long weightY = comparator.getProjectWeight(ProjectDependencyGraphStub.Y);
        long weightZ = comparator.getProjectWeight(ProjectDependencyGraphStub.Z);

        // Verify the actual chain length calculation
        // Leaf nodes (no downstream dependencies)
        assertEquals(1L, weightX, "Project X should have weight 1 (1 + 0)");
        assertEquals(1L, weightY, "Project Y should have weight 1 (1 + 0)");

        // When
        ServerMessageBlock2Request<?> next = request.getNext();

        // Then
        assertNull(next, "Cancel requests should not have next requests in chain");
    }

    @Test
    @DisplayName("Test getOverrideTimeout returns null")
    void testGetOverrideTimeout() {
        // Given
        Smb2CancelRequest request = new Smb2CancelRequest(mockConfig, 1L, 0L);

   *     must be positive
   */
  public static Scale scale(int scale) {
    return new Scale(scale);
  }

  /**
   * Describes the point in a fluent API chain where only the scale (i.e. the q in q-quantiles) has
   * been specified.
   *
   * @since 20.0
   */
  public static final class Scale {

    private final int scale;

    private Scale(int scale) {

 * article on <a href="https://github.com/google/guava/wiki/ListenableFutureExplained">{@code
 * ListenableFuture}</a>.
 *
 * <p>The main purpose of {@code ListenableFuture} is to help you chain together a graph of
 * asynchronous operations. You can chain them together manually with calls to methods like {@link
 * Futures#transform(ListenableFuture, Function, Executor) Futures.transform}, but you will often

	public abstract fun withConnectTimeout (ILjava/util/concurrent/TimeUnit;)Lokhttp3/Interceptor$Chain;
	public abstract fun withReadTimeout (ILjava/util/concurrent/TimeUnit;)Lokhttp3/Interceptor$Chain;
	public abstract fun withWriteTimeout (ILjava/util/concurrent/TimeUnit;)Lokhttp3/Interceptor$Chain;
	public abstract fun writeTimeoutMillis ()I
}

public final class okhttp3/Interceptor$Companion {

	}

	DB.Model(&User{}).Where("name = ?", user1.Name).Count(&count1).Or("name in ?", []string{user2.Name, user3.Name}).Count(&count2)
	if count1 != 1 || count2 != 3 {
		t.Errorf("multiple count in chain should works")
	}

	tx := DB.Model(&User{}).Where("name = ?", user1.Name).Session(&gorm.Session{})
	tx.Count(&count1)
	tx.Or("name in ?", []string{user2.Name, user3.Name}).Count(&count2)
	if count1 != 1 || count2 != 3 {

   *   .build();
   * ```
   */
  internal class LegacyRedirectInterceptor : Interceptor {
    override fun intercept(chain: Interceptor.Chain): Response {
      val response = chain.proceed(chain.request())
      val code = response.code
      if (code != HTTP_TEMP_REDIRECT && code != HTTP_PERM_REDIRECT) return response
      val method = response.request.method

     * a line containing the cipher suite. Next is the length of the peer certificate chain. These
     * certificates are base64-encoded and appear each on their own line. The next line contains the
     * length of the local certificate chain. These certificates are also base64-encoded and appear
     * each on their own line. A length of -1 is used to encode a null array. The last line is

            verify(session).setAttribute("ntlmuser", "user");
            verify(session).setAttribute("ntlmdomain", "TEST_DOMAIN");

            // Verify that the chain continues
            verify(response, never()).setStatus(HttpServletResponse.SC_UNAUTHORIZED);
        }
    }

    /**
     * Test the service method with NTLM authentication that fails.

        return selectedHashAlgorithm;
    }

    /**
     * Calculates hash according to SMB 3.1.1 preauth integrity specification.
     *
     * @param previousHash the previous hash in the chain
     * @param messageData the message data to hash
     * @param hashAlgorithm the hash algorithm to use
     * @return the new hash
     * @throws CIFSException if hash calculation fails
     */