}

    @Test
    @DisplayName("Test supported algorithms")
    public void testSupportedAlgorithms() {
        int[] algorithms = context.getCompressionAlgorithms();
        assertNotNull(algorithms);
        assertEquals(3, algorithms.length);
        assertTrue(context.supportsAlgorithm(CompressionNegotiateContext.COMPRESSION_LZ77));

          "X-Minio-Internal-Server-Side-Encryption-Seal-Algorithm": "REFSRXYyLUhNQUMtU0hBMjU2",
          "X-Minio-Internal-Server-Side-Encryption-Iv": "bW5YRDhRUGczMVhkc2pJT1V1UVlnbWJBcndIQVhpTUN1dnVBS0QwNUVpaz0=",

	var buf strings.Builder

	buf.WriteString(color.Blue("\nCertificate:\n"))
	if cert.SignatureAlgorithm != x509.UnknownSignatureAlgorithm {
		buf.WriteString(color.Blue("%4sSignature Algorithm: ", "") + color.Bold(fmt.Sprintf("%s\n", cert.SignatureAlgorithm)))
	}

	// Issuer information
	buf.WriteString(color.Blue("%4sIssuer: ", ""))
	printName(cert.Issuer.Names, &buf)

	// Validity information

	AmzFwdHeaderSSE                   = "x-amz-fwd-header-x-amz-server-side-encryption"
	AmzFwdHeaderSSEC                  = "x-amz-fwd-header-x-amz-server-side-encryption-customer-algorithm"
	AmzFwdHeaderSSEKMSID              = "x-amz-fwd-header-x-amz-server-side-encryption-aws-kms-key-id"
	AmzFwdHeaderSSECMD5               = "x-amz-fwd-header-x-amz-server-side-encryption-customer-key-MD5"

 * based on these entries.
 * <p>
 * To fully understand the information exposed by this class a description
 * of the access check algorithm used by Windows is required. The following
 * is a basic description of the algorithm. For a more complete description
 * we recommend reading the section on Access Control in Keith Brown's
 * "The .NET Developer's Guide to Windows Security" (which is also

==== Password hashing algorithm

Test clusters are configured with `xpack.security.fips_mode.enabled` set to true. This means that
FIPS 140-2 related bootstrap checks are enabled and the test cluster will fail to form if the
password hashing algorithm is set to something else than a PBKDF2 based one. You can delegate the choice

      }
    };

    abstract int resultIndex(int higherIndex);
  }

  /**
   * Searches the specified naturally ordered list for the specified object using the binary search
   * algorithm.
   *
   * <p>Equivalent to {@link #binarySearch(List, Function, Object, Comparator, KeyPresentBehavior,
   * KeyAbsentBehavior)} using {@link Ordering#natural}.
   */

  }

  // Ordering<Object> singletons

  /**
   * Returns an ordering which treats all values as equal, indicating "no ordering." Passing this
   * ordering to any <i>stable</i> sort algorithm results in no change to the order of elements.
   * Note especially that {@link #sortedCopy} and {@link #immutableSortedCopy} are stable, and in
   * the returned instance these are implemented by simply copying the source list.

	scram.HashGeneratorFcn
}

// Begin constructs a SCRAM client component based on a given hash.Hash
// factory receiver.  This constructor will normalize the username, password
// and authzID via the SASLprep algorithm, as recommended by RFC-5802.  If
// SASLprep fails, the method returns an error.
func (x *XDGSCRAMClient) Begin(userName, password, authzID string) (err error) {
	x.Client, err = x.NewClient(userName, password, authzID)

	sealedKey := key.Seal(extKey[:], iv, "SSE-S3", "bucket", "object")
	sealedKey.Algorithm = InsecureSealAlgorithm
	if err := key.Unseal(extKey[:], sealedKey, "SSE-S3", "bucket", "object"); err == nil {
		t.Errorf("'%s' test succeeded but it should fail because the legacy algorithm was used", sealedKey.Algorithm)
	}
}

var derivePartKeyTest = []struct {
	PartID  uint32
	PartKey string
}{