Nekahi Atiyeh, Feyzi Ebrahim, Srivastava Muskan, Yeganehdoust Firoozeh, Madikere Raghunagtha Reddy Anil Kumar, Zaghib Karim
Department of Chemical and Materials Engineering, Concordia University, 1455 De Maisonneuve Boulevard West, Montreal, QC H3G 1M8, Canada.
iScience. 2025 May 16;28(7):112691. doi: 10.1016/j.isci.2025.112691. eCollection 2025 Jul 18.
Lithium-ion battery cell manufacturing depends on a few key raw materials and equipment manufacturers. Battery manufacturing faces global challenges and opportunities as various regions, including Asia, Europe, North America, and emerging markets, seek to scale gigafactory production and innovate equipment manufacturing pathways. Regions can enhance battery resilience by investing in advanced technologies, optimizing resource utilization, and adopting sustainable manufacturing practices. Investing in local technologies, taking advantage of green energy and processes, relying on local expertise and research opportunities, and strengthening partnerships among smaller suppliers are some solutions. Manufacturing equipment evaluation highlights significant challenges in electrode preparation, cell assembly, and finishing. Using space-saving machinery and cost-effective, scalable technologies that can adapt to new battery advancements is a practical solution. Continuous mixing of initial materials, double-sided coating, dry processes, electrolyte recovery, precise stacking, simultaneous formation in multiple cells, and online process validation accelerate the global shift toward electrification.
锂离子电池制造依赖于少数关键原材料和设备制造商。随着包括亚洲、欧洲、北美和新兴市场在内的各个地区寻求扩大超级工厂生产规模并创新设备制造路径,电池制造面临着全球挑战和机遇。各地区可以通过投资先进技术、优化资源利用和采用可持续制造实践来增强电池的韧性。投资本地技术、利用绿色能源和工艺、依靠本地专业知识和研究机会以及加强较小供应商之间的合作关系是一些解决方案。制造设备评估凸显了电极制备、电池组装和精加工方面的重大挑战。使用节省空间的机械以及能够适应新电池进展的经济高效、可扩展技术是一个切实可行的解决方案。初始材料的连续混合、双面涂层、干法工艺、电解质回收、精确堆叠、多个电池同时形成以及在线工艺验证加速了全球向电气化的转变。