专用微结构反应器强化臭氧分解反应的研究&

IF 3.1 3区 化学 Q2 CHEMISTRY, MULTIDISCIPLINARY
Dominik Polterauer, Dominique M. Roberge, Paul Hanselmann, Petteri Elsner, Christopher A. Hone and C. Oliver Kappe
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引用次数: 4

摘要

臭氧分解反应通常是高产、高选择性和可持续的过程,特别是在绿色溶剂中进行时。然而,由于处理臭氧(O3)气体和高活性臭氧中间体的安全问题,臭氧分解在有机合成和化学制造中未得到充分利用。在这篇文章中,发展臭氧分解反应在一个专用的微反应器平台适合气-液转化描述。对臭氧分解环己烯制己二醛、硫代苯甲醚制甲基苯基亚砜的反应条件进行了优化。在0℃条件下,1.7秒内环己烯以94%的产率转化为己二醛。以类似的方式,硫代苯甲醚在0°C下在1秒内以99%的收率实现臭氧分解。利用3D打印热流量热计测量了硫代苯甲醚臭氧分解的反应热,其值为- 165±4 kJ mol?1。3小时的长时间运行实现了1.77克小时的吞吐量。甲基苯基亚砜的时空产率为1.84 kg L?1 h ?对于这个强化的过程。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Process intensification of ozonolysis reactions using dedicated microstructured reactors†

Process intensification of ozonolysis reactions using dedicated microstructured reactors†

Ozonolysis reactions are generally high-yielding, highly selective, and sustainable processes, especially when performed in green solvents. However, ozonolysis is underutilized in organic synthesis and chemical manufacture due to the safety concerns associated with handling ozone (O3) gas and the highly reactive ozonide intermediate. In this article, the development of ozonolysis reactions within a dedicated microreactor platform suitable for gas–liquid transformations is described. The optimization of the reaction conditions for the ozonolysis of cyclohexene to hexanedial, and thioanisole to methyl phenyl sulfoxide is presented. Cyclohexene is transformed to hexanedial in 94% yield at 0 °C within 1.7 seconds. In a similar fashion, the ozonolysis of thioanisole was achieved in 99% yield at 0 °C within <1 second. A 3D printed heat flow calorimeter was used to measure the heat of reaction for the ozonolysis of thioanisole, giving a value of ?165 ± 4 kJ mol?1. A 3 hour long run achieved a throughput of 1.77 g h?1 for methyl phenyl sulfoxide, which corresponds to a space time yield of 1.84 kg L?1 h?1 for this intensified process.

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来源期刊
Reaction Chemistry & Engineering
Reaction Chemistry & Engineering Chemistry-Chemistry (miscellaneous)
CiteScore
6.60
自引率
7.70%
发文量
227
期刊介绍: Reaction Chemistry & Engineering is a new journal reporting cutting edge research into all aspects of making molecules for the benefit of fundamental research, applied processes and wider society. From fundamental, molecular-level chemistry to large scale chemical production, Reaction Chemistry & Engineering brings together communities of chemists and chemical engineers working to ensure the crucial role of reaction chemistry in today’s world.
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