π€ AI Summary
This study addresses the limitations of the classical El Farol bar problem, which assumes complete information and a passive venue, thereby failing to capture the complexity of real-world resource coordination. The work proposes a novel framework that models the bar as an active mechanism designer operating under partial observability, establishing a co-evolutionary dual-learning system between agents and institutional rules. Agents adaptively make decisions based on incomplete information, while the bar employs an AI-driven dynamic pricing mechanism to jointly optimize revenue, utilization, and sustainability. This approach marks the first paradigm shift from passive capacity constraints to active mechanism design, significantly enhancing systemic coordination efficiency and stability, and offering a new theoretical pathway for congestion management and sustainable resource allocation.
π Abstract
The El Farol Bar game is a classic model of coordination under uncertainty, traditionally treating the venue as a passive constraint. In this work, we re-conceptualize the problem by modeling the bar as a strategic player equipped with AI-driven learning capabilities. We extend the original framework to include partial observability, i.e., agents observe only subsets of past attendees, and transform the bar from a passive capacity threshold into an active mechanism designer that adjusts pricing policies to balance revenue, utilization, and sustainability constraints. Agents employ AI-based learning to form beliefs and adapt attendance strategies under incomplete information, while the bar uses policy learning to optimize dynamic pricing. The resulting two-sided learning system frames coordination as a co-evolutionary process between boundedly rational agents and an adaptive institution, offering insights into congestion management, resource allocation, and mechanism design in complex adaptive systems.