计算机科学 ›› 2026, Vol. 53 ›› Issue (9): 71-81.doi: 10.11896/jsjkx.260100117
陈海, 范长俊, 孙博良, 程杰, 孔骏锋, 袁雨辰
CHEN Hai, FAN Changjun, SUN Boliang, CHENG Jie, KONG Junfeng, YUAN Yuchen
摘要: 针对时敏目标打击领域存在的传统优化方法建模僵化、决策过程不透明,以及深度强化学习方法样本需求大、奖励函数设计复杂、结果可靠性验证困难等挑战,提出一种订单式打击与大语言模型赋能的混合智能决策新方法。该方法构建了以动态“订单”为核心的火力资源自适应调度模型,并创新性地引入大语言模型作为战略顾问角色,形成STIRA-LLM与KPSA-LLM两大核心算法:前者利用大语言模型的逻辑推理能力加速复杂约束下的优化求解;后者则专注于生成符合战术逻辑的自然语言解释,以提升决策的可理解性。实验验证表明,该框架在多项关键指标上均取得显著提升,并能在大规模动态对抗环境中保持稳定高效的求解性能;同时,系统具备生成层次化、可审阅的战术意图与方案依据的能力,有效增强了人机协同的透明度与指挥信任。研究通过将机理模型与认知智能融合,为智能化战争条件下实现高效、可靠且具有解释性的自适应决策提供了一条具有实践价值的技术途径。
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