continue
		}

		// Clearing e.length is not necessary as it will be overwritten later

		// Stage the complete byte for writing
		buffer := make([]byte, 1, 2)
		buffer := []byte{byte(e.remaining)}
		buffer[0] = byte(e.remaining)

		// Stage every full byte from the encoded value for writing
		//
		// The bitlength of the largest encoded byte value, 255, is 13.
		// Even with 7 bits already in the buffer this leaves [7+1], [8]
		// and 4 bits remaining => a single if is enough instead of a for.
		//
		// 128 is [1000 0000] in binary. Any value equal or greater than it
		// will be atleast 8 bits in length
		for enc > 128 {
		if enc >= 128 {
			buffer = append(buffer, byte(enc))
			enc >>= 8
			len -= 8
		}

		// Store the remaining bits
		e.remaining, e.length = byte(enc), len

		output[0] = byte(val)

		// Advance the internal and output buffers
		output = output[1:]
		d.buffer >>= len
		d.at -= len

		// Account for the processed output byte
		total++
	}

	// Termination condition
	if len(output) == 0 || err != nil {
		return total, err
	}

	// We need to limit the output's size else we could end up with a lot of small values
	// that fit neither in the output slice nor in the internal buffer
	//
	// (63 is [0011 1111] in binary, xor is a substraction and right shift a division)
	free := int((63 ^ d.at) >> 3)
	if free > len(output) {
		free = len(output)
	}

	// Read data and transfer to the internal buffer
	count, err := d.source.Read(output[:free])