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National University of Ireland Maynooth

Academic institutioneurope · ie
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Research library25linked papers
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Selected work

Representative Papers

EBGT: Epistemology-aided Bayesian Game Theory for Uplink Power Control in Stochastically Distributed IoT Tiers

Aug 07, 2026

This work addresses the challenges of power control in dense heterogeneous IoT uplink scenarios, where conventional methods struggle due to incomplete channel state information, inter-device interference, and stringent size, weight, and power (SWaP) constraints. To overcome these limitations, the authors propose a novel epistemic Bayesian game-theoretic framework that, for the first time, incorporates cognitive hierarchy modeling into power control. The approach employs a two-layer belief structure to capture users’ reasoning about opponents’ strategies and their own strategic self-assessment. Spatial randomness is modeled using Poisson point processes and stochastic geometry, while decentralized power optimization is achieved without feedback by leveraging Jensen–Shannon divergence analysis. Theoretical derivations yield a coverage probability-based utility function, and simulations demonstrate that, under high network density and stringent SINR requirements, the proposed method significantly reduces transmit power compared to fractional power control (FPC) and signal-to-noise-and-channel-power control (SNCPC), while maintaining the target coverage probability.

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Recent publications

Latest Papers

EBGT: Epistemology-aided Bayesian Game Theory for Uplink Power Control in Stochastically Distributed IoT Tiers

Aug 07, 2026

This work addresses the challenges of power control in dense heterogeneous IoT uplink scenarios, where conventional methods struggle due to incomplete channel state information, inter-device interference, and stringent size, weight, and power (SWaP) constraints. To overcome these limitations, the authors propose a novel epistemic Bayesian game-theoretic framework that, for the first time, incorporates cognitive hierarchy modeling into power control. The approach employs a two-layer belief structure to capture users’ reasoning about opponents’ strategies and their own strategic self-assessment. Spatial randomness is modeled using Poisson point processes and stochastic geometry, while decentralized power optimization is achieved without feedback by leveraging Jensen–Shannon divergence analysis. Theoretical derivations yield a coverage probability-based utility function, and simulations demonstrate that, under high network density and stringent SINR requirements, the proposed method significantly reduces transmit power compared to fractional power control (FPC) and signal-to-noise-and-channel-power control (SNCPC), while maintaining the target coverage probability.

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