Alexandra Duel-Hallen

Dr. Duel-Hallen's current research interests are in Wireless Communications and Smart Grid. Her recent and current projects focus on game theory and machine learning for communications and power systems and wireless channel characterization and prediction.

Education

1982 - BS in Math/CS, Case Western Reserve University, Cleveland, OH
1983 - MS in CICE, University of Michigan, Ann Arbor, Michigan
1987 - PhD in EE, Cornell University, Ithaca, NY

Awards & Honors

2011 - IEEE Fellow, for contributions to equalization and wireless communications
2007 - Author of a paper selected for The Best of the Best: Fifty Years of Communications and Networking Research (56 papers in Communications and Networking), IEEE Press, 2007
2006 - Highly Cited Researcher, ISIHighlyCited.com
2002 - Author of a paper included in the IEEE Communications Society 50th Anniversary Journal Collection as one of 41 key papers in physical and link layer areas, 1952-2002.
1995 - ORAU Junior Faculty Enhancement Award
1994 - NSF Research Initiation Award
1982 - CWRU Award to the Outstanding Upperclassman in Mathematics

Publications

• A Distributed and Resilient Bargaining Game for Weather-Predictive Microgrid Energy Cooperation (2019)
• A sensing contribution-based two-layer game for channel selection and spectrum access in cognitive radio ad-hoc networks (2018)
• Distributed multi-step power scheduling and cost allocation for cooperative microgrids (2017)
• Game-theoretic multi-agent control and network cost allocation under communication constraints (2017)
• Channel-aware spectrum sensing and access for mobile cognitive radio ad hoc networks (2016)
• Ensuring economic fairness in wide-area control for power systems via game theory (2016)
• A two-layer coalitional game among rational cognitive radio users (2015)
• Channel-adaptive sensing strategy for cognitive radio ad hoc networks (2013)
• Data-aided noise reduction for long-range fading prediction in adaptive modulation systems (2013)
• Adaptive bit-interleaved coded modulation based on the expurgated bound for mobile radio OFDM systems aided by fading prediction (2012)