}

	var totTime time.Duration
	for _, curMark := range m.marks {
		dur := curMark.endT.Sub(curMark.startT)
		totTime += dur
		fmt.Fprintf(w, "%s 1 %d ns/op", makeBenchString(curMark.name+gcString), dur.Nanoseconds())
		fmt.Fprintf(w, "\t%d B/op", curMark.endM.TotalAlloc-curMark.startM.TotalAlloc)
		fmt.Fprintf(w, "\t%d allocs/op", curMark.endM.Mallocs-curMark.startM.Mallocs)
		if m.gc == GC {

  long stopwatch(int reps) {
    long total = 0;
    for (int i = 0; i < reps; i++) {
      Stopwatch s = Stopwatch.createStarted();
      // here is where you would do something
      total += s.elapsed(TimeUnit.NANOSECONDS);
    }
    return total;
  }

  @Benchmark
  long manual(int reps) {
    long total = 0;
    for (int i = 0; i < reps; i++) {
      long start = System.nanoTime();

// clock reading.
type Time struct {
	// wall and ext encode the wall time seconds, wall time nanoseconds,
	// and optional monotonic clock reading in nanoseconds.
	//
	// From high to low bit position, wall encodes a 1-bit flag (hasMonotonic),
	// a 33-bit seconds field, and a 30-bit wall time nanoseconds field.
	// The nanoseconds field is in the range [0, 999999999].
	// If the hasMonotonic bit is 0, then the 33-bit field must be zero

	r := testing.BenchmarkResult{
		N: 100,
		T: 240 * time.Nanosecond,
	}
	if r.NsPerOp() != 2 {
		t.Errorf("NsPerOp: expected 2, actual %v", r.NsPerOp())
	}
	if want, got := "     100\t         2.400 ns/op", r.String(); want != got {
		t.Errorf("String: expected %q, actual %q", want, got)
	}

	// Test sub-1 ns/op (issue #31005)
	r.T = 40 * time.Nanosecond

)

// Fuzz satisfies fuzz.Interface.
func (t *MicroTime) Fuzz(c fuzz.Continue) {
	if t == nil {
		return
	}
	// Allow for about 1000 years of randomness. Accurate to a tenth of
	// micro second. Leave off nanoseconds because JSON doesn't
	// represent them so they can't round-trip properly.
	t.Time = time.Unix(c.Rand.Int63n(1000*365*24*60*60), 1000*c.Rand.Int63n(1000000))
}

// ensure MicroTime implements fuzz.Interface

	// Convert to nSec
	MOVW    $100, R2
	MULLU   R0, R2, (R4, R3)    // R4:R3 = R1:R0 * R2
	MULA    R1, R2, R4, R4
	// w = R2:R1 in nSec
	MOVW    R3, R1	      // R4:R3 -> R2:R1
	MOVW    R4, R2

	// multiply nanoseconds by reciprocal of 10**9 (scaled by 2**61)
	// to get seconds (96 bit scaled result)
	MOVW	$0x89705f41, R3		// 2**61 * 10**-9
	MULLU	R1,R3,(R6,R5)		// R7:R6:R5 = R2:R1 * R3
	MOVW	$0,R7
	MULALU	R2,R3,(R7,R6)

	"time"

	fuzz "github.com/google/gofuzz"
)

// Fuzz satisfies fuzz.Interface.
func (t *Time) Fuzz(c fuzz.Continue) {
	if t == nil {
		return
	}
	// Allow for about 1000 years of randomness.  Leave off nanoseconds
	// because JSON doesn't represent them so they can't round-trip
	// properly.
	t.Time = time.Unix(c.Rand.Int63n(1000*365*24*60*60), 0)
}

// ensure Time implements fuzz.Interface

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

//go:build !faketime

package runtime

import "unsafe"

// faketime is the simulated time in nanoseconds since 1970 for the
// playground.
//
// Zero means not to use faketime.
var faketime int64

// Exported via linkname for use by time and internal/poll.
//

/** This class is for {@code com.google.common.base} use only! */
@J2ktIncompatible
@GwtIncompatible // java.time.Duration
@ElementTypesAreNonnullByDefault
final class Internal {

  /**
   * Returns the number of nanoseconds of the given duration without throwing or overflowing.
   *
   * <p>Instead of throwing {@link ArithmeticException}, this method silently saturates to either

		"Total number of internode TCP dial timeouts and errors")
	internodeDialAvgTimeNanosMD = NewGaugeMD(internodeDialAvgTimeNanos,
		"Average dial time of internode TCP calls in nanoseconds")
	internodeSentBytesTotalMD = NewCounterMD(internodeSentBytesTotal,
		"Total number of bytes sent to other peer nodes")
	internodeRecvBytesTotalMD = NewCounterMD(internodeRecvBytesTotal,