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By : Sana Akram

THreshold based Energy-efficient FAtigue MEasurment for Wireless Body Area Sensor Networks using Multiple Sinks. By : Sana Akram. Outline. Introduction Motivation Fatigue Parameters Proposed Protocol Simulation Results Conclusion. Wireless Sensor Network ( WSN).

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By : Sana Akram

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  1. THreshold based Energy-efficient FAtigueMEasurment for Wireless Body Area SensorNetworks using Multiple Sinks By : Sana Akram

  2. Outline • Introduction • Motivation • Fatigue Parameters • Proposed Protocol • Simulation Results • Conclusion

  3. Wireless Sensor Network (WSN) A WSN consists of spatially distributed autonomous sensors to monitor physical or environmental conditions, such as temperature, sound, pressure, etc. and to cooperatively pass their data through the network to a control center.

  4. Applications of WSN

  5. Wireless Body Area Sensor Network (WBASN) WBASN is a branch of Wireless Sensor Network (WSN). They use tiny sensors to monitor vital signs of human being. These sensors are either wearable or implanted into a human body.

  6. Types of WBASN

  7. Applications of WBASN WBASN is mainly employed for patient monitoring. WBASN can also be used in many other fields like: • Astronauts’ vital organ monitoring • Sports • Birds tracking • Cattle monitoring

  8. Motivation • There is only a little research on employing WBASN in sports. • In sports, like soccer, where a team of players is on the ground, it is difficult to monitors each player’s fatigue manually. • So, we propose a protocol to constantly measure fatiguefor each player and send live health reports to coaches and health officials during the game.

  9. Fatigue Parameters • Running speed of a player • Distance covered • Lactic acid level in blood

  10. Running speed of a player • Soccer match usually lasts for 90 to 100 minutes. During this time players walk, jog, run and sprint.

  11. Distance covered There are different types of players in a soccer team. • Attacking players • Defensive players • Mid-fielders • Goal keeper A goal keeper is very less likely to be in a fatigued state because he/she covers minimum distance during the match.

  12. Lactic acid level in blood • For a normal human being the value of lactic acid level is between 4.5 to 19.8 mg/dL (0.5-2.2 mmol/L). • Where mg/dL = milligrams per deciliter and mmol/L = millimoles per liter. • When this level increases from 20 mg/dL, there is a strong chance that the player is seriously injured and need proper medical care and time to heal.

  13. Lactic acid level in blood

  14. Proposed protocol (THE-FAME)

  15. THE-FAME’s Parameters In our proposed protocol we used: • Two teams of 11 players each. • 6 sinks on the boundary of the ground. • Each player has an implanted sensor. • Threshold for lactic acid level is 20 mg/dL. • Reference Point Group Mobility Model (RPGM).

  16. Compared protocol A scheme called ”Wireless sensor network for Soccer Team Monitoring [1]” (WSTM) has also done player monitoring.

  17. Comparison

  18. Energy Equations

  19. Simulation Results All the simulations are done using Matlab. Simulations are carried out for the following parameters: • Dead Nodes • Total packets to sinks • Packets dropped • Packets received successfully • Residual energy • Throughput

  20. Dead Nodes

  21. Total packets to sinks

  22. Packets dropped

  23. Packets received successfully

  24. Residual energy

  25. Throughput

  26. Propagation delay

  27. Conclusion The proposed protocol ”THE-FAME” succeed in achieving: • Better throughput • Longer network life • Lesser propagation delay • More residual energy in the network It is suitable for: • Any sport which requires constant monitoring of player’s • health. • People performing strenuous activities in their daily life. • Patients with chronic muscle fatigue.

  28. Thank You

  29. References • Garcia, Miguel, et al. ”A wireless sensor network for soccer team monitoring.” Distributed Computing in Sensor Systems and Workshops (DCOSS), 2011 International Conference on. IEEE, 2011.

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