch(n.MemoryStore().WatchQueue(), state.EventCreateCluster{})
	defer cancel()

	var clusters []*api.Cluster
	n.MemoryStore().View(func(readTx store.ReadTx) {
		clusters, err = store.FindClusters(readTx, store.ByName(store.DefaultClusterName))
	})

	if err != nil {
		return nil, err
	}

	if len(clusters) == 1 {
		cluster = clusters[0]
	} else {
		select {
		case e := <-watch:
			cluster = e.(state.EventCreateCluster).Cluster
		case <-ctx.Done():
			return nil, ctx.Err()
		}
	}

	return cluster, nil
}

func TestClusterStoreWithPasshphraseForRootCA(t *testing.T) {
	if !*integrationTests {
		t.Skip("integration test")
	}
	// Start with a passphrase from moment 0
	os.Setenv(ca.PassphraseENVVar, "password1")
	defer os.Setenv(ca.PassphraseENVVar, "")
	defer os.Setenv(ca.PassphraseENVVarPrev, "")

	mCount, aCount := 5, 15
	c := createManagersCluster(t, mCount, aCount)
	require.NoError(t, testutils.PollFunc(nil, c.pollRegister))

	// Get the leader
	leader, err := c.leader()
	assert.NoError(t, err)

	// check key material in store
	var clusters []*api.Cluster
	leader.m.RaftNode.MemoryStore().View(func(tx store.ReadTx) {
		clusters, err = store.FindClusters(tx, store.All)
	})
	assert.NoError(t, err)
	assert.Len(t, clusters, 1, "there should be one cluster")
	assert.NotNil(t, clusters[0].RootCA.CACert)
	assert.NotNil(t, clusters[0].RootCA.CAKey)
	assert.Contains(t, string(clusters[0].RootCA.CAKey), "Proc-Type: 4,ENCRYPTED")
}

func (n *Node) getCurrentRaftConfig() api.RaftConfig {
	raftConfig := DefaultRaftConfig()
	n.memoryStore.View(func(readTx store.ReadTx) {
		clusters, err := store.FindClusters(readTx, store.ByName(store.DefaultClusterName))
		if err == nil && len(clusters) == 1 {
			raftConfig = clusters[0].Spec.Raft
		}
	})
	return raftConfig
}

// ListClusters returns a list of all clusters.
func (s *Server) ListClusters(ctx context.Context, request *api.ListClustersRequest) (*api.ListClustersResponse, error) {
	var (
		clusters []*api.Cluster
		err      error
	)
	s.store.View(func(tx store.ReadTx) {
		switch {
		case request.Filters != nil && len(request.Filters.Names) > 0:
			clusters, err = store.FindClusters(tx, buildFilters(store.ByName, request.Filters.Names))
		case request.Filters != nil && len(request.Filters.NamePrefixes) > 0:
			clusters, err = store.FindClusters(tx, buildFilters(store.ByNamePrefix, request.Filters.NamePrefixes))
		case request.Filters != nil && len(request.Filters.IDPrefixes) > 0:
			clusters, err = store.FindClusters(tx, buildFilters(store.ByIDPrefix, request.Filters.IDPrefixes))
		default:
			clusters, err = store.FindClusters(tx, store.All)
		}
	})
	if err != nil {
		return nil, err
	}

	if request.Filters != nil {
		clusters = filterClusters(clusters,
			func(e *api.Cluster) bool {
				return filterContains(e.Spec.Annotations.Name, request.Filters.Names)
			},
			func(e *api.Cluster) bool {
				return filterContainsPrefix(e.Spec.Annotations.Name, request.Filters.NamePrefixes)
			},
			func(e *api.Cluster) bool {
				return filterContainsPrefix(e.ID, request.Filters.IDPrefixes)
			},
			func(e *api.Cluster) bool {
				return filterMatchLabels(e.Spec.Annotations.Labels, request.Filters.Labels)
			},
		)
	}

	// WARN: we should never return cluster here. We need to redact the private fields first.
	return &api.ListClustersResponse{
		Clusters: redactClusters(clusters),
	}, nil
}

func (r *ReplicatedOrchestrator) initCluster(readTx store.ReadTx) error {
	clusters, err := store.FindClusters(readTx, store.ByName("default"))
	if err != nil {
		return err
	}

	if len(clusters) != 1 {
		// we'll just pick it when it is created.
		return nil
	}

	r.cluster = clusters[0]
	return nil
}

// Run starts the keymanager, it doesn't return
func (k *KeyManager) Run(ctx context.Context) error {
	k.mu.Lock()
	log := log.G(ctx).WithField("module", "keymanager")
	var (
		clusters []*api.Cluster
		err      error
	)
	k.store.View(func(readTx store.ReadTx) {
		clusters, err = store.FindClusters(readTx, store.ByName(k.config.ClusterName))
	})

	if err != nil {
		log.Errorf("reading cluster config failed, %v", err)
		k.mu.Unlock()
		return err
	}

	cluster := clusters[0]
	if len(cluster.NetworkBootstrapKeys) == 0 {
		for _, subsys := range k.config.Subsystems {
			for i := 0; i < keyringSize; i++ {
				k.keyRing.keys = append(k.keyRing.keys, k.allocateKey(ctx, subsys))
			}
		}
		if err := k.updateKey(cluster); err != nil {
			log.Errorf("store update failed %v", err)
		}
	} else {
		k.keyRing.lClock = cluster.EncryptionKeyLamportClock
		k.keyRing.keys = cluster.NetworkBootstrapKeys

		k.rotateKey(ctx)
	}

	ticker := time.NewTicker(k.config.RotationInterval)
	defer ticker.Stop()

	k.ctx, k.cancel = context.WithCancel(ctx)
	k.mu.Unlock()

	for {
		select {
		case <-ticker.C:
			k.rotateKey(ctx)
		case <-k.ctx.Done():
			return nil
		}
	}
}

func (k *KeyManager) rotateKey(ctx context.Context) error {
	log := log.G(ctx).WithField("module", "keymanager")
	var (
		clusters []*api.Cluster
		err      error
	)
	k.store.View(func(readTx store.ReadTx) {
		clusters, err = store.FindClusters(readTx, store.ByName(k.config.ClusterName))
	})

	if err != nil {
		log.Errorf("reading cluster config failed, %v", err)
		return err
	}

	cluster := clusters[0]
	if len(cluster.NetworkBootstrapKeys) == 0 {
		panic(fmt.Errorf("no key in the cluster config"))
	}

	subsysKeys := map[string][]*api.EncryptionKey{}
	for _, key := range k.keyRing.keys {
		subsysKeys[key.Subsystem] = append(subsysKeys[key.Subsystem], key)
	}
	k.keyRing.keys = []*api.EncryptionKey{}

	// We maintain the latest key and the one before in the key ring to allow
	// agents to communicate without disruption on key change.
	for subsys, keys := range subsysKeys {
		if len(keys) == keyringSize {
			min := 0
			for i, key := range keys[1:] {
				if key.LamportTime < keys[min].LamportTime {
					min = i
				}
			}
			keys = append(keys[0:min], keys[min+1:]...)
		}
		keys = append(keys, k.allocateKey(ctx, subsys))
		subsysKeys[subsys] = keys
	}

	for _, keys := range subsysKeys {
		k.keyRing.keys = append(k.keyRing.keys, keys...)
	}

	return k.updateKey(cluster)
}

func TestGetUnlockKey(t *testing.T) {
	t.Parallel()

	tc := testutils.NewTestCA(t)
	defer tc.Stop()

	var cluster *api.Cluster
	tc.MemoryStore.View(func(tx store.ReadTx) {
		clusters, err := store.FindClusters(tx, store.ByName(store.DefaultClusterName))
		require.NoError(t, err)
		cluster = clusters[0]
	})

	resp, err := tc.CAClients[0].GetUnlockKey(context.Background(), &api.GetUnlockKeyRequest{})
	require.NoError(t, err)
	require.Nil(t, resp.UnlockKey)
	require.Equal(t, cluster.Meta.Version, resp.Version)

	// Update the unlock key
	require.NoError(t, tc.MemoryStore.Update(func(tx store.Tx) error {
		cluster = store.GetCluster(tx, cluster.ID)
		cluster.Spec.EncryptionConfig.AutoLockManagers = true
		cluster.UnlockKeys = []*api.EncryptionKey{{
			Subsystem: ca.ManagerRole,
			Key:       []byte("secret"),
		}}
		return store.UpdateCluster(tx, cluster)
	}))

	tc.MemoryStore.View(func(tx store.ReadTx) {
		cluster = store.GetCluster(tx, cluster.ID)
	})

	require.NoError(t, raftutils.PollFuncWithTimeout(nil, func() error {
		resp, err = tc.CAClients[0].GetUnlockKey(context.Background(), &api.GetUnlockKeyRequest{})
		if err != nil {
			return fmt.Errorf("get unlock key: %v", err)
		}
		if !bytes.Equal(resp.UnlockKey, []byte("secret")) {
			return fmt.Errorf("secret hasn't rotated yet")
		}
		if cluster.Meta.Version.Index > resp.Version.Index {
			return fmt.Errorf("hasn't updated to the right version yet")
		}
		return nil
	}, 250*time.Millisecond))
}

// Verify the key generation and rotation for IPsec subsystem
func TestKeyManagerCustomSubsystem(t *testing.T) {
	st := store.NewMemoryStore(nil)
	defer st.Close()
	createCluster(t, st, "default", "default")

	config := &Config{
		ClusterName:      store.DefaultClusterName,
		Keylen:           DefaultKeyLen,
		RotationInterval: DefaultKeyRotationInterval,
		Subsystems:       []string{SubsystemIPSec},
	}
	k := New(st, config)

	ctx := context.Background()
	go k.Run(ctx)
	time.Sleep(250 * time.Millisecond)

	// verify the number of keys allocated matches the keyring size.
	var (
		clusters []*api.Cluster
		err      error
	)
	k.store.View(func(readTx store.ReadTx) {
		clusters, err = store.FindClusters(readTx, store.ByName(k.config.ClusterName))
	})

	assert.NoError(t, err)
	assert.Equal(t, len(clusters[0].NetworkBootstrapKeys), keyringSize)

	key1 := clusters[0].NetworkBootstrapKeys[0].Key

	k.rotateKey(ctx)

	// verify that after a rotation oldest key has been removed from the keyring
	// also verify that all keys are for the right subsystem
	assert.Equal(t, len(k.keyRing.keys), keyringSize)
	for _, key := range k.keyRing.keys {
		match := bytes.Equal(key.Key, key1)
		assert.False(t, match)
		match = key.Subsystem == SubsystemIPSec
		assert.True(t, match)
	}
}

// Verify the key generation and rotation for IPsec subsystem
func TestKeyManagerCustomSubsystem(t *testing.T) {
	st := store.NewMemoryStore(nil)
	createCluster(t, st, "default", "default")

	config := &Config{
		ClusterName:      store.DefaultClusterName,
		Keylen:           DefaultKeyLen,
		RotationInterval: DefaultKeyRotationInterval,
		Subsystems:       []string{SubsystemIPSec},
	}
	k := New(st, config)

	ctx := context.Background()
	go k.Run(ctx)
	time.Sleep(250 * time.Millisecond)

	// verify the first key has been allocated and updated in the
	// store
	var (
		clusters []*api.Cluster
		err      error
	)
	k.store.View(func(readTx store.ReadTx) {
		clusters, err = store.FindClusters(readTx, store.ByName(k.config.ClusterName))
	})

	assert.NoError(t, err)
	assert.Equal(t, len(clusters[0].NetworkBootstrapKeys), 1)

	key1 := clusters[0].NetworkBootstrapKeys[0].Key

	k.rotateKey(ctx)
	k.rotateKey(ctx)

	// verify that after two rotations keyring has two keys and the very
	// first key allocated has been removed
	assert.Equal(t, len(k.keyRing.keys), 2)
	for _, key := range k.keyRing.keys {
		match := bytes.Equal(key.Key, key1)
		assert.False(t, match)
	}
}

// Run is the TaskReaper's main loop.
func (tr *TaskReaper) Run() {
	defer close(tr.doneChan)

	tr.store.View(func(readTx store.ReadTx) {
		clusters, err := store.FindClusters(readTx, store.ByName(store.DefaultClusterName))
		if err == nil && len(clusters) == 1 {
			tr.taskHistory = clusters[0].Spec.Orchestration.TaskHistoryRetentionLimit
		}
	})

	timer := time.NewTimer(reaperBatchingInterval)

	for {
		select {
		case event := <-tr.watcher:
			switch v := event.(type) {
			case state.EventCreateTask:
				t := v.Task
				tr.dirty[instanceTuple{
					instance:  t.Slot,
					serviceID: t.ServiceID,
					nodeID:    t.NodeID,
				}] = struct{}{}
				if len(tr.dirty) > maxDirty {
					timer.Stop()
					tr.tick()
				} else {
					timer.Reset(reaperBatchingInterval)
				}
			case state.EventUpdateCluster:
				tr.taskHistory = v.Cluster.Spec.Orchestration.TaskHistoryRetentionLimit
			}
		case <-timer.C:
			timer.Stop()
			tr.tick()
		case <-tr.stopChan:
			timer.Stop()
			return
		}
	}
}

// Run runs the CA signer main loop.
// The CA signer can be stopped with cancelling ctx or calling Stop().
func (s *Server) Run(ctx context.Context) error {
	s.mu.Lock()
	if s.isRunning() {
		s.mu.Unlock()
		return fmt.Errorf("CA signer is already running")
	}
	s.wg.Add(1)
	s.mu.Unlock()

	defer s.wg.Done()
	logger := log.G(ctx).WithField("module", "ca")
	ctx = log.WithLogger(ctx, logger)

	// Run() should never be called twice, but just in case, we're
	// attempting to close the started channel in a safe way
	select {
	case <-s.started:
		return fmt.Errorf("CA server cannot be started more than once")
	default:
		close(s.started)
	}

	// Retrieve the channels to keep track of changes in the cluster
	// Retrieve all the currently registered nodes
	var nodes []*api.Node
	updates, cancel, err := store.ViewAndWatch(
		s.store,
		func(readTx store.ReadTx) error {
			clusters, err := store.FindClusters(readTx, store.ByName(store.DefaultClusterName))
			if err != nil {
				return err
			}
			if len(clusters) != 1 {
				return fmt.Errorf("could not find cluster object")
			}
			s.updateCluster(ctx, clusters[0])

			nodes, err = store.FindNodes(readTx, store.All)
			return err
		},
		state.EventCreateNode{},
		state.EventUpdateNode{},
		state.EventUpdateCluster{},
	)

	// Do this after updateCluster has been called, so isRunning never
	// returns true without joinTokens being set correctly.
	s.mu.Lock()
	s.ctx, s.cancel = context.WithCancel(ctx)
	s.mu.Unlock()

	if err != nil {
		log.G(ctx).WithFields(logrus.Fields{
			"method": "(*Server).Run",
		}).WithError(err).Errorf("snapshot store view failed")
		return err
	}
	defer cancel()

	// We might have missed some updates if there was a leader election,
	// so let's pick up the slack.
	if err := s.reconcileNodeCertificates(ctx, nodes); err != nil {
		// We don't return here because that means the Run loop would
		// never run. Log an error instead.
		log.G(ctx).WithFields(logrus.Fields{
			"method": "(*Server).Run",
		}).WithError(err).Errorf("error attempting to reconcile certificates")
	}

	// Watch for new nodes being created, new nodes being updated, and changes
	// to the cluster
	for {
		select {
		case event := <-updates:
			switch v := event.(type) {
			case state.EventCreateNode:
				s.evaluateAndSignNodeCert(ctx, v.Node)
			case state.EventUpdateNode:
				// If this certificate is already at a final state
				// no need to evaluate and sign it.
				if !isFinalState(v.Node.Certificate.Status) {
					s.evaluateAndSignNodeCert(ctx, v.Node)
				}
			case state.EventUpdateCluster:
				s.updateCluster(ctx, v.Cluster)
			}

		case <-ctx.Done():
			return ctx.Err()
		case <-s.ctx.Done():
			return nil
		}
	}
}

// Run starts all manager sub-systems and the gRPC server at the configured
// address.
// The call never returns unless an error occurs or `Stop()` is called.
func (m *Manager) Run(parent context.Context) error {
	ctx, ctxCancel := context.WithCancel(parent)
	defer ctxCancel()

	m.cancelFunc = ctxCancel

	leadershipCh, cancel := m.raftNode.SubscribeLeadership()
	defer cancel()

	go m.handleLeadershipEvents(ctx, leadershipCh)

	authorize := func(ctx context.Context, roles []string) error {
		var (
			blacklistedCerts map[string]*api.BlacklistedCertificate
			clusters         []*api.Cluster
			err              error
		)

		m.raftNode.MemoryStore().View(func(readTx store.ReadTx) {
			clusters, err = store.FindClusters(readTx, store.ByName("default"))

		})

		// Not having a cluster object yet means we can't check
		// the blacklist.
		if err == nil && len(clusters) == 1 {
			blacklistedCerts = clusters[0].BlacklistedCertificates
		}

		// Authorize the remote roles, ensure they can only be forwarded by managers
		_, err = ca.AuthorizeForwardedRoleAndOrg(ctx, roles, []string{ca.ManagerRole}, m.config.SecurityConfig.ClientTLSCreds.Organization(), blacklistedCerts)
		return err
	}

	baseControlAPI := controlapi.NewServer(m.raftNode.MemoryStore(), m.raftNode, m.config.SecurityConfig.RootCA(), m.config.PluginGetter)
	baseResourceAPI := resourceapi.New(m.raftNode.MemoryStore())
	healthServer := health.NewHealthServer()
	localHealthServer := health.NewHealthServer()

	authenticatedControlAPI := api.NewAuthenticatedWrapperControlServer(baseControlAPI, authorize)
	authenticatedResourceAPI := api.NewAuthenticatedWrapperResourceAllocatorServer(baseResourceAPI, authorize)
	authenticatedLogsServerAPI := api.NewAuthenticatedWrapperLogsServer(m.logbroker, authorize)
	authenticatedLogBrokerAPI := api.NewAuthenticatedWrapperLogBrokerServer(m.logbroker, authorize)
	authenticatedDispatcherAPI := api.NewAuthenticatedWrapperDispatcherServer(m.dispatcher, authorize)
	authenticatedCAAPI := api.NewAuthenticatedWrapperCAServer(m.caserver, authorize)
	authenticatedNodeCAAPI := api.NewAuthenticatedWrapperNodeCAServer(m.caserver, authorize)
	authenticatedRaftAPI := api.NewAuthenticatedWrapperRaftServer(m.raftNode, authorize)
	authenticatedHealthAPI := api.NewAuthenticatedWrapperHealthServer(healthServer, authorize)
	authenticatedRaftMembershipAPI := api.NewAuthenticatedWrapperRaftMembershipServer(m.raftNode, authorize)

	proxyDispatcherAPI := api.NewRaftProxyDispatcherServer(authenticatedDispatcherAPI, m.raftNode, nil, ca.WithMetadataForwardTLSInfo)
	proxyCAAPI := api.NewRaftProxyCAServer(authenticatedCAAPI, m.raftNode, nil, ca.WithMetadataForwardTLSInfo)
	proxyNodeCAAPI := api.NewRaftProxyNodeCAServer(authenticatedNodeCAAPI, m.raftNode, nil, ca.WithMetadataForwardTLSInfo)
	proxyRaftMembershipAPI := api.NewRaftProxyRaftMembershipServer(authenticatedRaftMembershipAPI, m.raftNode, nil, ca.WithMetadataForwardTLSInfo)
	proxyResourceAPI := api.NewRaftProxyResourceAllocatorServer(authenticatedResourceAPI, m.raftNode, nil, ca.WithMetadataForwardTLSInfo)
	proxyLogBrokerAPI := api.NewRaftProxyLogBrokerServer(authenticatedLogBrokerAPI, m.raftNode, nil, ca.WithMetadataForwardTLSInfo)

	// The following local proxies are only wired up to receive requests
	// from a trusted local socket, and these requests don't use TLS,
	// therefore the requests they handle locally should bypass
	// authorization. When requests are proxied from these servers, they
	// are sent as requests from this manager rather than forwarded
	// requests (it has no TLS information to put in the metadata map).
	forwardAsOwnRequest := func(ctx context.Context) (context.Context, error) { return ctx, nil }
	handleRequestLocally := func(ctx context.Context) (context.Context, error) {
		remoteAddr := "127.0.0.1:0"

		m.addrMu.Lock()
		if m.config.RemoteAPI != nil {
			if m.config.RemoteAPI.AdvertiseAddr != "" {
				remoteAddr = m.config.RemoteAPI.AdvertiseAddr
			} else {
				remoteAddr = m.config.RemoteAPI.ListenAddr
			}
		}
		m.addrMu.Unlock()

		creds := m.config.SecurityConfig.ClientTLSCreds

		nodeInfo := ca.RemoteNodeInfo{
			Roles:        []string{creds.Role()},
			Organization: creds.Organization(),
			NodeID:       creds.NodeID(),
			RemoteAddr:   remoteAddr,
		}

		return context.WithValue(ctx, ca.LocalRequestKey, nodeInfo), nil
	}
	localProxyControlAPI := api.NewRaftProxyControlServer(baseControlAPI, m.raftNode, handleRequestLocally, forwardAsOwnRequest)
	localProxyLogsAPI := api.NewRaftProxyLogsServer(m.logbroker, m.raftNode, handleRequestLocally, forwardAsOwnRequest)
	localProxyDispatcherAPI := api.NewRaftProxyDispatcherServer(m.dispatcher, m.raftNode, handleRequestLocally, forwardAsOwnRequest)
	localProxyCAAPI := api.NewRaftProxyCAServer(m.caserver, m.raftNode, handleRequestLocally, forwardAsOwnRequest)
	localProxyNodeCAAPI := api.NewRaftProxyNodeCAServer(m.caserver, m.raftNode, handleRequestLocally, forwardAsOwnRequest)
	localProxyResourceAPI := api.NewRaftProxyResourceAllocatorServer(baseResourceAPI, m.raftNode, handleRequestLocally, forwardAsOwnRequest)
	localProxyLogBrokerAPI := api.NewRaftProxyLogBrokerServer(m.logbroker, m.raftNode, handleRequestLocally, forwardAsOwnRequest)

	// Everything registered on m.server should be an authenticated
//.........這裏部分代碼省略.........