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Hier finden Sie wissenschaftliche Publikationen aus den FraunhoferInstituten. Mechanism design and implementation theoretic perspective of interference coupled wireless systems
 Beck, C. ; University of Illinois, Coordinated Science Laboratory, Urbana/Ill.; University of Illinois, Department of Electrical and Computer Engineering, Urbana/Ill.: Allerton 2009. Vol.1 : 2009 47th Annual Allerton Conference on Communication, Control, and Computing, Monticello, Illinois, USA, 30 September  2 October 2009 Piscataway, NJ: IEEE, 2009 ISBN: 9781424458707 ISBN: 9781424458714 pp.515522 
 Annual Allerton Conference on Communication, Control, and Computing <47, 2009, Monticello/Ill.> 

 English 
 Conference Paper 
 Fraunhofer HHI () 
Abstract
This paper investigates the properties of social choice functions, that represent resource allocation strategies in interference coupled wireless systems. The resources can be physical layer parameters such as power vectors or antenna weights. The paper investigates the permissible social choice functions, which can be implemented by a mechanism in either Nash equilibria or dominant strategy  for utility functions representing interference coupled wireless systems. Strategy proofness and efficiency properties of social choice functions are used to capture the properties of nonmanipulability and Pareto optimality of solution outcomes of resource allocation strategies, respectively. The analysis indicates certain inherent limitations when designing strategy proof and efficient resource allocation strategies. These restrictions are investigated in an analytical mechanism design framework of interference coupled wireless systems. Furthermore, the paper characterizes the Pareto optimal boundary points (efficient) of utility sets of interference coupled wireless system. An axiomatic framework of interference functions is used to capture interference coupling. The Pareto optimal boundary points for the cases of individual power constraints and a total power constraint are described based on the properties of the underlying interference functions.