流动化学作为高通量实验的工具

IF 6.2 Q1 CHEMISTRY, MULTIDISCIPLINARY
George Lyall-Brookes, Alex C. Padgham and Anna G. Slater
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引用次数: 0

摘要

通过技术和自动化的进步,化合物和工艺的发现、筛选和优化的方式正在发生变化。高通量实验(HTE)是该领域最流行的技术之一,应用于广泛的化学领域。然而,在处理挥发性溶剂方面的挑战等限制意味着它并不适合所有应用,并且扩大规模可能需要从最初的高通量筛选(HTS)开始进行广泛的重新优化。这些挑战可以通过将HTS与其他支持技术(如流动化学)相结合来解决。流动的使用也扩大了可用的工艺窗口,使化学反应能够在批量高温超导下进行,这是极具挑战性的。本文将重点介绍流动化学方法在高温超导领域的六个研究领域的主要贡献,概述其应用、能力和优势,最后对该技术的未来发展方向进行评论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Flow chemistry as a tool for high throughput experimentation

Flow chemistry as a tool for high throughput experimentation

The way in which compounds and processes are discovered, screened, and optimised is changing, catalysed via the advancement of technology and automation. High throughput experimentation (HTE) is one of the most prevalent techniques in this area, with applications found across a broad spectrum of chemical fields. However, limitations such as challenges in handling volatile solvents mean it is not suitable for all applications, and scale-up can require extensive re-optimisation from an initial high throughput screening (HTS). These challenges can be addressed by coupling HTS with other enabling technologies, such as flow chemistry. The use of flow also widens available process windows, giving access to chemistry that is extremely challenging to carry out under batch-wise HTS. This review will highlight key contributions of flow chemistry approaches for HTS across six research areas, outlining applications, capabilities and benefits, finishing with comments on future directions for the technology.

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CiteScore
2.80
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