| /* |
| * Copyright 2019-present Open Networking Foundation |
| * |
| * Licensed under the Apache License, Version 2.0 (the "License"); |
| * you may not use this file except in compliance with the License. |
| * You may obtain a copy of the License at |
| * |
| * http://www.apache.org/licenses/LICENSE-2.0 |
| * |
| * Unless required by applicable law or agreed to in writing, software |
| * distributed under the License is distributed on an "AS IS" BASIS, |
| * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. |
| * See the License for the specific language governing permissions and |
| * limitations under the License. |
| */ |
| |
| package api |
| |
| import ( |
| "context" |
| "errors" |
| "fmt" |
| "math/rand" |
| "os" |
| "runtime" |
| "runtime/pprof" |
| "strings" |
| "sync" |
| "testing" |
| "time" |
| |
| "github.com/golang/protobuf/ptypes/empty" |
| "github.com/opencord/voltha-go/db/model" |
| "github.com/opencord/voltha-go/rw_core/config" |
| "github.com/opencord/voltha-go/rw_core/core/adapter" |
| "github.com/opencord/voltha-go/rw_core/core/device" |
| cm "github.com/opencord/voltha-go/rw_core/mocks" |
| "github.com/opencord/voltha-lib-go/v3/pkg/db" |
| "github.com/opencord/voltha-lib-go/v3/pkg/flows" |
| "github.com/opencord/voltha-lib-go/v3/pkg/kafka" |
| "github.com/opencord/voltha-lib-go/v3/pkg/log" |
| mock_etcd "github.com/opencord/voltha-lib-go/v3/pkg/mocks/etcd" |
| mock_kafka "github.com/opencord/voltha-lib-go/v3/pkg/mocks/kafka" |
| "github.com/opencord/voltha-lib-go/v3/pkg/version" |
| ofp "github.com/opencord/voltha-protos/v3/go/openflow_13" |
| "github.com/opencord/voltha-protos/v3/go/voltha" |
| "github.com/phayes/freeport" |
| "github.com/stretchr/testify/assert" |
| "google.golang.org/grpc/codes" |
| "google.golang.org/grpc/status" |
| ) |
| |
| const ( |
| coreName = "rw_core" |
| ) |
| |
| type NBTest struct { |
| etcdServer *mock_etcd.EtcdServer |
| deviceMgr *device.Manager |
| logicalDeviceMgr *device.LogicalManager |
| adapterMgr *adapter.Manager |
| kmp kafka.InterContainerProxy |
| kClient kafka.Client |
| kvClientPort int |
| numONUPerOLT int |
| startingUNIPortNo int |
| oltAdapter *cm.OLTAdapter |
| onuAdapter *cm.ONUAdapter |
| oltAdapterName string |
| onuAdapterName string |
| coreInstanceID string |
| defaultTimeout time.Duration |
| maxTimeout time.Duration |
| } |
| |
| func newNBTest() *NBTest { |
| test := &NBTest{} |
| // Start the embedded etcd server |
| var err error |
| test.etcdServer, test.kvClientPort, err = startEmbeddedEtcdServer("voltha.rwcore.nb.test", "voltha.rwcore.nb.etcd", "error") |
| if err != nil { |
| logger.Fatal(err) |
| } |
| // Create the kafka client |
| test.kClient = mock_kafka.NewKafkaClient() |
| test.oltAdapterName = "olt_adapter_mock" |
| test.onuAdapterName = "onu_adapter_mock" |
| test.coreInstanceID = "rw-nbi-test" |
| test.defaultTimeout = 10 * time.Second |
| test.maxTimeout = 20 * time.Second |
| return test |
| } |
| |
| func (nb *NBTest) startCore(inCompeteMode bool) { |
| ctx, cancel := context.WithTimeout(context.Background(), 1*time.Second) |
| defer cancel() |
| cfg := config.NewRWCoreFlags() |
| cfg.CorePairTopic = "rw_core" |
| cfg.DefaultRequestTimeout = nb.defaultTimeout |
| cfg.DefaultCoreTimeout = nb.defaultTimeout |
| cfg.KVStorePort = nb.kvClientPort |
| cfg.InCompetingMode = inCompeteMode |
| grpcPort, err := freeport.GetFreePort() |
| if err != nil { |
| logger.Fatal("Cannot get a freeport for grpc") |
| } |
| cfg.GrpcPort = grpcPort |
| cfg.GrpcHost = "127.0.0.1" |
| setCoreCompeteMode(inCompeteMode) |
| client := setupKVClient(cfg, nb.coreInstanceID) |
| backend := &db.Backend{ |
| Client: client, |
| StoreType: cfg.KVStoreType, |
| Host: cfg.KVStoreHost, |
| Port: cfg.KVStorePort, |
| Timeout: cfg.KVStoreTimeout, |
| LivenessChannelInterval: cfg.LiveProbeInterval / 2, |
| PathPrefix: cfg.KVStoreDataPrefix} |
| nb.kmp = kafka.NewInterContainerProxy( |
| kafka.InterContainerHost(cfg.KafkaAdapterHost), |
| kafka.InterContainerPort(cfg.KafkaAdapterPort), |
| kafka.MsgClient(nb.kClient), |
| kafka.DefaultTopic(&kafka.Topic{Name: cfg.CoreTopic}), |
| kafka.DeviceDiscoveryTopic(&kafka.Topic{Name: cfg.AffinityRouterTopic})) |
| |
| endpointMgr := kafka.NewEndpointManager(backend) |
| proxy := model.NewProxy(backend, "/") |
| nb.adapterMgr = adapter.NewAdapterManager(proxy, nb.coreInstanceID, nb.kClient) |
| nb.deviceMgr, nb.logicalDeviceMgr = device.NewManagers(proxy, nb.adapterMgr, nb.kmp, endpointMgr, cfg.CorePairTopic, nb.coreInstanceID, cfg.DefaultCoreTimeout) |
| nb.adapterMgr.Start(ctx) |
| |
| if err := nb.kmp.Start(); err != nil { |
| logger.Fatalf("Cannot start InterContainerProxy: %s", err) |
| } |
| requestProxy := NewAdapterRequestHandlerProxy(nb.deviceMgr, nb.adapterMgr) |
| if err := nb.kmp.SubscribeWithRequestHandlerInterface(kafka.Topic{Name: cfg.CoreTopic}, requestProxy); err != nil { |
| logger.Fatalf("Cannot add request handler: %s", err) |
| } |
| if err := nb.kmp.SubscribeWithDefaultRequestHandler(kafka.Topic{Name: cfg.CorePairTopic}, kafka.OffsetNewest); err != nil { |
| logger.Fatalf("Cannot add default request handler: %s", err) |
| } |
| } |
| |
| func (nb *NBTest) createAndregisterAdapters(t *testing.T) { |
| // Setup the mock OLT adapter |
| oltAdapter, err := createMockAdapter(OltAdapter, nb.kClient, nb.coreInstanceID, coreName, nb.oltAdapterName) |
| if err != nil { |
| logger.Fatalw("setting-mock-olt-adapter-failed", log.Fields{"error": err}) |
| } |
| nb.oltAdapter = (oltAdapter).(*cm.OLTAdapter) |
| nb.numONUPerOLT = nb.oltAdapter.GetNumONUPerOLT() |
| nb.startingUNIPortNo = nb.oltAdapter.GetStartingUNIPortNo() |
| |
| // Register the adapter |
| registrationData := &voltha.Adapter{ |
| Id: nb.oltAdapterName, |
| Vendor: "Voltha-olt", |
| Version: version.VersionInfo.Version, |
| Type: nb.oltAdapterName, |
| CurrentReplica: 1, |
| TotalReplicas: 1, |
| Endpoint: nb.oltAdapterName, |
| } |
| types := []*voltha.DeviceType{{Id: nb.oltAdapterName, Adapter: nb.oltAdapterName, AcceptsAddRemoveFlowUpdates: true}} |
| deviceTypes := &voltha.DeviceTypes{Items: types} |
| if _, err := nb.adapterMgr.RegisterAdapter(registrationData, deviceTypes); err != nil { |
| logger.Errorw("failed-to-register-adapter", log.Fields{"error": err}) |
| assert.NotNil(t, err) |
| } |
| |
| // Setup the mock ONU adapter |
| onuAdapter, err := createMockAdapter(OnuAdapter, nb.kClient, nb.coreInstanceID, coreName, nb.onuAdapterName) |
| if err != nil { |
| logger.Fatalw("setting-mock-onu-adapter-failed", log.Fields{"error": err}) |
| } |
| nb.onuAdapter = (onuAdapter).(*cm.ONUAdapter) |
| |
| // Register the adapter |
| registrationData = &voltha.Adapter{ |
| Id: nb.onuAdapterName, |
| Vendor: "Voltha-onu", |
| Version: version.VersionInfo.Version, |
| Type: nb.onuAdapterName, |
| CurrentReplica: 1, |
| TotalReplicas: 1, |
| Endpoint: nb.onuAdapterName, |
| } |
| types = []*voltha.DeviceType{{Id: nb.onuAdapterName, Adapter: nb.onuAdapterName, AcceptsAddRemoveFlowUpdates: true}} |
| deviceTypes = &voltha.DeviceTypes{Items: types} |
| if _, err := nb.adapterMgr.RegisterAdapter(registrationData, deviceTypes); err != nil { |
| logger.Errorw("failed-to-register-adapter", log.Fields{"error": err}) |
| assert.NotNil(t, err) |
| } |
| } |
| |
| func (nb *NBTest) stopAll() { |
| if nb.kClient != nil { |
| nb.kClient.Stop() |
| } |
| if nb.kmp != nil { |
| nb.kmp.Stop() |
| } |
| if nb.etcdServer != nil { |
| stopEmbeddedEtcdServer(nb.etcdServer) |
| } |
| } |
| |
| func (nb *NBTest) verifyLogicalDevices(t *testing.T, oltDevice *voltha.Device, nbi *NBIHandler) { |
| // Get the latest set of logical devices |
| logicalDevices, err := nbi.ListLogicalDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, logicalDevices) |
| assert.Equal(t, 1, len(logicalDevices.Items)) |
| |
| ld := logicalDevices.Items[0] |
| assert.NotEqual(t, "", ld.Id) |
| assert.NotEqual(t, uint64(0), ld.DatapathId) |
| assert.Equal(t, "olt_adapter_mock", ld.Desc.HwDesc) |
| assert.Equal(t, "olt_adapter_mock", ld.Desc.SwDesc) |
| assert.NotEqual(t, "", ld.RootDeviceId) |
| assert.NotEqual(t, "", ld.Desc.SerialNum) |
| assert.Equal(t, uint32(256), ld.SwitchFeatures.NBuffers) |
| assert.Equal(t, uint32(2), ld.SwitchFeatures.NTables) |
| assert.Equal(t, uint32(15), ld.SwitchFeatures.Capabilities) |
| assert.Equal(t, 1+nb.numONUPerOLT, len(ld.Ports)) |
| assert.Equal(t, oltDevice.ParentId, ld.Id) |
| //Expected port no |
| expectedPortNo := make(map[uint32]bool) |
| expectedPortNo[uint32(2)] = false |
| for i := 0; i < nb.numONUPerOLT; i++ { |
| expectedPortNo[uint32(i+100)] = false |
| } |
| for _, p := range ld.Ports { |
| assert.Equal(t, p.OfpPort.PortNo, p.DevicePortNo) |
| assert.Equal(t, uint32(4), p.OfpPort.State) |
| expectedPortNo[p.OfpPort.PortNo] = true |
| if strings.HasPrefix(p.Id, "nni") { |
| assert.Equal(t, true, p.RootPort) |
| //assert.Equal(t, uint32(2), p.OfpPort.PortNo) |
| assert.Equal(t, p.Id, fmt.Sprintf("nni-%d", p.DevicePortNo)) |
| } else { |
| assert.Equal(t, p.Id, fmt.Sprintf("uni-%d", p.DevicePortNo)) |
| assert.Equal(t, false, p.RootPort) |
| } |
| } |
| } |
| |
| func (nb *NBTest) verifyDevices(t *testing.T, nbi *NBIHandler) { |
| // Get the latest set of devices |
| devices, err := nbi.ListDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, devices) |
| |
| // A device is ready to be examined when its ADMIN state is ENABLED and OPERATIONAL state is ACTIVE |
| var vFunction isDeviceConditionSatisfied = func(device *voltha.Device) bool { |
| return device.AdminState == voltha.AdminState_ENABLED && device.OperStatus == voltha.OperStatus_ACTIVE |
| } |
| |
| var wg sync.WaitGroup |
| for _, device := range devices.Items { |
| wg.Add(1) |
| go func(wg *sync.WaitGroup, device *voltha.Device) { |
| // Wait until the device is in the right state |
| err := waitUntilDeviceReadiness(device.Id, nb.maxTimeout, vFunction, nbi) |
| assert.Nil(t, err) |
| |
| // Now, verify the details of the device. First get the latest update |
| d, err := nbi.GetDevice(getContext(), &voltha.ID{Id: device.Id}) |
| assert.Nil(t, err) |
| assert.Equal(t, voltha.AdminState_ENABLED, d.AdminState) |
| assert.Equal(t, voltha.ConnectStatus_REACHABLE, d.ConnectStatus) |
| assert.Equal(t, voltha.OperStatus_ACTIVE, d.OperStatus) |
| assert.Equal(t, d.Type, d.Adapter) |
| assert.NotEqual(t, "", d.MacAddress) |
| assert.NotEqual(t, "", d.SerialNumber) |
| |
| if d.Type == "olt_adapter_mock" { |
| assert.Equal(t, true, d.Root) |
| assert.NotEqual(t, "", d.Id) |
| assert.NotEqual(t, "", d.ParentId) |
| assert.Nil(t, d.ProxyAddress) |
| } else if d.Type == "onu_adapter_mock" { |
| assert.Equal(t, false, d.Root) |
| assert.NotEqual(t, uint32(0), d.Vlan) |
| assert.NotEqual(t, "", d.Id) |
| assert.NotEqual(t, "", d.ParentId) |
| assert.NotEqual(t, "", d.ProxyAddress.DeviceId) |
| assert.Equal(t, "olt_adapter_mock", d.ProxyAddress.DeviceType) |
| } else { |
| assert.Error(t, errors.New("invalid-device-type")) |
| } |
| assert.Equal(t, 2, len(d.Ports)) |
| for _, p := range d.Ports { |
| assert.Equal(t, voltha.AdminState_ENABLED, p.AdminState) |
| assert.Equal(t, voltha.OperStatus_ACTIVE, p.OperStatus) |
| if p.Type == voltha.Port_ETHERNET_NNI || p.Type == voltha.Port_ETHERNET_UNI { |
| assert.Equal(t, 0, len(p.Peers)) |
| } else if p.Type == voltha.Port_PON_OLT { |
| assert.Equal(t, nb.numONUPerOLT, len(p.Peers)) |
| assert.Equal(t, uint32(1), p.PortNo) |
| } else if p.Type == voltha.Port_PON_ONU { |
| assert.Equal(t, 1, len(p.Peers)) |
| assert.Equal(t, uint32(1), p.PortNo) |
| } else { |
| assert.Error(t, errors.New("invalid-port")) |
| } |
| } |
| wg.Done() |
| }(&wg, device) |
| } |
| wg.Wait() |
| } |
| |
| func (nb *NBTest) getADevice(rootDevice bool, nbi *NBIHandler) (*voltha.Device, error) { |
| devices, err := nbi.ListDevices(getContext(), &empty.Empty{}) |
| if err != nil { |
| return nil, err |
| } |
| for _, d := range devices.Items { |
| if d.Root == rootDevice { |
| return d, nil |
| } |
| } |
| return nil, status.Errorf(codes.NotFound, "%v device not found", rootDevice) |
| } |
| |
| func (nb *NBTest) testCoreWithoutData(t *testing.T, nbi *NBIHandler) { |
| lds, err := nbi.ListLogicalDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, lds) |
| assert.Equal(t, 0, len(lds.Items)) |
| devices, err := nbi.ListDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, devices) |
| assert.Equal(t, 0, len(devices.Items)) |
| adapters, err := nbi.ListAdapters(getContext(), &empty.Empty{}) |
| assert.Equal(t, 0, len(adapters.Items)) |
| assert.Nil(t, err) |
| assert.NotNil(t, adapters) |
| } |
| |
| func (nb *NBTest) testAdapterRegistration(t *testing.T, nbi *NBIHandler) { |
| adapters, err := nbi.ListAdapters(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, adapters) |
| assert.Equal(t, 2, len(adapters.Items)) |
| for _, a := range adapters.Items { |
| switch a.Id { |
| case nb.oltAdapterName: |
| assert.Equal(t, "Voltha-olt", a.Vendor) |
| case nb.onuAdapterName: |
| assert.Equal(t, "Voltha-onu", a.Vendor) |
| default: |
| logger.Fatal("unregistered-adapter", a.Id) |
| } |
| } |
| deviceTypes, err := nbi.ListDeviceTypes(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, deviceTypes) |
| assert.Equal(t, 2, len(deviceTypes.Items)) |
| for _, dt := range deviceTypes.Items { |
| switch dt.Id { |
| case nb.oltAdapterName: |
| assert.Equal(t, nb.oltAdapterName, dt.Adapter) |
| assert.Equal(t, false, dt.AcceptsBulkFlowUpdate) |
| assert.Equal(t, true, dt.AcceptsAddRemoveFlowUpdates) |
| case nb.onuAdapterName: |
| assert.Equal(t, nb.onuAdapterName, dt.Adapter) |
| assert.Equal(t, false, dt.AcceptsBulkFlowUpdate) |
| assert.Equal(t, true, dt.AcceptsAddRemoveFlowUpdates) |
| default: |
| logger.Fatal("invalid-device-type", dt.Id) |
| } |
| } |
| } |
| |
| func (nb *NBTest) testCreateDevice(t *testing.T, nbi *NBIHandler) { |
| // Create a valid device |
| oltDevice, err := nbi.CreateDevice(getContext(), &voltha.Device{Type: nb.oltAdapterName, MacAddress: "aa:bb:cc:cc:ee:ee"}) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| device, err := nbi.GetDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| assert.NotNil(t, device) |
| assert.Equal(t, oltDevice.String(), device.String()) |
| |
| // Try to create the same device |
| _, err = nbi.CreateDevice(getContext(), &voltha.Device{Type: nb.oltAdapterName, MacAddress: "aa:bb:cc:cc:ee:ee"}) |
| assert.NotNil(t, err) |
| assert.Equal(t, "device is already pre-provisioned", err.Error()) |
| |
| // Try to create a device with invalid data |
| _, err = nbi.CreateDevice(getContext(), &voltha.Device{Type: nb.oltAdapterName}) |
| assert.NotNil(t, err) |
| assert.Equal(t, "no-device-info-present; MAC or HOSTIP&PORT", err.Error()) |
| |
| // Ensure we only have 1 device in the Core |
| devices, err := nbi.ListDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, devices) |
| assert.Equal(t, 1, len(devices.Items)) |
| assert.Equal(t, oltDevice.String(), devices.Items[0].String()) |
| |
| //Remove the device |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| //Ensure there are no devices in the Core now - wait until condition satisfied or timeout |
| var vFunction isDevicesConditionSatisfied = func(devices *voltha.Devices) bool { |
| return devices != nil && len(devices.Items) == 0 |
| } |
| err = waitUntilConditionForDevices(nb.maxTimeout, nbi, vFunction) |
| assert.Nil(t, err) |
| } |
| |
| func (nb *NBTest) testEnableDevice(t *testing.T, nbi *NBIHandler) { |
| // Create a device that has no adapter registered |
| oltDeviceNoAdapter, err := nbi.CreateDevice(getContext(), &voltha.Device{Type: "noAdapterRegistered", MacAddress: "aa:bb:cc:cc:ee:ff"}) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDeviceNoAdapter) |
| |
| // Try to enable the oltDevice and check the error message |
| _, err = nbi.EnableDevice(getContext(), &voltha.ID{Id: oltDeviceNoAdapter.Id}) |
| assert.NotNil(t, err) |
| assert.Equal(t, "adapter-not-registered-for-device-type noAdapterRegistered", err.Error()) |
| |
| //Remove the device |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: oltDeviceNoAdapter.Id}) |
| assert.Nil(t, err) |
| |
| //Ensure there are no devices in the Core now - wait until condition satisfied or timeout |
| var vdFunction isDevicesConditionSatisfied = func(devices *voltha.Devices) bool { |
| return devices != nil && len(devices.Items) == 0 |
| } |
| err = waitUntilConditionForDevices(nb.maxTimeout, nbi, vdFunction) |
| assert.Nil(t, err) |
| |
| // Create a logical device monitor will automatically send trap and eapol flows to the devices being enables |
| var wg sync.WaitGroup |
| wg.Add(1) |
| go nb.monitorLogicalDevice(t, nbi, 1, nb.numONUPerOLT, &wg, false, false) |
| |
| // Create the device with valid data |
| oltDevice, err := nbi.CreateDevice(getContext(), &voltha.Device{Type: nb.oltAdapterName, MacAddress: "aa:bb:cc:cc:ee:ee"}) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| // Verify oltDevice exist in the core |
| devices, err := nbi.ListDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.Equal(t, 1, len(devices.Items)) |
| assert.Equal(t, oltDevice.Id, devices.Items[0].Id) |
| |
| // Enable the oltDevice |
| _, err = nbi.EnableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the logical device to be in the ready state |
| var vldFunction isLogicalDeviceConditionSatisfied = func(ld *voltha.LogicalDevice) bool { |
| return ld != nil && len(ld.Ports) == nb.numONUPerOLT+1 |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vldFunction) |
| assert.Nil(t, err) |
| |
| // Verify that the devices have been setup correctly |
| nb.verifyDevices(t, nbi) |
| |
| // Get latest oltDevice data |
| oltDevice, err = nbi.GetDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Verify that the logical device has been setup correctly |
| nb.verifyLogicalDevices(t, oltDevice, nbi) |
| |
| // Wait until all flows has been sent to the devices successfully |
| wg.Wait() |
| } |
| |
| func (nb *NBTest) testDisableAndReEnableRootDevice(t *testing.T, nbi *NBIHandler) { |
| //Get an OLT device |
| oltDevice, err := nb.getADevice(true, nbi) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| // Disable the oltDevice |
| _, err = nbi.DisableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the old device to be disabled |
| var vdFunction isDeviceConditionSatisfied = func(device *voltha.Device) bool { |
| return device.AdminState == voltha.AdminState_DISABLED && device.OperStatus == voltha.OperStatus_UNKNOWN |
| } |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| |
| // Verify that all onu devices are disabled as well |
| onuDevices, err := nb.deviceMgr.GetAllChildDevices(getContext(), oltDevice.Id) |
| assert.Nil(t, err) |
| for _, onu := range onuDevices.Items { |
| err = waitUntilDeviceReadiness(onu.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| } |
| |
| // Wait for the logical device to satisfy the expected condition |
| var vlFunction isLogicalDeviceConditionSatisfied = func(ld *voltha.LogicalDevice) bool { |
| if ld == nil { |
| return false |
| } |
| for _, lp := range ld.Ports { |
| if (lp.OfpPort.Config&uint32(ofp.OfpPortConfig_OFPPC_PORT_DOWN) != lp.OfpPort.Config) || |
| lp.OfpPort.State != uint32(ofp.OfpPortState_OFPPS_LINK_DOWN) { |
| return false |
| } |
| } |
| return true |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| |
| // Reenable the oltDevice |
| _, err = nbi.EnableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the old device to be enabled |
| vdFunction = func(device *voltha.Device) bool { |
| return device.AdminState == voltha.AdminState_ENABLED && device.OperStatus == voltha.OperStatus_ACTIVE |
| } |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| |
| // Verify that all onu devices are enabled as well |
| onuDevices, err = nb.deviceMgr.GetAllChildDevices(getContext(), oltDevice.Id) |
| assert.Nil(t, err) |
| for _, onu := range onuDevices.Items { |
| err = waitUntilDeviceReadiness(onu.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| } |
| |
| // Wait for the logical device to satisfy the expected condition |
| vlFunction = func(ld *voltha.LogicalDevice) bool { |
| if ld == nil { |
| return false |
| } |
| for _, lp := range ld.Ports { |
| if (lp.OfpPort.Config&^uint32(ofp.OfpPortConfig_OFPPC_PORT_DOWN) != lp.OfpPort.Config) || |
| lp.OfpPort.State != uint32(ofp.OfpPortState_OFPPS_LIVE) { |
| return false |
| } |
| } |
| return true |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| } |
| |
| func (nb *NBTest) testDisableAndDeleteAllDevice(t *testing.T, nbi *NBIHandler) { |
| //Get an OLT device |
| oltDevice, err := nb.getADevice(true, nbi) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| // Disable the oltDevice |
| _, err = nbi.DisableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the olt device to be disabled |
| var vdFunction isDeviceConditionSatisfied = func(device *voltha.Device) bool { |
| return device.AdminState == voltha.AdminState_DISABLED && device.OperStatus == voltha.OperStatus_UNKNOWN |
| } |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| |
| // Verify that all onu devices are disabled as well |
| onuDevices, err := nb.deviceMgr.GetAllChildDevices(getContext(), oltDevice.Id) |
| assert.Nil(t, err) |
| for _, onu := range onuDevices.Items { |
| err = waitUntilDeviceReadiness(onu.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| } |
| |
| // Delete the oltDevice |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| var vFunction isDevicesConditionSatisfied = func(devices *voltha.Devices) bool { |
| return devices != nil && len(devices.Items) == 0 |
| } |
| err = waitUntilConditionForDevices(nb.maxTimeout, nbi, vFunction) |
| assert.Nil(t, err) |
| |
| // Wait for absence of logical device |
| var vlFunction isLogicalDevicesConditionSatisfied = func(lds *voltha.LogicalDevices) bool { |
| return lds != nil && len(lds.Items) == 0 |
| } |
| |
| err = waitUntilConditionForLogicalDevices(nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| } |
| |
| func (nb *NBTest) deleteAllDevices(t *testing.T, nbi *NBIHandler) { |
| devices, _ := nbi.ListDevices(getContext(), &empty.Empty{}) |
| if len(devices.Items) == 0 { |
| // Nothing to do |
| return |
| } |
| //Get an OLT device |
| oltDevice, err := nb.getADevice(true, nbi) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| // Delete the oltDevice |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for all devices to be deleted |
| vFunction := func(devices *voltha.Devices) bool { |
| return devices != nil && len(devices.Items) == 0 |
| } |
| err = waitUntilConditionForDevices(nb.maxTimeout, nbi, vFunction) |
| assert.Nil(t, err) |
| |
| // Wait for absence of logical device |
| vlFunction := func(lds *voltha.LogicalDevices) bool { |
| return lds != nil && len(lds.Items) == 0 |
| } |
| |
| err = waitUntilConditionForLogicalDevices(nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| } |
| |
| func (nb *NBTest) testEnableAndDeleteAllDevice(t *testing.T, nbi *NBIHandler) { |
| //Create the device with valid data |
| oltDevice, err := nbi.CreateDevice(getContext(), &voltha.Device{Type: nb.oltAdapterName, MacAddress: "aa:bb:cc:cc:ee:ee"}) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| //Get an OLT device |
| oltDevice, err = nb.getADevice(true, nbi) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| // Enable the oltDevice |
| _, err = nbi.EnableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the logical device to be in the ready state |
| var vldFunction isLogicalDeviceConditionSatisfied = func(ld *voltha.LogicalDevice) bool { |
| return ld != nil && len(ld.Ports) == nb.numONUPerOLT+1 |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vldFunction) |
| assert.Nil(t, err) |
| |
| //Get all child devices |
| onuDevices, err := nb.deviceMgr.GetAllChildDevices(getContext(), oltDevice.Id) |
| assert.Nil(t, err) |
| |
| // Wait for the all onu devices to be enabled |
| var vdFunction isDeviceConditionSatisfied = func(device *voltha.Device) bool { |
| return device.AdminState == voltha.AdminState_ENABLED |
| } |
| for _, onu := range onuDevices.Items { |
| err = waitUntilDeviceReadiness(onu.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| } |
| // Wait for each onu device to get deleted |
| var vdFunc isDeviceConditionSatisfied = func(device *voltha.Device) bool { |
| return device == nil |
| } |
| |
| // Delete the onuDevice |
| for _, onu := range onuDevices.Items { |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: onu.Id}) |
| assert.Nil(t, err) |
| err = waitUntilDeviceReadiness(onu.Id, nb.maxTimeout, vdFunc, nbi) |
| assert.Nil(t, err) |
| } |
| |
| // Disable the oltDevice |
| _, err = nbi.DisableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the olt device to be disabled |
| var vFunction isDeviceConditionSatisfied = func(device *voltha.Device) bool { |
| return device.AdminState == voltha.AdminState_DISABLED && device.OperStatus == voltha.OperStatus_UNKNOWN |
| } |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vFunction, nbi) |
| assert.Nil(t, err) |
| |
| // Delete the oltDevice |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| var vFunc isDevicesConditionSatisfied = func(devices *voltha.Devices) bool { |
| return devices != nil && len(devices.Items) == 0 |
| } |
| err = waitUntilConditionForDevices(nb.maxTimeout, nbi, vFunc) |
| assert.Nil(t, err) |
| } |
| func (nb *NBTest) testDisableAndEnablePort(t *testing.T, nbi *NBIHandler) { |
| //Get an OLT device |
| var cp *voltha.Port |
| oltDevice, err := nb.getADevice(true, nbi) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| for _, cp = range oltDevice.Ports { |
| if cp.Type == voltha.Port_PON_OLT { |
| break |
| } |
| |
| } |
| assert.NotNil(t, cp) |
| cp.DeviceId = oltDevice.Id |
| |
| // Disable the NW Port of oltDevice |
| _, err = nbi.DisablePort(getContext(), cp) |
| assert.Nil(t, err) |
| // Wait for the olt device Port to be disabled |
| var vdFunction isDeviceConditionSatisfied = func(device *voltha.Device) bool { |
| for _, port := range device.Ports { |
| if port.PortNo == cp.PortNo { |
| return port.AdminState == voltha.AdminState_DISABLED |
| } |
| } |
| return false |
| } |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| // Wait for the logical device to satisfy the expected condition |
| var vlFunction = func(ld *voltha.LogicalDevice) bool { |
| if ld == nil { |
| return false |
| } |
| for _, lp := range ld.Ports { |
| if (lp.OfpPort.Config&^uint32(ofp.OfpPortConfig_OFPPC_PORT_DOWN) != lp.OfpPort.Config) || |
| lp.OfpPort.State != uint32(ofp.OfpPortState_OFPPS_LIVE) { |
| return false |
| } |
| } |
| return true |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| |
| // Enable the NW Port of oltDevice |
| _, err = nbi.EnablePort(getContext(), cp) |
| assert.Nil(t, err) |
| |
| // Wait for the olt device Port to be enabled |
| vdFunction = func(device *voltha.Device) bool { |
| for _, port := range device.Ports { |
| if port.PortNo == cp.PortNo { |
| return port.AdminState == voltha.AdminState_ENABLED |
| } |
| } |
| return false |
| } |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| // Wait for the logical device to satisfy the expected condition |
| vlFunction = func(ld *voltha.LogicalDevice) bool { |
| if ld == nil { |
| return false |
| } |
| for _, lp := range ld.Ports { |
| if (lp.OfpPort.Config&^uint32(ofp.OfpPortConfig_OFPPC_PORT_DOWN) != lp.OfpPort.Config) || |
| lp.OfpPort.State != uint32(ofp.OfpPortState_OFPPS_LIVE) { |
| return false |
| } |
| } |
| return true |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| |
| // Disable a non-PON port |
| for _, cp = range oltDevice.Ports { |
| if cp.Type != voltha.Port_PON_OLT { |
| break |
| } |
| |
| } |
| assert.NotNil(t, cp) |
| cp.DeviceId = oltDevice.Id |
| |
| // Disable the NW Port of oltDevice |
| _, err = nbi.DisablePort(getContext(), cp) |
| assert.NotNil(t, err) |
| |
| } |
| |
| func (nb *NBTest) testDeviceRebootWhenOltIsEnabled(t *testing.T, nbi *NBIHandler) { |
| //Get an OLT device |
| oltDevice, err := nb.getADevice(true, nbi) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| assert.Equal(t, oltDevice.ConnectStatus, voltha.ConnectStatus_REACHABLE) |
| assert.Equal(t, oltDevice.AdminState, voltha.AdminState_ENABLED) |
| |
| // Verify that we have one or more ONUs to start with |
| onuDevices, err := nb.deviceMgr.GetAllChildDevices(getContext(), oltDevice.Id) |
| assert.Nil(t, err) |
| assert.NotNil(t, onuDevices) |
| assert.Greater(t, len(onuDevices.Items), 0) |
| |
| // Reboot the OLT and very that Connection Status goes to UNREACHABLE and operation status to UNKNOWN |
| _, err = nbi.RebootDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| var vlFunction0 = func(d *voltha.Device) bool { |
| return d.ConnectStatus == voltha.ConnectStatus_UNREACHABLE && d.OperStatus == voltha.OperStatus_UNKNOWN |
| } |
| |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vlFunction0, nbi) |
| assert.Nil(t, err) |
| |
| // Wait for the logical device to satisfy the expected condition |
| var vlFunction1 = func(ld *voltha.LogicalDevice) bool { |
| return ld == nil |
| } |
| |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vlFunction1) |
| assert.Nil(t, err) |
| |
| // Wait for the device to satisfy the expected condition (device does not have flows) |
| var vlFunction2 = func(d *voltha.Device) bool { |
| var deviceFlows *ofp.Flows |
| var err error |
| if deviceFlows, err = nbi.ListDeviceFlows(getContext(), &voltha.ID{Id: d.Id}); err != nil { |
| return false |
| } |
| return len(deviceFlows.Items) == 0 |
| } |
| |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vlFunction2, nbi) |
| assert.Nil(t, err) |
| |
| // Wait for the device to satisfy the expected condition (there are no child devices) |
| var vlFunction3 = func(d *voltha.Device) bool { |
| var devices *voltha.Devices |
| var err error |
| if devices, err = nbi.ListDevices(getContext(), nil); err != nil { |
| return false |
| } |
| for _, device := range devices.Items { |
| if device.ParentId == d.Id { |
| // We have a child device still left |
| return false |
| } |
| } |
| return true |
| } |
| |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vlFunction3, nbi) |
| assert.Nil(t, err) |
| |
| // Update the OLT Connection Status to REACHABLE and operation status to ACTIVE |
| // Normally, in a real adapter this happens after connection regain via a heartbeat mechanism with real hardware |
| err = nbi.UpdateDeviceStatus(getContext(), oltDevice.Id, voltha.OperStatus_ACTIVE, voltha.ConnectStatus_REACHABLE) |
| assert.Nil(t, err) |
| |
| // Verify the device connection and operation states |
| oltDevice, err = nb.getADevice(true, nbi) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| assert.Equal(t, oltDevice.ConnectStatus, voltha.ConnectStatus_REACHABLE) |
| assert.Equal(t, oltDevice.AdminState, voltha.AdminState_ENABLED) |
| |
| // Wait for the logical device to satisfy the expected condition |
| var vlFunction4 = func(ld *voltha.LogicalDevice) bool { |
| return ld != nil |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vlFunction4) |
| assert.Nil(t, err) |
| |
| // Verify that logical device is created again |
| logicalDevices, err := nbi.ListLogicalDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, logicalDevices) |
| assert.Equal(t, 1, len(logicalDevices.Items)) |
| |
| // Verify that we have no ONUs left |
| onuDevices, err = nb.deviceMgr.GetAllChildDevices(getContext(), oltDevice.Id) |
| assert.Nil(t, err) |
| assert.NotNil(t, onuDevices) |
| assert.Equal(t, 0, len(onuDevices.Items)) |
| } |
| |
| func (nb *NBTest) testStartOmciTestAction(t *testing.T, nbi *NBIHandler) { |
| // ----------------------------------------------------------------------- |
| // SubTest 1: Omci test action should fail due to nonexistent device id |
| |
| request := &voltha.OmciTestRequest{Id: "123", Uuid: "456"} |
| _, err := nbi.StartOmciTestAction(getContext(), request) |
| assert.NotNil(t, err) |
| assert.Equal(t, "rpc error: code = NotFound desc = 123", err.Error()) |
| |
| // ----------------------------------------------------------------------- |
| // SubTest 2: Error should be returned for device with no adapter registered |
| |
| // Create a device that has no adapter registered |
| deviceNoAdapter, err := nbi.CreateDevice(getContext(), &voltha.Device{Type: "noAdapterRegisteredOmciTest", MacAddress: "aa:bb:cc:cc:ee:01"}) |
| assert.Nil(t, err) |
| assert.NotNil(t, deviceNoAdapter) |
| |
| // Omci test action should fail due to nonexistent adapter |
| request = &voltha.OmciTestRequest{Id: deviceNoAdapter.Id, Uuid: "456"} |
| _, err = nbi.StartOmciTestAction(getContext(), request) |
| assert.NotNil(t, err) |
| assert.Equal(t, "adapter-not-registered-for-device-type noAdapterRegisteredOmciTest", err.Error()) |
| |
| //Remove the device |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: deviceNoAdapter.Id}) |
| assert.Nil(t, err) |
| |
| //Ensure there are no devices in the Core now - wait until condition satisfied or timeout |
| var vFunction isDevicesConditionSatisfied = func(devices *voltha.Devices) bool { |
| return devices != nil && len(devices.Items) == 0 |
| } |
| err = waitUntilConditionForDevices(nb.maxTimeout, nbi, vFunction) |
| assert.Nil(t, err) |
| |
| // ----------------------------------------------------------------------- |
| // SubTest 3: Omci test action should succeed on valid ONU |
| |
| // Create the device with valid data |
| oltDevice, err := nbi.CreateDevice(getContext(), &voltha.Device{Type: nb.oltAdapterName, MacAddress: "aa:bb:cc:cc:ee:ee"}) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| // Verify oltDevice exist in the core |
| devices, err := nbi.ListDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.Equal(t, 1, len(devices.Items)) |
| assert.Equal(t, oltDevice.Id, devices.Items[0].Id) |
| |
| // Enable the oltDevice |
| _, err = nbi.EnableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the logical device to be in the ready state |
| var vldFunction isLogicalDeviceConditionSatisfied = func(ld *voltha.LogicalDevice) bool { |
| return ld != nil && len(ld.Ports) == nb.numONUPerOLT+1 |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vldFunction) |
| assert.Nil(t, err) |
| |
| // Wait for the olt device to be enabled |
| vdFunction := func(device *voltha.Device) bool { |
| return device.AdminState == voltha.AdminState_ENABLED && device.OperStatus == voltha.OperStatus_ACTIVE |
| } |
| err = waitUntilDeviceReadiness(oltDevice.Id, nb.maxTimeout, vdFunction, nbi) |
| assert.Nil(t, err) |
| |
| onuDevices, err := nb.deviceMgr.GetAllChildDevices(getContext(), oltDevice.Id) |
| assert.Nil(t, err) |
| assert.Greater(t, len(onuDevices.Items), 0) |
| |
| onuDevice := onuDevices.Items[0] |
| |
| // Omci test action should succeed |
| request = &voltha.OmciTestRequest{Id: onuDevice.Id, Uuid: "456"} |
| resp, err := nbi.StartOmciTestAction(getContext(), request) |
| assert.Nil(t, err) |
| assert.Equal(t, resp.Result, voltha.TestResponse_SUCCESS) |
| |
| //Remove the device |
| _, err = nbi.DeleteDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| //Ensure there are no devices in the Core now - wait until condition satisfied or timeout |
| err = waitUntilConditionForDevices(nb.maxTimeout, nbi, vFunction) |
| assert.Nil(t, err) |
| } |
| |
| func makeSimpleFlowMod(fa *flows.FlowArgs) *ofp.OfpFlowMod { |
| matchFields := make([]*ofp.OfpOxmField, 0) |
| for _, val := range fa.MatchFields { |
| matchFields = append(matchFields, &ofp.OfpOxmField{Field: &ofp.OfpOxmField_OfbField{OfbField: val}}) |
| } |
| return flows.MkSimpleFlowMod(matchFields, fa.Actions, fa.Command, fa.KV) |
| } |
| |
| func createMetadata(cTag int, techProfile int, port int) uint64 { |
| md := 0 |
| md = (md | (cTag & 0xFFFF)) << 16 |
| md = (md | (techProfile & 0xFFFF)) << 32 |
| return uint64(md | (port & 0xFFFFFFFF)) |
| } |
| |
| func (nb *NBTest) verifyLogicalDeviceFlowCount(t *testing.T, nbi *NBIHandler, numNNIPorts int, numUNIPorts int, flowAddFail bool) { |
| expectedNumFlows := numNNIPorts*3 + numNNIPorts*numUNIPorts |
| if flowAddFail { |
| expectedNumFlows = 0 |
| } |
| // Wait for logical device to have the flows (or none |
| var vlFunction isLogicalDevicesConditionSatisfied = func(lds *voltha.LogicalDevices) bool { |
| flows, _ := nbi.ListLogicalDeviceFlows(getContext(), &voltha.ID{Id: lds.Items[0].Id}) |
| return lds != nil && len(lds.Items) == 1 && len(flows.Items) == expectedNumFlows |
| } |
| // No timeout implies a success |
| err := waitUntilConditionForLogicalDevices(nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| } |
| |
| func (nb *NBTest) sendTrapFlows(t *testing.T, nbi *NBIHandler, logicalDevice *voltha.LogicalDevice, meterID uint64, startingVlan int) (numNNIPorts, numUNIPorts int) { |
| // Send flows for the parent device |
| var nniPorts []*voltha.LogicalPort |
| var uniPorts []*voltha.LogicalPort |
| for _, p := range logicalDevice.Ports { |
| if p.RootPort { |
| nniPorts = append(nniPorts, p) |
| } else { |
| uniPorts = append(uniPorts, p) |
| } |
| } |
| assert.Equal(t, 1, len(nniPorts)) |
| //assert.Greater(t, len(uniPorts), 1 ) |
| nniPort := nniPorts[0].OfpPort.PortNo |
| maxInt32 := uint64(0xFFFFFFFF) |
| controllerPortMask := uint32(4294967293) // will result in 4294967293&0x7fffffff => 2147483645 which is the actual controller port |
| var fa *flows.FlowArgs |
| fa = &flows.FlowArgs{ |
| KV: flows.OfpFlowModArgs{"priority": 10000, "buffer_id": maxInt32, "out_port": maxInt32, "out_group": maxInt32, "flags": 1}, |
| MatchFields: []*ofp.OfpOxmOfbField{ |
| flows.InPort(nniPort), |
| flows.EthType(35020), |
| }, |
| Actions: []*ofp.OfpAction{ |
| flows.Output(controllerPortMask), |
| }, |
| } |
| flowLLDP := ofp.FlowTableUpdate{FlowMod: makeSimpleFlowMod(fa), Id: logicalDevice.Id} |
| _, err := nbi.UpdateLogicalDeviceFlowTable(getContext(), &flowLLDP) |
| assert.Nil(t, err) |
| |
| fa = &flows.FlowArgs{ |
| KV: flows.OfpFlowModArgs{"priority": 10000, "buffer_id": maxInt32, "out_port": maxInt32, "out_group": maxInt32, "flags": 1}, |
| MatchFields: []*ofp.OfpOxmOfbField{ |
| flows.InPort(nniPort), |
| flows.EthType(2048), |
| flows.IpProto(17), |
| flows.UdpSrc(67), |
| flows.UdpDst(68), |
| }, |
| Actions: []*ofp.OfpAction{ |
| flows.Output(controllerPortMask), |
| }, |
| } |
| flowIPV4 := ofp.FlowTableUpdate{FlowMod: makeSimpleFlowMod(fa), Id: logicalDevice.Id} |
| _, err = nbi.UpdateLogicalDeviceFlowTable(getContext(), &flowIPV4) |
| assert.Nil(t, err) |
| |
| fa = &flows.FlowArgs{ |
| KV: flows.OfpFlowModArgs{"priority": 10000, "buffer_id": maxInt32, "out_port": maxInt32, "out_group": maxInt32, "flags": 1}, |
| MatchFields: []*ofp.OfpOxmOfbField{ |
| flows.InPort(nniPort), |
| flows.EthType(34525), |
| flows.IpProto(17), |
| flows.UdpSrc(546), |
| flows.UdpDst(547), |
| }, |
| Actions: []*ofp.OfpAction{ |
| flows.Output(controllerPortMask), |
| }, |
| } |
| flowIPV6 := ofp.FlowTableUpdate{FlowMod: makeSimpleFlowMod(fa), Id: logicalDevice.Id} |
| _, err = nbi.UpdateLogicalDeviceFlowTable(getContext(), &flowIPV6) |
| assert.Nil(t, err) |
| |
| return len(nniPorts), len(uniPorts) |
| } |
| |
| func (nb *NBTest) sendEAPFlows(t *testing.T, nbi *NBIHandler, logicalDeviceID string, port *ofp.OfpPort, vlan int, meterID uint64) { |
| maxInt32 := uint64(0xFFFFFFFF) |
| controllerPortMask := uint32(4294967293) // will result in 4294967293&0x7fffffff => 2147483645 which is the actual controller port |
| fa := &flows.FlowArgs{ |
| KV: flows.OfpFlowModArgs{"priority": 10000, "buffer_id": maxInt32, "out_port": maxInt32, "out_group": maxInt32, "flags": 1, "write_metadata": createMetadata(vlan, 64, 0), "meter_id": meterID}, |
| MatchFields: []*ofp.OfpOxmOfbField{ |
| flows.InPort(port.PortNo), |
| flows.EthType(34958), |
| flows.VlanVid(8187), |
| }, |
| Actions: []*ofp.OfpAction{ |
| flows.Output(controllerPortMask), |
| }, |
| } |
| flowEAP := ofp.FlowTableUpdate{FlowMod: makeSimpleFlowMod(fa), Id: logicalDeviceID} |
| maxTries := 3 |
| var err error |
| for { |
| if _, err = nbi.UpdateLogicalDeviceFlowTable(getContext(), &flowEAP); err == nil { |
| if maxTries < 3 { |
| t.Log("Re-sending EAPOL flow succeeded for port:", port) |
| } |
| break |
| } |
| t.Log("Sending EAPOL flows fail:", err) |
| time.Sleep(50 * time.Millisecond) |
| maxTries-- |
| if maxTries == 0 { |
| break |
| } |
| } |
| assert.Nil(t, err) |
| } |
| |
| func (nb *NBTest) monitorLogicalDevice(t *testing.T, nbi *NBIHandler, numNNIPorts int, numUNIPorts int, wg *sync.WaitGroup, flowAddFail bool, flowDeleteFail bool) { |
| defer wg.Done() |
| |
| // Clear any existing flows on the adapters |
| nb.oltAdapter.ClearFlows() |
| nb.onuAdapter.ClearFlows() |
| |
| // Set the adapter actions on flow addition/deletion |
| nb.oltAdapter.SetFlowAction(flowAddFail, flowDeleteFail) |
| nb.onuAdapter.SetFlowAction(flowAddFail, flowDeleteFail) |
| |
| // Wait until a logical device is ready |
| var vlFunction isLogicalDevicesConditionSatisfied = func(lds *voltha.LogicalDevices) bool { |
| if lds == nil || len(lds.Items) != 1 { |
| return false |
| } |
| // Ensure there are both NNI ports and at least one UNI port on the logical device |
| ld := lds.Items[0] |
| nniPort := false |
| uniPort := false |
| for _, p := range ld.Ports { |
| nniPort = nniPort || p.RootPort == true |
| uniPort = uniPort || p.RootPort == false |
| if nniPort && uniPort { |
| return true |
| } |
| } |
| return false |
| } |
| err := waitUntilConditionForLogicalDevices(nb.maxTimeout, nbi, vlFunction) |
| assert.Nil(t, err) |
| |
| logicalDevices, err := nbi.ListLogicalDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.NotNil(t, logicalDevices) |
| assert.Equal(t, 1, len(logicalDevices.Items)) |
| |
| logicalDevice := logicalDevices.Items[0] |
| meterID := rand.Uint32() |
| |
| // Add a meter to the logical device |
| meterMod := &ofp.OfpMeterMod{ |
| Command: ofp.OfpMeterModCommand_OFPMC_ADD, |
| Flags: rand.Uint32(), |
| MeterId: meterID, |
| Bands: []*ofp.OfpMeterBandHeader{ |
| {Type: ofp.OfpMeterBandType_OFPMBT_EXPERIMENTER, |
| Rate: rand.Uint32(), |
| BurstSize: rand.Uint32(), |
| Data: nil, |
| }, |
| }, |
| } |
| _, err = nbi.UpdateLogicalDeviceMeterTable(getContext(), &ofp.MeterModUpdate{Id: logicalDevice.Id, MeterMod: meterMod}) |
| assert.Nil(t, err) |
| |
| // Send initial set of Trap flows |
| startingVlan := 4091 |
| nb.sendTrapFlows(t, nbi, logicalDevice, uint64(meterID), startingVlan) |
| |
| // Listen for port events |
| start := time.Now() |
| processedNniLogicalPorts := 0 |
| processedUniLogicalPorts := 0 |
| |
| for event := range nbi.GetChangeEventsQueueForTest() { |
| startingVlan++ |
| if portStatus, ok := (event.Event).(*ofp.ChangeEvent_PortStatus); ok { |
| ps := portStatus.PortStatus |
| if ps.Reason == ofp.OfpPortReason_OFPPR_ADD { |
| if ps.Desc.PortNo >= uint32(nb.startingUNIPortNo) { |
| processedUniLogicalPorts++ |
| nb.sendEAPFlows(t, nbi, logicalDevice.Id, ps.Desc, startingVlan, uint64(meterID)) |
| } else { |
| processedNniLogicalPorts++ |
| } |
| } |
| } |
| |
| if processedNniLogicalPorts >= numNNIPorts && processedUniLogicalPorts >= numUNIPorts { |
| fmt.Println("Total time to send all flows:", time.Since(start)) |
| break |
| } |
| } |
| //Verify the flow count on the logical device |
| nb.verifyLogicalDeviceFlowCount(t, nbi, numNNIPorts, numUNIPorts, flowAddFail) |
| |
| // Wait until all flows have been sent to the OLT adapters (or all failed) |
| expectedFlowCount := (numNNIPorts * 3) + numNNIPorts*numUNIPorts |
| if flowAddFail { |
| expectedFlowCount = 0 |
| } |
| var oltVFunc isConditionSatisfied = func() bool { |
| return nb.oltAdapter.GetFlowCount() >= expectedFlowCount |
| } |
| err = waitUntilCondition(nb.maxTimeout, nbi, oltVFunc) |
| assert.Nil(t, err) |
| |
| // Wait until all flows have been sent to the ONU adapters (or all failed) |
| expectedFlowCount = numUNIPorts |
| if flowAddFail { |
| expectedFlowCount = 0 |
| } |
| var onuVFunc isConditionSatisfied = func() bool { |
| return nb.onuAdapter.GetFlowCount() == expectedFlowCount |
| } |
| err = waitUntilCondition(nb.maxTimeout, nbi, onuVFunc) |
| assert.Nil(t, err) |
| } |
| |
| func (nb *NBTest) testFlowAddFailure(t *testing.T, nbi *NBIHandler) { |
| |
| // Create a logical device monitor will automatically send trap and eapol flows to the devices being enables |
| var wg sync.WaitGroup |
| wg.Add(1) |
| go nb.monitorLogicalDevice(t, nbi, 1, nb.numONUPerOLT, &wg, true, false) |
| |
| // Create the device with valid data |
| oltDevice, err := nbi.CreateDevice(getContext(), &voltha.Device{Type: nb.oltAdapterName, MacAddress: "aa:bb:cc:cc:ee:ee"}) |
| assert.Nil(t, err) |
| assert.NotNil(t, oltDevice) |
| |
| // Verify oltDevice exist in the core |
| devices, err := nbi.ListDevices(getContext(), &empty.Empty{}) |
| assert.Nil(t, err) |
| assert.Equal(t, 1, len(devices.Items)) |
| assert.Equal(t, oltDevice.Id, devices.Items[0].Id) |
| |
| // Enable the oltDevice |
| _, err = nbi.EnableDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Wait for the logical device to be in the ready state |
| var vldFunction isLogicalDeviceConditionSatisfied = func(ld *voltha.LogicalDevice) bool { |
| return ld != nil && len(ld.Ports) == nb.numONUPerOLT+1 |
| } |
| err = waitUntilLogicalDeviceReadiness(oltDevice.Id, nb.maxTimeout, nbi, vldFunction) |
| assert.Nil(t, err) |
| |
| // Verify that the devices have been setup correctly |
| nb.verifyDevices(t, nbi) |
| |
| // Get latest oltDevice data |
| oltDevice, err = nbi.GetDevice(getContext(), &voltha.ID{Id: oltDevice.Id}) |
| assert.Nil(t, err) |
| |
| // Verify that the logical device has been setup correctly |
| nb.verifyLogicalDevices(t, oltDevice, nbi) |
| |
| // Wait until all flows has been sent to the devices successfully |
| wg.Wait() |
| } |
| |
| func TestSuiteNbiApiHandler(t *testing.T) { |
| f, err := os.Create("../../../tests/results/profile.cpu") |
| if err != nil { |
| logger.Fatalf("could not create CPU profile: %v\n ", err) |
| } |
| defer f.Close() |
| runtime.SetBlockProfileRate(1) |
| runtime.SetMutexProfileFraction(-1) |
| if err := pprof.StartCPUProfile(f); err != nil { |
| logger.Fatalf("could not start CPU profile: %v\n", err) |
| } |
| defer pprof.StopCPUProfile() |
| |
| //log.SetPackageLogLevel("github.com/opencord/voltha-go/rw_core/core", log.DebugLevel) |
| |
| nb := newNBTest() |
| assert.NotNil(t, nb) |
| |
| defer nb.stopAll() |
| |
| // Start the Core |
| nb.startCore(false) |
| |
| // Set the grpc API interface - no grpc server is running in unit test |
| nbi := NewNBIHandler(nb.deviceMgr, nb.logicalDeviceMgr, nb.adapterMgr) |
| |
| // 1. Basic test with no data in Core |
| nb.testCoreWithoutData(t, nbi) |
| |
| // Create/register the adapters |
| nb.createAndregisterAdapters(t) |
| |
| // 2. Test adapter registration |
| nb.testAdapterRegistration(t, nbi) |
| |
| numberOfTestRuns := 2 |
| for i := 1; i <= numberOfTestRuns; i++ { |
| //3. Test create device |
| nb.testCreateDevice(t, nbi) |
| |
| // 4. Test Enable a device |
| nb.testEnableDevice(t, nbi) |
| |
| //// 5. Test disable and ReEnable a root device |
| nb.testDisableAndReEnableRootDevice(t, nbi) |
| |
| // 6. Test disable and Enable pon port of OLT device |
| nb.testDisableAndEnablePort(t, nbi) |
| |
| // 7.Test Device unreachable when OLT is enabled |
| nb.testDeviceRebootWhenOltIsEnabled(t, nbi) |
| |
| // 8. Test disable and delete all devices |
| nb.testDisableAndDeleteAllDevice(t, nbi) |
| |
| // 9. Test enable and delete all devices |
| nb.testEnableAndDeleteAllDevice(t, nbi) |
| |
| // 10. Test omci test |
| nb.testStartOmciTestAction(t, nbi) |
| |
| // 11. Remove all devices from tests above |
| nb.deleteAllDevices(t, nbi) |
| |
| // 11. Test flow add failure |
| nb.testFlowAddFailure(t, nbi) |
| |
| // 12. Clean up |
| nb.deleteAllDevices(t, nbi) |
| } |
| } |