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人工智能技术赋能航天航空:创新应用与未来挑战OA

Empowering Aerospace with Artificial Intelligence Technology:Innovative Applications and Future Challenges

中文摘要英文摘要

人工智能(AI)技术正在重塑航天航空领域的研发范式,为解决极端环境适应性、系统复杂性与高成本约束等核心挑战提供新路径.本文聚焦机器学习、强化学习、计算机视觉等关键技术,探讨其在航天器全生命周期管理中的理论突破与应用潜力.研究表明:深度学习通过高维特征建模显著提升遥感图像分析与故障检测精度,强化学习结合动态决策框架优化航天器自主控制能力,而进化算法在多目标优化任务中突破传统方法的效率边界.尽管技术应用已取得阶段性成果,航天场景的特殊性仍对AI落地构成多重制约:数据稀缺性导致模型泛化能力受限,极端环境扰动引发算法鲁棒性风险,安全关键场景中黑箱模型的可靠性争议亟待解决.未来发展趋势呈现三重演进方向:一是构建物理机理与数据驱动融合的混合智能模型,增强决策过程的可解释性与环境适应性;二是发展轻量化边缘计算架构,解决星载设备算力约束下的实时自主决策难题;三是建立人机协同的智能增强系统,平衡算法效率与人类经验在复杂任务中的价值.通过跨学科技术融合与工程化验证体系完善,AI有望推动航天系统从预设逻辑驱动向自主认知演进,为深空探测、星座组网等重大任务提供可持续的技术支撑.

Artificial intelligence(AI)technology is reshaping the research and development paradigm in the aerospace industry,providing new paths to address core challenges such as extreme environmental adaptability,system complexity,and high-cost constraints.This article focuses on key technologies such as machine learning,reinforcement learning(RL),and computer vision,exploring their theoretical breakthroughs and potential applications in spacecraft lifecycle management.Research has shown that,deep learning significantly improves the accuracy of remote sensing image analysis and fault detection through high-dimensional feature modeling,RL optimizes the autonomous control ability of spacecraft by combining dynamic decision frameworks,and evolutionary algorithms break through the efficiency boundaries of traditional methods in multi-objective optimization tasks.Despite the phased achievements in technological applications,the particularity of aerospace scenarios poses multiple constraints on AI implementation:data scarcity limits the generalization ability of models,extreme environmental disturbances pose risks to algorithm robustness,and the reliability controversy of black box models in safety critical scenarios urgently needs to be resolved.Future development trends present three evolutionary directions.First,build a hybrid intelligent model integrating physical mechanisms and data-driven integration to enhance the interpretability and environmental adaptability of the decision-making process.Second,develop a lightweight edge computing architecture to solve the real-time autonomous decision-making problem under the constraints of computing power of on-board equipment.Third,establish an intelligent enhancement system for human-machine collaboration to balance the algorithm efficiency with the value of human experience in complex tasks.Through the integration of interdisciplinary technologies and the improvement of engineering verification systems,AI is expected to promote the evolution of aerospace systems from preset logic driven to autonomous cognition,providing sustainable technical support for major tasks such as deep space exploration and constellation networking.

贾巍;蔺道深;朱建鹏

上海人工智能研究院,上海 200240上海人工智能研究院,上海 200240上海人工智能研究院,上海 200240

航空航天

人工智能(AI)航天航空技术应用

artificial intelligence(AI)aerospace technologyapplication

《上海航天(中英文)》 2026 (1)

31-41,11

国家自然科学基金项目

10.19328/j.cnki.2096-8655.2026.01.003

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