assertFalse(greater.equals(t));
      }
    }
  }

  /**
   * Returns a collection that simulates concurrent modification by having its size method return
   * incorrect values. This is useful for testing methods that must treat the return value from
   * size() as a hint only.
   *
   * @param delta the difference between the true size of the collection and the values returned by

        char[] testPassword = "CharArrayPass789!".toCharArray();
        NtlmPasswordAuthenticator auth = new NtlmPasswordAuthenticator("testuser", testPassword);

        // Verify password is stored correctly
        assertArrayEquals(testPassword, auth.getPasswordAsCharArray());
        assertEquals(new String(testPassword), auth.getPassword());

        // Verify that modifying original array doesn't affect stored password

                        .inactiveRequiredProjects(MODULE_B)
                        .expectResult(MODULE_C_2, INDEPENDENT_MODULE),
                scenario("Selected projects in wrong order are resumed correctly in order")
                        .activeRequiredProjects(MODULE_C_2, MODULE_B, MODULE_A)
                        .resumeFrom(MODULE_B)
                        .expectResult(MODULE_B, MODULE_C_2),

 * views are modifiable.
 *
 * <p>This class is not threadsafe when any concurrent operations update the multimap. Concurrent
 * read operations will work correctly. To allow concurrent update operations, wrap your multimap
 * with a call to {@link Multimaps#synchronizedListMultimap}.
 *
 * <p>See the Guava User Guide article on <a href=

   *
   * <p>The multimap is not threadsafe when any concurrent operations update the multimap, even if
   * {@code map} and the instances generated by {@code factory} are. Concurrent read operations will
   * work correctly. To allow concurrent update operations, wrap the multimap with a call to {@link
   * #synchronizedMultimap}.
   *
   * <p>Call this method only when the simpler methods {@link ArrayListMultimap#create()}, {@link

        bb.put("NODE01".getBytes(StandardCharsets.UTF_16LE));
        bb.putShort((short) 0);

        referral.decode(testBuffer, 0, testBuffer.length);

        // First verify the referral was parsed correctly
        assertNotNull(referral.getRpath());
        assertNotNull(referral.getAltPath());
        assertNotNull(referral.getNode());
        assertEquals("\\\\server\\\\share", referral.getRpath());

 * <p>The guarantee provided by this class is that equal keys lead to the same lock (or semaphore),
 * i.e. {@code if (key1.equals(key2))} then {@code striped.get(key1) == striped.get(key2)} (assuming
 * {@link Object#hashCode()} is correctly implemented for the keys). Note that if {@code key1} is
 * <strong>not</strong> equal to {@code key2}, it is <strong>not</strong> guaranteed that {@code

   * {@link Collections#frequency} (which would presumably perform more poorly).
   *
   * <p><b>Note:</b> the utility method {@link Iterables#frequency} generalizes this operation; it
   * correctly delegates to this method when dealing with a multiset, but it can also accept any
   * other iterable type.
   *
   * @param element the element to count occurrences of

}

// RawServerSideChecksumResult returns the ServerSideChecksumResult from the
// underlying rawReader, since the PutObjReader might be encrypted data and
// thus any checksum from that would be incorrect.
func (p *PutObjReader) RawServerSideChecksumResult() *hash.Checksum {
	if p.rawReader != nil {
		return p.rawReader.ServerSideChecksumResult
	}
	return nil
}

	c.Assert(response.StatusCode, http.StatusOK)

	objName := "test-object"

	// Body is on purpose set to nil so that we get payload generated for empty bytes.

	// Create new HTTP request with incorrect secretKey to generate an incorrect signature.
	secretKey := s.secretKey + "a"
	request, err = newTestSignedRequest(http.MethodPut, getPutObjectURL(s.endPoint, bucketName, objName), 0, nil, s.accessKey, secretKey, s.signer)
	c.Assert(err, nil)