@article {17673,
	title = {Mobile Data Offloading through Opportunistic Communications and Social Participation},
	journal = {Mobile Computing, IEEE Transactions on},
	volume = {11},
	year = {2012},
	month = {2012/05//},
	pages = {821 - 834},
	abstract = {3G networks are currently overloaded, due to the increasing popularity of various applications for smartphones. Offloading mobile data traffic through opportunistic communications is a promising solution to partially solve this problem, because there is almost no monetary cost for it. We propose to exploit opportunistic communications to facilitate information dissemination in the emerging Mobile Social Networks (MoSoNets) and thus reduce the amount of mobile data traffic. As a case study, we investigate the target-set selection problem for information delivery. In particular, we study how to select the target set with only k users, such that we can minimize the mobile data traffic over cellular networks. We propose three algorithms, called Greedy, Heuristic, and Random, for this problem and evaluate their performance through an extensive trace-driven simulation study. Our simulation results verify the efficiency of these algorithms for both synthetic and real-world mobility traces. For example, the Heuristic algorithm can offload mobile data traffic by up to 73.66 percent for a real-world mobility trace. Moreover, to investigate the feasibility of opportunistic communications for mobile phones, we implement a proof-of-concept prototype, called Opp-off, on Nokia N900 smartphones, which utilizes their Bluetooth interface for device/service discovery and content transfer.},
	keywords = {3G mobile communication, 3G networks, Bluetooth interface, cellular networks, cellular radio, content transfer, device/service discovery, graph theory, greedy algorithm, heuristic algorithm, information delivery, information dissemination, mobile data offloading, mobile data traffic, mobile phones, mobile social networks, MoSoNets, Nokia N900 smartphones, Opp-off, opportunistic communications, random algorithm, real-world mobility traces, smart phones, social networking (online), social participation, target-set selection problem, telecommunication network routing, Telecommunication traffic, trace-driven simulation study},
	isbn = {1536-1233},
	doi = {10.1109/TMC.2011.101},
	author = {Han,Bo and Hui,Pan and Kumar,V. S.A and Marathe,M. V and Shao,Jianhua and Srinivasan, Aravind}
}
@conference {19297,
	title = {FPGA-based design and implementation of the 3GPP-LTE physical layer using parameterized synchronous dataflow techniques},
	booktitle = {2010 IEEE International Conference on Acoustics Speech and Signal Processing (ICASSP)},
	year = {2010},
	month = {2010},
	pages = {1510 - 1513},
	abstract = {Synchronous dataflow (SDF) is an ubiquitous dataflow model of computation that has been studied extensively for efficient simulation and software synthesis of DSP applications. In recent years, parameterized SDF (PSDF) has evolved as a useful framework for modeling SDF graphs in which arbitrary parameters can be changed dynamically. However, the potential to enable efficient hardware synthesis has been treated relatively sparsely in the literature for SDF and even more so for the newer, more general PSDF model. This paper investigates efficient FPGA-based design and implementation of the physical layer for 3GPP-Long Term Evolution (LTE), a next generation cellular standard. To capture the SDF behavior of the functional core of LTE along with higher level dynamics in the standard, we use a novel PSDF-based FPGA architecture framework. We implement our PSDF-based, LTE design framework using National Instrument{\textquoteright}s LabVIEW FPGA, a recently-introduced commercial platform for reconfigurable hardware implementation. We show that our framework can effectively model the dynamics of the LTE protocol, while also providing a synthesis framework for efficient FPGA implementation.},
	keywords = {3G mobile communication, 3GPP-long term evolution, 3GPP-LTE physical layer, 4G communication systems, Computational modeling, data flow analysis, data flow graphs, Dataflow modeling, Digital signal processing, DSP applications, Field programmable gate arrays, FPGA architecture framework, FPGA implementation, FPGA-based design, Hardware, hardware synthesis, Instruments, LabVIEW FPGA, Logic Design, LTE, next generation cellular standard, parameterized synchronous data flow technique, Pervasive computing, Physical layer, Physics computing, Production, PSDF graph, reconfigurable hardware implementation, Runtime, software synthesis, Ubiquitous Computing, ubiquitous data flow model},
	author = {Kee, Hojin and Bhattacharyya, Shuvra S. and Wong, I. and Yong Rao}
}
@article {12094,
	title = {Wireless Network Security and Interworking},
	journal = {Proceedings of the IEEE},
	volume = {94},
	year = {2006},
	month = {2006/02//},
	pages = {455 - 466},
	abstract = {A variety of wireless technologies have been standardized and commercialized, but no single technology is considered the best because of different coverage and bandwidth limitations. Thus, interworking between heterogeneous wireless networks is extremely important for ubiquitous and high-performance wireless communications. Security in interworking is a major challenge due to the vastly different security architectures used within each network. The goal of this paper is twofold. First, we provide a comprehensive discussion of security problems and current technologies in 3G and WLAN systems. Second, we provide introductory discussions about the security problems in interworking, the state-of-the-art solutions, and open problems.},
	keywords = {3G mobile communication, 3G systems, Authentication, Bandwidth, Communication system security, computer network security, computer security, Data security, internetworking, Land mobile radio cellular systems, Paper technology, security architectures, security of data, telecommunication security, wireless communication, wireless communications, Wireless LAN, wireless network security, Wireless networks, wireless technologies, WLAN systems},
	isbn = {0018-9219},
	doi = {10.1109/JPROC.2005.862322},
	author = {Shin,M. and Ma,J. and Mishra,A. and Arbaugh, William A.}
}
