int count = decoder.readSmallInt();
        for (int i = 0; i < count; i++) {
            String name = decoder.readString();
            byte type = decoder.readByte();
            if (type == BOOLEAN_ATTRIBUTE) {
                attributes = attributesFactory.concat(attributes, Attribute.of(name, Boolean.class), decoder.readBoolean());
            } else if (type == STRING_ATTRIBUTE){

        def decoder = new KryoBackedDecoder(instr)

        then:
        instr.available() == 4108
        decoder.readPosition == 0

        when:
        decoder.readBoolean()
        decoder.readByte()
        decoder.readLong()

        then:
        instr.available() == 12 // decoder has buffered from instr
        decoder.readPosition == 10

        when:
        decoder.skipBytes(4098)

        public DaemonInfo read(Decoder decoder) throws Exception {
            Address address = addresses.get(decoder.readInt());
            byte[] token = decoder.readBinary();
            State state = State.values()[decoder.readByte()];
            long lastBusy = decoder.readLong();
            DaemonContext context = DefaultDaemonContext.SERIALIZER.read(decoder);
            return new DaemonInfo(address, context, token, state, lastBusy);
        }

	r := bytes.NewReader(b)
	consumeString := func() (string, bool) {
		// First byte: how many bytes to read for this string? We only
		// use a byte to avoid making humongous strings.
		length, err := r.ReadByte()
		if err != nil {
			return "", false
		}
		if length == 0 {
			return "", false
		}

		b := make([]byte, length)
		_, err = r.Read(b)
		if err != nil {
			return "", false
		}

	toRead []byte // bytes to return from Read
}

// readLSB returns the next code for "Least Significant Bits first" data.
func (r *Reader) readLSB() (uint16, error) {
	for r.nBits < r.width {
		x, err := r.r.ReadByte()
		if err != nil {
			return 0, err
		}
		r.bits |= uint32(x) << r.nBits
		r.nBits += 8
	}
	code := uint16(r.bits & (1<<r.width - 1))
	r.bits >>= r.width
	r.nBits -= r.width
	return code, nil
}

            char[] charBuffer = new char[reader.getMaxStringLength()];
            for (int i = 1; i < reader.getItemCount(); i++) {
                int itemOffset = reader.getItem(i);
                if (itemOffset > 0 && reader.readByte(itemOffset - 1) == 7) {
                    // A CONSTANT_Class entry, read the class descriptor
                    String classDescriptor = reader.readUTF8(itemOffset, charBuffer);

				return 0, err
			}
			// There are no more bytes of data in this segment, but we may still
			// be able to read the next symbol out of the previously read bits.
			// First, undo the readByte that the ensureNBits call made.
			if d.bytes.nUnreadable != 0 {
				d.unreadByteStuffedByte()
			}
			goto slowPath
		}
	}
	if v := h.lut[(d.bits.a>>uint32(d.bits.n-lutSize))&0xff]; v != 0 {

            }

            DataInputStream inputStream = input.start(pos);

            BlockPayload payload = getPayload();

            // Read header
            byte type = inputStream.readByte();
            if (type != payload.getType()) {
                throw blockCorruptedException();
            }

            // Read body
            payloadSize = inputStream.readInt();

     *
     * @throws EOFException when the end of the byte stream is reached.
     */
    byte readByte() throws EOFException, IOException;

    /**
     * Reads bytes into the given buffer, filling the buffer. Can read any byte values that were written using one of the raw byte methods on {@link Encoder}, such as {@link

      } else {
        encodedCharBuffer.writeString(input, i, i + Character.charCount(codePoint), charset)
      }

      while (!encodedCharBuffer.exhausted()) {
        val b = encodedCharBuffer.readByte().toInt() and 0xff
        writeByte('%'.code)
        writeByte(HEX_DIGITS[b shr 4 and 0xf].code)
        writeByte(HEX_DIGITS[b and 0xf].code)
      }
    } else {