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AeroMTP:A fountain code-based multipath transport protocol for airborne networks 被引量:4

AeroMTP:A fountain code-based multipath transport protocol for airborne networks
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摘要 Airborne networks(ANs) are special types of ad hoc networks that can be used to enhance situational awareness, flight coordination and flight efficiency in civil and military aviation.Compared to ground networks, ANs have some unique attributes including high node mobility, frequent topology changes, mechanical and aerodynamic constrains, strict safety requirements and harsh communication environment.Thus, the performance of conventional transmission control protocol(TCP) will be dramatically degraded in ANs.Aircraft commonly have two or more heterogeneous network interfaces which offer an opportunity to form multiple communication paths between any two nodes in ANs.To satisfy the communication requirements in ANs, we propose aeronautical multipath transport protocol(Aero MTP) for ANs, which effectively utilizes the available bandwidth and diversity provided by heterogeneous wireless paths.Aero MTP uses fountain codes as forward error correction(FEC) codes to recover from data loss and deploys a TCP-friendly rate-based congestion control mechanism for each path.Moreover, we design a packet allocation algorithm based on optimization to minimize the delivery time of blocks.The performance of Aero MTP is evaluated through OMNe T++ simulations under a variety of test scenarios.Simulations demonstrate that Aero MTP is of great potential to be applied to ANs. Airborne networks(ANs) are special types of ad hoc networks that can be used to enhance situational awareness, flight coordination and flight efficiency in civil and military aviation.Compared to ground networks, ANs have some unique attributes including high node mobility, frequent topology changes, mechanical and aerodynamic constrains, strict safety requirements and harsh communication environment.Thus, the performance of conventional transmission control protocol(TCP) will be dramatically degraded in ANs.Aircraft commonly have two or more heterogeneous network interfaces which offer an opportunity to form multiple communication paths between any two nodes in ANs.To satisfy the communication requirements in ANs, we propose aeronautical multipath transport protocol(Aero MTP) for ANs, which effectively utilizes the available bandwidth and diversity provided by heterogeneous wireless paths.Aero MTP uses fountain codes as forward error correction(FEC) codes to recover from data loss and deploys a TCP-friendly rate-based congestion control mechanism for each path.Moreover, we design a packet allocation algorithm based on optimization to minimize the delivery time of blocks.The performance of Aero MTP is evaluated through OMNe T++ simulations under a variety of test scenarios.Simulations demonstrate that Aero MTP is of great potential to be applied to ANs.
出处 《Chinese Journal of Aeronautics》 SCIE EI CAS CSCD 2015年第4期1147-1162,共16页 中国航空学报(英文版)
关键词 Ad hoc networks Airborne networks Fountain code Multi-paths Network protocols Ad hoc networks Airborne networks Fountain code Multi-paths Network protocols
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  • 1Wang Y. Fundamental issues in systematic design of airborne networks for aviation. Proceedings of IEEE aerospace conference; Big Sky, MT, USA. Piscataway, NJ: IEEE Press; 2006. p. 1-8.
  • 2Karras K, Kyritsis T, Amirfeiz M. Aeronautical mobile ad hoc networks. Proceedings of 14th European wireless conference; Hong Kong, China. Piscataway, NJ: IEEE Press; 2008. p. 3972-7.
  • 3Schnell M, Scalise S. NEWSKY: a concept for networking the sky for civil aeronautical communications. Space Comrnun 2008;21(3): 157-66.
  • 4Kwak K J, Sagduyu Y, Deng J, Yackoski J, Li J. Airborne network evaluation: challenges and high fidelity emulation solution. Proceedings of ACM MobiHoc workshop on airborne networks and communications. New York, USA. New York: ACM Press; 2012. p. 49-52.
  • 5Airborne network architecture - system communication descrip- tion and technical architecture profile (version 1.1). White - Paterson, Ohio, USA: USAF Airborne Network Special Interest Group; 2004.
  • 6Sharma V, Subramanian V, Kar K, Kalyanaraman S. A multi- path transport protocol to exploit network diversity in airborne networks. Proceedings of the military communications conference; 2008 Nov.16--19; Washington, D.C, USA. Piscataway, NJ: IEEE Press; 2008. p. 1-7.
  • 7Barre S, Paasch C, Bonaventure O. Multipath TCP: from theory to practice. Proceedings of the lOth international IFIP TC 6 networking conference; Valencia, Spain. Berlin: Springer ; 2011. p. 444-57.
  • 8Rohrer JP, Jabbar A, Cetinkaya EK, Perrins E, Sterbenz JPG. Highly-dynamic cross-layered aeronautical network architecture. IEEE Trans Aerosp Electron Syst 2011;47(4):2742-65.
  • 9Rohrer JP, Perrins E, Sterbenz JPG. End-to-end disruption- tolerant transport protocol issues and design for airborne teleme- try networks. Proceedings of the international telemetering confer- ence; San Diego, CA, USA. San Diego, CA: ITC; 2008. p. 1-10.
  • 10Stewart R. Stream control transmission protocol. RFC4960 [Internet]. 2007 [cited 2014 August 15]; Available from: < http://tools.ietf.org/html/rfc4960 >.

同被引文献45

  • 1陈立家,江昊,吴静,郭成城,徐武平,晏蒲柳.车用自组织网络传输控制研究[J].软件学报,2007,18(6):1477-1490. 被引量:46
  • 2Signore T L, Girard M. The aeronautical telecommunication network (ATN)[C]//Proceedings of the Military Communi- cations Conference. Boston, MA: IEEE, 1998: 40-44.
  • 3Gilbert T, Jin J, Jason B, et al. Future aeronautical commu- nication infrastructure technology investigation[R]. National Aeronautics and Space Administration, 2008.
  • 4Sakhaee E, Jamalipour A. The global in-flight internet[J] IEEE Journal on Selected Areas in Communications, 2006 24(9): 1748-1757.
  • 5Vey Q, Pirovano A, Radzik J, et al. Aeronautical AD hoc network for civil aviation[C]//Proceedings of the 6th International Workshop on Nets4Cars/Nets4Trains/Nets4 Aircraft. Offenburg, Germany: 2014: 81-93.
  • 6Medina D, Hoffmann F, Ayaz S, et al. Feasibility of an aero- nautical mobile AD hoc network over the north atlantic cor- ridor[C]//Proceedings of the IEEE SECON. San Francisco, CA: IEEE. 2008: 109-116.
  • 7Medina D, Hoffmann F, Ayaz S, et al. Topology character- ization of high density airspace aeronautical AD hoc net- works[C]//Proceedings of the IEEE MASS. Atlanta, GA: IEEE, 2008: 295-304.
  • 8Smith W H F, Marks K M. Seafloor in the malaysia airlines flight MH370 search area[J]. Eos Transactions, 2014, 95(21): 173-174.
  • 9Falkov E. Use of self-organizing airborne networks to moni- tor commercial aircraft globally [R]. International Civil Avi- ation Organization, 2014.
  • 10Karras K, Kyritsis T, Amirfeiz M. Aeronautical mobile ad hoc networks[C]//Proceedings of the 14th European Wire- less Conference. Hong Kong: 2008: 3972-3977.

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