sinkString      string
	sinkBytes       []byte
	sinkUDPAddr     = &net.UDPAddr{IP: make(net.IP, 0, 16)}
)

func TestNoAllocs(t *testing.T) {
	// Wrappers that panic on error, to prove that our alloc-free
	// methods are returning successfully.
	panicIP := func(ip Addr, err error) Addr {
		if err != nil {
			panic(err)
		}
		return ip
	}
	panicPfx := func(pfx Prefix, err error) Prefix {

            "items": {
              "default": "",
              "type": "string"
            },
            "type": "array",

    val response1 = call1.execute()
    waitForDataFrames(Http2Connection.OKHTTP_CLIENT_WINDOW_SIZE)

    // Cancel the call and discard what we've buffered for the response body. This should free up
    // the connection flow-control window so new requests can proceed.
    call1.cancel()
    assertThat(
      response1.body.source().discard(1, TimeUnit.SECONDS),

		OpIsInBounds:      {signed | unsigned, lt},      // 0 <= arg0 < arg1
		OpIsSliceInBounds: {signed | unsigned, lt | eq}, // 0 <= arg0 <= arg1
	}
)

// cleanup returns the posets to the free list
func (ft *factsTable) cleanup(f *Func) {
	for _, po := range []*poset{ft.orderS, ft.orderU} {
		// Make sure it's empty as it should be. A non-empty poset
		// might cause errors and miscompilations if reused.

	}
	return recvType
}

func FakeRecv() *Field {
	return NewField(base.AutogeneratedPos, nil, FakeRecvType())
}

var (
	// TSSA types. HasPointers assumes these are pointer-free.
	TypeInvalid   = newSSA("invalid")
	TypeMem       = newSSA("mem")
	TypeFlags     = newSSA("flags")
	TypeVoid      = newSSA("void")
	TypeInt128    = newSSA("int128")

				"pod", format.Pod(pod), "resourceName", resourceName)
			return err
		}
		// If UpdateContainerResources is error-free, it means desired values for 'resourceName' was accepted by runtime.
		// So we update currentContainerResources for 'resourceName', which is our view of most recently configured resources.

	"managedFields":              "ManagedFields maps workflow-id and version to the set of fields that are managed by that workflow. This is mostly for internal...

// lastChanged and lastChecked "times" so unchanged predecessors can be
// skipped on after-the-first iterations.  Doing this allows extra
// iterations by the caller to be almost free.
//
// It is important to know that the set representation used for
// startState, endState, and merges can share data for two sets where
// one is a small delta from the other.  Doing this does require a

  // waiting for a signal (field value, external system, or other) produced by a
  // component responsible for a finalizer later in the list, resulting in a deadlock.
  // Without enforced ordering finalizers are free to order amongst themselves and
  // are not vulnerable to ordering changes in the list.
  // +optional
  // +patchStrategy=merge
  repeated string finalizers = 14;

  // waiting for a signal (field value, external system, or other) produced by a
  // component responsible for a finalizer later in the list, resulting in a deadlock.
  // Without enforced ordering finalizers are free to order amongst themselves and
  // are not vulnerable to ordering changes in the list.
  // +optional
  // +patchStrategy=merge
  // +listType=set
  repeated string finalizers = 14;