}
	}

	// check that anything other than type and properties in metadata is forbidden
	tt = reflect.TypeOf(Structural{})
	for i := 0; i < tt.NumField(); i++ {
		s := Structural{}
		x := reflect.ValueOf(&s).Elem()
		fuzzer.Fuzz(x.Field(i).Addr().Interface())
		s.Type = "object"
		s.Properties = map[string]Structural{
			"name":         {},
			"generateName": {},
		}

		pem     string
		keyType reflect.Type
		errMsg  string
	}{
		"Invalid PEM string": {
			pem:    "Invalid PEM string",
			errMsg: "invalid PEM-encoded key",
		},
		"Invalid PEM block type": {
			pem:    certRSA,
			errMsg: "unsupported PEM block type for a private key: CERTIFICATE",
		},
		"Parse RSA key": {
			pem:     keyRSA,
			keyType: reflect.TypeOf(&rsa.PrivateKey{}),
		},

    init {
        check(functionalInterface.java.isInterface)
        check(typeParameters.size <= 1) { "generic types with more than one type parameter are not supported" }
    }

    override fun getTypeConfiguredByLambda(type: KType): KType? =
        if (type.isSubtypeOf(starProjectedType)) type.arguments.firstOrNull()?.type ?: staticallyKnownConfiguredType else null

		{Sym{}, 32, 64},
		{Type{}, 64, 104},
		{Map{}, 12, 24},
		{Forward{}, 20, 32},
		{Func{}, 32, 56},
		{Struct{}, 12, 24},
		{Interface{}, 0, 0},
		{Chan{}, 8, 16},
		{Array{}, 12, 16},
		{FuncArgs{}, 4, 8},
		{ChanArgs{}, 4, 8},
		{Ptr{}, 4, 8},
		{Slice{}, 4, 8},
	}

	for _, tt := range tests {
		want := tt._32bit
		if _64bit {
			want = tt._64bit
		}
		got := reflect.TypeOf(tt.val).Size()

}

func testCloneSeq[T any](t *testing.T, want cloneSeq) {
	typName := reflect.TypeFor[T]().Name()
	typ := abi.TypeOf(*new(T))
	t.Run(typName, func(t *testing.T) {
		got := makeCloneSeq(typ)
		if !reflect.DeepEqual(got, want) {
			t.Errorf("unexpected cloneSeq for type %s: got %#v, want %#v", typName, got, want)
		}
	})

	var tests = []struct {
		val    any     // type as a value
		_32bit uintptr // size on 32bit platforms
		_64bit uintptr // size on 64bit platforms
	}{
		{runtime.G{}, 272, 432},   // g, but exported for testing
		{runtime.Sudog{}, 56, 88}, // sudog, but exported for testing
	}

	for _, tt := range tests {
		want := tt._32bit
		if _64bit {
			want = tt._64bit
		}
		got := reflect.TypeOf(tt.val).Size()
		if want != got {

		// Error on map keys that don't map to a field in the destination struct.
		ExtraReturnErrors: cbor.ExtraDecErrorUnknownField,

		// Decode maps into concrete type map[string]interface{} when the destination is an
		// interface{}.
		DefaultMapType: reflect.TypeOf(map[string]interface{}(nil)),

		// A CBOR text string whose content is not a valid UTF-8 sequence is well-formed but

func (v *ObjectVal) ConvertToType(typeValue ref.Type) ref.Val {
	switch typeValue {
	case v.typeRef:
		return v
	case types.TypeType:
		return v.typeRef.CELType()
	}
	return types.NewErr("unsupported conversion into %v", typeValue)
}

// Equal returns true if the `other` value has the same type and content as the implementing struct.

            ?: RuntimeFunctionResolver.Resolution.Unresolved
    }

    /**
     * Gradle decoration does not generate correct Kotlin metadata for decorated Kotlin types.
     * Because of that, decorated types do not appear as subtypes of the original types when inspected with Kotlin reflection.
     * Workaround: use Java reflection to determine the supertypes.

var V int = 1

var HasMask []string = []string{"hi"}

type HasProg struct {
	array [1024]*byte
}

type Dep struct {
	X int
}

func (d *Dep) Method() int {
	// This code below causes various go.itab.* symbols to be generated in
	// the shared library. Similar code in ../exe/exe.go results in
	// exercising https://golang.org/issues/17594
	reflect.TypeOf(os.Stdout).Elem()
	return 10
}

func F() int {