}

    @NotYetImplemented
    // Instrumentation with artifact transform doesn't support that yet
    def "transformation normalizes input jars before fingerprinting"() {
        requireOwnGradleUserHomeDir() // inspects cached content

        given:
        def buildClassSource = '''
            package org.gradle.test;
            public class BuildClass {
                public String message() { return "hello world"; }

// ParallelDevice.
class ParallelTensor {
 public:
  // Construct a ParallelTensor from TensorHandles placed on the component
  // devices of a ParallelDevice. If called, ParallelTensor::Shape inspects
  // `components` to determine a shape.
  static std::unique_ptr<ParallelTensor> FromTensorHandles(
      const ParallelDevice& parallel_device,
      std::vector<TensorHandlePtr> components, TF_Status* status);

	} else {
		revised = objectOps.DeepCopy(current)
	}
	if updateAnnotation {
		setAutoUpdateAnnotation(revised, autoUpdateSpec)
	}

	return revised, true, nil
}

// shouldUpdateSpec inspects the auto-update annotation key and generation field to determine
// whether the config object should be auto-updated.
func shouldUpdateSpec(accessor metav1.Object) bool {

	var fromCompatibilityVersion string
	// cmd represents the upgradeCheck command
	cmd := &cobra.Command{
		Use:   "precheck",
		Short: "Check whether Istio can safely be installed or upgraded",
		Long:  `precheck inspects a Kubernetes cluster for Istio install and upgrade requirements.`,
		Example: `  # Verify that Istio can be installed or upgraded
  istioctl x precheck

  # Check only a single namespace

==== Runtime classpath normalization

Similar to compile avoidance, Gradle also understands the concept of a runtime classpath, and uses tailored input normalization to avoid running e.g. tests.
For runtime classpaths Gradle inspects the contents of jar files and ignores the timestamps and order of the entries in the jar file.
This means that a rebuilt jar file would be considered the same runtime classpath input.

While running on the system stack, the current user stack is not used
for execution.

nosplit functions
-----------------

Most functions start with a prologue that inspects the stack pointer
and the current G's stack bound and calls `morestack` if the stack
needs to grow.

Functions can be marked `//go:nosplit` (or `NOSPLIT` in assembly) to

			t.Errorf("RepoRootForImportPath(%q) = VCS(%s) Repo(%s), want VCS(%s) Repo(%s)", test.path, got.VCS, got.Repo, want.VCS, want.Repo)
		}
	}
}

// Test that vcs.FromDir correctly inspects a given directory and returns the
// right VCS and repo directory.
func TestFromDir(t *testing.T) {
	tempDir := t.TempDir()

	for _, vcs := range vcsList {
		for r, root := range vcs.RootNames {

// “synchronizes before” f(x), so in general a finalizer should use a mutex
// or other synchronization mechanism if it needs to access mutable state in x.
// For example, consider a finalizer that inspects a mutable field in x
// that is modified from time to time in the main program before x
// becomes unreachable and the finalizer is invoked.
// The modifications in the main program and the inspection in the finalizer

		return false
	}
	fn := n.Fun.(*Name).Sym()
	return (fn.Name == "FuncPCABI0" || fn.Name == "FuncPCABIInternal") &&
		fn.Pkg.Path == "internal/abi"
}

// IsIfaceOfFunc inspects whether n is an interface conversion from a direct
// reference of a func. If so, it returns referenced Func; otherwise nil.
//
// This is only usable before walk.walkConvertInterface, which converts to an
// OMAKEFACE.

func (lv *ListValue) Type() ref.Type {
	return types.ListType
}

// Value returns the Go-native value.
func (lv *ListValue) Value() interface{} {
	return lv
}

// finalizeValueSet inspects the ListValue entries in order to make internal optimizations once all list
// entries are known.
func (lv *ListValue) finalizeValueSet() {
	valueSet := make(map[ref.Val]struct{})
	for _, e := range lv.Entries {