// Then
        assertNotNull(encKey, "Encryption key should not be null");
        assertEquals(16, encKey.length, "Encryption key should be 16 bytes");
        assertFalse(Arrays.equals(sessionKey, encKey), "Encryption key should be different from session key");
    }

    @Test
    @DisplayName("Should derive different encryption keys for different dialects")

    }

    /**
     * Test that encryption is properly configured
     */
    @Test
    public void testEncryptionConfiguration() throws CIFSException {
        BaseConfiguration config = new BaseConfiguration(true);

        // Verify encryption configuration is available (default is false for compatibility)
        // But can be enabled when needed

        serverData.sessKey = 0x12345678;
        serverData.scapabilities = 0x8000F3FD; // Various capabilities
        serverData.oemDomainName = "WORKGROUP";
        serverData.securityMode = 0x0F; // User + encrypt passwords + signatures
        serverData.security = 1; // User level
        serverData.encryptedPasswords = true;
        serverData.signaturesEnabled = true;
        serverData.signaturesRequired = false;

import java.util.concurrent.locks.ReentrantLock;

import javax.crypto.Mac;
import javax.crypto.spec.SecretKeySpec;

import org.slf4j.Logger;
import org.slf4j.LoggerFactory;

import jcifs.internal.CommonServerMessageBlock;
import jcifs.internal.SMBSigningDigest;
import jcifs.internal.util.SMBUtil;
import jcifs.util.Crypto;

/**
 * SMB2/SMB3 message signing digest implementation.
 *

                        nameBuilder.append('/');
                    }
                }
                this.serverPrincipalName = nameBuilder.toString();
                break;
            case 3:// Encrypted part
                ASN1Sequence encSequence = ASN1Util.as(ASN1Sequence.class, tagged);
                ASN1Integer encType = ASN1Util.as(ASN1Integer.class, ASN1Util.as(ASN1TaggedObject.class, encSequence, 0));

    /**
     * Kerberos encryption type for ARCFOUR-HMAC (RC4-HMAC).
     */
    public static final int ETYPE_ARCFOUR_HMAC = 23;
    /**
     * Kerberos encryption type for AES-128 CTS mode with HMAC-SHA1-96.
     */
    public static final int ETYPE_AES128_CTS_HMAC_SHA1_96 = 17;
    /**
     * Kerberos encryption type for AES-256 CTS mode with HMAC-SHA1-96.
     */

    eu6FSqdQgPCnXEqULl8FmTxSQeDNtGPPAUO6nIPcj2A781q0tHuu2guQOHXvgR1m
    0vdXcDazv/wor3ElhVsT/h5/WrQ8
    -----END CERTIFICATE-----
    """.trimIndent().decodeCertificatePem()

  // CN=Let's Encrypt Authority X3, O=Let's Encrypt, C=US
  val letsEncryptCertificateAuthority =
    """
    -----BEGIN CERTIFICATE-----
    MIIEkjCCA3qgAwIBAgIQCgFBQgAAAVOFc2oLheynCDANBgkqhkiG9w0BAQsFADA/

            EncryptionNegotiateContext encryption = new EncryptionNegotiateContext();

            assertNotEquals(preauth.getContextType(), encryption.getContextType());
            assertEquals(0x1, preauth.getContextType());
            assertEquals(0x2, encryption.getContextType());
        }

        @Test

        .toSet()

    // It's safe to assume all platforms will have a major Internet certificate issuer.
    val majorIssuers =
      listOf(
        "DigiCert",
        "Let's Encrypt",
        "ISRG", // Internet Security Research Group (Let's Encrypt parent)
        "GlobalSign",
        "Comodo",
        "Sectigo",
        "GeoTrust",
        "Entrust",
      )
    assertThat(names).matchesPredicate { strings ->

        byte[] out7 = new byte[8];

        // Act
        NtlmUtil.E(key14, data8, out14);
        NtlmUtil.E(key7, data8, out7);

        // Assert: first block identical to single-chunk encryption
        assertArrayEquals(Arrays.copyOfRange(out14, 0, 8), out7);
        // And second block is present and not all zeros
        assertFalse(Arrays.equals(new byte[8], Arrays.copyOfRange(out14, 8, 16)));
    }