}
  DCHECK(group_key_attr != nullptr)
      << "module attribute " << kGroupKeyAttrName
      << " is required for CollectiveInfo but not found.";
  DCHECK(group_size_attr != nullptr)
      << "module attribute " << kGroupSizeAttrName
      << " is required for CollectiveInfo but not found.";
  int32_t group_key = group_key_attr.getInt();
  int32_t group_size = group_size_attr.getInt();

	}
	return false
}

// applyTypeFunc applies f to x. If x is a type parameter,
// the result is a type parameter constrained by a new
// interface bound. The type bounds for that interface
// are computed by applying f to each of the type bounds
// of x. If any of these applications of f return nil,
// applyTypeFunc returns nil.
// If x is not a type parameter, the result is f(x).

// tracks various statistics for that function.
type accumulator struct {
	mmu float64

	// bound is the mutator utilization bound where adding any
	// mutator utilization above this bound cannot affect the
	// accumulated statistics.
	bound float64

	// Worst N window tracking
	nWorst int
	wHeap  utilHeap

	// Mutator utilization distribution tracking
	mud *mud

    /**
     * Finds the parent symbol of the given [KaSymbol] by traversing back up the symbol hierarchy a certain number of steps,
     * or until the containing class or object symbol is found.
     *
     * @param symbol The [KaSymbol] whose parent symbol needs to be found.
     * @param goBackSteps The number of steps to go back up the symbol hierarchy.
     * @param selectedFqName The fully qualified name of the selected package.

	}()

	// Keep track of bounds for later validation.
	var bound Type
	for i, f := range list {
		// Optimization: Re-use the previous type bound if it hasn't changed.
		// This also preserves the grouped output of type parameter lists
		// when printing type strings.
		if i == 0 || f.Type != list[i-1].Type {
			bound = check.bound(f.Type)
			if isTypeParam(bound) {

				t.Fatal(err)
			}
			if !reflect.DeepEqual(got, *tt.expected) {
				t.Fatalf("expected %#v, got %#v", *tt.expected, got)
			}

			roundTrip := got.String()
			if roundTrip != tt.input {
				t.Fatalf("round trip failed, expected %q got %q", tt.input, roundTrip)
			}
		})
	}

		tpar.iface()
		// The type parameter bound is parameterized with the same type parameters
		// as the instantiated type; before we can use it for bounds checking we
		// need to instantiate it with the type arguments with which we instantiated
		// the parameterized type.
		bound := check.subst(pos, tpar.bound, smap, nil, ctxt)
		var cause string

				t.Fatalf("failed to unmarshal UpdateOptions: %v", err)
			}
			got.TypeMeta = metav1.TypeMeta{}
			update.TypeMeta = metav1.TypeMeta{}
			if !reflect.DeepEqual(*update, *got) {
				t.Fatalf(`updateToCreateOptions round-trip failed:
got:  %#+v
want: %#+v`, got, update)
			}

		})
	}
}

func TestPatchToUpdateOptions(t *testing.T) {
	tests := []struct {
		name        string

	// meaning the unbiasing loop almost never runs.
	// On 32-bit systems, here we need to implement that same logic in 32-bit math,
	// both to preserve the exact output sequence observed on 64-bit machines
	// and to preserve the optimization that the unbiasing loop almost never runs.
	//
	// We want to compute
	// 	hi, lo := bits.Mul64(r.Uint64(), n)

// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

/*
Package unsafe contains operations that step around the type safety of Go programs.

Packages that import unsafe may be non-portable and are not protected by the
Go 1 compatibility guidelines.
*/
package unsafe