</p>

<pre>
[...]Point{{1.5, -3.5}, {0, 0}}     // same as [...]Point{Point{1.5, -3.5}, Point{0, 0}}
[][]int{{1, 2, 3}, {4, 5}}          // same as [][]int{[]int{1, 2, 3}, []int{4, 5}}
[][]Point{{{0, 1}, {1, 2}}}         // same as [][]Point{[]Point{Point{0, 1}, Point{1, 2}}}
map[string]Point{"orig": {0, 0}}    // same as map[string]Point{"orig": Point{0, 0}}

    // Canonicalizes the given range `point` (begin/end) according to the
    // current dimension. `c` means case: 0 for begin, 1 for end.
    auto canonicalize = [&](int64_t point, int c) {
      if (masks[c]) return stride_i > 0 ? bounds[c] : bounds[(c + 1) & 1];

      // Add dim as offset to negative range point.
      point = point < 0 ? dim_i + point : point;
      return Clamp(point, bounds[0], bounds[1]);
    };

OperandRange GeneratorDatasetRegionOp::getEntrySuccessorOperands(
    RegionBranchPoint point) {
  auto end = this->getOperation()->operand_end();
  if (point.isParent()) {
    // The op itself doesn't branch back to itself.
    return ::mlir::OperandRange(end, end);
  } else if (point.getRegionOrNull() == &getInit()) {
    return getInitFuncOtherArgs();
  } else if (point.getRegionOrNull() == &getNext()) {
    return getNextFuncOtherArgs();

		// MOVSxload: floating-point loads
		// x==S for float32, x==D for float64
		// load from arg0+auxint+aux, arg1 = mem
		{name: "MOVSSload", argLength: 2, reg: fpload, asm: "MOVSS", aux: "SymOff", faultOnNilArg0: true, symEffect: "Read"},
		{name: "MOVSDload", argLength: 2, reg: fpload, asm: "MOVSD", aux: "SymOff", faultOnNilArg0: true, symEffect: "Read"},

		// MOVSxconst: floatint-point constants

		f()
	})
}

type Point struct {
	x, y int
}

// This will be index 0.
func (p Point) AnotherMethod(scale int) int {
	return -1
}

// This will be index 1.
func (p Point) Dist(scale int) int {
	//println("Point.Dist", p.x, p.y, scale)
	return p.x*p.x*scale + p.y*p.y*scale
}

// This will be index 2.
func (p Point) GCMethod(k int) int {
	runtime.GC()

	for i, testCase := range testCases {
		// initialize HTTP NewRecorder, this records any mutations to response writer inside the handler.
		rec := httptest.NewRecorder()
		// construct HTTP request for Get Object end point.
		req, err := newTestSignedRequestV4(http.MethodHead, getHeadObjectURL("", testCase.bucketName, testCase.objectName),
			0, nil, testCase.accessKey, testCase.secretKey, nil)
		if err != nil {

// just before the P goes into _Pidle/_Psyscall and neither forEachP
// nor the P run the safe-point function.
func runSafePointFn() {
	p := getg().m.p.ptr()
	// Resolve the race between forEachP running the safe-point
	// function on this P's behalf and this P running the
	// safe-point function directly.
	if !atomic.Cas(&p.runSafePointFn, 1, 0) {
		return
	}
	sched.safePointFn(p)

possible.\nThe sign will be omitted unless the number is negative.\n\nExamples:\n  1.5 will be serialized as \"1500m\"\n  1.5Gi will be serialized as \"1536Mi\"\n\nNote that the quantity will NEVER be internally represented by a floating point number. That is the whole point of this exercise.\n\nNon-canonical values will still parse as long as they are well formed, but will be re-emitted in their canonical form. (So always use canonical form, or don't diff.)\n\nThis format is intended to make it difficult...

func (c *ctxtz) zopload(a obj.As) uint32 {
	switch a {
	// fixed point load
	case AMOVD:
		return op_LG
	case AMOVW:
		return op_LGF
	case AMOVWZ:
		return op_LLGF
	case AMOVH:
		return op_LGH
	case AMOVHZ:
		return op_LLGH
	case AMOVB:
		return op_LGB
	case AMOVBZ:
		return op_LLGC

	// floating point load
	case AFMOVD:
		return op_LDY
	case AFMOVS:

	}
}

type noPodsFilterPlugin struct{}

// Name returns name of the plugin.
func (pl *noPodsFilterPlugin) Name() string {
	return "NoPodsFilter"
}

// Filter invoked at the filter extension point.
func (pl *noPodsFilterPlugin) Filter(_ context.Context, _ *framework.CycleState, pod *v1.Pod, nodeInfo *framework.NodeInfo) *framework.Status {
	if len(nodeInfo.Pods) == 0 {
		return nil
	}