Tickner Ben J, Singh Kawarpal, Zhivonitko Vladimir V, Telkki Ville-Veikko
Department of Chemistry, University of York, Heslington, York YO10 5NY, United Kingdom.
Department of Chemistry, University of Cambridge, Cambridge CB2 1EZ, United Kingdom.
ACS Phys Chem Au. 2024 Jul 24;4(5):453-463. doi: 10.1021/acsphyschemau.4c00042. eCollection 2024 Sep 25.
Ultrafast nuclear magnetic resonance (NMR) uses spatial encoding to record an entire two-dimensional data set in just a single scan. The approach can be applied to either Fourier-transform or Laplace-transform NMR. In both cases, acquisition times are significantly shorter than traditional 2D/Laplace NMR experiments, which allows them to be used to monitor rapid chemical transformations. This Perspective outlines the principles of ultrafast NMR and focuses on examples of its use to detect fast molecular conversions with high temporal resolution. We discuss how this valuable tool can be applied in the future to study a much wider variety of novel reactivity.
超快核磁共振(NMR)利用空间编码在单次扫描中记录完整的二维数据集。该方法可应用于傅里叶变换或拉普拉斯变换核磁共振。在这两种情况下,采集时间都比传统的二维/拉普拉斯核磁共振实验显著缩短,这使得它们可用于监测快速的化学转变。本综述概述了超快核磁共振的原理,并重点介绍了其用于以高时间分辨率检测快速分子转化的实例。我们讨论了这个有价值的工具未来如何应用于研究更多种类的新型反应性。