Files
tasks/service/matching/user_data_manager.go
Alex ShtinandGitHub 846d88c8cb Refactor: use new serviceerror.New...f constructors (#7785)
## What changed?
Refactor: use new `serviceerror.New...f` constructors.

## Why?
Most of service errors now supports `fmt.Sprintf` format and they should
be used instead of `fmt.Sprintf`.

## How did you test it?
- [ ] built
- [ ] run locally and tested manually
- [x] covered by existing tests
- [ ] added new unit test(s)
- [ ] added new functional test(s)
2025-05-17 00:21:32 +00:00

696 lines
26 KiB
Go

package matching
import (
"context"
"errors"
"strings"
"sync"
"sync/atomic"
"time"
enumspb "go.temporal.io/api/enums/v1"
"go.temporal.io/api/serviceerror"
"go.temporal.io/server/api/matchingservice/v1"
persistencespb "go.temporal.io/server/api/persistence/v1"
"go.temporal.io/server/common"
"go.temporal.io/server/common/backoff"
"go.temporal.io/server/common/clock/hybrid_logical_clock"
"go.temporal.io/server/common/future"
"go.temporal.io/server/common/goro"
"go.temporal.io/server/common/headers"
"go.temporal.io/server/common/log"
"go.temporal.io/server/common/log/tag"
"go.temporal.io/server/common/namespace"
"go.temporal.io/server/common/persistence"
"go.temporal.io/server/common/tqid"
"go.temporal.io/server/common/util"
)
const (
// userDataEnabled is the default state: user data is enabled.
userDataEnabled userDataState = iota
// userDataClosed means the task queue is closed.
userDataClosed
)
const maxFastUserDataFetches = 5
type (
userDataManager interface {
Start()
Stop()
WaitUntilInitialized(ctx context.Context) error
// GetUserData returns the user data for this task queue. Do not mutate the returned pointer, as doing so
// will cause cache inconsistency.
GetUserData() (*persistencespb.VersionedTaskQueueUserData, chan struct{}, error)
// UpdateUserData updates user data for this task queue and replicates across clusters if necessary.
// Extra care should be taken to avoid mutating the existing data in the update function.
UpdateUserData(ctx context.Context, options UserDataUpdateOptions, updateFn UserDataUpdateFunc) (int64, error)
// Handles the maybe-long-poll GetUserData RPC.
HandleGetUserDataRequest(ctx context.Context, req *matchingservice.GetTaskQueueUserDataRequest) (*matchingservice.GetTaskQueueUserDataResponse, error)
CheckTaskQueueUserDataPropagation(context.Context, int64, int, int) error
}
UserDataUpdateOptions struct {
TaskQueueLimitPerBuildId int
// Only perform the update if current version equals to supplied version.
// 0 is unset.
KnownVersion int64
Source string // informative source for logging
}
// UserDataUpdateFunc accepts the current user data for a task queue and returns the updated user data, a boolean
// indicating whether this data should be replicated, and an error.
// Extra care should be taken to avoid mutating the current user data to avoid keeping uncommitted data in memory.
UserDataUpdateFunc func(*persistencespb.TaskQueueUserData) (*persistencespb.TaskQueueUserData, bool, error)
// userDataManager is responsible for fetching and keeping user data up-to-date in-memory
// for a given TQ partition.
//
// If a partition is the root of a normal (non-sticky) task queue with workflow type,
// we say the partition "owns" user data for its task queue. All reads and writes
// to/from the persistence layer passes through userDataManager of the owning partition.
// All other partitions long-poll the latest user data from the owning partition.
userDataManagerImpl struct {
lock sync.Mutex
onFatalErr func(unloadCause)
onUserDataChanged func() // if set, call this in new goroutine when user data changes
partition tqid.Partition
userData *persistencespb.VersionedTaskQueueUserData
userDataChanged chan struct{}
userDataState userDataState
// only set if this partition owns user data of its task queue
store persistence.TaskManager
config *taskQueueConfig
namespaceRegistry namespace.Registry
logger log.Logger
matchingClient matchingservice.MatchingServiceClient
goroGroup goro.Group
// userDataReady is fulfilled once versioning data is fetched from the root partition. If this TQ is
// the root partition, it is fulfilled as soon as it is fetched from db.
userDataReady *future.FutureImpl[struct{}]
}
userDataState int
)
var _ userDataManager = (*userDataManagerImpl)(nil)
var (
errUserDataNoMutateNonRoot = serviceerror.NewInvalidArgument("can only mutate user data on root workflow task queue")
errRequestedVersionTooLarge = serviceerror.NewInvalidArgument("requested task queue user data for version greater than known version")
errTaskQueueClosed = serviceerror.NewUnavailable("task queue closed")
errUserDataUnmodified = errors.New("sentinel error for unchanged user data")
errUserDataVersionMismatch = errors.New("user data version mismatch")
)
func newUserDataManager(
store persistence.TaskManager,
matchingClient matchingservice.MatchingServiceClient,
onFatalErr func(unloadCause),
onUserDataChanged func(),
partition tqid.Partition,
config *taskQueueConfig,
logger log.Logger,
registry namespace.Registry,
) *userDataManagerImpl {
m := &userDataManagerImpl{
onFatalErr: onFatalErr,
onUserDataChanged: onUserDataChanged,
partition: partition,
userDataChanged: make(chan struct{}),
config: config,
namespaceRegistry: registry,
logger: logger,
matchingClient: matchingClient,
userDataReady: future.NewFuture[struct{}](),
}
if partition.IsRoot() && partition.TaskType() == enumspb.TASK_QUEUE_TYPE_WORKFLOW {
m.store = store
}
return m
}
func (m *userDataManagerImpl) Start() {
if m.store != nil {
m.goroGroup.Go(m.loadUserData)
} else {
m.goroGroup.Go(m.fetchUserData)
}
}
func (m *userDataManagerImpl) WaitUntilInitialized(ctx context.Context) error {
_, err := m.userDataReady.Get(ctx)
return err
}
func (m *userDataManagerImpl) Stop() {
m.goroGroup.Cancel()
// Set user data state on stop to wake up anyone blocked on the user data changed channel.
m.setUserDataState(userDataClosed, nil)
}
// GetUserData returns the user data for this task queue and a channel that signals when the data has been updated.
// Do not mutate the returned pointer, as doing so will cause cache inconsistency.
// If there is no user data, this can return a nil value with no error.
func (m *userDataManagerImpl) GetUserData() (*persistencespb.VersionedTaskQueueUserData, chan struct{}, error) {
m.lock.Lock()
defer m.lock.Unlock()
return m.getUserDataLocked()
}
func (m *userDataManagerImpl) getUserDataLocked() (*persistencespb.VersionedTaskQueueUserData, chan struct{}, error) {
switch m.userDataState {
case userDataEnabled:
return m.userData, m.userDataChanged, nil
case userDataClosed:
return nil, nil, errTaskQueueClosed
default:
// shouldn't happen
return nil, nil, serviceerror.NewInternal("unexpected user data enabled state")
}
}
func (m *userDataManagerImpl) setUserDataLocked(userData *persistencespb.VersionedTaskQueueUserData) {
m.userData = userData
close(m.userDataChanged)
m.userDataChanged = make(chan struct{})
if m.onUserDataChanged != nil {
go m.onUserDataChanged()
}
}
// Sets user data enabled/disabled and marks the future ready (if it's not ready yet).
// userDataState controls whether GetUserData return an error, and which.
// futureError is the error to set on the ready future. If this is non-nil, the task queue will
// be unloaded.
// Note that this must only be called from a single goroutine since the Ready/Set sequence is
// potentially racy otherwise.
func (m *userDataManagerImpl) setUserDataState(userDataState userDataState, futureError error) {
m.lock.Lock()
defer m.lock.Unlock()
if userDataState != m.userDataState && m.userDataState != userDataClosed {
m.userDataState = userDataState
close(m.userDataChanged)
m.userDataChanged = make(chan struct{})
}
if !m.userDataReady.Ready() {
m.userDataReady.Set(struct{}{}, futureError)
}
}
func (m *userDataManagerImpl) loadUserData(ctx context.Context) error {
ctx = m.callerInfoContext(ctx)
err := m.loadUserDataFromDB(ctx)
m.setUserDataState(userDataEnabled, err)
// At this point, it's possible that an old owner has updated user data after we read it.
// We should re-read it after a few seconds and then periodically after that to ensure that
// we notice if someone else has snuck in a write.
util.InterruptibleSleep(ctx, backoff.Jitter(m.config.GetUserDataInitialRefresh, 0.1))
for ctx.Err() == nil {
if err = m.refreshUserDataFromDB(ctx); errors.Is(err, errUserDataVersionMismatch) {
m.onFatalErr(unloadCauseConflict)
}
util.InterruptibleSleep(ctx, backoff.Jitter(m.config.GetUserDataRefresh(), 0.2))
}
return ctx.Err()
}
func (m *userDataManagerImpl) userDataFetchSource() (*tqid.NormalPartition, error) {
switch p := m.partition.(type) {
case *tqid.NormalPartition:
// change to the workflow task queue
p = p.TaskQueue().Family().TaskQueue(enumspb.TASK_QUEUE_TYPE_WORKFLOW).NormalPartition(p.PartitionId())
degree := m.config.ForwarderMaxChildrenPerNode()
parent, err := p.ParentPartition(degree)
if err == tqid.ErrNoParent {
// we're the root activity task queue, ask the root workflow task queue
return p, nil
} else if err != nil {
// invalid degree
return nil, err
}
return parent, nil
default:
normalQ := p.TaskQueue()
// Sticky queues get data from their corresponding normal queue
if normalQ.Name() == "" {
// Older SDKs don't send the normal name. That's okay, they just can't use versioning.
return nil, errMissingNormalQueueName
}
// sticky queue can only be of workflow type as of now. but to be future-proof, we make sure
// change to workflow task queue here
return normalQ.Family().TaskQueue(enumspb.TASK_QUEUE_TYPE_WORKFLOW).RootPartition(), nil
}
}
func (m *userDataManagerImpl) fetchUserData(ctx context.Context) error {
ctx = m.callerInfoContext(ctx)
// fetch from parent partition
fetchSource, err := m.userDataFetchSource()
if err != nil {
if err == errMissingNormalQueueName {
// pretend we have no user data. this is a sticky queue so the only effect is that we can't
// kick off versioned pollers.
m.setUserDataState(userDataEnabled, nil)
}
return err
}
// hasFetchedUserData is true if we have gotten a successful reply to GetTaskQueueUserData.
// It's used to control whether we do a long poll or a simple get.
hasFetchedUserData := false
userDataVersionChanged := false
op := func(ctx context.Context) error {
knownUserData, _, _ := m.GetUserData()
userDataVersionChanged = false
callCtx, cancel := context.WithTimeout(ctx, m.config.GetUserDataLongPollTimeout())
defer cancel()
res, err := m.matchingClient.GetTaskQueueUserData(callCtx, &matchingservice.GetTaskQueueUserDataRequest{
NamespaceId: m.partition.NamespaceId(),
TaskQueue: fetchSource.RpcName(),
TaskQueueType: fetchSource.TaskType(),
LastKnownUserDataVersion: knownUserData.GetVersion(),
WaitNewData: hasFetchedUserData,
})
if err != nil {
// don't log on context canceled, produces too much log spam at shutdown
if !common.IsContextCanceledErr(err) {
m.logger.Error("error fetching user data from parent", tag.Error(err))
}
var unimplErr *serviceerror.Unimplemented
if errors.As(err, &unimplErr) {
// This might happen during a deployment. The older version couldn't have had any user data,
// so we act as if it just returned an empty response and set ourselves ready.
// Return the error so that we backoff with retry, and do not set hasFetchedUserData so that
// we don't do a long poll next time.
m.setUserDataState(userDataEnabled, nil)
}
return err
}
// If the root partition returns nil here, then that means our data matched, and we don't need to update.
// If it's nil because it never existed, then we'd never have any data.
// It can't be nil due to removing versions, as that would result in a non-nil container with
// nil inner fields.
if res.GetUserData() != nil {
m.setUserDataForNonOwningPartition(res.GetUserData())
userDataVersionChanged = res.GetUserData().GetVersion() != knownUserData.GetVersion()
m.logNewUserData("fetched user data from parent", res.GetUserData())
} else {
m.logger.Debug("fetched user data from parent, no change")
}
hasFetchedUserData = true
m.setUserDataState(userDataEnabled, nil)
return nil
}
fastResponseCounter := 0
minWaitTime := m.config.GetUserDataMinWaitTime
for ctx.Err() == nil {
start := time.Now()
_ = backoff.ThrottleRetryContext(ctx, op, m.config.GetUserDataRetryPolicy, nil)
elapsed := time.Since(start)
// In general, we want to start a new call immediately on completion of the previous
// one. But if the remote is broken and returns success immediately, we might end up
// spinning. So enforce a minimum wait time that increases as long as we keep getting
// very fast replies.
// If the user data version changed it means new data was received so we skip this check.
if !userDataVersionChanged && elapsed < m.config.GetUserDataMinWaitTime {
if fastResponseCounter >= maxFastUserDataFetches {
// maxFastUserDataFetches or more consecutive fast responses, let's throttle!
util.InterruptibleSleep(ctx, minWaitTime-elapsed)
// Don't let this get near our call timeout, otherwise we can't tell the difference
// between a fast reply and a timeout.
minWaitTime = min(minWaitTime*2, m.config.GetUserDataLongPollTimeout()/2)
} else {
// Not yet maxFastUserDataFetches consecutive fast responses. A few rapid refreshes for versioned queues
// is expected when the first poller arrives. We do not want to slow down the queue
// for that.
fastResponseCounter++
}
} else {
fastResponseCounter = 0
minWaitTime = m.config.GetUserDataMinWaitTime
}
}
return ctx.Err()
}
// Loads user data from db (called only on initialization of taskQueuePartitionManager).
func (m *userDataManagerImpl) loadUserDataFromDB(ctx context.Context) error {
response, err := m.store.GetTaskQueueUserData(ctx, &persistence.GetTaskQueueUserDataRequest{
NamespaceID: m.partition.NamespaceId(),
TaskQueue: m.partition.TaskQueue().Name(),
})
if common.IsNotFoundError(err) {
// not all task queues have user data
response, err = &persistence.GetTaskQueueUserDataResponse{}, nil
}
if err != nil {
return err
}
m.lock.Lock()
defer m.lock.Unlock()
m.setUserDataLocked(response.UserData)
m.logNewUserData("loaded user data from db", response.UserData)
return nil
}
// Checks if data in db has not been modified since we loaded/modified it.
func (m *userDataManagerImpl) refreshUserDataFromDB(ctx context.Context) error {
// Lock here to ensure we're not in the middle of an update, otherwise we may incorrectly
// think the db has old data if we update between read and verify.
m.lock.Lock()
defer m.lock.Unlock()
response, err := m.store.GetTaskQueueUserData(ctx, &persistence.GetTaskQueueUserDataRequest{
NamespaceID: m.partition.NamespaceId(),
TaskQueue: m.partition.TaskQueue().Name(),
})
if common.IsNotFoundError(err) {
response, err = &persistence.GetTaskQueueUserDataResponse{}, nil
}
if err != nil {
return err
}
if response.UserData.GetVersion() == m.userData.GetVersion() {
return nil
}
tags := []tag.Tag{
tag.UserDataVersion(response.UserData.GetVersion()),
tag.NewInt64("expected-user-data-version", m.userData.GetVersion()),
tag.Timestamp(hybrid_logical_clock.UTC(response.UserData.GetData().GetClock())),
tag.NewTimeTag("expected-user-data-timestamp", hybrid_logical_clock.UTC(m.userData.GetData().GetClock())),
}
if response.UserData.GetVersion() < m.userData.GetVersion() {
// We have newer data in memory than the db. This should only happen if the database
// went back in time. We should unload and start over.
m.logger.Error("user data version mismatch: db had older data; unloading", tags...)
return errUserDataVersionMismatch
}
// The db has newer data. We can just update to it.
m.setUserDataLocked(response.UserData)
m.logger.Warn("user data version mismatch: db had newer data; reloading", tags...)
return nil
}
// UpdateUserData updates user data for this task queue and replicates across clusters if necessary.
// Extra care should be taken to avoid mutating the existing data in the update function.
func (m *userDataManagerImpl) UpdateUserData(ctx context.Context, options UserDataUpdateOptions, updateFn UserDataUpdateFunc) (int64, error) {
if m.store == nil {
return 0, errUserDataNoMutateNonRoot
}
if err := m.WaitUntilInitialized(ctx); err != nil {
return 0, err
}
newData, shouldReplicate, err := m.updateUserData(ctx, updateFn, options)
if errors.Is(err, errUserDataUnmodified) {
return newData.GetVersion(), nil
} else if err != nil {
return 0, err
} else if !shouldReplicate {
return newData.GetVersion(), nil
}
// Only replicate if namespace is global and has at least 2 clusters registered.
ns, err := m.namespaceRegistry.GetNamespaceByID(namespace.ID(m.partition.NamespaceId()))
if err != nil {
return 0, err
}
if ns.ReplicationPolicy() != namespace.ReplicationPolicyMultiCluster {
return newData.GetVersion(), nil
}
_, err = m.matchingClient.ReplicateTaskQueueUserData(ctx, &matchingservice.ReplicateTaskQueueUserDataRequest{
NamespaceId: m.partition.NamespaceId(),
TaskQueue: m.partition.TaskQueue().Name(),
UserData: newData.GetData(),
})
if err != nil {
m.logger.Error("Failed to publish a replication task after updating task queue user data", tag.Error(err))
return 0, serviceerror.NewUnavailable("storing task queue user data succeeded but publishing to the namespace replication queue failed, please try again")
}
return newData.GetVersion(), nil
}
// UpdateUserData allows callers to update user data (such as worker build IDs) for this task queue. The pointer passed
// to the update function is guaranteed to be non-nil.
// Note that the user data's clock may be nil and should be initialized externally where there's access to the cluster
// metadata and the cluster ID can be obtained.
//
// If knownVersion is non 0 and not equal to the current version, the update will fail.
//
// The DB write is performed remotely on an owning node for all user data updates in the namespace.
//
// On success returns a pointer to the updated data, which must *not* be mutated, and a boolean indicating whether the
// data should be replicated.
func (m *userDataManagerImpl) updateUserData(
ctx context.Context,
updateFn UserDataUpdateFunc,
options UserDataUpdateOptions,
) (*persistencespb.VersionedTaskQueueUserData, bool, error) {
m.lock.Lock()
defer m.lock.Unlock()
userData, _, err := m.getUserDataLocked()
if err != nil {
return nil, false, err
}
preUpdateData := userData.GetData()
preUpdateVersion := userData.GetVersion()
if preUpdateData == nil {
preUpdateData = &persistencespb.TaskQueueUserData{}
}
if options.KnownVersion > 0 && preUpdateVersion != options.KnownVersion {
return nil, false, serviceerror.NewFailedPreconditionf("user data version mismatch: requested: %d, current: %d", options.KnownVersion, preUpdateVersion)
}
updatedUserData, shouldReplicate, err := updateFn(preUpdateData)
if err == errUserDataUnmodified {
return userData, false, err
}
if err != nil {
m.logger.Error("user data update function failed", tag.Error(err), tag.NewStringTag("user-data-update-source", options.Source))
return nil, false, err
}
added, removed := GetBuildIdDeltas(preUpdateData.GetVersioningData(), updatedUserData.GetVersioningData())
if options.TaskQueueLimitPerBuildId > 0 && len(added) > 0 {
// We iterate here but in practice there should only be a single build Id added when the limit is enforced.
// We do not enforce the limit when applying replication events.
for _, buildId := range added {
numTaskQueues, err := m.store.CountTaskQueuesByBuildId(ctx, &persistence.CountTaskQueuesByBuildIdRequest{
NamespaceID: m.partition.NamespaceId(),
BuildID: buildId,
})
if err != nil {
return nil, false, err
}
if numTaskQueues >= options.TaskQueueLimitPerBuildId {
return nil, false, serviceerror.NewFailedPreconditionf("Exceeded max task queues allowed to be mapped to a single build ID: %d", options.TaskQueueLimitPerBuildId)
}
}
}
_, err = m.matchingClient.UpdateTaskQueueUserData(ctx, &matchingservice.UpdateTaskQueueUserDataRequest{
NamespaceId: m.partition.NamespaceId(),
TaskQueue: m.partition.TaskQueue().Name(),
UserData: &persistencespb.VersionedTaskQueueUserData{Version: preUpdateVersion, Data: updatedUserData},
BuildIdsAdded: added,
BuildIdsRemoved: removed,
})
if err != nil {
m.logger.Error("failed to push new user data to owning matching node for namespace", tag.Error(err))
return nil, false, err
}
updatedVersionedData := &persistencespb.VersionedTaskQueueUserData{Version: preUpdateVersion + 1, Data: updatedUserData}
m.logNewUserData("modified user data", updatedVersionedData, tag.NewStringTag("user-data-update-source", options.Source))
m.setUserDataLocked(updatedVersionedData)
return updatedVersionedData, shouldReplicate, err
}
func (m *userDataManagerImpl) HandleGetUserDataRequest(
ctx context.Context,
req *matchingservice.GetTaskQueueUserDataRequest,
) (*matchingservice.GetTaskQueueUserDataResponse, error) {
version := req.GetLastKnownUserDataVersion()
if version < 0 {
return nil, serviceerror.NewInvalidArgument("last_known_user_data_version must not be negative")
}
if req.WaitNewData {
var cancel context.CancelFunc
ctx, cancel = newChildContext(ctx, m.config.GetUserDataLongPollTimeout(), m.config.GetUserDataReturnBudget)
defer cancel()
}
for {
resp := &matchingservice.GetTaskQueueUserDataResponse{}
userData, userDataChanged, err := m.GetUserData()
if errors.Is(err, errTaskQueueClosed) {
// If we're closing, return a success with no data, as if the request expired. We shouldn't
// close due to idleness (because of the MarkAlive above), so we're probably closing due to a
// change of ownership. The caller will retry and be redirected to the new owner.
m.logger.Debug("returning empty user data (closing)", tag.NewBoolTag("long-poll", req.WaitNewData))
return resp, nil
} else if err != nil {
return nil, err
}
if userData.GetVersion() > version {
resp.UserData = userData
m.logger.Info("returning user data",
tag.NewBoolTag("long-poll", req.WaitNewData),
tag.NewInt64("request-known-version", version),
tag.UserDataVersion(userData.Version),
)
} else if userData != nil && userData.Version < version && m.store != nil {
// When m.store == nil it means this is a non-owner partition, so it is possible
// for the requested version to be greater than the known version if there are
// concurrent user data updates in flight. We do not log an error in that case.
// This is highly unlikely to happen in the owner/root partition but may happen
// due to an edge case in during ownership transfer.
// We rely on client retries in this case to let the system eventually self-heal.
m.logger.Error("requested task queue user data for version greater than known version",
tag.NewInt64("request-known-version", version),
tag.UserDataVersion(userData.Version),
)
return nil, errRequestedVersionTooLarge
}
if req.WaitNewData && userData.GetVersion() <= version {
// long-poll: wait for data to change/appear
select {
case <-ctx.Done():
m.logger.Debug("returning empty user data (expired)",
tag.NewBoolTag("long-poll", req.WaitNewData),
tag.NewInt64("request-known-version", version),
tag.UserDataVersion(userData.GetVersion()),
)
return resp, nil
case <-userDataChanged:
m.logger.Debug("user data changed while blocked in long poll")
continue
}
}
if userData == nil {
m.logger.Debug("returning empty user data (no data)", tag.NewBoolTag("long-poll", req.WaitNewData))
}
return resp, nil
}
}
func (m *userDataManagerImpl) CheckTaskQueueUserDataPropagation(
ctx context.Context,
version int64,
wfPartitions int,
actPartitions int,
) error {
if m.store == nil {
return serviceerror.NewInvalidArgument("CheckTaskQueueUserDataPropagation must be called on root workflow task queue")
} else if version < 1 {
return serviceerror.NewInvalidArgument("CheckTaskQueueUserDataPropagation must wait for version >= 1")
}
complete := make(chan error)
var waitingForPartitions atomic.Int64
waitingForPartitions.Store(int64(wfPartitions - 1 + actPartitions))
policy := backoff.NewExponentialRetryPolicy(500 * time.Millisecond)
isRetryable := func(err error) bool {
if strings.Contains(err.Error(), errRequestedVersionTooLarge.Error()) {
// It is possible that multiple updates are happening at once and this partition has not
// caught up with all the previous updates when we ask for the latest update.
return true
}
return common.IsServiceClientTransientError(err)
}
check := func(p int, tp enumspb.TaskQueueType) {
err := backoff.ThrottleRetryContext(ctx, func(ctx context.Context) error {
res, err := m.matchingClient.GetTaskQueueUserData(ctx, &matchingservice.GetTaskQueueUserDataRequest{
NamespaceId: m.partition.NamespaceId(),
TaskQueue: m.partition.TaskQueue().NormalPartition(p).RpcName(),
TaskQueueType: tp,
LastKnownUserDataVersion: version - 1,
WaitNewData: true,
OnlyIfLoaded: true,
})
if err != nil {
var failed *serviceerror.FailedPrecondition
if errors.As(err, &failed) {
// this means the partition was not loaded, so skip it (if it loads, it will get the newest data)
err = nil
}
return err
} else if res.GetUserData().GetVersion() < version {
return serviceerror.NewUnavailable("retry")
}
return nil
}, policy, isRetryable)
if err == nil {
if waitingForPartitions.Add(-1) == 0 {
complete <- nil
}
}
}
for i := 1; i < wfPartitions; i++ {
go check(i, enumspb.TASK_QUEUE_TYPE_WORKFLOW)
}
for i := 0; i < actPartitions; i++ {
go check(i, enumspb.TASK_QUEUE_TYPE_ACTIVITY)
}
select {
case <-ctx.Done():
return ctx.Err()
case err := <-complete:
return err
}
}
func (m *userDataManagerImpl) setUserDataForNonOwningPartition(userData *persistencespb.VersionedTaskQueueUserData) {
m.lock.Lock()
defer m.lock.Unlock()
m.setUserDataLocked(userData)
}
func (m *userDataManagerImpl) callerInfoContext(ctx context.Context) context.Context {
ns, _ := m.namespaceRegistry.GetNamespaceName(namespace.ID(m.partition.NamespaceId()))
return headers.SetCallerInfo(ctx, headers.NewBackgroundCallerInfo(ns.String()))
}
func (m *userDataManagerImpl) logNewUserData(message string, data *persistencespb.VersionedTaskQueueUserData, tags ...tag.Tag) {
m.logger.Info(message,
append(tags,
tag.UserDataVersion(data.GetVersion()),
tag.Timestamp(hybrid_logical_clock.UTC(data.GetData().GetClock())),
)...)
}