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Non-cooperative power control game for adaptive modulation and coding 被引量:3

Non-cooperative power control game for adaptive modulation and coding
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摘要 Adaptive modulation and coding (AMC) provides the flexibility to match modulation and coding scheme (MCS) to signal to interference plus noise ratio (SINR) of users. To reduce the transmission power and maintain the transmission quality, power control is normally combined with AMC. While the target SINR of power control is fixed, therefore non-cooperative power control game for AMC (NPGA) algorithm was proposed to adapt to the dynamic target SINR changes according to MCS. In NPGA, we formulate system transmission efficiency via utility, where the utility function is constructed based on the modulation and coding efficiency with non-cooperative game theory. It is demonstrated theoretically that NPGA can satisfy the conditions of the supermodular games, and its solution is optimal. The simulation results show that NPGA can improve system transmission efficiency and signal quality with low transmission power, and the convergence performance of NPGA is more fast-effectiveness compared with geometric programming algorithms. Adaptive modulation and coding (AMC) provides the flexibility to match modulation and coding scheme (MCS) to signal to interference plus noise ratio (SINR) of users. To reduce the transmission power and maintain the transmission quality, power control is normally combined with AMC. While the target SINR of power control is fixed, therefore non-cooperative power control game for AMC (NPGA) algorithm was proposed to adapt to the dynamic target SINR changes according to MCS. In NPGA, we formulate system transmission efficiency via utility, where the utility function is constructed based on the modulation and coding efficiency with non-cooperative game theory. It is demonstrated theoretically that NPGA can satisfy the conditions of the supermodular games, and its solution is optimal. The simulation results show that NPGA can improve system transmission efficiency and signal quality with low transmission power, and the convergence performance of NPGA is more fast-effectiveness compared with geometric programming algorithms.
出处 《The Journal of China Universities of Posts and Telecommunications》 EI CSCD 2010年第3期31-37,共7页 中国邮电高校学报(英文版)
关键词 power control AMC SINR game theory utility function power control, AMC, SINR, game theory, utility function
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  • 1Akyildiz I F,Weilian Su,Yogesh S,et al.A Survey on Sensor Networks.IEEE Communications Magazine,2002(8):102-114.
  • 2Chandrakasan A,Amirtharajah C,Cho S H,et al.Design considerations for distributed microsensor systems.Proceeding of CICC,San Diego,1999:279-286.
  • 3Yates R.A framework for uplink power control in cellular radio systems.IEEE Journal on Selected Areas in Communications,1995,13(7):1341-1347.
  • 4Goodman D,Mandayam N.Power control for wireless data.IEEE Personal Communications.2000.48-54.
  • 5Romaszko,Blondia C A MAC protocol for wireless Ad Hoc Networks with power control.In Proceedings of the IEEE International Workshop on Wireless Ad-hoc Networks(IWWAN).London,2005:324-330.
  • 6Kubisch M,Karl H,Wolisz A,et al.Distributed algorithms for transmission power control in wireless sensor networks.In Proceedings of the WCNS,2003:558-563.
  • 7Muqattash A,Krunz M.A single-channel solution for transmission power control in wireless Ad Hoc Networks.In Proceedings of the MobiHoc,2004:210-221.
  • 8Friedman J,Mezzetti C.Learning in games by random sampling.Journal of Economic Theory,2001,98:55-84.
  • 9Monderer D,Shapley L.Potential games.Games and Economic Behavior,1996,14:124-143.
  • 10Ui T.A Shapley value representation of potential games.Games and Economic Behavior,2000,14:121-135.

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  • 1李冀.国外提升卫星信号在拒止环境下导航定位能力的新技术[J].导航定位学报,2013,1(2):55-59. 被引量:17
  • 2Nagaraj Santosh V. Entropy-based Spectrum Sensing in Cognitive Radio [J]. Signal Processing,2009,89(2) : 174-180.
  • 3McHenry M. Frequency Agile Spectrum Access Technologies[R]. Washington:Workshop on Cognitive Radio,2003.
  • 4Staple G, Werbach K. The End of Spectrum Scarcity[J]. IEEE Spectrum, 2004,41 (3) : 48-52.
  • 5Beibei Wang, Yongle Wu. Game Theory for Cognitive Radio Networks[J]. Computer Networks,2010,54(4) :2517-2561.
  • 6Hakim K,Jayaweeras K, EI-howayek G, et al. Efficient Dynamic Spectrum Sharing in Cognitive Radio Networks :Centralized Dynamic Spectrum Leasing[J]. IEEE Transactions on Wireless Communications, 2010,9 (9) : 2956-2967.
  • 7Mitola J. Cognitive Radio: An Integrated Agent Architecture for Software Defined Radio[D]. Stockholm:Royal Institute of Technology(KTH), 2000.
  • 8Simon Haykin. Cognitive Radio: Brain-empowered Wireless Communications[J]. IEEE Journal on Selected Areas in Communications, 2005,23 (2) :201-219.
  • 9David Goodman. Power Control for Wireless Data[J]. IEEE Personal Communications,2000, 7(2) :48-54.
  • 10Saraydar Cem U, Mandayam Narayan B. Pricing and Power Control in a Multicell Wireless Data Network[J]. IEEE Journal on Selected Areas in Communications, 2001,19(10) : 1883-1892.

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