*/
public class FessLabels extends UserMessages {

    /** The serial version UID for object serialization. (Default) */
    private static final long serialVersionUID = 1L;

    /** The key of the message: Realm */
    public static final String LABELS_AUTH_REALM = "{labels.authRealm}";

    /** The key of the message: Status */
    public static final String LABELS_AVAILABLE = "{labels.available}";

Michael Fraenkel <******@****.***> 1527110615 -0400

	public final fun authParams ()Ljava/util/Map;
	public final fun charset ()Ljava/nio/charset/Charset;
	public fun equals (Ljava/lang/Object;)Z
	public fun hashCode ()I
	public final fun realm ()Ljava/lang/String;
	public final fun scheme ()Ljava/lang/String;
	public fun toString ()Ljava/lang/String;
	public final fun withCharset (Ljava/nio/charset/Charset;)Lokhttp3/Challenge;
}

There is no guarantee that the reference equality is preserved for standard Java, Groovy, and Kotlin types, or for Gradle-defined types.

Note that no reference equality is preserved between tasks: each task is its own "realm", so it is not possible to share objects between tasks.
Instead, you can use a <<build_services#build_services,build service>> to wrap the shared state.

[[config_cache:requirements:task_extensions]]

)

var tests = []struct {
	code      string
	got, want interface{}
}{
	{"real(1)", real(1), 1.0},
	{"real('a')", real('a'), float64('a')},
	{"real(2.0)", real(2.0), 2.0},
	{"real(3.2i)", real(3.2i), 0.0},

	{"imag(1)", imag(1), 0.0},
	{"imag('a')", imag('a'), 0.0},
	{"imag(2.1 + 3.1i)", imag(2.1 + 3.1i), 3.1},
	{"imag(3i)", imag(3i), 3.0},
}

func main() {
	// verify compile-time evaluated constant expressions

)

func TestRealEventClock(t *testing.T) {
	ec := Real{}
	var numDone int32
	now := ec.Now()
	const batchSize = 100
	times := make(chan time.Time, batchSize+1)
	try := func(abs bool, d time.Duration) {
		f := func(u time.Time) {
			realD := ec.Since(now)
			atomic.AddInt32(&numDone, 1)
			times <- u
			if realD < d {
				t.Errorf("Asked for %v, got %v", d, realD)
			}
		}
		if abs {

	println(f1())
	println(f2())
	println(f3())
}

func real1() {
	var f32 float32
	var f64 float64
	var c64 complex64
	var c128 complex128
	_ = real() // ERROR "not enough arguments"
	_ = real(1, 2) // ERROR "too many arguments"
	_ = real(10)
	_ = real(2.7182818)
	_ = real("foo" /* ERROR "expected complex" */)
	const _5 = real(1 + 2i)
	assert(_5 == 1)
	f32 = _5
	f64 = _5
	const _6 = real(0i)

	/* 62 */ {_SigNotify, "real time signal"},
	/* 63 */ {_SigNotify, "real time signal"},
	/* 64 */ {_SigNotify, "real time signal"},
	/* 65 */ {_SigNotify, "real time signal"},
	/* 66 */ {_SigNotify, "real time signal"},
	/* 67 */ {_SigNotify, "real time signal"},
	/* 68 */ {_SigNotify, "real time signal"},
	/* 69 */ {_SigNotify, "real time signal"},
	/* 70 */ {_SigNotify, "real time signal"},

                              std::is_convertible<T, std::string>::value>::type>
    Initializer(const T& v) {  // NOLINT(runtime/explicit)
      typedef typename RealType<T>::type RealT;
      Tensor t(DataTypeToEnum<RealT>::v(), TensorShape());
      t.flat<RealT>()(0) = RealT(v);
      tensor = t;
    }

    Initializer(const Tensor& t) : tensor(t) {}  // NOLINT(runtime/explicit)

	if abs(real(m)) >= abs(imag(m)) {
		ratio := imag(m) / real(m)
		denom := real(m) + ratio*imag(m)
		e = (real(n) + imag(n)*ratio) / denom
		f = (imag(n) - real(n)*ratio) / denom
	} else {
		ratio := real(m) / imag(m)
		denom := imag(m) + ratio*real(m)
		e = (real(n)*ratio + imag(n)) / denom
		f = (imag(n)*ratio - real(n)) / denom
	}

	if isNaN(e) && isNaN(f) {