微型反应器
连续反应器
批处理
化学
传质
间歇式反应器
毛细管作用
混合(物理)
塞流
试剂
连续流动
流动化学
工艺工程
色谱法
材料科学
热力学
有机化学
计算机科学
机械
催化作用
工程类
物理
复合材料
量子力学
程序设计语言
作者
Jens Bobers,Julia Grühn,Stefan Höving,Tobias Pyka,Norbert Kockmann
标识
DOI:10.1021/acs.oprd.0c00152
摘要
The transfer of batch processes to continuous flow is a major driver for the application of microreactors. Here, we present a methodology for the transfer of (bio)chemical reactions in batch mode to two-phase continuous flow. For our purposes, the coiled flow inverter (CFI) is a promising reactor design providing enhanced heat and mass transfer, narrow residence time distribution, and rapid mixing. First, this methodology is used for current development of a droplet-based reaction screening system, which was first tested with a Paal–Knorr pyrrole synthesis as model reaction. The reaction was successfully performed in the automated screening system. The yields compared to the batch mode revealed enhanced mass transfer of the product into the continuous phase. Second, we investigated the biocatalyzed oxidation of ABTS by the enzyme laccase in a straight capillary for process development in a CFI. Because of its high flexibility regarding substrate specificity, laccase oxidizes many substrates with a colored product. Hence, an optical evaluation method for determination of reaction rate is used. We compare the Michaelis–Menten kinetic of the batch reaction and the continuous reaction in a capillary. The results show that the batch reaction can be mapped to the capillary setup. However, the capillary in continuous operation enables higher screening capacity of different reaction conditions and simple scale-up procedure.
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