// %2 = stablehlo.constant  // Input 1 inverse scale 1 / s1.
// %3 = stablehlo.constant  // Input 1 zero point z1 (i8).
// %4 = stablehlo.constant  // Input 1 zero point z1 (i32).
// %5 = stablehlo.constant  // Input 2 inverse scale 1 / s2.
// %6 = stablehlo.constant  // Input 2 zero point z2 (i8).
// %7 = stablehlo.constant  // Input 2 zero point z2 (i32).
// %8 = stablehlo.constant  // Input 3 inverse scale 1 / s3.

// Go value if possible; otherwise it returns x.
// A complex constant that can be represented as a float (such as 1.2 + 0i)
// is returned as a floating point value; if a floating point value can be
// represented as an integer (such as 1.0) it is returned as an integer value.
// This ensures that constants of different kind but equal value (such as
// 1.0 + 0i, 1.0, 1) result in the same value.

		}

		// We'll releasem after this point and thus this P may run
		// something else. We must clear the worker mode to avoid
		// attributing the mode to a different (non-worker) G in
		// traceGoStart.
		pp.gcMarkWorkerMode = gcMarkWorkerNotWorker

		// If this worker reached a background mark completion
		// point, signal the main GC goroutine.

// Go value if possible; otherwise it returns x.
// A complex constant that can be represented as a float (such as 1.2 + 0i)
// is returned as a floating point value; if a floating point value can be
// represented as an integer (such as 1.0) it is returned as an integer value.
// This ensures that constants of different kind but equal value (such as
// 1.0 + 0i, 1.0, 1) result in the same value.

// point. This is used to simplify iterating over all extension points supported by the
// frameworkImpl.
type extensionPoint struct {
	// the set of plugins to be configured at this extension point.
	plugins *config.PluginSet
	// a pointer to the slice storing plugins implementations that will run at this
	// extension point.
	slicePtr interface{}
}

func TestCRIListPodStats(t *testing.T) {
	ctx := context.Background()
	var (
		imageFsMountpoint = "/test/mount/point"
		unknownMountpoint = "/unknown/mount/point"
		imageFsInfo       = getTestFsInfo(2000)
		rootFsInfo        = getTestFsInfo(1000)

		sandbox0           = makeFakePodSandbox("sandbox0-name", "sandbox0-uid", "sandbox0-ns", false)

	return nil
}

// pState is the state of a proc at a point in the trace.
type pState struct {
	id     ProcID
	status go122.ProcStatus
	seq    seqCounter

	// rangeState is the state of special time ranges bound to this proc.
	rangeState
}

// mState is the state of a thread at a point in the trace.
type mState struct {

		{name: "LessEqualF", argLength: 1, reg: readflags},       // bool, true flags encode floating-point x<=y false otherwise.
		{name: "GreaterThanF", argLength: 1, reg: readflags},     // bool, true flags encode floating-point x>y false otherwise.
		{name: "GreaterEqualF", argLength: 1, reg: readflags},    // bool, true flags encode floating-point x>=y false otherwise.

	// more than one pointer-word boundary. This sets an upper-bound on this
	// value at the number of bits in a uintptr, multiplied by the pointer
	// size in bytes.
	//
	// We choose a value here that has a natural cutover point in terms of memory
	// overheads. This value just happens to be the maximum possible value this
	// can be.
	//
	// A span with heap bits in it will have 128 bytes of heap bits on 64-bit

	//
	// The line has slope sweepPagesPerByte and passes through a
	// basis point at (sweepHeapLiveBasis, pagesSweptBasis). At
	// any given time, the system is at (gcController.heapLive,
	// pagesSwept) in this space.
	//
	// It is important that the line pass through a point we
	// control rather than simply starting at a 0,0 origin
	// because that lets us adjust sweep pacing at any time while