return (source[offset] & 0xFF)
        | ((source[offset + 1] & 0xFF) << 8)
        | ((source[offset + 2] & 0xFF) << 16)
        | ((source[offset + 3] & 0xFF) << 24);
  }

  /**
   * Indicates that the load and store operations will be very efficient because of use of VarHandle
   * or Unsafe. May be useful for calling code to fall back on an alternative implementation that is

            buffer[i] = 0x00;
        }

        // Reserved (2 bytes)
        buffer[22] = 0x00;
        buffer[23] = 0x00;

        // TID (2 bytes)
        buffer[24] = 0x01;
        buffer[25] = 0x00;

        // PID (2 bytes)
        buffer[26] = 0x02;
        buffer[27] = 0x00;

        // UID (2 bytes)
        buffer[28] = 0x03;
        buffer[29] = 0x00;

	default:
		return fmt.Errorf("rebalanceMeta: unknown format: %d", binary.LittleEndian.Uint16(data[0:2]))
	}
	switch binary.LittleEndian.Uint16(data[2:4]) {
	case rebalMetaVer:
	default:
		return fmt.Errorf("rebalanceMeta: unknown version: %d", binary.LittleEndian.Uint16(data[2:4]))
	}

	// OK, parse data.
	if _, err = r.UnmarshalMsg(data[4:]); err != nil {
		return err
	}

	r.lastRefreshedAt = time.Now()

                setNTResponse(getNTResponse(type2, password));
            } else {
                // NTLM2 Session Response

                final byte[] clientChallenge = new byte[24];
                RANDOM.nextBytes(clientChallenge);
                java.util.Arrays.fill(clientChallenge, 8, 24, (byte) 0x00);

        // DFS alternate path offset (2 bytes)
        SMBUtil.writeInt2(0, buffer, 22);

        // Network address offset (2 bytes)
        SMBUtil.writeInt2(0, buffer, 24);

        // Padding to align string data
        buffer[26] = 0;
        buffer[27] = 0;

        // Add the path string at stringDataStart

	}

	// Pass in relative days from current time, to additionally
	// to verify "object-lock-remaining-retention-days" policy if any.
	days := int(math.Ceil(math.Abs(objRetention.RetainUntilDate.Sub(t).Hours()) / 24))

	ret := objectlock.GetObjectRetentionMeta(oi.UserDefined)
	if ret.Mode.Valid() {
		// Retention has expired you may change whatever you like.
		if ret.RetainUntilDate.Before(t) {

        testBuffer[20] = 0x01; // revision
        testBuffer[21] = 0x03; // sub-authority count
        testBuffer[22] = 0x00; // identifier authority
        testBuffer[23] = 0x00;
        testBuffer[24] = 0x00;
        testBuffer[25] = 0x00;
        testBuffer[26] = 0x00;
        testBuffer[27] = 0x05;
        SMBUtil.writeInt4(21, testBuffer, 28); // sub-authority 1

        // Setup mock behavior
        when(mockIn.read(any(byte[].class))).thenReturn(7);

        // Act
        byte[] buf = new byte[16];
        byte[] recv = new byte[16];
        int r = spyHandle.sendrecv(buf, 2, 4, recv, 16);

        // Assert
        assertEquals(7, r);
        verify(mockOut).write(eq(buf), eq(2), eq(4));
        verify(mockIn).read(eq(recv));
    }

    @Test

of one of these numbers.  Each object is written to a single erasure-coding set.

Minio uses the largest possible EC set size which divides into the number of drives given. For example, *18 drives* are configured as *2 sets of 9 drives*, and *24 drives* are configured as *2 sets of 12 drives*.  This is true for scenarios when running MinIO as a standalone erasure coded deployment. In [distributed setup however node (affinity) based](https://docs.min.io/community/minio-object-store/operatio...

	XVMOVQ		-10(R4), X1.H16	// 81ec5f32
	XVMOVQ		(R4), X2.W8	// 82002032
	XVMOVQ		8(R4), X2.W8	// 82082032
	XVMOVQ		-20(R4), X2.W8	// 82ec2f32
	XVMOVQ		(R4), X3.V4	// 83001032
	XVMOVQ		24(R4), X3.V4	// 830c1032
	XVMOVQ		-24(R4), X3.V4	// 83f41732

	// VSEQ{B,H,W,V}, XVSEQ{B,H,W,V} instruction
	VSEQB		V1, V2, V3      // 43040070
	VSEQH		V1, V2, V3      // 43840070
	VSEQW		V1, V2, V3      // 43040170