Accelerating rate calorimetry: History, state of the art and perspectives

Jiong Ding , Kaixuan Liu , Chenyu Xu , Jiaming Li , Xu Yan , Jinchao Liang , Meng Feng , Arcady A. Kossoy , Jinxin Xu , Dongfang Hu
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Abstract

Accelerating Rate Calorimetry (ARC) is a crucial technique for studying chemical reaction kinetics assessing and thermal hazards. In this review article, the history of ARC development is introduced. The first section focuses on instrumentation. It elaborates This section expounds on the evolution of ARC, covering both classical methods and advanced techniques such as pressure tracking and power compensation. Recent advancements in ARC instrumentation are also highlighted, including improvements in varying thermal inertia, heat capacity measurement, heat dissipation correction, temperature range expansion, in-situ calibration, and performance evaluation. Given the growing application of ARC in lithium-ion batteries (LIBs), this section also discusses key features of ARC tailored for LIBs, such as versatile testing modes and the ability to accommodate larger sample sizes. The second section addresses kinetics. It reviews the progress of both model-fitting and model-free kinetic approaches, providing insights into their applications and advancements in the field. The third section explores applications. It introduces the use of ARC in studying thermal behaviors, chemical process safety, and lithium-ion batteries. These applications demonstrate the versatility and importance of ARC in various domains. Finally, the review concludes with future perspectives, emphasizing the need to consider temperature gradients, further advancements in kinetic approaches, and the extension of ARC applications to new areas.
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加速速率量热法:历史、现状和前景
加速量热法(ARC)是研究化学反应动力学、评价和热危害的一项重要技术。本文综述了ARC的发展历史。第一部分重点介绍工具。本节阐述了电弧的演变,涵盖了经典的方法和先进的技术,如压力跟踪和功率补偿。ARC仪器的最新进展也得到了强调,包括在变热惯性、热容测量、散热校正、温度范围扩展、原位校准和性能评估方面的改进。鉴于ARC在锂离子电池(lib)中的应用越来越多,本节还讨论了为锂离子电池量身定制的ARC的关键特性,例如通用测试模式和适应更大样本量的能力。第二部分讨论动力学。它回顾了模型拟合和无模型动力学方法的进展,提供了它们在该领域的应用和进展的见解。第三部分探讨应用程序。它介绍了ARC在研究热行为、化学过程安全性和锂离子电池中的应用。这些应用证明了ARC在各个领域的多功能性和重要性。最后,总结了未来的展望,强调需要考虑温度梯度、动力学方法的进一步进展以及ARC应用的新领域。
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