return statsapi.InterfaceStats{
		Name:     criIface.Name,
		RxBytes:  valueOfUInt64Value(criIface.RxBytes),
		RxErrors: valueOfUInt64Value(criIface.RxErrors),
		TxBytes:  valueOfUInt64Value(criIface.TxBytes),
		TxErrors: valueOfUInt64Value(criIface.TxErrors),
	}
}

func valueOfUInt64Value(value *runtimeapi.UInt64Value) *uint64 {
	if value == nil {
		return nil
	}
	return &value.Value

    v1Creator.commit()

    cache["k1"]!!.use { snapshot1 ->
      val inV1 = snapshot1.getSource(0).buffer()
      assertThat(inV1.readByte()).isEqualTo('A'.code.toByte())
      assertThat(inV1.readByte()).isEqualTo('A'.code.toByte())

      val v1Updater = cache.edit("k1")!!
      v1Updater.setString(0, "CCcc")
      v1Updater.setString(1, "DDdd")
      v1Updater.commit()

	if cstat.Network != nil {
		iStats := cadvisorInfoToNetworkStats(info)
		if iStats != nil {
			for _, iStat := range iStats.Interfaces {
				if *iStat.RxErrors != 0 || *iStat.TxErrors != 0 || *iStat.RxBytes != 0 || *iStat.TxBytes != 0 {
					return false
				}
			}
		}
	}
	if cstat.CpuInst == nil || cstat.Memory == nil {
		return true
	}
	return cstat.CpuInst.Usage.Total == 0 && cstat.Memory.RSS == 0
}

//
// curve description: Scalar
//
// machine_wordsize = 64 (from "64")
//
// requested operations: mul, add, sub, opp, nonzero, from_montgomery, to_montgomery, to_bytes, from_bytes
//

	assert.Equal(expected.Interfaces[0].RxBytes, *actual.RxBytes)
	assert.Equal(expected.Interfaces[0].RxErrors, *actual.RxErrors)
	assert.Equal(expected.Interfaces[0].TxBytes, *actual.TxBytes)
	assert.Equal(expected.Interfaces[0].TxErrors, *actual.TxErrors)
}

func checkCRIPodCPUAndMemoryStats(assert *assert.Assertions, actual statsapi.PodStats, cs *cadvisorapiv2.ContainerStats) {

	Name      string
	Got, Want interface{}
}

var testPairs = []testPair{
	{"GoString", C.GoString(C.greeting), greeting},
	{"GoStringN", C.GoStringN(C.greeting, 5), greeting[:5]},
	{"GoBytes", C.GoBytes(unsafe.Pointer(C.greeting), 5), []byte(greeting[:5])},
}

func testHelpers(t *testing.T) {
	for _, pair := range testPairs {
		if !reflect.DeepEqual(pair.Got, pair.Want) {

		fmt.Fprintf(os.Stderr, "%s%g\n", indent, float64FromBits(x))
	case tComplex:
		r := deb.uint64()
		i := deb.uint64()
		fmt.Fprintf(os.Stderr, "%s%g+%gi\n", indent, float64FromBits(r), float64FromBits(i))
	case tBytes:
		x := int(deb.uint64())
		b := make([]byte, x)
		deb.r.Read(b)
		deb.consumed(x)
		fmt.Fprintf(os.Stderr, "%s{% x}=%q\n", indent, b, b)
	case tString:
		x := int(deb.uint64())
		b := make([]byte, x)

}

// Indexed by gob types.  tComplex will be added during type.init().
var decIgnoreOpMap = map[typeId]decOp{
	tBool:    ignoreUint,
	tInt:     ignoreUint,
	tUint:    ignoreUint,
	tFloat:   ignoreUint,
	tBytes:   ignoreUint8Array,
	tString:  ignoreUint8Array,
	tComplex: ignoreTwoUints,
}

// decOpFor returns the decoding op for the base type under rt and
// the indirection count to reach it.

    val source = response.body.source()
    source.timeout().timeout(1000, TimeUnit.MILLISECONDS)
    assertThat(source.readByte()).isEqualTo('A'.code.toByte())
    assertThat(source.readByte()).isEqualTo('B'.code.toByte())
    assertThat(source.readByte()).isEqualTo('C'.code.toByte())
    assertFailsWith<SocketTimeoutException> {
      source.readByte() // If Content-Length was accurate, this would return -1 immediately.
    }

    assertThat(actual).isEqualTo(expected)
  }

  private fun intArrayToByteArray(bytes: IntArray): ByteString {
    val data = ByteArray(bytes.size)
    for (i in bytes.indices) {
      data[i] = bytes[i].toByte()
    }
    return ByteString.of(*data)
  }

  private fun readerHeaderTableLength(): Int {
    return hpackReader!!.dynamicTable.size
  }