}

    @Test
    void constructor_shouldInitializeValueCorrectly() {
        // Test case 1: Positive value
        int positiveValue = 12345;
        NdrLong ndrLongPositive = new NdrLong(positiveValue);
        assertEquals(positiveValue, ndrLongPositive.value, "Constructor should correctly initialize with a positive value.");

        // Test case 2: Negative value
        int negativeValue = -54321;

    for (Thread thread : blockedThreads) {
      AbstractFutureBenchmarks.awaitWaiting(thread);
    }
    switch (state) {
      case NOT_DONE:
        break;
      case FINISHED:
        f.set(null);
        break;
      case CANCELLED:
        f.cancel(false);
        break;
      case FAILED:
        f.setException(new Exception());
        break;
    }
    return f;
  }

            this.throwOnDecode = throwOnDecode;
        }
    }

    @BeforeEach
    void setUp() {
        ndrObject = new ConcreteNdrObject();
    }

    /**
     * Test case for the encode method.
     * Verifies that the encode method of a concrete implementation is called
     * and interacts with the NdrBuffer as expected.
     * @throws NdrException if encoding fails.
     */
    @Test

		switch v := value.(type) {
		case []clause.Expression:
			for _, expr := range v {
				if eq, ok := expr.(clause.Eq); ok {
					switch column := eq.Column.(type) {
					case string:
						if field := db.Statement.Schema.LookUpField(column); field != nil {
							db.AddError(field.Set(db.Statement.Context, db.Statement.ReflectValue, eq.Value))
						}
					case clause.Column:

				}
				traceFn(sz, err)
				select {
				case <-ctx.Done():
					return
				case <-s.resyncCancelCh:
					return
				case resultCh <- st:
				}
			}
		}(ctx, i)
	}
	for res := range objInfoCh {
		if res.Err != nil {
			resyncStatus = ResyncFailed
			replLogIf(ctx, res.Err)
			return
		}
		select {
		case <-s.resyncCancelCh:
			resyncStatus = ResyncCanceled

                    }
                    setMechanisms(mechs);
                    break;
                case 1:
                    final ASN1BitString ctxFlags = ASN1BitString.getInstance(tagged, true);
                    setContextFlags(ctxFlags.getBytes()[0] & 0xff);
                    break;
                case 2:
                    final ASN1OctetString mechanismToken = ASN1OctetString.getInstance(tagged, true);

        long t;

        return switch (enc) {
        case TIME_1970_SEC_32BE -> enc_uint32be((int) (date.getTime() / 1000L), dst, di);
        case TIME_1970_SEC_32LE -> enc_uint32le((int) (date.getTime() / 1000L), dst, di);
        case TIME_1904_SEC_32BE -> enc_uint32be((int) (date.getTime() / 1000L + SEC_BETWEEEN_1904_AND_1970 & 0xFFFFFFFF), dst, di);

    @BeforeEach
    void setUp() {
        // Reset mocks before each test
        reset(mockHandle);
    }

    @Test
    void testConstructor_SuccessfulConnect4() throws IOException {
        // Test case: Constructor with successful MsrpcSamrConnect4
        String server = "testServer";
        int access = 123;

        // No exception thrown by sendrecv for MsrpcSamrConnect4

            case WitnessAsyncNotifyMessage.WitnessNotificationMessage.WITNESS_CLIENT_MOVE:
            case WitnessAsyncNotifyMessage.WitnessNotificationMessage.WITNESS_SHARE_MOVE:
                if (message.getDestinationNode() != null) {
                    notification.setNewNodeAddress(message.getDestinationNode());
                }
                break;

func (es *expiryState) Worker(input <-chan expiryOp) {
	for {
		select {
		case <-es.ctx.Done():
			return
		case v, ok := <-input:
			if !ok {
				return
			}
			if v == nil {
				// ResizeWorkers signaling worker to quit
				return
			}
			switch v := v.(type) {
			case expiryTask:
				if v.objInfo.TransitionedObject.Status != "" {