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Adaptive link layer security architecture for telecommand communications in space networks 被引量:3

Adaptive link layer security architecture for telecommand communications in space networks
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摘要 Impressive advances in space technology are enabling complex missions, with potentially significant and long term impacts on human life and activities. In the vision of future space exploration, communication links among planets, satel ites, spacecrafts and crewed vehicles wil be designed according to a new paradigm, known as the disruption tolerant networking. In this scenario, space channel peculiarities impose a massive reengineering of many of the protocols usually adopted in terrestrial networks; among them, security solutions are to be deeply reviewed, and tailored to the specific space requirements. Security is to be provided not only to the payload data exchanged on the network, but also to the telecommands sent to a spacecraft, along possibly differentiated paths. Starting from the secure space telecommand design developed by the Consultative Committee for Space Data Systems as a response to agency-based requirements, an adaptive link layer security architecture is proposed to address some of the chal enges for future space networks. Based on the analysis of the communication environment and the error diffusion properties of the authentication algorithms, a suitable mechanism is proposed to classify frame retransmission requests on the basis of the originating event (error or security attack) and reduce the impact of security operations. An adaptive algorithm to optimize the space control protocol, based on estimates of the time varying space channel, is also presented. The simulation results clearly demonstrate that the proposed architecture is feasible and efficient, especially when facing malicious attacks against frame transmission. Impressive advances in space technology are enabling complex missions, with potentially significant and long term impacts on human life and activities. In the vision of future space exploration, communication links among planets, satel ites, spacecrafts and crewed vehicles wil be designed according to a new paradigm, known as the disruption tolerant networking. In this scenario, space channel peculiarities impose a massive reengineering of many of the protocols usually adopted in terrestrial networks; among them, security solutions are to be deeply reviewed, and tailored to the specific space requirements. Security is to be provided not only to the payload data exchanged on the network, but also to the telecommands sent to a spacecraft, along possibly differentiated paths. Starting from the secure space telecommand design developed by the Consultative Committee for Space Data Systems as a response to agency-based requirements, an adaptive link layer security architecture is proposed to address some of the chal enges for future space networks. Based on the analysis of the communication environment and the error diffusion properties of the authentication algorithms, a suitable mechanism is proposed to classify frame retransmission requests on the basis of the originating event (error or security attack) and reduce the impact of security operations. An adaptive algorithm to optimize the space control protocol, based on estimates of the time varying space channel, is also presented. The simulation results clearly demonstrate that the proposed architecture is feasible and efficient, especially when facing malicious attacks against frame transmission.
出处 《Journal of Systems Engineering and Electronics》 SCIE EI CSCD 2014年第3期357-372,共16页 系统工程与电子技术(英文版)
基金 supported by the National Natural Science Fundation of China(61101073)
关键词 space network telecommand security adaptive estimate performance optimization misbehavior detection. space network, telecommand security, adaptive estimate, performance optimization, misbehavior detection.
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  • 1I. E Akyildiz, O. B. Akan, C. Chen, et al. InterPlaNetary in-ternet: state-of-the-art and research challenges. Computer Net- works, 2003, 43(2): 75-112.
  • 2E. Travis. The InterPlaNetary internet: architecture and key technical concepts. Proc. of the lnternet Global Summit, 2001.
  • 3K. Fall, S. Farrell. DTN: an architectural petrospective. IEEE Journal on Selected Areas in Communications, 2008, 26(5): 828-836.
  • 4N. Asokan, K. Kostianinen, P. disruption-tolerant networking port, NRC-TR-2007-007, 2007.
  • 5Ginzboorg. Towards securing Nokia Research Center Re- A. R. Chowdhury, J. S. Baras, M. Hadjitheodosiou. An au- thentication framework for a hybrid satellite network with resource-constrained nodes. Proc. of the International Society for Optical Engineering, 2005.
  • 6European Space Agency. Encryption for space, present sce- nario, performance and software efficient applications. Eu- ropean Space Operations Center (ESA/ESOC) Contract No. 17462/03/D/CS, 2004.
  • 7D. Fischer, M. Merri, T. Engel. Introducing a generic security extension for the packet TM/TC protocol stack. Proc. of the 4th International Workshop on Tracking, Telemetry and Com- mand Systems for Space Applications, 2007.
  • 8S. Kent, R. Atkinson. Internet engineering task force, security architecture for the Internet protocol. Request for Comments 2401, 1998.
  • 9Consultative Committee for Space Data Systems. Command Operations Procedure-1. CCSDS 232.1-B-1 Blue Book, 2003.
  • 10National Institute for Standard and Technology. Digital signa- ture standard. Federal Information Processing Standards Pub- lication, 2000.

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