Aug 2026· International Conference on Modelling, Identification and Control· pp. 154-157· 0 citations· 20 references
Abstract
Reinforcement learning (RL) has shown strong potential for autonomous decision-making in complex and dynamic environments. However, its direct application to military systems raises critical safety, reliability, accountability, and verification concerns. Unlike civilian domains, military applications require strict compliance with operational constraints, human oversight, mission assurance, and rules of engagement. This paper reviews safe reinforcement learning (safe RL) methods for military applications and presents a compact taxonomy of major approaches, including constrained RL, shielding, controltheoretic safety, risk-sensitive RL, offline safe RL, and safe multi-agent RL. The paper further discusses how these methods can be applied to military command and control, autonomous mobility, intelligence, surveillance, and reconnaissance, cyber defense, and human-machine teaming. Finally, we argue that safe RL for military systems should be treated not only as an algorithmic optimization problem, but also as an assuranceoriented framework integrating constraints, verification, runtime monitoring, and human control.
This survey examines RL-based AD in modular and end-to-end pipelines and relates reported methods to task formulation and deployment evidence and examines deployment barriers, including safety, Sim2Real generalization, data efficiency, computation, embodied alignment, and evaluation readiness.
B. Shuai, Min Hua, Le-Tian Tao et al.· Communications in Transporta...· 0 citations
Evaluation metrics for safe RL are introduced that address each of these concerns and in addition allow for aggregation across tasks and safety bounds and an open-source evaluation suite to support the reliable characterization of safety in future safe RL research is provided.
Safety to Competence (S2C), a two-stage RL framework that separates safety synthesis from competitive task learning, is proposed and it is proved that perfect filtering preserves policy non-exploitability when all players commit to safe maneuvers.
Rui-Han Wu, Rui Yang, Donggeon David Oh et al.· 1 citation
Safe Multi-Agent Reinforcement Learning (SMARL) aims to learn cooperative control policies under prescribed safety constraints. Al- though existing SMARL methods focus on enforcing safety during policy optimization, their vulnerability remains largely unexplored. This paper investigates inference-time observation attac...
This work proposes RLTrajGen-PPMPC-CBF, a hierarchical framework for safe, smooth and comfort roundabout navigation, which regulates the coupling between RL-based planning and MPC-based control, and employs Prescribed Performance Constraints (PPC) to enforce a gradual, stable convergence between reference trajectories...
Wen-Han Li, Yang-Rui Zhang, Hang Zhou et al.· 0 citations
Reinforcement learning has shown strong potential for sequential control problems, providing an effective framework for adaptive policy derivation in complex and dynamic environments. However, standalone RL controllers may behave unstably or too aggressively, particularly in safety-critical applications where constrain...
P. Michailidis, Iakovos T. Michailidis, F. Minelli et al.· Engineer· 0 citations
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