Design and Scale-up of Modular Capillary Helical Flow Inverter Reactors With Narrow Residence Time Distribution

N. Kockmann, W. Krieger, Mira Schmalenberg
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Abstract

Lab-on-chip processes often require long dwelling times leading to coiled capillary reactors with laminar flow. These tubular reactors are designed for a reaction time, unfortunately with a wide residence time distribution. This contribution presents a modular concept based on coiled flow inverters (CFI), which achieve high radial mixing with narrow residence time distribution at low Reynolds numbers [1]. The modular design enables quick adaptation to changing residence times and flow rates with low pressure loss. The tube diameters range from capillaries with a few 100 μm to several millimeters for high throughput and long residence time. With the aid of a design space diagram, the required pipe diameters and lengths can be quickly determined based on standardized coil diameters [2]. The modular concept enables various arrangements for different residence time and flow rate requirements with minimum pressure loss. In the laboratory, for example, a chemical process in the throughput range of a few grams per hour can be developed and processed in the simple device. The results can be scaled via the platform concept to higher production rates with constant residence time characteristics. The scale-up concept can easily be displayed and designed graphically in the reactor performance diagram.
窄停留时间分布模块化毛细管螺旋流反相反应器的设计与放大
芯片上的实验室过程通常需要很长的停留时间,导致螺旋毛细管反应器与层流。这些管式反应器是为反应时间设计的,不幸的是停留时间分布很广。这一贡献提出了基于螺旋流逆变器(CFI)的模块化概念,该概念在低雷诺数下实现了高径向混合和窄停留时间分布[1]。模块化设计可以快速适应不断变化的停留时间和流量,同时降低压力损失。管道直径从100 μm到几毫米不等,具有高通量和长停留时间。借助设计空间图,可以根据标准化的盘管直径快速确定所需的管径和长度[2]。模块化的概念使不同的停留时间和流量要求能够以最小的压力损失进行各种安排。例如,在实验室中,可以在简单的装置中开发和处理吞吐量范围为每小时几克的化学过程。结果可以通过平台概念扩展到具有恒定停留时间特性的更高产量。放大的概念可以很容易地在反应器性能图中图形化地显示和设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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