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纸质出版日期： 2024-07-25 ，
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赵辛龙，杨尚磊，田嘉伟，等.振镜激光飞行焊接技术在新能源储能模组生产中的应用研究［J］.电焊机，2024，54（7）：100-104.
ZHAO Xinlong, YANG Shanglei, TIAN Jiawei, et al.Research on the Application of Galvo Laser Flying Welding Technology in the Production of New Energy Storage Modules[J].Electric Welding Machine, 2024, 54(7): 100-104.
随着新能源技术的不断进步，新能源储能模组装备的生产效率显得尤为重要。提出了一种基于振镜激光飞行焊接技术的解决方案。该方案通过设计连贯的生产设备，并引入振镜激光飞行焊接技术。振镜激光飞行焊接技术具有非接触性、高精度、动态运行等优势，能够有效缩短加工时间，提高产品质量，降低人工成本，并推动新能源产业的发展。主要论述新能源储能模组的生产设备、生产工艺路线以及振镜激光飞行焊接的优势等，经过现场调试及工艺试验，掌握了振镜激光飞行焊接核心技术，实现了新能源储能模组的稳定高效应用。并验证了其在新能源储能模组生产过程中的可行性。
With the continuous advancement of new energy technology
the production efficiency of new energy storage module equipment has become particularly important. A solution based on scanning laser flight welding technology is proposed. This solution involves the design of coherent production equipment and the introduction of scanning laser flight welding technology. Scanning laser flight welding technology offers advantages such as non-contact operation
high precision
and dynamic running
which can effectively reduce processing time
improve product quality
lower labor costs
and promote the development of the new energy industry. This paper mainly discusses the production equipment
process route
and advantages of scanning laser flight welding for new energy storage modules. Through on-site debugging and process testing
the core technology of scanning laser flight welding has been mastered
enabling the stable and efficient application of new energy storage modules. The feasibility of this technology in the production process of new energy storage modules has been verified.
振镜激光焊接技术新能源储能模组工艺路线飞行焊接
galvanometer laser welding technologynew energy storage moduleprocess routeflight welding
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