Sentence examples for payload lengths from inspiring English sources
Different curves are shown for data payload lengths of 80, 100 and 120 bytes.
As before, in the -axis, the relative traffic load in the system increases, and different curves are shown for data payload lengths of 80, 100 and 120 bytes.
In this scenario, we choose the longest data payload lengths of 80, 100, and 120 bytes, to minimize the PHY (6 bytes) and MAC (8 bytes) headers overhead per information bit. .
The results are shown in Table 3. Table 3 Packet losses without the forwarding capability of ToLHnet (P 1), and with the routing tables shown in Fig. 6 (P H), for a bit rate of 5 Mbit/s, and different payload lengths N N=128 bytes N=240 bytes Destination Distance (m) P 1 P H P 1 P H Board2 160.010.00.00 0.018.571 Board3 240.0301 0.00 18.57 0.03 Board4 320 42.37 0.02 96.73 0.03.
After the start sequence is received the message is decoded, including the payload length, until the entire message has been received.
The message header consists of 4 start bytes, 1 destination address, 1 source address, a 1 byte message type indicator (as shown in the table below), a 1 byte payload length n, an payload of n byte(s), and a 2 byte checksum value.
The payload length, version, Next Header, and hop limit fields are taken almost directly from the IPv4 header, making the IPv6 header familiar and fairly easy to understand for anyone who is familiar with the IPv4 header.
In this scenario, we study the energy consumption depending on the payload length.
The number of bits L in a packet is 4325 bits with 4096 bits payload length.
BSN-MAC outperforms IEEE 802.15.4 MAC in 19.09% for payload length packet of 50 bytes; DQ-MAC outperforms IEEE 802.15.4 MAC in 43.31% for a payload length packet of 50 bytes; BSN-MAC outperforms IEEE 802.15.4 MAC in 7.20% for payload length packet of 80 bytes; DQ-MAC outperforms IEEE 802.15.4 MAC in 36.65% for a payload length packet of 80 bytes.
where PL is any MAC layer payload length transmitted in the current measurement time.
