return false
		}

		return true
	})

	if !isEqual {
		return false, msg
	}

	countB := 0
	b.storage.Range(func(k, _ interface{}) bool {
		countB++
		return true
	})

	if countA != countB {
		return false, fmt.Sprintf("two Cyclestates have different numbers of data. A: %v, B: %v", countA, countB)
	}

	return true, ""
}

func TestCycleStateClone(t *testing.T) {
	tests := []struct {

func scaleHeapSample(count, size, rate int64) (int64, int64) {
	if count == 0 || size == 0 {
		return 0, 0
	}

	if rate <= 1 {
		// if rate==1 all samples were collected so no adjustment is needed.
		// if rate<1 treat as unknown and skip scaling.
		return count, size
	}

	avgSize := float64(size) / float64(count)
	scale := 1 / (1 - math.Exp(-avgSize/float64(rate)))

	counter.Add(1) // account for unblocking receive on doneCh
	cancel()
	time.Sleep(time.Second) // give it a chance to misbehave
	goGetAndExpect(t, clock, counter, wr, gots, aval)
}

func goGetExpectNotYet(t *testing.T, clk *testeventclock.Fake, grc counter.GoRoutineCounter, wr promise.WriteOnce, gots chan interface{}, trigger string) {
	grc.Add(1) // count the following goroutine
	go func() {

	// on the actual floating-point value.

	// determine binary or decimal exponent contribution of radix point
	var exp2, exp5 int64
	if fcount < 0 {
		// The mantissa has a radix point ddd.dddd; and
		// -fcount is the number of digits to the right
		// of '.'. Adjust relevant exponent accordingly.
		d := int64(fcount)
		switch base {
		case 10:
			exp5 = d

# Run chatty tests. Assert on CONT lines.
go test chatty_test.go -v -bench . chatty_bench

# Sanity check that output happens. We don't provide -count because the amount
# of output is variable.
stdout 'this is sub-0'
stdout 'this is sub-1'
stdout 'this is sub-2'

# Benchmarks should not print CONT.
! stdout CONT

-- chatty_test.go --
package chatty_bench

import (
	"testing"
	"fmt"
)

				}
				for plName, hr, nCount := cts.popHeldRequest(); hr != nil; plName, hr, nCount = cts.popHeldRequest() {
					desired := desiredPLNames.Has(plName) || mandPLs[plName] != nil
					if testDebugLogs {
						t.Logf("Releasing held request %#+v, desired=%v, plName=%s, count:=%d", hr.rd, desired, plName, nCount)
					}
					close(hr.finishCh)
				}
				cts.requestWG.Wait()

	}

	count := 3

	var languages []Language
	for i := 0; i < count; i++ {
		language := Language{Code: fmt.Sprintf("consurrent %d", i)}
		db.Create(&language)
		languages = append(languages, language)
	}

	user := User{}
	db.Create(&user)
	db.Preload("Languages").FirstOrCreate(&user)

	var wg sync.WaitGroup
	for i := 0; i < count; i++ {
		wg.Add(1)

	if *metricRecorder != 4 {
		t.Errorf("expected count to be 4 but got %d", *metricRecorder)
	}
	if err := h.Delete(mkHeapObj("bar", 1)); err != nil {
		t.Fatal(err)
	}
	if *metricRecorder != 3 {
		t.Errorf("expected count to be 3 but got %d", *metricRecorder)
	}
	if _, err := h.Pop(); err != nil {
		t.Fatal(err)
	}
	if *metricRecorder != 2 {
		t.Errorf("expected count to be 2 but got %d", *metricRecorder)
	}

// same number of bits are set in both masks, then the mask with more
// lower-numbered bits set wins out.
func (s *bitMask) IsNarrowerThan(mask BitMask) bool {
	if s.Count() == mask.Count() {
		return s.IsLessThan(mask)
	}
	return s.Count() < mask.Count()
}

// IsLessThan checks which bitmask has more lower-numbered bits set.
func (s *bitMask) IsLessThan(mask BitMask) bool {
	return *s < *mask.(*bitMask)
}

			if !ok {
				return
			}
			issuedCert := newCSR.Status.Certificate

			// new CSR has no issued certificate yet so do not count it.
			// note that this means that we will ignore CSRs that set a duration
			// but never get approved/signed.  this is fine because the point
			// of these metrics is to understand if the duration is honored
			// by the signer.  we are not checking the behavior of the approver.