ENSC 427 - Communication Networks Spring 2013 Project URL: jpa30/ Hamidreza Haghshenas Jeff Priest Filip Zivkovic

Embed Size (px)

Citation preview

  • Slide 1
  • ENSC 427 - Communication Networks Spring 2013 Project URL: http://www.sfu.ca/~jpa30/ Hamidreza Haghshenas Jeff Priest Filip Zivkovic
  • Slide 2
  • WiMAX Network Topology LTE Network Topology
  • Slide 3
  • Parameters for Video Conferencing Frame Interval Time Information: 10 frame/sec Constant frame size Interactive multimedia service Discrete Traffic, endlessly creates concurrent session every 10 seconds. Same, except 50% background traffic. Global System for Mobile Communications (GSM), full data rate, silence filled with noise at receiver. Parameters for Voice Conferencing:
  • Slide 4
  • WiMAX Video Conferencing Application Mixed with VoIP traffic Global Conferences/Calls122436 Delay (ms)40135195 Global Data Sent (Bps)9,900,00026,400,00039,600,000 Data Sent per UE (Bps)1,650,0003,300,0004,950,000 Data Received per UE (Bps)1,650,0003,280,0002,200,000 Data Loss (%)00.655.5 Satisfies QoS?Yes No WiMAX VoIP Application Mixed with Video traffic Global Conferences/Calls61218 Delay (ms)4080120 Jitter (ms)0.490.350.15 Global Data Uploaded (Bps)32,00064,00096,000 Data Uploaded per UE (Bps)4,0008,00012,000 Data Downloaded per UE (Bps)4,0008,00011,900 Global Data Loss (%)000.8 Satisfies QoS?Yes LTE Video Conferencing Application Mixed with VoIP traffic Global Conferences/Calls122436 Delay (ms)18001200750 Global Data Sent (Bps)4,800,0006,600,0009,600,000 Data Sent per UE (Bps)800,0001,100,0001,600,000 Data Received per UE (Bps)600,000800,0001,250,000 Data Loss (%)252721.8 Satisfies QoS?No LTE VoIP Application Mixed with Video Traffic Global Conferences/Calls61218 Delay (ms)400 410 Jitter (ms)201510 Global Data Sent (Bps)312,000480,000750,000 Data Sent per UE (Bps)52,00080,000125,000 Data Received per UE (Bps)26,00040,00048,000 Data Loss (%)50 61 Satisfies QoS?No LTE and WiMAX Mixed Traffic Results
  • Slide 5
  • Conclusion The LTE model has more complex behavior, and is specialized for high data rates. The LTE model we were given has an arbitrarily high delay.
  • Slide 6
  • References 1. "4G LTE Network Elements ~ Telecommunications Blog." 4G LTE Network Elements ~ Telecommunications Blog. N.p., n.d. Web. 13 Feb. 2013. 2. Brian, Marshall, and Ed Grabianowski. How WiMAX Works. Digital image. How Stuff Works. How Stuff Works, n.d. Web. 3 Apr. 2013.. 3. Davidson et al. Voice Over IP Fundamentals. N.p.: Cysco Press, 2006. Print 4. Hrudey, William. "STREAMING VIDEO AND AUDIO CONTENT OVER MOBILE WiMAX NETWORKS." (2009): n. pag. Simon Fraser University. Web. 5. Jiang, Xiaowei, Zhu Guangxi, and Weimin Wu. "Design of LTE E-MBMS Dynamic Scheduling Information." (n.d.): n. pag. HuaZhong University of Science and Technology. Web. 6. "Telecommunications Blog: LTE." Telecommunications Blog: LTE. N.p., n.d. Web. 13 Feb. 2013. 7. Torad, Mohammad, Dr. "Comparison between L TE and WiMAX Based on System Level Simulation Using OPNET Modeler (release 16)." 28 Th NATIONAL RADIO SCIENCE CONFERENCE (2011): n. pag. Print. 8. Heath, Mark. LTE Performance. Digital image. LTE Performance Is Good, but Its Not That Good! Unwired Insight, 7 Oct. 2010. Web. 15 Mar. 2013..