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{}),
		},

		// 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

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 {

	default:
		return nil, fmt.Errorf("unsupported PEM block type for a private key: %s", kb.Type)
	}
}

// GetRSAKeySize returns the size if it is RSA key, otherwise it returns an error.
func GetRSAKeySize(privKey crypto.PrivateKey) (int, error) {
	if t := reflect.TypeOf(privKey); t != reflect.TypeOf(&rsa.PrivateKey{}) {
		return 0, fmt.Errorf("key type is not RSA: %v", t)
	}
	pkey := privKey.(*rsa.PrivateKey)

	}

	g := 0 // generic index
	for k := range kube {
		kt := reflect.TypeOf(kube[k])
		var gt reflect.Type
		if g < len(generic) {
			gt = reflect.TypeOf(generic[g])
		}

		// special case: we identify full core and generic core
		if kt.Kind() == reflect.Ptr && kt.Elem().PkgPath() == reflect.TypeOf(corerest.Config{}).PkgPath() {
			kt = reflect.TypeOf(&corerest.GenericConfig{})
		}

		if kt == gt {
			g++

//lint:file-ignore U1000 Ignore dummy types, used by tests.

// dummy helper types
type foo struct {
	foo int
}
type bar struct {
	str    string
	strptr *string

	ints      []int
	stringMap map[string]string

	foo    foo
	fooptr *foo

	bars   []foo
	barMap map[string]foo

	skipRecurseStruct  foo
	skipRecursePointer *foo
	skipRecurseList1   []foo
	skipRecurseList2   []foo

/**
 * Creates a [Task] with the given [name] and [type], configures it with the given [configuration] action,
 * and adds it to this project tasks container.
 */
inline fun <reified type : Task> Project.task(name: String, noinline configuration: type.() -> Unit) =
    task(name, type::class, configuration)


/**
 * Creates a [Task] with the given [name] and [type], and adds it to this project tasks container.
 *

			return // invalid type
		}

		var V0 types.Type // integral type in the type set of V

		for _, vt := range vtypes {
			u, _ := vt.Underlying().(*types.Basic)
			if u != nil && u.Info()&types.IsInteger != 0 {
				switch u.Kind() {
				case types.Byte, types.Rune, types.UntypedRune:
					continue
				}
				V0 = vt
				break
			}
		}

		if V0 == nil {

func (info *Info) recordTypes() bool {
	return info.Types != nil || info.StoreTypesInSyntax
}

// TypeOf returns the type of expression e, or nil if not found.
// Precondition 1: the Types map is populated or StoreTypesInSyntax is set.
// Precondition 2: Uses and Defs maps are populated.
func (info *Info) TypeOf(e syntax.Expr) Type {
	if info.Types != nil {
		if t, ok := info.Types[e]; ok {
			return t.Type
		}

}

// isSameType - compares two object types via reflect.TypeOf
func isSameType(obj1, obj2 interface{}) bool {
	return reflect.TypeOf(obj1) == reflect.TypeOf(obj2)
}

// TestServer encapsulates an instantiation of a MinIO instance with a temporary backend.
// Example usage:
//
//	s := StartTestServer(t,"Erasure")
//	defer s.Stop()
type TestServer struct {
	Root         string