{{- end }}
      {{- end }}
    {{- end }}
    {{ $nativeSidecar := (eq (env "ENABLE_NATIVE_SIDECARS" "false") "true") }}
    {{- $containers := list }}
    {{- range $index, $container := .Spec.Containers }}{{ if not (eq $container.Name "istio-proxy") }}{{ $containers = append $containers $container.Name }}{{end}}{{- end}}
    metadata:
      labels:

        {{- end }}
      {{- end }}
    {{- end }}
    {{ $nativeSidecar := (eq (env "ENABLE_NATIVE_SIDECARS" "false") "true") }}
    {{- $containers := list }}
    {{- range $index, $container := .Spec.Containers }}{{ if not (eq $container.Name "istio-proxy") }}{{ $containers = append $containers $container.Name }}{{end}}{{- end}}
    metadata:
      labels:

        {{- end }}
      {{- end }}
    {{- end }}
    {{ $nativeSidecar := (eq (env "ENABLE_NATIVE_SIDECARS" "false") "true") }}
    {{- $containers := list }}
    {{- range $index, $container := .Spec.Containers }}{{ if not (eq $container.Name "istio-proxy") }}{{ $containers = append $containers $container.Name }}{{end}}{{- end}}
    metadata:
      labels:

		"true", tVal, true},
	{"chained method",
		"{{range .MSIone}}{{if $.GetU.TrueFalse $.True}}{{$.U.TrueFalse $.True}}{{else}}WRONG{{end}}{{end}}",
		"true", tVal, true},
	{"chained method on variable",
		"{{with $x := .}}{{with .SI}}{{$.GetU.TrueFalse $.True}}{{end}}{{end}}",
		"true", tVal, true},
	{".NilOKFunc not nil", "{{call .NilOKFunc .PI}}", "false", tVal, true},

		begin := getPC(decodeValue(ctxt, readPtr(ctxt, list[i:])))
		end := getPC(decodeValue(ctxt, readPtr(ctxt, list[i+ctxt.Arch.PtrSize:])))

		// Horrible hack. If a range contains only zero-width
		// instructions, e.g. an Arg, and it's at the beginning of the
		// function, this would be indistinguishable from an
		// end entry. Fudge it.
		if begin == 0 && end == 0 {
			end = 1
		}

		if ctxt.UseBASEntries {

	beginTime := Date(math.MinInt32, January, 1, 0, 0, 0, 0, loc)
	start, end := beginTime.ZoneBounds()
	if !start.IsZero() || end.IsZero() {
		t.Errorf("ZoneBounds of %v expects start is zero Time, got:\n  start=%v\n  end=%v", beginTime, start, end)
	}

	// If the zone goes on forever, end will be returned as a zero Time.
	// Use math.MaxInt32 to avoid overflow of int arguments on 32-bit systems.

		// upward. So adjust it upward a little bit ourselves:
		// 1/4 MB to get away from the running binary image.
		p := firstmoduledata.end
		if p < procBrk {
			p = procBrk
		}
		if mheap_.heapArenaAlloc.next <= p && p < mheap_.heapArenaAlloc.end {
			p = mheap_.heapArenaAlloc.end
		}
		p = alignUp(p+(256<<10), heapArenaBytes)
		// Because we're worried about fragmentation on

  auto maxs = tensor.quantization->max;
  if (mins.size() != maxs.size() || mins.empty()) return nullptr;

  llvm::SmallVector<llvm::APFloat, 4> min_maxs;
  min_maxs.reserve(mins.size() * 2);
  for (int i = 0, end = mins.size(); i < end; ++i) {
    llvm::APFloat min(mins[i]);
    llvm::APFloat max(maxs[i]);
    min_maxs.push_back(min);
    min_maxs.push_back(max);
  }
  // The layer stats contain only the first min/max pairs.

  // CHECK-DAG: [[BEGIN:%cst.*]] = arith.constant dense<[-1, 0, 0]> : tensor<3xi32>
  // CHECK-DAG: [[END:%cst.*]] = arith.constant dense<[0, 10, 10]> : tensor<3xi32>
  // CHECK-DAG: [[STRIDES:%cst.*]] = arith.constant dense<1> : tensor<3xi32>

	totalGrowth := uintptr(0)
	// This may overflow because ask could be very large
	// and is otherwise unrelated to h.curArena.base.
	end := h.curArena.base + ask
	nBase := alignUp(end, physPageSize)
	if nBase > h.curArena.end || /* overflow */ end < h.curArena.base {
		// Not enough room in the current arena. Allocate more
		// arena space. This may not be contiguous with the