Multi-Agent Systems
Overview
Multi-Agent Systems studies how multiple decision-makers interact when they share goals, compete for resources, or have only partial information about one another. Approaches include multi-agent reinforcement learning, game theory and formal verification, decentralized consensus and task allocation, and—more recently—LLM-agent teams organized through roles, workflows, debate, and shared memory. Researchers evaluate these methods in social dilemmas, cooperative robotics and swarms, reasoning and coding benchmarks, and operational settings, measuring success alongside cost, robustness, and fairness. A central open tension is that coordination can improve outcomes but also adds overhead and can spread shared errors, so its benefits depend on the task, communication structure, and agents involved.
Latest papers
677 papers99 papers in the last four weeks, up 29% on the four weeks before. 0.6% of all new papers.
OneVoice: An Intermediate Representation for Agentic Speech Pipelines
Collaborative Memory for Multi-Agent VLM Systems
Mo' Models, Mo' Problems: How to best select model pools when designing Multi-Agent Systems
Cognitive Admission Control: Risk-Conditioned Assurance for Consequential Actions in Agentic Distributed Systems
CoMem: Collective-Individual Memory Synergy for Evolutionary Multi-Agent Systems
OptoAgent: A Trustworthy Multi-Agent Framework for Opportunistic Vision Micro-Screening in Classroom Environments
CoArena: Evaluating Computer-Use and Multi-Agent Systems in Real Time
Bringing AI to Autonomous Systems -- From Cognition to Collective Intelligence
Diverse Minds, Divided Networks? Personality Composition, Polarization, and Collective Intelligence in LLM-Based Social Simulations
MAIA: Multi-Agent Intent Articulation for Requirement Discovery in Art Commissions
Organizational Principles Enable Collective Intelligence in Embodied AI
DRG-MAPPO: Hierarchical Dynamic Role-Graph Multi-Agent Reinforcement Learning for Cooperative Air Combat
leader'' and supporter''). Conditioned on these roles and encoded graph-relational features, a low-level policy executes discrete maneuver actions, facilitating the joint optimization of tactical strategy and collaborative execution. Furthermore, a target-priority auxiliary task is designed to foster the emergence of behaviors such as focus-fire. Experimental results demonstrate that DRG-MAPPO achieves a state-of-the-art win rate of 87%, suggesting that our framework effectively balances relational modeling, interpretability, and optimization stability for cooperative air combat.