Advances in Distributed Optimization and Game Theory for IoT and Edge Computing

The field of distributed optimization and game theory is experiencing significant advancements, particularly in the context of IoT and edge computing. Researchers are exploring novel approaches to optimize resource allocation, minimize energy consumption, and improve the age of information in distributed systems. Game-theoretic frameworks are being developed to analyze and design mechanisms for cooperation and competition among multiple agents, leading to more efficient and robust solutions. Notably, the use of deep reinforcement learning and overlapping coalition formation games is enabling the optimization of complex systems with multiple components and objectives.

Some noteworthy papers include:

  • A study on competitive multi-armed bandit games, which proposes a Combined Informational and Side-Payment mechanism to achieve socially optimal arm recommendations with proper informational and monetary incentives.
  • A paper on age of information in short packet multi-connectivity links, which introduces a codeword splitting scheme and derives closed-form expressions for the average age of information, demonstrating its superiority over existing schemes.

Sources

Federated Digital Twin Construction via Distributed Sensing: A Game-Theoretic Online Optimization with Overlapping Coalitions

Competitive Multi-armed Bandit Games for Resource Sharing

Age of Information in Short Packet Multi-Connectivity Links

Static and Repeated Cooperative Games for the Optimization of the AoI in IoT Networks

Energy Minimization for Participatory Federated Learning in IoT Analyzed via Game Theory

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