• 我国空间环境探测技术发展及展望

    Development and Prospects of Space Environment Exploration Technology in China

    • 空间环境探测技术作为人类探寻宇宙奥秘、揭示自然规律并拓展科学前沿的基础,在空间探索与应用中扮演着核心角色。论文聚焦我国空间环境探测技术的发展现状与前沿进展,紧密结合国家对空间复杂环境探测的战略需求,系统综述了我国在空间物理场、天然环境、人为环境以及环境效应领域探测技术的最新突破与创新。针对现有技术在探测集成性、数据融合以及复杂环境适应性等方面的核心瓶颈与挑战,重点提出了通过集成高精度传感、人工智能算法与多源数据融合等技术手段,并进行空间环境专项卫星搭载,在未来可实现空间环境的精准认知、有效防护及可持续利用。

       

      Abstract: Space environment detection technology is essential for the sustainable, secure and valuable exploration of space and its applications. As a cutting-edge technology, it allows us to delve into the mysteries of the cosmos, discover fundamental natural laws, and continually push the boundaries of scientific knowledge. Beyond its scientific significance, it also provides the technical assurance necessary for long-duration missions, complex operational scenarios, and the long-term development of space infrastructure. This article provides a detailed overview of China’s current space environment detection capabilities and frontier advances. In response to the strategic need to accurately characterize highly dynamic, multi-scale space environments, it provides a systematic review of recent breakthroughs and innovations in the detection of physical space fields, natural environmental processes, artificial disturbances, and the effects of the environment on spacecraft systems. The discussion focuses on initiatives of national importance, including human spaceflight, lunar research stations, planetary missions, deep space exploration, and the sustainable utilization of space resources. This paper outlines a series of key technological solutions to ensure the safe and reliable operation of China’s major space programmes. These solutions address the significant challenges and core bottlenecks currently faced by technologies used to sense the space environment. These include system-level integration, coordinating multi-source data and ensuring operational resilience in extremely complex and harsh conditions. The solutions proposed include the fusion of high-precision electromagnetic and particle sensing; lightweight, intelligent on-board processing terminals; and the deep joint inversion of heterogeneous, multi-source datasets. When combined with on-orbit validation using dedicated space environment satellites, these approaches will facilitate the development of an integrated, real-time, space-to-ground monitoring and early warning architecture. Ultimately, this architecture will support precise environmental cognition and the development of effective protection strategies, facilitating the sustainable utilization and development of the space environment.

       

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