bb.putShort((short) 20); // pathConsumed
            bb.putShort((short) 1); // numReferrals
            bb.putShort((short) 15); // tflags
            bb.putShort((short) 0); // tflags high bytes

            // Simple v1 referral
            bb.putShort((short) 1); // version
            bb.putShort((short) 16); // size
            bb.putShort((short) 1); // serverType

        ByteBuffer buffer = ByteBuffer.allocate(34);
        buffer.order(ByteOrder.LITTLE_ENDIAN);
        buffer.putShort((short) 0); // dialectIndex
        buffer.put((byte) 0x0F); // securityMode (user, encrypted, sigs enabled, sigs required)
        buffer.putShort((short) 50); // maxMpxCount
        buffer.putShort((short) 10); // maxNumberVcs
        buffer.putInt(8192); // maxBufferSize
        buffer.putInt(65536); // maxRawSize

        bb.putShort((short) 3);
        bb.putShort((short) 100);
        bb.putShort((short) 7);
        bb.putShort((short) 1); // rflags without name list flag
        bb.putShort((short) 20);
        bb.putShort((short) 3600);
        bb.putShort((short) 22);
        bb.putShort((short) 38);
        bb.putShort((short) 52);

        bb.position(22);

        // Test with a positive value
        buffer.putShort(0, (short) 0x1234);
        assertEquals(0x1234, NtlmMessage.readUShort(data, 0), "Should read positive UShort correctly.");

        // Test with zero
        buffer.putShort(0, (short) 0);
        assertEquals(0, NtlmMessage.readUShort(data, 0), "Should read zero UShort correctly.");

        // DACL at offset 60
        buffer.position(60);
        buffer.put((byte) 0x02); // AclRevision
        buffer.put((byte) 0x00); // Padding
        buffer.putShort((short) 8); // AclSize
        buffer.putShort((short) 0); // AceCount
        buffer.putShort((short) 0); // Padding

        return buffer.array();
    }

    /**
     * Helper method to set error code using reflection
     */

        short data3 = (short) mostSig; // next 2 bytes

        // Write in little-endian format as specified by MS-SMB2
        bb.putInt(data1); // data1 (4 bytes, little-endian)
        bb.putShort(data2); // data2 (2 bytes, little-endian)
        bb.putShort(data3); // data3 (2 bytes, little-endian)

        // Last 8 bytes (data4) written directly as big-endian bytes
        // Extract individual bytes from leastSig and write them directly

  @CanIgnoreReturnValue
  public Hasher putBytes(ByteBuffer bytes) {
    update(bytes);
    return this;
  }

  @Override
  @CanIgnoreReturnValue
  public Hasher putShort(short s) {
    ByteBuffer scratch = scratch();
    scratch.putShort(s);
    return update(scratch, Shorts.BYTES);
  }

  @Override
  @CanIgnoreReturnValue
  public Hasher putInt(int i) {
    ByteBuffer scratch = scratch();

        buffer.putChar(charSequence.charAt(i));
      }
      return this;
    }

    @Override
    public Hasher putShort(short s) {
      ensureCapacity(Short.BYTES);
      buffer.putShort(s);
      return this;
    }

    @Override
    public Hasher putInt(int i) {
      ensureCapacity(Integer.BYTES);
      buffer.putInt(i);
      return this;

     */
    private static byte[] expectedParameters(int fid, int securityInformation) {
        ByteBuffer bb = ByteBuffer.allocate(8).order(ByteOrder.LITTLE_ENDIAN);
        bb.putShort((short) fid);
        bb.put((byte) 0x00); // Reserved
        bb.put((byte) 0x00); // Reserved
        bb.putInt(securityInformation);
        return bb.array();
    }

    /**

    sink.putBytes(new byte[] {8});
    HashCode unused = sink.hash();
    sink.assertInvariants(8);
    sink.assertBytes(expected);
  }

  public void testShort() {
    Sink sink = new Sink(4);
    sink.putShort((short) 0x0201);
    HashCode unused = sink.hash();
    sink.assertInvariants(2);
    sink.assertBytes(new byte[] {1, 2, 0, 0}); // padded with zeros
  }

  public void testInt() {
    Sink sink = new Sink(4);