}

	switch len(searchedVersions) {
	case 0:
		return fmt.Sprintf("no matches for kind %q in group %q", e.GroupKind.Kind, e.GroupKind.Group)
	case 1:
		return fmt.Sprintf("no matches for kind %q in version %q", e.GroupKind.Kind, searchedVersions.List()[0])
	default:
		return fmt.Sprintf("no matches for kind %q in versions %q", e.GroupKind.Kind, searchedVersions.List())
	}
}

func (*NoKindMatchError) Is(target error) bool {

}

func resourceKinds(un *unstructured.Unstructured) string {
	kinds := findResourceInSpec(un.GetObjectKind().GroupVersionKind())
	if kinds == "" {
		kinds = strings.ToLower(un.GetKind()) + "s"
	}
	// Override with special kind if it exists in the map
	if specialKind, exists := specialKinds[un.GetKind()]; exists {
		kinds = specialKind
	}
	return kinds
}

// and parses it out into both possibilities. This code takes no responsibility for knowing which representation was intended
// but with a knowledge of all GroupKinds, calling code can take a very good guess. If there are only two segments, then
// `*GroupVersionKind` is nil.
// `Kind.group.com` -> `group=com, version=group, kind=Kind` and `group=group.com, kind=Kind`

	}

	return true
}

func kindMatches(pattern schema.GroupVersionKind, kind schema.GroupVersionKind) bool {
	if pattern.Group != AnyGroup && pattern.Group != kind.Group {
		return false
	}
	if pattern.Version != AnyVersion && pattern.Version != kind.Version {
		return false
	}
	if pattern.Kind != AnyKind && pattern.Kind != kind.Kind {
		return false
	}

	return true
}

				// only test options types in the core API group
				continue
			}
			gvks = append(gvks, gvk)
		}
		c.Kinds = gvks
	}

	// Sort kinds to get deterministic test order
	sort.Slice(c.Kinds, func(i, j int) bool {
		if c.Kinds[i].Group != c.Kinds[j].Group {
			return c.Kinds[i].Group < c.Kinds[j].Group
		}
		if c.Kinds[i].Version != c.Kinds[j].Version {
			return c.Kinds[i].Version < c.Kinds[j].Version

class AbstractFunction : public core::RefCounted {
 protected:
  enum AbstractFunctionKind { kGraph, kMlir };
  explicit AbstractFunction(AbstractFunctionKind kind) : kind_(kind) {}

 public:
  // Returns which subclass is this instance of.
  AbstractFunctionKind getKind() const { return kind_; }

  // Returns the AbstractFunction as a FunctionDef.
  virtual Status GetFunctionDef(const FunctionDef**) = 0;

	kinds := scheme.AllKnownTypes()
	for gvk := range kinds {
		if gvk.Version == runtime.APIVersionInternal || globalNonRoundTrippableTypes.Has(gvk.Kind) {
			continue
		}
		t.Run(gvk.Group+"."+gvk.Version+"."+gvk.Kind, func(t *testing.T) {
			roundTripSpecificKind(t, gvk, scheme, codecFactory, fuzzer, nonRoundTrippableTypes, true)

	}
	injectScheme = runtime.NewScheme()
)

func init() {
	for _, kind := range kinds {
		injectScheme.AddKnownTypes(kind.groupVersion, kind.obj)
		injectScheme.AddUnversionedTypes(kind.groupVersion, kind.obj)
	}

class AbstractContext {
 protected:
  enum AbstractContextKind { kGraph, kMlir, kEager, kTfrt, kTape, kOpHandler };
  explicit AbstractContext(AbstractContextKind kind) : kind_(kind) {}
  virtual ~AbstractContext() {}

 public:
  AbstractContextKind getKind() const { return kind_; }

  // Release any underlying resources, including the interface object.
  //
  // WARNING: The destructor of this class is marked as protected to disallow

	kinds, err := m.KindsFor(resource)
	if err != nil {
		return schema.GroupVersionKind{}, err
	}
	if len(kinds) == 1 {
		return kinds[0], nil
	}

	return schema.GroupVersionKind{}, &AmbiguousResourceError{PartialResource: resource, MatchingKinds: kinds}
}

// RESTMapping provides the REST mapping for the resource based on the