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WIP update deps, sql builder instead of jet

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This commit is contained in:
Max Amundsen
2025-03-10 10:29:18 -04:00
parent cb3b1a429c
commit 13747c2118
87 changed files with 5208 additions and 2523 deletions
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9
vendor/github.com/jonboulle/clockwork/README.md generated vendored
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@@ -36,6 +36,7 @@ Now you can easily test `myFunc` with a `FakeClock`:
```go
func TestMyFunc(t *testing.T) {
ctx := context.Background()
c := clockwork.NewFakeClock()
// Start our sleepy function
@@ -46,8 +47,12 @@ func TestMyFunc(t *testing.T) {
wg.Done()
}()
// Ensure we wait until myFunc is sleeping
c.BlockUntil(1)
// Ensure we wait until myFunc is waiting on the clock.
// Use a context to avoid blocking forever if something
// goes wrong.
ctx, cancel := context.WithTimeout(ctx, 10*time.Second)
defer cancel()
c.BlockUntilContext(ctx, 1)
assertState()

19
vendor/github.com/jonboulle/clockwork/SECURITY.md generated vendored Normal file
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@@ -0,0 +1,19 @@
# Security Policy
If you have discovered a security vulnerability in this project, please report it
privately. **Do not disclose it as a public issue.** This gives me time to work with you
to fix the issue before public exposure, reducing the chance that the exploit will be
used before a patch is released.
You may submit the report in the following ways:
- send an email to ???@???; and/or
- send a [private vulnerability report](https://github.com/jonboulle/clockwork/security/advisories/new)
Please provide the following information in your report:
- A description of the vulnerability and its impact
- How to reproduce the issue
This project is maintained by a single maintainer on a reasonable-effort basis. As such,
please give me 90 days to work on a fix before public exposure.

264
vendor/github.com/jonboulle/clockwork/clockwork.go generated vendored
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@@ -1,8 +1,10 @@
// Package clockwork contains a simple fake clock for Go.
package clockwork
import (
"context"
"sort"
"errors"
"slices"
"sync"
"time"
)
@@ -14,49 +16,18 @@ type Clock interface {
Sleep(d time.Duration)
Now() time.Time
Since(t time.Time) time.Duration
Until(t time.Time) time.Duration
NewTicker(d time.Duration) Ticker
NewTimer(d time.Duration) Timer
AfterFunc(d time.Duration, f func()) Timer
}
// FakeClock provides an interface for a clock which can be manually advanced
// through time.
//
// FakeClock maintains a list of "waiters," which consists of all callers
// waiting on the underlying clock (i.e. Tickers and Timers including callers of
// Sleep or After). Users can call BlockUntil to block until the clock has an
// expected number of waiters.
type FakeClock interface {
Clock
// Advance advances the FakeClock to a new point in time, ensuring any existing
// waiters are notified appropriately before returning.
Advance(d time.Duration)
// BlockUntil blocks until the FakeClock has the given number of waiters.
BlockUntil(waiters int)
}
// NewRealClock returns a Clock which simply delegates calls to the actual time
// package; it should be used by packages in production.
func NewRealClock() Clock {
return &realClock{}
}
// NewFakeClock returns a FakeClock implementation which can be
// manually advanced through time for testing. The initial time of the
// FakeClock will be the current system time.
//
// Tests that require a deterministic time must use NewFakeClockAt.
func NewFakeClock() FakeClock {
return NewFakeClockAt(time.Now())
}
// NewFakeClockAt returns a FakeClock initialised at the given time.Time.
func NewFakeClockAt(t time.Time) FakeClock {
return &fakeClock{
time: t,
}
}
type realClock struct{}
func (rc *realClock) After(d time.Duration) <-chan time.Time {
@@ -75,6 +46,10 @@ func (rc *realClock) Since(t time.Time) time.Duration {
return rc.Now().Sub(t)
}
func (rc *realClock) Until(t time.Time) time.Duration {
return t.Sub(rc.Now())
}
func (rc *realClock) NewTicker(d time.Duration) Ticker {
return realTicker{time.NewTicker(d)}
}
@@ -87,7 +62,14 @@ func (rc *realClock) AfterFunc(d time.Duration, f func()) Timer {
return realTimer{time.AfterFunc(d, f)}
}
type fakeClock struct {
// FakeClock provides an interface for a clock which can be manually advanced
// through time.
//
// FakeClock maintains a list of "waiters," which consists of all callers
// waiting on the underlying clock (i.e. Tickers and Timers including callers of
// Sleep or After). Users can call BlockUntil to block until the clock has an
// expected number of waiters.
type FakeClock struct {
// l protects all attributes of the clock, including all attributes of all
// waiters and blockers.
l sync.RWMutex
@@ -96,11 +78,27 @@ type fakeClock struct {
time time.Time
}
// NewFakeClock returns a FakeClock implementation which can be
// manually advanced through time for testing. The initial time of the
// FakeClock will be the current system time.
//
// Tests that require a deterministic time must use NewFakeClockAt.
func NewFakeClock() *FakeClock {
return NewFakeClockAt(time.Now())
}
// NewFakeClockAt returns a FakeClock initialised at the given time.Time.
func NewFakeClockAt(t time.Time) *FakeClock {
return &FakeClock{
time: t,
}
}
// blocker is a caller of BlockUntil.
type blocker struct {
count int
// ch is closed when the underlying clock has the specificed number of blockers.
// ch is closed when the underlying clock has the specified number of blockers.
ch chan struct{}
}
@@ -111,23 +109,23 @@ type expirer interface {
expire(now time.Time) (next *time.Duration)
// Get and set the expiration time.
expiry() time.Time
setExpiry(time.Time)
expiration() time.Time
setExpiration(time.Time)
}
// After mimics [time.After]; it waits for the given duration to elapse on the
// fakeClock, then sends the current time on the returned channel.
func (fc *fakeClock) After(d time.Duration) <-chan time.Time {
func (fc *FakeClock) After(d time.Duration) <-chan time.Time {
return fc.NewTimer(d).Chan()
}
// Sleep blocks until the given duration has passed on the fakeClock.
func (fc *fakeClock) Sleep(d time.Duration) {
func (fc *FakeClock) Sleep(d time.Duration) {
<-fc.After(d)
}
// Now returns the current time of the fakeClock
func (fc *fakeClock) Now() time.Time {
func (fc *FakeClock) Now() time.Time {
fc.l.RLock()
defer fc.l.RUnlock()
return fc.time
@@ -135,61 +133,73 @@ func (fc *fakeClock) Now() time.Time {
// Since returns the duration that has passed since the given time on the
// fakeClock.
func (fc *fakeClock) Since(t time.Time) time.Duration {
func (fc *FakeClock) Since(t time.Time) time.Duration {
return fc.Now().Sub(t)
}
// Until returns the duration that has to pass from the given time on the fakeClock
// to reach the given time.
func (fc *FakeClock) Until(t time.Time) time.Duration {
return t.Sub(fc.Now())
}
// NewTicker returns a Ticker that will expire only after calls to
// fakeClock.Advance() have moved the clock past the given duration.
func (fc *fakeClock) NewTicker(d time.Duration) Ticker {
var ft *fakeTicker
ft = &fakeTicker{
firer: newFirer(),
d: d,
reset: func(d time.Duration) { fc.set(ft, d) },
stop: func() { fc.stop(ft) },
// FakeClock.Advance() have moved the clock past the given duration.
//
// The duration d must be greater than zero; if not, NewTicker will panic.
func (fc *FakeClock) NewTicker(d time.Duration) Ticker {
// Maintain parity with
// https://cs.opensource.google/go/go/+/refs/tags/go1.20.3:src/time/tick.go;l=23-25
if d <= 0 {
panic(errors.New("non-positive interval for NewTicker"))
}
fc.set(ft, d)
ft := newFakeTicker(fc, d)
fc.l.Lock()
defer fc.l.Unlock()
fc.setExpirer(ft, d)
return ft
}
// NewTimer returns a Timer that will fire only after calls to
// fakeClock.Advance() have moved the clock past the given duration.
func (fc *fakeClock) NewTimer(d time.Duration) Timer {
return fc.newTimer(d, nil)
func (fc *FakeClock) NewTimer(d time.Duration) Timer {
t, _ := fc.newTimer(d, nil)
return t
}
// AfterFunc mimics [time.AfterFunc]; it returns a Timer that will invoke the
// given function only after calls to fakeClock.Advance() have moved the clock
// past the given duration.
func (fc *fakeClock) AfterFunc(d time.Duration, f func()) Timer {
return fc.newTimer(d, f)
func (fc *FakeClock) AfterFunc(d time.Duration, f func()) Timer {
t, _ := fc.newTimer(d, f)
return t
}
// newTimer returns a new timer, using an optional afterFunc.
func (fc *fakeClock) newTimer(d time.Duration, afterfunc func()) *fakeTimer {
var ft *fakeTimer
ft = &fakeTimer{
firer: newFirer(),
reset: func(d time.Duration) bool {
fc.l.Lock()
defer fc.l.Unlock()
// fc.l must be held across the calls to stopExpirer & setExpirer.
stopped := fc.stopExpirer(ft)
fc.setExpirer(ft, d)
return stopped
},
stop: func() bool { return fc.stop(ft) },
// newTimer returns a new timer using an optional afterFunc and the time that
// timer expires.
func (fc *FakeClock) newTimer(d time.Duration, afterfunc func()) (*fakeTimer, time.Time) {
ft := newFakeTimer(fc, afterfunc)
fc.l.Lock()
defer fc.l.Unlock()
fc.setExpirer(ft, d)
return ft, ft.expiration()
}
afterFunc: afterfunc,
}
fc.set(ft, d)
// newTimerAtTime is like newTimer, but uses a time instead of a duration.
//
// It is used to ensure FakeClock's lock is held constant through calling
// fc.After(t.Sub(fc.Now())). It should not be exposed externally.
func (fc *FakeClock) newTimerAtTime(t time.Time, afterfunc func()) *fakeTimer {
ft := newFakeTimer(fc, afterfunc)
fc.l.Lock()
defer fc.l.Unlock()
fc.setExpirer(ft, t.Sub(fc.time))
return ft
}
// Advance advances fakeClock to a new point in time, ensuring waiters and
// blockers are notified appropriately before returning.
func (fc *fakeClock) Advance(d time.Duration) {
func (fc *FakeClock) Advance(d time.Duration) {
fc.l.Lock()
defer fc.l.Unlock()
end := fc.time.Add(d)
@@ -198,38 +208,34 @@ func (fc *fakeClock) Advance(d time.Duration) {
//
// We don't iterate because the callback of the waiter might register a new
// waiter, so the list of waiters might change as we execute this.
for len(fc.waiters) > 0 && !end.Before(fc.waiters[0].expiry()) {
for len(fc.waiters) > 0 && !end.Before(fc.waiters[0].expiration()) {
w := fc.waiters[0]
fc.waiters = fc.waiters[1:]
// Use the waiter's expriation as the current time for this expiration.
now := w.expiry()
// Use the waiter's expiration as the current time for this expiration.
now := w.expiration()
fc.time = now
if d := w.expire(now); d != nil {
// Set the new exipration if needed.
// Set the new expiration if needed.
fc.setExpirer(w, *d)
}
}
fc.time = end
}
// BlockUntil blocks until the fakeClock has the given number of waiters.
// BlockUntil blocks until the FakeClock has the given number of waiters.
//
// Prefer BlockUntilContext, which offers context cancellation to prevent
// deadlock.
// Prefer BlockUntilContext in new code, which offers context cancellation to
// prevent deadlock.
//
// Deprecation warning: This function might be deprecated in later versions.
func (fc *fakeClock) BlockUntil(n int) {
b := fc.newBlocker(n)
if b == nil {
return
}
<-b.ch
// Deprecated: New code should prefer BlockUntilContext.
func (fc *FakeClock) BlockUntil(n int) {
fc.BlockUntilContext(context.TODO(), n)
}
// BlockUntilContext blocks until the fakeClock has the given number of waiters
// or the context is cancelled.
func (fc *fakeClock) BlockUntilContext(ctx context.Context, n int) error {
func (fc *FakeClock) BlockUntilContext(ctx context.Context, n int) error {
b := fc.newBlocker(n)
if b == nil {
return nil
@@ -243,7 +249,7 @@ func (fc *fakeClock) BlockUntilContext(ctx context.Context, n int) error {
}
}
func (fc *fakeClock) newBlocker(n int) *blocker {
func (fc *FakeClock) newBlocker(n int) *blocker {
fc.l.Lock()
defer fc.l.Unlock()
// Fast path: we already have >= n waiters.
@@ -260,7 +266,7 @@ func (fc *fakeClock) newBlocker(n int) *blocker {
}
// stop stops an expirer, returning true if the expirer was stopped.
func (fc *fakeClock) stop(e expirer) bool {
func (fc *FakeClock) stop(e expirer) bool {
fc.l.Lock()
defer fc.l.Unlock()
return fc.stopExpirer(e)
@@ -269,81 +275,45 @@ func (fc *fakeClock) stop(e expirer) bool {
// stopExpirer stops an expirer, returning true if the expirer was stopped.
//
// The caller must hold fc.l.
func (fc *fakeClock) stopExpirer(e expirer) bool {
for i, t := range fc.waiters {
if t == e {
// Remove element, maintaining order.
copy(fc.waiters[i:], fc.waiters[i+1:])
fc.waiters[len(fc.waiters)-1] = nil
fc.waiters = fc.waiters[:len(fc.waiters)-1]
return true
}
func (fc *FakeClock) stopExpirer(e expirer) bool {
idx := slices.Index(fc.waiters, e)
if idx == -1 {
return false
}
return false
}
// set sets an expirer to expire at a future point in time.
func (fc *fakeClock) set(e expirer, d time.Duration) {
fc.l.Lock()
defer fc.l.Unlock()
fc.setExpirer(e, d)
// Remove element, maintaining order, setting inaccessible elements to nil so
// they can be garbage collected.
copy(fc.waiters[idx:], fc.waiters[idx+1:])
fc.waiters[len(fc.waiters)-1] = nil
fc.waiters = fc.waiters[:len(fc.waiters)-1]
return true
}
// setExpirer sets an expirer to expire at a future point in time.
//
// The caller must hold fc.l.
func (fc *fakeClock) setExpirer(e expirer, d time.Duration) {
func (fc *FakeClock) setExpirer(e expirer, d time.Duration) {
if d.Nanoseconds() <= 0 {
// special case - trigger immediately, never reset.
// Special case for timers with duration <= 0: trigger immediately, never
// reset.
//
// TODO: Explain what cases this covers.
// Tickers never get here, they panic if d is < 0.
e.expire(fc.time)
return
}
// Add the expirer to the set of waiters and notify any blockers.
e.setExpiry(fc.time.Add(d))
e.setExpiration(fc.time.Add(d))
fc.waiters = append(fc.waiters, e)
sort.Slice(fc.waiters, func(i int, j int) bool {
return fc.waiters[i].expiry().Before(fc.waiters[j].expiry())
slices.SortFunc(fc.waiters, func(a, b expirer) int {
return a.expiration().Compare(b.expiration())
})
// Notify blockers of our new waiter.
var blocked []*blocker
// Notify blockers of our new waiter.
count := len(fc.waiters)
for _, b := range fc.blockers {
fc.blockers = slices.DeleteFunc(fc.blockers, func(b *blocker) bool {
if b.count <= count {
close(b.ch)
continue
return true
}
blocked = append(blocked, b)
}
fc.blockers = blocked
}
// firer is used by fakeTimer and fakeTicker used to help implement expirer.
type firer struct {
// The channel associated with the firer, used to send expriation times.
c chan time.Time
// The time when the firer expires. Only meaningful if the firer is currently
// one of a fakeClock's waiters.
exp time.Time
}
func newFirer() firer {
return firer{c: make(chan time.Time, 1)}
}
func (f *firer) Chan() <-chan time.Time {
return f.c
}
// expiry implements expirer.
func (f *firer) expiry() time.Time {
return f.exp
}
// setExpiry implements expirer.
func (f *firer) setExpiry(t time.Time) {
f.exp = t
return false
})
}

148
vendor/github.com/jonboulle/clockwork/context.go generated vendored
View File

@@ -2,24 +2,168 @@ package clockwork
import (
"context"
"fmt"
"sync"
"time"
)
// contextKey is private to this package so we can ensure uniqueness here. This
// type identifies context values provided by this package.
type contextKey string
// keyClock provides a clock for injecting during tests. If absent, a real clock should be used.
// keyClock provides a clock for injecting during tests. If absent, a real clock
// should be used.
var keyClock = contextKey("clock") // clockwork.Clock
// AddToContext creates a derived context that references the specified clock.
//
// Be aware this doesn't change the behavior of standard library functions, such
// as [context.WithTimeout] or [context.WithDeadline]. For this reason, users
// should prefer passing explicit [clockwork.Clock] variables rather can passing
// the clock via the context.
func AddToContext(ctx context.Context, clock Clock) context.Context {
return context.WithValue(ctx, keyClock, clock)
}
// FromContext extracts a clock from the context. If not present, a real clock is returned.
// FromContext extracts a clock from the context. If not present, a real clock
// is returned.
func FromContext(ctx context.Context) Clock {
if clock, ok := ctx.Value(keyClock).(Clock); ok {
return clock
}
return NewRealClock()
}
// ErrFakeClockDeadlineExceeded is the error returned by [context.Context] when
// the deadline passes on a context which uses a [FakeClock].
//
// It wraps a [context.DeadlineExceeded] error, i.e.:
//
// // The following is true for any Context whose deadline has been exceeded,
// // including contexts made with clockwork.WithDeadline or clockwork.WithTimeout.
//
// errors.Is(ctx.Err(), context.DeadlineExceeded)
//
// // The following can only be true for contexts made
// // with clockwork.WithDeadline or clockwork.WithTimeout.
//
// errors.Is(ctx.Err(), clockwork.ErrFakeClockDeadlineExceeded)
var ErrFakeClockDeadlineExceeded error = fmt.Errorf("clockwork.FakeClock: %w", context.DeadlineExceeded)
// WithDeadline returns a context with a deadline based on a [FakeClock].
//
// The returned context ignores parent cancelation if the parent was cancelled
// with a [context.DeadlineExceeded] error. Any other error returned by the
// parent is treated normally, cancelling the returned context.
//
// If the parent is cancelled with a [context.DeadlineExceeded] error, the only
// way to then cancel the returned context is by calling the returned
// context.CancelFunc.
func WithDeadline(parent context.Context, clock Clock, t time.Time) (context.Context, context.CancelFunc) {
if fc, ok := clock.(*FakeClock); ok {
return newFakeClockContext(parent, t, fc.newTimerAtTime(t, nil).Chan())
}
return context.WithDeadline(parent, t)
}
// WithTimeout returns a context with a timeout based on a [FakeClock].
//
// The returned context follows the same behaviors as [WithDeadline].
func WithTimeout(parent context.Context, clock Clock, d time.Duration) (context.Context, context.CancelFunc) {
if fc, ok := clock.(*FakeClock); ok {
t, deadline := fc.newTimer(d, nil)
return newFakeClockContext(parent, deadline, t.Chan())
}
return context.WithTimeout(parent, d)
}
// fakeClockContext implements context.Context, using a fake clock for its
// deadline.
//
// It ignores parent cancellation if the parent is cancelled with
// context.DeadlineExceeded.
type fakeClockContext struct {
parent context.Context
deadline time.Time // The user-facing deadline based on the fake clock's time.
// Tracks timeout/deadline cancellation.
timerDone <-chan time.Time
// Tracks manual calls to the cancel function.
cancel func() // Closes cancelCalled wrapped in a sync.Once.
cancelCalled chan struct{}
// The user-facing data from the context.Context interface.
ctxDone chan struct{} // Returned by Done().
err error // nil until ctxDone is ready to be closed.
}
func newFakeClockContext(parent context.Context, deadline time.Time, timer <-chan time.Time) (context.Context, context.CancelFunc) {
cancelCalled := make(chan struct{})
ctx := &fakeClockContext{
parent: parent,
deadline: deadline,
timerDone: timer,
cancelCalled: cancelCalled,
ctxDone: make(chan struct{}),
cancel: sync.OnceFunc(func() {
close(cancelCalled)
}),
}
ready := make(chan struct{}, 1)
go ctx.runCancel(ready)
<-ready // Wait until the cancellation goroutine is running.
return ctx, ctx.cancel
}
func (c *fakeClockContext) Deadline() (time.Time, bool) {
return c.deadline, true
}
func (c *fakeClockContext) Done() <-chan struct{} {
return c.ctxDone
}
func (c *fakeClockContext) Err() error {
<-c.Done() // Don't return the error before it is ready.
return c.err
}
func (c *fakeClockContext) Value(key any) any {
return c.parent.Value(key)
}
// runCancel runs the fakeClockContext's cancel goroutine and returns the
// fakeClockContext's cancel function.
//
// fakeClockContext is then cancelled when any of the following occur:
//
// - The fakeClockContext.done channel is closed by its timer.
// - The returned CancelFunc is executed.
// - The fakeClockContext's parent context is cancelled with an error other
// than context.DeadlineExceeded.
func (c *fakeClockContext) runCancel(ready chan struct{}) {
parentDone := c.parent.Done()
// Close ready when done, just in case the ready signal races with other
// branches of our select statement below.
defer close(ready)
for c.err == nil {
select {
case <-c.timerDone:
c.err = ErrFakeClockDeadlineExceeded
case <-c.cancelCalled:
c.err = context.Canceled
case <-parentDone:
c.err = c.parent.Err()
case ready <- struct{}{}:
// Signals the cancellation goroutine has begun, in an attempt to minimize
// race conditions related to goroutine startup time.
ready = nil // This case statement can only fire once.
}
}
close(c.ctxDone)
return
}

35
vendor/github.com/jonboulle/clockwork/ticker.go generated vendored
View File

@@ -19,7 +19,12 @@ func (r realTicker) Chan() <-chan time.Time {
}
type fakeTicker struct {
firer
// The channel associated with the firer, used to send expiration times.
c chan time.Time
// The time when the ticker expires. Only meaningful if the ticker is currently
// one of a FakeClock's waiters.
exp time.Time
// reset and stop provide the implementation of the respective exported
// functions.
@@ -30,13 +35,27 @@ type fakeTicker struct {
d time.Duration
}
func (f *fakeTicker) Reset(d time.Duration) {
f.reset(d)
func newFakeTicker(fc *FakeClock, d time.Duration) *fakeTicker {
var ft *fakeTicker
ft = &fakeTicker{
c: make(chan time.Time, 1),
d: d,
reset: func(d time.Duration) {
fc.l.Lock()
defer fc.l.Unlock()
ft.d = d
fc.setExpirer(ft, d)
},
stop: func() { fc.stop(ft) },
}
return ft
}
func (f *fakeTicker) Stop() {
f.stop()
}
func (f *fakeTicker) Chan() <-chan time.Time { return f.c }
func (f *fakeTicker) Reset(d time.Duration) { f.reset(d) }
func (f *fakeTicker) Stop() { f.stop() }
func (f *fakeTicker) expire(now time.Time) *time.Duration {
// Never block on expiration.
@@ -46,3 +65,7 @@ func (f *fakeTicker) expire(now time.Time) *time.Duration {
}
return &f.d
}
func (f *fakeTicker) expiration() time.Time { return f.exp }
func (f *fakeTicker) setExpiration(t time.Time) { f.exp = t }

40
vendor/github.com/jonboulle/clockwork/timer.go generated vendored
View File

@@ -18,9 +18,14 @@ func (r realTimer) Chan() <-chan time.Time {
}
type fakeTimer struct {
firer
// The channel associated with the firer, used to send expiration times.
c chan time.Time
// reset and stop provide the implmenetation of the respective exported
// The time when the firer expires. Only meaningful if the firer is currently
// one of a FakeClock's waiters.
exp time.Time
// reset and stop provide the implementation of the respective exported
// functions.
reset func(d time.Duration) bool
stop func() bool
@@ -30,13 +35,30 @@ type fakeTimer struct {
afterFunc func()
}
func (f *fakeTimer) Reset(d time.Duration) bool {
return f.reset(d)
func newFakeTimer(fc *FakeClock, afterfunc func()) *fakeTimer {
var ft *fakeTimer
ft = &fakeTimer{
c: make(chan time.Time, 1),
reset: func(d time.Duration) bool {
fc.l.Lock()
defer fc.l.Unlock()
// fc.l must be held across the calls to stopExpirer & setExpirer.
stopped := fc.stopExpirer(ft)
fc.setExpirer(ft, d)
return stopped
},
stop: func() bool { return fc.stop(ft) },
afterFunc: afterfunc,
}
return ft
}
func (f *fakeTimer) Stop() bool {
return f.stop()
}
func (f *fakeTimer) Chan() <-chan time.Time { return f.c }
func (f *fakeTimer) Reset(d time.Duration) bool { return f.reset(d) }
func (f *fakeTimer) Stop() bool { return f.stop() }
func (f *fakeTimer) expire(now time.Time) *time.Duration {
if f.afterFunc != nil {
@@ -51,3 +73,7 @@ func (f *fakeTimer) expire(now time.Time) *time.Duration {
}
return nil
}
func (f *fakeTimer) expiration() time.Time { return f.exp }
func (f *fakeTimer) setExpiration(t time.Time) { f.exp = t }