// %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.

// `proto` must point to an array of `proto_len` bytes representing a
// binary-serialized TensorShapeProto.
TF_CAPI_EXPORT extern void TF_SetAttrTensorShapeProto(
    TF_OperationDescription* desc, const char* attr_name, const void* proto,
    size_t proto_len, TF_Status* status);
// `protos` and `proto_lens` must point to arrays of length `num_shapes`.
// `protos[i]` must point to an array of `proto_lens[i]` bytes

// 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.

				Level1b: 9,
				Level1c: 10,
				Level1d: 11,
				Level1e: 12,
			},
			Loop: Loop{
				Loop1: 13,
				Loop2: 14,
			},
			Embed0p: Embed0p{
				Point: image.Point{X: 15, Y: 16},
			},
			Embed0q: Embed0q{
				Point: Point{Z: 17},
			},
			embed: embed{
				Q: 18,
			},
		},
	},
	{
		CaseName: Name(""),
		in:       `{"hello": 1}`,
		ptr:      new(Ambig),

		overage = mappedReady - memoryLimit
	}

	if nonHeapMemory+overage >= memoryLimit {
		// We're at a point where non-heap memory exceeds the memory limit on its own.
		// There's honestly not much we can do here but just trigger GCs continuously
		// and let the CPU limiter reign that in. Something has to give at this point.
		// Set it to heapMarked, the lowest possible goal.
		return c.heapMarked
	}

	// signal a completion point.
	incnwait := atomic.Xadd(&work.nwait, +1)
	if incnwait > work.nproc {
		println("runtime: work.nwait=", incnwait,
			"work.nproc=", work.nproc)
		throw("work.nwait > work.nproc")
	}

	if incnwait == work.nproc && !gcMarkWorkAvailable(nil) {
		// This has reached a background completion point. Set
		// gp.param to a non-nil value to indicate this. It

	case AMOVWD:
		if sc&C_UBIT == 0 {
			o |= 1 << 7 /* signed */
		}
		return o | 0xe<<24 | 0xb<<20 | 8<<16 | 0xa<<8 | 4<<4 | 0<<18 | 1<<8 // toint, double

	case AMOVFW:
		if sc&C_UBIT == 0 {
			o |= 1 << 16 /* signed */
		}
		return o | 0xe<<24 | 0xb<<20 | 8<<16 | 0xa<<8 | 4<<4 | 1<<18 | 0<<8 | 1<<7 // toint, double, trunc

	case AMOVDW:

		}

		// 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{}
}