return true
}

// dropServiceDisabledFields drops fields that are not used if their associated feature gates
// are not enabled.  The typical pattern is:
//
//	if !utilfeature.DefaultFeatureGate.Enabled(features.MyFeature) && !myFeatureInUse(oldSvc) {
//	    newSvc.Spec.MyFeature = nil
//	}
func dropServiceDisabledFields(newSvc *api.Service, oldSvc *api.Service) {

            if (withDocumentation) {
                expectedVariants.addAll([variantName(feature, 'javadocElements'), variantName(feature, 'sourcesElements')])
            }
        }
        def parsedModuleVariants = mavenModule.parsedModuleMetadata.variants*.name as TreeSet
        assert parsedModuleVariants == expectedVariants

        features.each { feature ->

		{Name: "sha3", Feature: &ARM64.HasSHA3},
		{Name: "sha512", Feature: &ARM64.HasSHA512},
		{Name: "sm3", Feature: &ARM64.HasSM3},
		{Name: "sm4", Feature: &ARM64.HasSM4},
		{Name: "sve", Feature: &ARM64.HasSVE},
		{Name: "sve2", Feature: &ARM64.HasSVE2},
		{Name: "crc32", Feature: &ARM64.HasCRC32},
		{Name: "atomics", Feature: &ARM64.HasATOMICS},
		{Name: "asimdhp", Feature: &ARM64.HasASIMDHP},
		{Name: "cpuid", Feature: &ARM64.HasCPUID},

        when:
        def feature = createFeature("feature")

        then:
        feature.name == "feature"
        feature.sourceSet == ext.sourceSets.getByName('feature')
        feature.runtimeClasspathConfiguration == project.configurations.getByName('featureRuntimeClasspath')
        feature.compileClasspathConfiguration == project.configurations.getByName('featureCompileClasspath')

	// initialzation, it can flip the support at runtime.
	Supports(feature storage.Feature) bool
	// CheckClient works with etcd client to recalcualte feature support and cache it internally.
	// All etcd clients should support feature to cause `Supports` return true.
	// If client A supports and client B doesn't support the feature, the `Supports` will
	// first return true at client A initializtion and then return false on client B

    Set<Feature<?>> features = Sets.<Feature<?>>newHashSet(ExampleBaseFeature.BASE_FEATURE_1);
    assertSame(features, FeatureUtil.addImpliedFeatures(features));
  }

  public void testAddImpliedFeatures_addsImpliedFeatures() throws Exception {
    Set<Feature<?>> features;

    features = Sets.<Feature<?>>newHashSet(ExampleDerivedFeature.DERIVED_FEATURE_1);

)

var maxExtendedFunctionInformation uint32

func doinit() {
	options = []option{
		{Name: "adx", Feature: &X86.HasADX},
		{Name: "aes", Feature: &X86.HasAES},
		{Name: "erms", Feature: &X86.HasERMS},
		{Name: "pclmulqdq", Feature: &X86.HasPCLMULQDQ},
		{Name: "rdtscp", Feature: &X86.HasRDTSCP},
		{Name: "sha", Feature: &X86.HasSHA},
	}
	level := getGOAMD64level()
	if level < 2 {

}

// Feature represents a feature being gated
type Feature struct {
	featuregate.FeatureSpec
	MinimumVersion     *version.Version
	HiddenInHelpText   bool
	DeprecationMessage string
}

// FeatureList represents a list of feature gates
type FeatureList map[string]Feature

// ValidateVersion ensures that a feature gate list is compatible with the chosen Kubernetes version

  }

  private static Set<Feature<?>> computeReserializedMapFeatures(Set<Feature<?>> mapFeatures) {
    Set<Feature<?>> derivedFeatures = Helpers.copyToSet(mapFeatures);
    derivedFeatures.remove(CollectionFeature.SERIALIZABLE);
    derivedFeatures.remove(CollectionFeature.SERIALIZABLE_INCLUDING_VIEWS);
    return derivedFeatures;
  }

  private static Set<Feature<?>> computeEntrySetFeatures(Set<Feature<?>> mapFeatures) {

 *
 * <p>Features are classified by their capabilities. Each variant of a feature provides at least
 * the same set of capabilities as the feature itself. Since all variants of a feature are derived
 * from the same sources, they all expose the same API or "content" and thus provide the same
 * capabilities. Some variants may expose additional capabilities than those of its owning feature,
 * for example with fat jars.</p>
 *