v1.ResourceMemory: resource.MustParse(
							strconv.FormatInt(schedutil.DefaultMemoryRequest, 10)),
					},
				},
			},
		},
	}
	small2 := small
	small2.NodeName = "node2"
	// A larger pod.
	large := v1.PodSpec{
		Containers: []v1.Container{
			{
				Resources: v1.ResourceRequirements{
					Requests: v1.ResourceList{
						v1.ResourceCPU: resource.MustParse(

	// downloading is done. Data bytes are from DummyDataGen.
	objectInputs := []ObjectInput{
		// // cases 0-3: small single part objects
		{"nothing", []int64{0}, make(map[string]string)},
		{"small-0", []int64{11}, make(map[string]string)},
		{"small-1", []int64{509}, make(map[string]string)},
		{"small-2", []int64{5 * oneMiB}, make(map[string]string)},
		// // // cases 4-7: multipart part objects

// p is not written by writeHeader, but is the first chunk of the body
// that will be written. It is sniffed for a Content-Type if none is
// set explicitly. It's also used to set the Content-Length, if the
// total body size was small and the handler has already finished
// running.
func (cw *chunkWriter) writeHeader(p []byte) {
	if cw.wroteHeader {
		return
	}
	cw.wroteHeader = true

	w := cw.res

	}
	return ""
}

var handlerBodyCloseTests = [...]handlerBodyCloseTest{
	// Small enough to slurp past to the next request +
	// has Content-Length.
	0: {
		bodySize:      20 << 10,
		bodyChunked:   false,
		reqConnClose:  false,
		wantEOFSearch: true,
		wantNextReq:   true,
	},

	// Small enough to slurp past to the next request +
	// is chunked.
	1: {
		bodySize:      20 << 10,

	//    The constant must be less than podEvictionTimeout.
	// 2. nodeStatusUpdateFrequency needs to be large enough for kubelet to generate node
	//    status. Kubelet may fail to update node status reliably if the value is too small,
	//    as it takes time to gather all necessary node information.
	nodeStatusUpdateFrequency time.Duration

	// nodeStatusReportFrequency is the frequency that kubelet posts node

  let description = [{
      Creates VarHandleOps right next to the operations that use them, one
      per operation.
      This is useful for transformations that only end up with a few small
      snippets of remaining TF code, and wish for those snippets to be
      self-contained.
      For example, this would transform

      "tf_saved_model.global_tensor"() { sym_name = "v" ... }

// Second, if you are compiling a Go program not in a work space,
// you can use a relative path in an import statement in that program
// to refer to nearby code also not in a work space.
// This makes it easy to experiment with small multipackage programs
// outside of the usual work spaces, but such programs cannot be
// installed with "go install" (there is no work space in which to install them),

				test.name, test.exp, test.got)
		}
	}
}

func TestTranslateTimestampUntil(t *testing.T) {
	// Since this method compares the time with time.Now() internally,
	// small buffers of 0.1 seconds are added on comparing times to consider method call overhead.
	// Otherwise, the output strings become shorter than expected.
	const buf = 1e8
	tl := stringTestList{

of `output`: the zero-frequency term, followed by the `fft_length / 2`
positive-frequency terms.

Along each axis `RFFT2D` is computed on, if `fft_length` is smaller than the
corresponding dimension of `input`, the dimension is cropped. If it is larger,
the dimension is padded with zeros.
  }];

  let arguments = (ins
    TFL_FpTensor:$input,

		// Read on the body, even though it's closed
		n, err = res.Body.Read(buf)
		if n != 0 || err == nil {
			t.Errorf("expected error post-closed large Read; got = %d, %v", n, err)
		}

		// Then something small.
		res, err = c.Get(ts.URL + "/?chunked=" + chunked)
		if err != nil {
			t.Fatal(err)
		}
		body, err := io.ReadAll(res.Body)
		if err != nil {
			t.Fatal(err)
		}