现代防雷技术的智能化发展趋向
Intelligent Development Trend of Modern Lightning Protection Technology
摘要: 在全球气候变化与新型基础设施快速建设的背景下,雷电灾害风险持续加剧,传统防雷技术已难以满足现代复杂系统的安全需求。本文围绕现代防雷技术的发展变革,系统分析其由被动防护向主动智能防御转型的内在逻辑与技术路径,归纳出智能化转型、精细化防护、接地系统优化、多系统集成及新兴场景应用等核心发展维度。阐述了物联网、人工智能、大数据、新型材料等技术对防雷体系的支撑作用,指出当前行业在标准规范、数据安全、成本控制及跨学科融合等方面存在的问题,并对数字孪生、广域协同、全生命周期管理等未来趋势进行展望。研究可为新一代智能防雷体系构建提供理论参考与实践依据。
Abstract: Against the backdrop of global climate change and rapid development of new infrastructure, lightning disaster risks continue to escalate, rendering traditional lightning protection technologies inadequate for modern complex systems. This paper systematically analyzes the evolution of modern lightning protection technology, exploring the intrinsic logic and technical pathways of its transition from passive protection to active intelligent defense. It identifies core development dimensions, including intelligent transformation, refined protection, grounding system optimization, multi-system integration, and emerging scenario applications. The study elucidates how technologies such as the Internet of Things (IoT), artificial intelligence (AI), big data, and advanced materials support lightning protection systems. It highlights current industry challenges in standardization, data security, cost control, and interdisciplinary integration, while forecasting future trends like digital twin technology, wide-area collaboration, and lifecycle management. The research provides theoretical references and practical foundations for constructing next-generation intelligent lightning protection systems.
文章引用:熊章侦松, 杨文婷. 现代防雷技术的智能化发展趋向[J]. 仪器与设备, 2026, 14(1): 187-199. https://doi.org/10.12677/iae.2026.141022

参考文献

[1] 魏飞. 架空输电线路的防雷措施应用分析[C]//《中国招标》期刊有限公司. 新质生产力驱动第二产业发展与招标采购创新论坛——绿色智造·采购革新专题. 通辽: 国网蒙东通辽供电公司, 2025: 1021-1024.
[2] Li, R., Guo, N., Cao, X. and Yang, X. (2025) Study on Characteristics of Lightning Ground Flashes Distribution near High-Speed Railway with Viaduct. Electrical Engineering, 107, 11805-11818. [Google Scholar] [CrossRef
[3] Banjanin, M., Taljan, U., Kanduč, P., Lavtar, M. and Radović, B. (2025) EMTP-ATP and Matlab-Based Parameter Variation Calculations—Case Study of Lightning Protection of 110 kV Substation at the Wind Park. B&H Electrical Engineering, 19, 45-51. [Google Scholar] [CrossRef
[4] 黄晓阳, 卢静波, 杨悦, 等. 高层建筑防雷检测关键方法优化[C]//《中国招标》期刊有限公司. 新质生产力驱动第二产业发展与招标采购创新论坛——绿色智造·采购革新专题. 乐山: 四川省乐山市气象局, 2025: 1086-1093.
[5] Zhang, P., Chen, J., Bai, L., Wei, D., Shi, M. and Jiang, Y. (2026) A Comprehensive Research on the Effects of Lightning Strikes on Floating Offshore Wind Farm. Ocean Engineering, 343, Article ID: 123391. [Google Scholar] [CrossRef
[6] Ashrafi, B., Deore, B., Chávez-Gómez, P., Genest, M., Mandache, C., Paquet, C., et al. (2026) Evaluation of Silver Coatings Fabricated from Molecular Inks for Lightning Strike Protection of Aircraft Composite Structures. Composites Part A: Applied Science and Manufacturing, 200, Article ID: 109343. [Google Scholar] [CrossRef
[7] Sobolewski, K. and Strużewski, P. (2025) The Three-Dimensional Analytical Modeling of Lightning-Induced Heat Diffusion: The Critical Roles of the Continuing Current and Lightning Channel Radius in Structural Damage. Applied Sciences, 16, Article 452. [Google Scholar] [CrossRef
[8] Mansouri, E., Mostajabi, A., Kohlmann, H., Tong, C., Rubinstein, M. and Rachidi, F. (2025) Exploring the Portability of ML-Based Lightning Nowcasting Models. Electric Power Systems Research, 248, Article ID: 111808. [Google Scholar] [CrossRef
[9] Parhamfar, M., Naderi, R. and Sadeghkhani, I. (2025) Risk Assessment, Lightning Protection, and Earthing System Design for Photovoltaic Power Plants: A Case Study of Utility-Scale Solar Farm in Iran. Solar Energy Advances, 5, Article ID: 100098. [Google Scholar] [CrossRef
[10] Li, C., Zhang, C. and Lv, Q. (2026) Study on Temperature Rise Prediction of ZnO Varistors under Multiple Lightning Strikes Based on BP Neural Network and Microscopic. High Temperature Materials and Processes, 45, Article ID: 20250089. [Google Scholar] [CrossRef
[11] Guo, Z., Siew, W.H., Li, Q. and Shi, W. (2025) On the Lightning Attachment Process of Wind Turbine-Observation, Experiments and Modelling. Machines, 13, Article 704. [Google Scholar] [CrossRef
[12] Lima, A.C.S., Parreiras, T.J.M.A., Alípio, R. and Correia de Barros, M.T. (2026) Realization of Rational Models for Tower-Footing Grounding Systems. Electric Power Systems Research, 251, Article ID: 112222. [Google Scholar] [CrossRef
[13] Chen, Y., Wan, X. and Chen, Y. (2026) Structural Optimization of Multi-Chamber Arrester and Research on Arc Extinguishing Effect under Multiple Lightning Strikes. Electric Power Systems Research, 255, Article ID: 112773. [Google Scholar] [CrossRef
[14] 黄绍锋. 高山无线发射台站综合防雷接地方案研究[J]. 广播电视网络, 2025(S2): 9-14.
[15] Reda, A. and Olszewski, A. (2025) Praktyczna ocena wybranych metod pomiarowych rezystancji uziemienia stosowanych w ocenie jakościowej instalacji ochrony odgromowej. Elektronika-Konstrukcje, Technologie, Zastosowania, 1, 23-27. [Google Scholar] [CrossRef
[16] Kálecz, G., Kiss, I. and Németh, B. (2024) Attractive Space Evaluation Method for HVDC Transmission Lines. Energies, 17, Article 6434. [Google Scholar] [CrossRef
[17] 杨洁. 基于智能传感技术的架空配电线路防雷运检策略研究[C]//《中国招标》期刊有限公司. 新质生产力驱动第二产业发展与招标采购创新论坛——绿色智造·采购革新专题(第二册). 遂宁: 四川明星电力股份有限公司, 2025: 184-187.
[18] Xiao, X., Li, D., Lu, C., Sun, J., Zhang, C., He, X., et al. (2025) An FPGA + STM32-Based Online Lightning Current Monitoring Terminal. Journal of Physics: Conference Series, 3163, Article ID: 012017. [Google Scholar] [CrossRef
[19] Rohana, R., Hardi, S., Nasaruddin, N., Away, Y. and Novandri, A. (2024) Multi-Stage ANN Model for Optimizing the Configuration of External Lightning Protection and Grounding Systems. Energies, 17, Article 4673. [Google Scholar] [CrossRef