import org.gradle.kotlin.dsl.assign

            data class MyType(val property: Property<String>)

            class MyPlugin : Plugin<Project> {
                override fun apply(project: Project) {
                    val myType = MyType(property = project.objects.property(String::class.java))
                    myType.property = "value"
                }
            }

            """
        )

	// many to many
	err = DB.Model(&emptyUser).Association("Languages").Delete(&user1.Languages)
	AssertEqual(t, err, gorm.ErrPrimaryKeyRequired)
}

type (
	myType           string
	emptyQueryClause struct {
		Field *schema.Field
	}
)

func (myType) QueryClauses(f *schema.Field) []clause.Interface {
	return []clause.Interface{emptyQueryClause{Field: f}}
}

func (sd emptyQueryClause) Name() string {

====

=== Mutable Managed Properties

A mutable managed property is declared using an abstract getter method of type `Property<T>`, where `T` can be any serializable type or a <<#managed_types,fully managed Gradle type>>.
The property must not have any setter methods.

Here is an example of a task type with an `uri` property of type `URI`:

[source,java]
.Download.java
----

	// err := s.GuaranteedUpdate(
	//     "myKey", &MyType{}, true, preconditions,
	//     func(input runtime.Object, res ResponseMeta) (runtime.Object, *uint64, error) {
	//       // Before each invocation of the user defined function, "input" is reset to
	//       // current contents for "myKey" in database.
	//       curr := input.(*MyType)  // Guaranteed to succeed.
	//
	//       // Make the modification

   * <p><b>{@code Stream} equivalent:</b> if an object array is acceptable, use {@code
   * stream.toArray()}; if {@code type} is a class literal such as {@code MyType.class}, use {@code
   * stream.toArray(MyType[]::new)}. Otherwise use {@code stream.toArray( len -> (E[])
   * Array.newInstance(type, len))}.
   *
   * @param type the type of the elements
   * @return a newly-allocated array into which all the elements of this fluent iterable have been

   * <p><b>{@code Stream} equivalent:</b> if an object array is acceptable, use {@code
   * stream.toArray()}; if {@code type} is a class literal such as {@code MyType.class}, use {@code
   * stream.toArray(MyType[]::new)}. Otherwise use {@code stream.toArray( len -> (E[])
   * Array.newInstance(type, len))}.
   *
   * @param type the type of the elements
   * @return a newly-allocated array into which all the elements of this fluent iterable have been

---
bar`
)

func _() {
	type _ int
	type _ *int
	type _ []int
	type _ map[string]int
	type _ chan int
	type _ func() int

	var _ int
	var _ *int
	var _ []int
	var _ map[string]int
	var _ chan int
	var _ func() int

	type _ struct{}
	type _ *struct{}
	type _ []struct{}
	type _ map[string]struct{}
	type _ chan struct{}
	type _ func() struct{}

	type _ interface{}

---
bar`
)


func _() {
	type _ int
	type _ *int
	type _ []int
	type _ map[string]int
	type _ chan int
	type _ func() int

	var _ int
	var _ *int
	var _ []int
	var _ map[string]int
	var _ chan int
	var _ func() int

	type _ struct{}
	type _ *struct{}
	type _ []struct{}
	type _ map[string]struct{}
	type _ chan struct{}
	type _ func() struct{}

	type _ interface{}

} z;

// issue 6612
// Test new scheme for deciding whether C.name is an expression, type, constant.
// Clang silences some warnings when the name is a #defined macro, so test those too
// (even though we now use errors exclusively, not warnings).

void myfunc(void) {}
int myvar = 5;
const char *mytext = "abcdef";
typedef int mytype;
enum {
	myenum = 1234,
};

#define myfunc_def myfunc

	// UintType is equivalent to the CEL 'uint' type.
	UintType = NewSimpleTypeWithMinSize("uint", cel.UintType, types.Uint(0), 1)

	// ListType is equivalent to the CEL 'list' type.
	ListType = NewListType(AnyType, noMaxLength)

	// MapType is equivalent to the CEL 'map' type.
	MapType = NewMapType(AnyType, AnyType, noMaxLength)