喷雾热解技术制备新能源材料研究进展
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作者单位:

1.中国恩菲工程技术有限公司, 北京 100038 ; 2.郑州大学, 河南 郑州 450001 ;3.恩菲雄安科技发展有限公司, 河北 雄安新区 070001

作者简介:

李晓艳(1989—),女,内蒙古呼和浩特人,博士,高级工程师,从事新能源材料领域技术研发工作。

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中图分类号:

TF123.1

基金项目:

国家重点研发计划项目(2021YFC2900107);中国五矿科创基金项目(2023KC10)


Research progress in preparation of new energy materials by spray pyrolysis
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Affiliation:

1.China ENFI Engineering Corporation, Beijing 100038 , China ; 2.Zhengzhou University, Zhengzhou 450001 , China ; 3.ENFI Xiong’an Technology Development Company Limited, Xiong'an New Area 070001 , China

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    摘要:

    纳微米材料在新能源领域发挥着重要的作用,喷雾热解技术被认为是一种具有广阔工业应用前景的纳微米粉体制备技术,其具有工艺流程短、过程连续、生产成本低、反应无污染,所制备的粉末团聚少、粒径分布均匀、比表面积大、化学组分可控以及颗粒的流动性好等优势,被广泛应用在合成复合材料领域。本文对喷雾热解技术在导体与催化剂、多用途材料、太阳能电池材料、锂离子电池材料、燃料电池材料等领域的关键材料制备的研究成果进行了总结,发现多数研究以探究工艺参数对目标材料性能的影响为主,有部分研究重点关注合成具有特定结构的复合材料以及性能优化。目前,实现5μm以下小粒径粉体的大规模生产是喷雾热解技术的重点和难点:气动雾化制备的粉体易实现量产,但产品粒径大,限制了其产业化应用范围;超声雾化可制备亚微米级粉体(5μm以下),但难以量产。结合文献调研结果,后续研发需从两方面着手,一是在技术研究领域急需加深认识喷雾热解技术机理以及在使用过程中的机理问题,二是在工程应用领域需要对设备、雾化过程进行优化改进,如优化改进雾化喷嘴或者增加促进颗粒减小的方法手段。此外,应积极将喷雾热解技术与其他材料制备技术相结合,进一步探究不同技术相结合的优势,提高材料的性能。

    Abstract:

    Nano-micron materials play an important role in the field of new energy. Spray pyrolysis technology is regarded as a promising technique for the industrial-scale production of nano-micro powders, owing to its short process flow, continuous operation, low production cost, and pollution-free reaction. Additionally, spray pyrolysis technology offers advantages such as minimal powder agglomeration, uniform particle size distribution, high specific surface area, controllable chemical composition, and excellent particle flowability, which is widely used in the synthesis of composite materials. This article summarizes research achievements in the preparation of key materials via spray pyrolysis technology, including conductors and catalysts, multi-purpose materials, solar cell materials, lithium-ion battery materials, and fuel cell materials. It was found that most studies focus on exploring the influence of process parameters on the properties of target materials, while some studies focus on synthesizing composite materials with specific structures and optimizing their properties. Currently, achieving large-scale production of fine powders with particle sizes below 5μm is a major challenge for spray pyrolysis technology: powders produced by pneumatic atomization can be easily mass-produced but have larger particle sizes, limiting their industrial application scope; ultrasonic atomization can produce submicron powders (below 5μm) but is difficult to scale up. Based on literature research, future development efforts should focus on two aspects: first, in the technical research domain, there is an urgent need to deepen the understanding of the mechanisms of spray pyrolysis technology and its operational processes; second, in the field of engineering applications, equipment and atomization processes must be optimized and improved, such as enhancing atomization nozzles or incorporating methods to promote particle size reduction. Furthermore, it is essential to actively integrate spray pyrolysis technology with other material preparation techniques to further explore the advantages of combined technologies and improve material performance.

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李晓艳,蓝梦啸,刘君,等.喷雾热解技术制备新能源材料研究进展[J].中国有色冶金,2025,54(5):1-13.

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  • 收稿日期:2025-04-12
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  • 在线发布日期: 2025-12-18
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