func (m *manager) SetPodStatus(pod *api.Pod, status api.PodStatus) {
m.podStatusesLock.Lock()
defer m.podStatusesLock.Unlock()
var oldStatus api.PodStatus
if cachedStatus, ok := m.podStatuses[pod.UID]; ok {
oldStatus = cachedStatus.status
} else if mirrorPod, ok := m.podManager.GetMirrorPodByPod(pod); ok {
oldStatus = mirrorPod.Status
} else {
oldStatus = pod.Status
}
// Set ReadyCondition.LastTransitionTime.
if readyCondition := api.GetPodReadyCondition(status); readyCondition != nil {
// Need to set LastTransitionTime.
lastTransitionTime := unversioned.Now()
oldReadyCondition := api.GetPodReadyCondition(oldStatus)
if oldReadyCondition != nil && readyCondition.Status == oldReadyCondition.Status {
lastTransitionTime = oldReadyCondition.LastTransitionTime
}
readyCondition.LastTransitionTime = lastTransitionTime
}
// ensure that the start time does not change across updates.
if oldStatus.StartTime != nil && !oldStatus.StartTime.IsZero() {
status.StartTime = oldStatus.StartTime
} else if status.StartTime.IsZero() {
// if the status has no start time, we need to set an initial time
now := unversioned.Now()
status.StartTime = &now
}
m.updateStatusInternal(pod, status)
}
func tagReferenceToTagEvent(stream *api.ImageStream, tagRef api.TagReference, tagOrID string) (*api.TagEvent, error) {
switch tagRef.From.Kind {
case "DockerImage":
return &api.TagEvent{
Created: unversioned.Now(),
DockerImageReference: tagRef.From.Name,
}, nil
case "ImageStreamImage":
ref, err := api.DockerImageReferenceForStream(stream)
if err != nil {
return nil, err
}
resolvedIDs := api.ResolveImageID(stream, tagOrID)
switch len(resolvedIDs) {
case 1:
ref.ID = resolvedIDs.List()[0]
return &api.TagEvent{
Created: unversioned.Now(),
DockerImageReference: ref.String(),
Image: ref.ID,
}, nil
case 0:
return nil, fmt.Errorf("no images match the prefix %q", tagOrID)
default:
return nil, fmt.Errorf("multiple images match the prefix %q: %s", tagOrID, strings.Join(resolvedIDs.List(), ", "))
}
case "ImageStreamTag":
return api.LatestTaggedImage(stream, tagOrID), nil
default:
return nil, fmt.Errorf("invalid from.kind %q: it must be ImageStreamImage or ImageStreamTag", tagRef.From.Kind)
}
}
func newCondition() experimental.JobCondition {
return experimental.JobCondition{
Type: experimental.JobComplete,
Status: api.ConditionTrue,
LastProbeTime: unversioned.Now(),
LastTransitionTime: unversioned.Now(),
}
}
// updateStatusInternal updates the internal status cache, and queues an update to the api server if
// necessary. Returns whether an update was triggered.
// This method IS NOT THREAD SAFE and must be called from a locked function.
func (m *manager) updateStatusInternal(pod *api.Pod, status api.PodStatus, forceUpdate bool) bool {
var oldStatus api.PodStatus
cachedStatus, isCached := m.podStatuses[pod.UID]
if isCached {
oldStatus = cachedStatus.status
} else if mirrorPod, ok := m.podManager.GetMirrorPodByPod(pod); ok {
oldStatus = mirrorPod.Status
} else {
oldStatus = pod.Status
}
// Set ReadyCondition.LastTransitionTime.
if readyCondition := api.GetPodReadyCondition(status); readyCondition != nil {
// Need to set LastTransitionTime.
lastTransitionTime := unversioned.Now()
oldReadyCondition := api.GetPodReadyCondition(oldStatus)
if oldReadyCondition != nil && readyCondition.Status == oldReadyCondition.Status {
lastTransitionTime = oldReadyCondition.LastTransitionTime
}
readyCondition.LastTransitionTime = lastTransitionTime
}
// ensure that the start time does not change across updates.
if oldStatus.StartTime != nil && !oldStatus.StartTime.IsZero() {
status.StartTime = oldStatus.StartTime
} else if status.StartTime.IsZero() {
// if the status has no start time, we need to set an initial time
now := unversioned.Now()
status.StartTime = &now
}
normalizeStatus(&status)
// The intent here is to prevent concurrent updates to a pod's status from
// clobbering each other so the phase of a pod progresses monotonically.
if isCached && isStatusEqual(&cachedStatus.status, &status) && !forceUpdate {
glog.V(3).Infof("Ignoring same status for pod %q, status: %+v", format.Pod(pod), status)
return false // No new status.
}
newStatus := versionedPodStatus{
status: status,
version: cachedStatus.version + 1,
podName: pod.Name,
podNamespace: pod.Namespace,
}
m.podStatuses[pod.UID] = newStatus
select {
case m.podStatusChannel <- podStatusSyncRequest{pod.UID, newStatus}:
return true
default:
// Let the periodic syncBatch handle the update if the channel is full.
// We can't block, since we hold the mutex lock.
glog.V(4).Infof("Skpping the status update for pod %q for now because the channel is full; status: %+v",
format.Pod(pod), status)
return false
}
}
// HandlePod updates the state of the build based on the pod state
func (bc *BuildPodController) HandlePod(pod *kapi.Pod) error {
obj, exists, err := bc.BuildStore.Get(buildKey(pod))
if err != nil {
glog.V(4).Infof("Error getting build for pod %s/%s: %v", pod.Namespace, pod.Name, err)
return err
}
if !exists || obj == nil {
glog.V(5).Infof("No build found for pod %s/%s", pod.Namespace, pod.Name)
return nil
}
build := obj.(*buildapi.Build)
nextStatus := build.Status.Phase
switch pod.Status.Phase {
case kapi.PodRunning:
// The pod's still running
nextStatus = buildapi.BuildPhaseRunning
case kapi.PodSucceeded:
// Check the exit codes of all the containers in the pod
nextStatus = buildapi.BuildPhaseComplete
if len(pod.Status.ContainerStatuses) == 0 {
// no containers in the pod means something went badly wrong, so the build
// should be failed.
glog.V(2).Infof("Failing build %s/%s because the pod has no containers", build.Namespace, build.Name)
nextStatus = buildapi.BuildPhaseFailed
} else {
for _, info := range pod.Status.ContainerStatuses {
if info.State.Terminated != nil && info.State.Terminated.ExitCode != 0 {
nextStatus = buildapi.BuildPhaseFailed
break
}
}
}
case kapi.PodFailed:
nextStatus = buildapi.BuildPhaseFailed
}
if build.Status.Phase != nextStatus && !buildutil.IsBuildComplete(build) {
glog.V(4).Infof("Updating build %s/%s status %s -> %s", build.Namespace, build.Name, build.Status.Phase, nextStatus)
build.Status.Phase = nextStatus
build.Status.Reason = ""
build.Status.Message = ""
if buildutil.IsBuildComplete(build) {
now := unversioned.Now()
build.Status.CompletionTimestamp = &now
}
if build.Status.Phase == buildapi.BuildPhaseRunning {
now := unversioned.Now()
build.Status.StartTimestamp = &now
}
if err := bc.BuildUpdater.Update(build.Namespace, build); err != nil {
return fmt.Errorf("failed to update build %s/%s: %v", build.Namespace, build.Name, err)
}
glog.V(4).Infof("Build %s/%s status was updated %s -> %s", build.Namespace, build.Name, build.Status.Phase, nextStatus)
}
return nil
}
func newCondition(conditionType extensions.JobConditionType, reason, message string) extensions.JobCondition {
return extensions.JobCondition{
Type: conditionType,
Status: api.ConditionTrue,
LastProbeTime: unversioned.Now(),
LastTransitionTime: unversioned.Now(),
Reason: reason,
Message: message,
}
}
func NewEmptyPolicy(namespace string) *authorizationapi.Policy {
policy := &authorizationapi.Policy{}
policy.Name = authorizationapi.PolicyName
policy.Namespace = namespace
policy.CreationTimestamp = unversioned.Now()
policy.LastModified = unversioned.Now()
policy.Roles = make(map[string]*authorizationapi.Role)
return policy
}
// NewDeploymentCondition creates a new deployment condition.
func NewDeploymentCondition(condType extensions.DeploymentConditionType, status api.ConditionStatus, reason, message string) *extensions.DeploymentCondition {
return &extensions.DeploymentCondition{
Type: condType,
Status: status,
LastUpdateTime: unversioned.Now(),
LastTransitionTime: unversioned.Now(),
Reason: reason,
Message: message,
}
}
func newCondition(conditionType batch.JobConditionType, reason, message string) batch.JobCondition {
return batch.JobCondition{
Type: conditionType,
Status: v1.ConditionTrue,
LastProbeTime: unversioned.Now(),
LastTransitionTime: unversioned.Now(),
Reason: reason,
Message: message,
}
}
// BeforeDelete tests whether the object can be gracefully deleted. If graceful is set the object
// should be gracefully deleted, if gracefulPending is set the object has already been gracefully deleted
// (and the provided grace period is longer than the time to deletion), and an error is returned if the
// condition cannot be checked or the gracePeriodSeconds is invalid. The options argument may be updated with
// default values if graceful is true. Second place where we set deletionTimestamp is pkg/registry/generic/registry/store.go
// this function is responsible for setting deletionTimestamp during gracefulDeletion, other one for cascading deletions.
func BeforeDelete(strategy RESTDeleteStrategy, ctx api.Context, obj runtime.Object, options *api.DeleteOptions) (graceful, gracefulPending bool, err error) {
objectMeta, gvk, kerr := objectMetaAndKind(strategy, obj)
if kerr != nil {
return false, false, kerr
}
// Checking the Preconditions here to fail early. They'll be enforced later on when we actually do the deletion, too.
if options.Preconditions != nil && options.Preconditions.UID != nil && *options.Preconditions.UID != objectMeta.UID {
return false, false, errors.NewConflict(unversioned.GroupResource{Group: gvk.Group, Resource: gvk.Kind}, objectMeta.Name, fmt.Errorf("the UID in the precondition (%s) does not match the UID in record (%s). The object might have been deleted and then recreated", *options.Preconditions.UID, objectMeta.UID))
}
gracefulStrategy, ok := strategy.(RESTGracefulDeleteStrategy)
if !ok {
// If we're not deleting gracefully there's no point in updating Generation, as we won't update
// the obcject before deleting it.
return false, false, nil
}
// if the object is already being deleted, no need to update generation.
if objectMeta.DeletionTimestamp != nil {
// if we are already being deleted, we may only shorten the deletion grace period
// this means the object was gracefully deleted previously but deletionGracePeriodSeconds was not set,
// so we force deletion immediately
if objectMeta.DeletionGracePeriodSeconds == nil {
return false, false, nil
}
// only a shorter grace period may be provided by a user
if options.GracePeriodSeconds != nil {
period := int64(*options.GracePeriodSeconds)
if period > *objectMeta.DeletionGracePeriodSeconds {
return false, true, nil
}
now := unversioned.NewTime(unversioned.Now().Add(time.Second * time.Duration(*options.GracePeriodSeconds)))
objectMeta.DeletionTimestamp = &now
objectMeta.DeletionGracePeriodSeconds = &period
options.GracePeriodSeconds = &period
return true, false, nil
}
// graceful deletion is pending, do nothing
options.GracePeriodSeconds = objectMeta.DeletionGracePeriodSeconds
return false, true, nil
}
if !gracefulStrategy.CheckGracefulDelete(obj, options) {
return false, false, nil
}
now := unversioned.NewTime(unversioned.Now().Add(time.Second * time.Duration(*options.GracePeriodSeconds)))
objectMeta.DeletionTimestamp = &now
objectMeta.DeletionGracePeriodSeconds = options.GracePeriodSeconds
// If it's the first graceful deletion we are going to set the DeletionTimestamp to non-nil.
// Controllers of the object that's being deleted shouldn't take any nontrivial actions, hence its behavior changes.
// Thus we need to bump object's Generation (if set). This handles generation bump during graceful deletion.
// The bump for objects that don't support graceful deletion is handled in pkg/registry/generic/registry/store.go.
if objectMeta.Generation > 0 {
objectMeta.Generation++
}
return true, false, nil
}
func (m *manager) SetPodStatus(pod *api.Pod, status api.PodStatus) {
m.podStatusesLock.Lock()
defer m.podStatusesLock.Unlock()
oldStatus, found := m.podStatuses[pod.UID]
// ensure that the start time does not change across updates.
if found && oldStatus.StartTime != nil {
status.StartTime = oldStatus.StartTime
}
// Set ReadyCondition.LastTransitionTime.
// Note we cannot do this while generating the status since we do not have oldStatus
// at that time for mirror pods.
if readyCondition := api.GetPodReadyCondition(status); readyCondition != nil {
// Need to set LastTransitionTime.
lastTransitionTime := unversioned.Now()
if found {
oldReadyCondition := api.GetPodReadyCondition(oldStatus)
if oldReadyCondition != nil && readyCondition.Status == oldReadyCondition.Status {
lastTransitionTime = oldReadyCondition.LastTransitionTime
}
}
readyCondition.LastTransitionTime = lastTransitionTime
}
// if the status has no start time, we need to set an initial time
// TODO(yujuhong): Consider setting StartTime when generating the pod
// status instead, which would allow manager to become a simple cache
// again.
if status.StartTime.IsZero() {
if pod.Status.StartTime.IsZero() {
// the pod did not have a previously recorded value so set to now
now := unversioned.Now()
status.StartTime = &now
} else {
// the pod had a recorded value, but the kubelet restarted so we need to rebuild cache
// based on last observed value
status.StartTime = pod.Status.StartTime
}
}
// TODO: Holding a lock during blocking operations is dangerous. Refactor so this isn't necessary.
// The intent here is to prevent concurrent updates to a pod's status from
// clobbering each other so the phase of a pod progresses monotonically.
// Currently this routine is not called for the same pod from multiple
// workers and/or the kubelet but dropping the lock before sending the
// status down the channel feels like an easy way to get a bullet in foot.
if !found || !isStatusEqual(&oldStatus, &status) || pod.DeletionTimestamp != nil {
m.podStatuses[pod.UID] = status
m.podStatusChannel <- podStatusSyncRequest{pod, status}
} else {
glog.V(3).Infof("Ignoring same status for pod %q, status: %+v", kubeletUtil.FormatPodName(pod), status)
}
}
func NewEmptyPolicyBinding(namespace, policyNamespace, policyBindingName string) *authorizationapi.PolicyBinding {
binding := &authorizationapi.PolicyBinding{}
binding.Name = policyBindingName
binding.Namespace = namespace
binding.CreationTimestamp = unversioned.Now()
binding.LastModified = unversioned.Now()
binding.PolicyRef = kapi.ObjectReference{Name: authorizationapi.PolicyName, Namespace: policyNamespace}
binding.RoleBindings = make(map[string]*authorizationapi.RoleBinding)
return binding
}
// createBatchPodSequential creats pods back-to-back in sequence.
func createBatchPodSequential(f *framework.Framework, pods []*api.Pod) (time.Duration, []framework.PodLatencyData) {
batchStartTime := unversioned.Now()
e2eLags := make([]framework.PodLatencyData, 0)
for _, pod := range pods {
create := unversioned.Now()
f.PodClient().CreateSync(pod)
e2eLags = append(e2eLags,
framework.PodLatencyData{Name: pod.Name, Latency: unversioned.Now().Time.Sub(create.Time)})
}
batchLag := unversioned.Now().Time.Sub(batchStartTime.Time)
sort.Sort(framework.LatencySlice(e2eLags))
return batchLag, e2eLags
}
func (m *manager) SetPodStatus(pod *api.Pod, status api.PodStatus) {
m.podStatusesLock.Lock()
defer m.podStatusesLock.Unlock()
oldStatus, found := m.podStatuses[pod.UID]
// ensure that the start time does not change across updates.
if found && oldStatus.status.StartTime != nil {
status.StartTime = oldStatus.status.StartTime
}
// Set ReadyCondition.LastTransitionTime.
// Note we cannot do this while generating the status since we do not have oldStatus
// at that time for mirror pods.
if readyCondition := api.GetPodReadyCondition(status); readyCondition != nil {
// Need to set LastTransitionTime.
lastTransitionTime := unversioned.Now()
if found {
oldReadyCondition := api.GetPodReadyCondition(oldStatus.status)
if oldReadyCondition != nil && readyCondition.Status == oldReadyCondition.Status {
lastTransitionTime = oldReadyCondition.LastTransitionTime
}
}
readyCondition.LastTransitionTime = lastTransitionTime
}
// if the status has no start time, we need to set an initial time
// TODO(yujuhong): Consider setting StartTime when generating the pod
// status instead, which would allow manager to become a simple cache
// again.
if status.StartTime.IsZero() {
if pod.Status.StartTime.IsZero() {
// the pod did not have a previously recorded value so set to now
now := unversioned.Now()
status.StartTime = &now
} else {
// the pod had a recorded value, but the kubelet restarted so we need to rebuild cache
// based on last observed value
status.StartTime = pod.Status.StartTime
}
}
newStatus := m.updateStatusInternal(pod, status)
if newStatus != nil {
select {
case m.podStatusChannel <- podStatusSyncRequest{pod.UID, *newStatus}:
default:
// Let the periodic syncBatch handle the update if the channel is full.
// We can't block, since we hold the mutex lock.
}
}
}
func (m *VirtualStorage) createRole(ctx kapi.Context, obj runtime.Object, allowEscalation bool) (*authorizationapi.Role, error) {
if err := rest.BeforeCreate(m.CreateStrategy, ctx, obj); err != nil {
return nil, err
}
role := obj.(*authorizationapi.Role)
if !allowEscalation {
if err := rulevalidation.ConfirmNoEscalation(ctx, authorizationapi.Resource("role"), role.Name, m.RuleResolver, authorizationinterfaces.NewLocalRoleAdapter(role)); err != nil {
return nil, err
}
}
policy, err := m.EnsurePolicy(ctx)
if err != nil {
return nil, err
}
if _, exists := policy.Roles[role.Name]; exists {
return nil, kapierrors.NewAlreadyExists(authorizationapi.Resource("role"), role.Name)
}
role.ResourceVersion = policy.ResourceVersion
policy.Roles[role.Name] = role
policy.LastModified = unversioned.Now()
if err := m.PolicyStorage.UpdatePolicy(ctx, policy); err != nil {
return nil, err
}
return role, nil
}
func deletePods(kubeClient client.Interface, ns string, before unversioned.Time) (int64, error) {
items, err := kubeClient.Pods(ns).List(unversioned.ListOptions{})
if err != nil {
return 0, err
}
expired := unversioned.Now().After(before.Time)
var deleteOptions *api.DeleteOptions
if expired {
deleteOptions = api.NewDeleteOptions(0)
}
estimate := int64(0)
for i := range items.Items {
if items.Items[i].Spec.TerminationGracePeriodSeconds != nil {
grace := *items.Items[i].Spec.TerminationGracePeriodSeconds
if grace > estimate {
estimate = grace
}
}
err := kubeClient.Pods(ns).Delete(items.Items[i].Name, deleteOptions)
if err != nil && !errors.IsNotFound(err) {
return 0, err
}
}
if expired {
estimate = 0
}
return estimate, nil
}
func TestDoNotDeleteMirrorPods(t *testing.T) {
staticPod := getTestPod()
staticPod.Annotations = map[string]string{kubetypes.ConfigSourceAnnotationKey: "file"}
mirrorPod := getTestPod()
mirrorPod.UID = "mirror-12345678"
mirrorPod.Annotations = map[string]string{
kubetypes.ConfigSourceAnnotationKey: "api",
kubetypes.ConfigMirrorAnnotationKey: "mirror",
}
// Set the deletion timestamp.
mirrorPod.DeletionTimestamp = new(unversioned.Time)
client := fake.NewSimpleClientset(mirrorPod)
m := newTestManager(client)
m.podManager.AddPod(staticPod)
m.podManager.AddPod(mirrorPod)
// Verify setup.
assert.True(t, kubepod.IsStaticPod(staticPod), "SetUp error: staticPod")
assert.True(t, kubepod.IsMirrorPod(mirrorPod), "SetUp error: mirrorPod")
assert.Equal(t, m.podManager.TranslatePodUID(mirrorPod.UID), staticPod.UID)
status := getRandomPodStatus()
now := unversioned.Now()
status.StartTime = &now
m.SetPodStatus(staticPod, status)
m.testSyncBatch()
// Expect not to see an delete action.
verifyActions(t, m.kubeClient, []core.Action{
core.GetActionImpl{ActionImpl: core.ActionImpl{Verb: "get", Resource: "pods"}},
core.UpdateActionImpl{ActionImpl: core.ActionImpl{Verb: "update", Resource: "pods", Subresource: "status"}},
})
}
func TestStaticPodStatus(t *testing.T) {
staticPod := getTestPod()
staticPod.Annotations = map[string]string{kubetypes.ConfigSourceAnnotationKey: "file"}
mirrorPod := getTestPod()
mirrorPod.UID = "mirror-12345678"
mirrorPod.Annotations = map[string]string{
kubetypes.ConfigSourceAnnotationKey: "api",
kubetypes.ConfigMirrorAnnotationKey: "mirror",
}
client := fake.NewSimpleClientset(mirrorPod)
m := newTestManager(client)
m.podManager.AddPod(staticPod)
m.podManager.AddPod(mirrorPod)
// Verify setup.
assert.True(t, kubepod.IsStaticPod(staticPod), "SetUp error: staticPod")
assert.True(t, kubepod.IsMirrorPod(mirrorPod), "SetUp error: mirrorPod")
assert.Equal(t, m.podManager.TranslatePodUID(mirrorPod.UID), staticPod.UID)
status := getRandomPodStatus()
now := unversioned.Now()
status.StartTime = &now
m.SetPodStatus(staticPod, status)
retrievedStatus := expectPodStatus(t, m, staticPod)
normalizeStatus(&status)
assert.True(t, isStatusEqual(&status, &retrievedStatus), "Expected: %+v, Got: %+v", status, retrievedStatus)
retrievedStatus, _ = m.GetPodStatus(mirrorPod.UID)
assert.True(t, isStatusEqual(&status, &retrievedStatus), "Expected: %+v, Got: %+v", status, retrievedStatus)
// Should translate mirrorPod / staticPod UID.
m.testSyncBatch()
verifyActions(t, m.kubeClient, []core.Action{
core.GetActionImpl{ActionImpl: core.ActionImpl{Verb: "get", Resource: "pods"}},
core.UpdateActionImpl{ActionImpl: core.ActionImpl{Verb: "update", Resource: "pods", Subresource: "status"}},
})
updateAction := client.Actions()[1].(core.UpdateActionImpl)
updatedPod := updateAction.Object.(*api.Pod)
assert.Equal(t, mirrorPod.UID, updatedPod.UID, "Expected mirrorPod (%q), but got %q", mirrorPod.UID, updatedPod.UID)
assert.True(t, isStatusEqual(&status, &updatedPod.Status), "Expected: %+v, Got: %+v", status, updatedPod.Status)
client.ClearActions()
// No changes.
m.testSyncBatch()
verifyActions(t, m.kubeClient, []core.Action{})
// Mirror pod identity changes.
m.podManager.DeletePod(mirrorPod)
mirrorPod.UID = "new-mirror-pod"
mirrorPod.Status = api.PodStatus{}
m.podManager.AddPod(mirrorPod)
// Expect update to new mirrorPod.
m.testSyncBatch()
verifyActions(t, m.kubeClient, []core.Action{
core.GetActionImpl{ActionImpl: core.ActionImpl{Verb: "get", Resource: "pods"}},
core.UpdateActionImpl{ActionImpl: core.ActionImpl{Verb: "update", Resource: "pods", Subresource: "status"}},
})
updateAction = client.Actions()[1].(core.UpdateActionImpl)
updatedPod = updateAction.Object.(*api.Pod)
assert.Equal(t, mirrorPod.UID, updatedPod.UID, "Expected mirrorPod (%q), but got %q", mirrorPod.UID, updatedPod.UID)
assert.True(t, isStatusEqual(&status, &updatedPod.Status), "Expected: %+v, Got: %+v", status, updatedPod.Status)
}
func TestSyncPastDeadlineJobFinished(t *testing.T) {
clientset := clientset.NewForConfigOrDie(&client.Config{Host: "", ContentConfig: client.ContentConfig{GroupVersion: testapi.Default.GroupVersion()}})
manager := NewJobController(clientset, controller.NoResyncPeriodFunc)
fakePodControl := controller.FakePodControl{}
manager.podControl = &fakePodControl
manager.podStoreSynced = alwaysReady
var actual *extensions.Job
manager.updateHandler = func(job *extensions.Job) error {
actual = job
return nil
}
job := newJob(1, 1)
activeDeadlineSeconds := int64(10)
job.Spec.ActiveDeadlineSeconds = &activeDeadlineSeconds
start := unversioned.Unix(unversioned.Now().Time.Unix()-15, 0)
job.Status.StartTime = &start
job.Status.Conditions = append(job.Status.Conditions, newCondition(extensions.JobFailed, "DeadlineExceeded", "Job was active longer than specified deadline"))
manager.jobStore.Store.Add(job)
err := manager.syncJob(getKey(job, t))
if err != nil {
t.Errorf("Unexpected error when syncing jobs %v", err)
}
if len(fakePodControl.Templates) != 0 {
t.Errorf("Unexpected number of creates. Expected %d, saw %d\n", 0, len(fakePodControl.Templates))
}
if len(fakePodControl.DeletePodName) != 0 {
t.Errorf("Unexpected number of deletes. Expected %d, saw %d\n", 0, len(fakePodControl.DeletePodName))
}
if actual != nil {
t.Error("Unexpected job modification")
}
}
// Updates existing pod condition or creates a new one. Sets LastTransitionTime to now if the
// status has changed.
// Returns true if pod condition has changed or has been added.
func UpdatePodCondition(status *PodStatus, condition *PodCondition) bool {
condition.LastTransitionTime = unversioned.Now()
// Try to find this pod condition.
conditionIndex, oldCondition := GetPodCondition(status, condition.Type)
if oldCondition == nil {
// We are adding new pod condition.
status.Conditions = append(status.Conditions, *condition)
return true
} else {
// We are updating an existing condition, so we need to check if it has changed.
if condition.Status == oldCondition.Status {
condition.LastTransitionTime = oldCondition.LastTransitionTime
}
isEqual := condition.Status == oldCondition.Status &&
condition.Reason == oldCondition.Reason &&
condition.Message == oldCondition.Message &&
condition.LastProbeTime.Equal(oldCondition.LastProbeTime) &&
condition.LastTransitionTime.Equal(oldCondition.LastTransitionTime)
status.Conditions[conditionIndex] = *condition
// Return true if one of the fields have changed.
return !isEqual
}
}
func TestDeleteNetwork(t *testing.T) {
storage, server := newStorage(t)
defer server.Terminate(t)
key := etcdtest.AddPrefix("networks/foo")
ctx := api.NewContext()
now := unversioned.Now()
net := &api.Network{
ObjectMeta: api.ObjectMeta{
Name: "foo",
DeletionTimestamp: &now,
},
Spec: api.NetworkSpec{
TenantID: "123",
Subnets: map[string]api.Subnet{
"subnet1": {
CIDR: "192.168.0.0/24",
Gateway: "192.168.0.1",
},
},
},
Status: api.NetworkStatus{Phase: api.NetworkInitializing},
}
if err := storage.Storage.Set(ctx, key, net, nil, 0); err != nil {
t.Fatalf("unexpected error: %v", err)
}
if _, err := storage.Delete(ctx, "foo", nil); err != nil {
t.Errorf("unexpected error: %v", err)
}
}
// readyPods returns the old and new ready counts for their pods.
// If a pod is observed as being ready, it's considered ready even
// if it later becomes notReady.
func (r *RollingUpdater) readyPods(oldRc, newRc *api.ReplicationController, minReadySeconds int32) (int32, int32, error) {
controllers := []*api.ReplicationController{oldRc, newRc}
oldReady := int32(0)
newReady := int32(0)
if r.nowFn == nil {
r.nowFn = func() unversioned.Time { return unversioned.Now() }
}
for i := range controllers {
controller := controllers[i]
selector := labels.Set(controller.Spec.Selector).AsSelector()
options := api.ListOptions{LabelSelector: selector}
pods, err := r.c.Pods(controller.Namespace).List(options)
if err != nil {
return 0, 0, err
}
for _, pod := range pods.Items {
if !deployment.IsPodAvailable(&pod, minReadySeconds, r.nowFn().Time) {
continue
}
switch controller.Name {
case oldRc.Name:
oldReady++
case newRc.Name:
newReady++
}
}
}
return oldReady, newReady, nil
}
// NewFilterBeforePredicate is a function that returns true if the build was created before the current time minus specified duration
func NewFilterBeforePredicate(d time.Duration) FilterPredicate {
now := unversioned.Now()
before := unversioned.NewTime(now.Time.Add(-1 * d))
return func(item *kapi.ReplicationController) bool {
return item.CreationTimestamp.Before(before)
}
}
func TestNamespaceStatusStrategy(t *testing.T) {
ctx := api.NewDefaultContext()
if StatusStrategy.NamespaceScoped() {
t.Errorf("Namespaces should not be namespace scoped")
}
if StatusStrategy.AllowCreateOnUpdate() {
t.Errorf("Namespaces should not allow create on update")
}
now := unversioned.Now()
oldNamespace := &api.Namespace{
ObjectMeta: api.ObjectMeta{Name: "foo", ResourceVersion: "10", DeletionTimestamp: &now},
Spec: api.NamespaceSpec{Finalizers: []api.FinalizerName{"kubernetes"}},
Status: api.NamespaceStatus{Phase: api.NamespaceActive},
}
namespace := &api.Namespace{
ObjectMeta: api.ObjectMeta{Name: "foo", ResourceVersion: "9", DeletionTimestamp: &now},
Status: api.NamespaceStatus{Phase: api.NamespaceTerminating},
}
StatusStrategy.PrepareForUpdate(ctx, namespace, oldNamespace)
if namespace.Status.Phase != api.NamespaceTerminating {
t.Errorf("Namespace status updates should allow change of phase: %v", namespace.Status.Phase)
}
if len(namespace.Spec.Finalizers) != 1 || namespace.Spec.Finalizers[0] != api.FinalizerKubernetes {
t.Errorf("PrepareForUpdate should have preserved old finalizers")
}
errs := StatusStrategy.ValidateUpdate(ctx, namespace, oldNamespace)
if len(errs) != 0 {
t.Errorf("Unexpected error %v", errs)
}
if namespace.ResourceVersion != "9" {
t.Errorf("Incoming resource version on update should not be mutated")
}
}
func sizedImage(id, ref string, size int64) imageapi.Image {
image := imageWithLayers(id, ref, false, layer1, layer2, layer3, layer4, layer5)
image.CreationTimestamp = unversioned.NewTime(unversioned.Now().Add(time.Duration(-1) * time.Minute))
image.DockerImageMetadata.Size = size
return image
}
// NewFilterBeforePredicate is a function that returns true if the build was created before the current time minus specified duration
func NewFilterBeforePredicate(d time.Duration) FilterPredicate {
now := unversioned.Now()
before := unversioned.NewTime(now.Time.Add(-1 * d))
return func(build *buildapi.Build) bool {
return build.CreationTimestamp.Before(before)
}
}
// CancelBuild updates a build status to Cancelled, after its associated pod is deleted.
func (bc *BuildController) CancelBuild(build *buildapi.Build) error {
if !isBuildCancellable(build) {
glog.V(4).Infof("Build %s/%s can be cancelled only if it has pending/running status, not %s.", build.Namespace, build.Name, build.Status.Phase)
return nil
}
glog.V(4).Infof("Cancelling build %s/%s.", build.Namespace, build.Name)
pod, err := bc.PodManager.GetPod(build.Namespace, buildapi.GetBuildPodName(build))
if err != nil {
if !errors.IsNotFound(err) {
return fmt.Errorf("Failed to get pod for build %s/%s: %v", build.Namespace, build.Name, err)
}
} else {
err := bc.PodManager.DeletePod(build.Namespace, pod)
if err != nil && !errors.IsNotFound(err) {
return fmt.Errorf("Couldn't delete build pod %s/%s: %v", build.Namespace, pod.Name, err)
}
}
build.Status.Phase = buildapi.BuildPhaseCancelled
build.Status.Reason = ""
build.Status.Message = ""
now := unversioned.Now()
build.Status.CompletionTimestamp = &now
if err := bc.BuildUpdater.Update(build.Namespace, build); err != nil {
return fmt.Errorf("Failed to update build %s/%s: %v", build.Namespace, build.Name, err)
}
glog.V(4).Infof("Build %s/%s was successfully cancelled.", build.Namespace, build.Name)
return nil
}
// Because openshift-sdn uses an overlay and doesn't need GCE Routes, we need to
// clear the NetworkUnavailable condition that kubelet adds to initial node
// status when using GCE.
// TODO: make upstream kubelet more flexible with overlays and GCE so this
// condition doesn't get added for network plugins that don't want it, and then
// we can remove this function.
func (master *OsdnMaster) clearInitialNodeNetworkUnavailableCondition(node *kapi.Node) {
knode := node
cleared := false
resultErr := kclient.RetryOnConflict(kclient.DefaultBackoff, func() error {
var err error
if knode != node {
knode, err = master.kClient.Nodes().Get(node.ObjectMeta.Name)
if err != nil {
return err
}
}
// Let caller modify knode's status, then push to api server.
_, condition := kapi.GetNodeCondition(&node.Status, kapi.NodeNetworkUnavailable)
if condition != nil && condition.Status != kapi.ConditionFalse && condition.Reason == "NoRouteCreated" {
condition.Status = kapi.ConditionFalse
condition.Reason = "RouteCreated"
condition.Message = "openshift-sdn cleared kubelet-set NoRouteCreated"
condition.LastTransitionTime = kapiunversioned.Now()
knode, err = master.kClient.Nodes().UpdateStatus(knode)
if err == nil {
cleared = true
}
}
return err
})
if resultErr != nil {
utilruntime.HandleError(fmt.Errorf("Status update failed for local node: %v", resultErr))
} else if cleared {
log.Infof("Cleared node NetworkUnavailable/NoRouteCreated condition for %s", node.ObjectMeta.Name)
}
}
// ResolveImageID returns latest TagEvent for specified imageID and an error if
// there's more than one image matching the ID or when one does not exist.
func ResolveImageID(stream *ImageStream, imageID string) (*TagEvent, error) {
var event *TagEvent
set := sets.NewString()
for _, history := range stream.Status.Tags {
for i := range history.Items {
tagging := &history.Items[i]
if d, err := digest.ParseDigest(tagging.Image); err == nil {
if strings.HasPrefix(d.Hex(), imageID) || strings.HasPrefix(tagging.Image, imageID) {
event = tagging
set.Insert(tagging.Image)
}
continue
}
if strings.HasPrefix(tagging.Image, imageID) {
event = tagging
set.Insert(tagging.Image)
}
}
}
switch len(set) {
case 1:
return &TagEvent{
Created: unversioned.Now(),
DockerImageReference: event.DockerImageReference,
Image: event.Image,
}, nil
case 0:
return nil, errors.NewNotFound(Resource("imagestreamimage"), imageID)
default:
return nil, errors.NewConflict(Resource("imagestreamimage"), imageID, fmt.Errorf("multiple images match the prefix %q: %s", imageID, strings.Join(set.List(), ", ")))
}
}
func TestNetworkStatusStrategy(t *testing.T) {
ctx := api.NewDefaultContext()
if StatusStrategy.AllowCreateOnUpdate() {
t.Errorf("Networks should not allow create on update")
}
now := unversioned.Now()
oldNetwork := &api.Network{
ObjectMeta: api.ObjectMeta{Name: "foo", ResourceVersion: "10"},
Spec: api.NetworkSpec{
TenantID: "12345",
Subnets: map[string]api.Subnet{"s1": {CIDR: "192.168.0.0/24", Gateway: "192.168.0.1"}}},
Status: api.NetworkStatus{Phase: api.NetworkActive},
}
network := &api.Network{
ObjectMeta: api.ObjectMeta{Name: "foo", ResourceVersion: "9", DeletionTimestamp: &now},
Spec: api.NetworkSpec{
TenantID: "12345",
Subnets: map[string]api.Subnet{"s1": {CIDR: "192.168.0.0/24", Gateway: "192.168.0.1"}}},
Status: api.NetworkStatus{Phase: api.NetworkTerminating},
}
StatusStrategy.PrepareForUpdate(network, oldNetwork)
if network.Status.Phase != api.NetworkTerminating {
t.Errorf("Network status updates should allow change of phase: %v", network.Status.Phase)
}
errs := StatusStrategy.ValidateUpdate(ctx, network, oldNetwork)
if len(errs) != 0 {
t.Errorf("Unexpected error %v", errs)
}
if network.ResourceVersion != "9" {
t.Errorf("Incoming resource version on update should not be mutated")
}
}