用于固体-液体流动中非侵入性颗粒测量的温控小通道流动池

Mira Schmalenberg, Fabian Sallamon, Christian Haas, N. Kockmann
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引用次数: 4

摘要

固液悬浮流动常用于药品和精细化学品的生产。在这些领域,为了节省成本和资源,使用连续的小型设备越来越受到关注。因此,实现小型设备的过程控制也很重要,这需要开发新的概念来观察和控制小通道设备中的结晶过程。颗粒和晶体的检测和测量应尽可能降低冲击,因为过程介质与传感器之间的接触通常会导致传感器的结块,扰乱颗粒的大小和形状,或污染系统。为了观察小通道结晶器中的结晶过程,设计了一种非侵入式温控流动池。特别地,该流动池已被设计用于检测内径为1.6毫米的氟化乙丙烯(FEP)管中的晶体。晶体可以用标准的光学照相机和显微镜来研究。图像处理程序使晶体尺寸的评估。这对于过程和晶体尺寸分布的评估是至关重要的,这通常是结晶过程中的质量标准。该贡献将展示如何构建两相流的流池和评估程序的实现。在实验数据的基础上,阐述了该设备的适用性和评价方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Temperature-Controlled Minichannel Flow-Cell for Non-Invasive Particle Measurements in Solid-Liquid Flow
Solid-liquid suspension flow is often involved in the production of pharmaceuticals and fine chemicals. In these fields, working with continuous small-scale equipment in order to save costs and resources is of increasing interest. Therefore, it is also important to enable process control for small-scale apparatus, which requires the development of new concepts to observe and control crystallization processes in minichannel equipment. The particles and crystals should be detected and measured with as low impact as possible because contact between process medium and the sensors can often lead to the incrustation of the sensor, disturb the particle size and shape, or contaminate the system. For the observation of crystallizing processes in minichannel crystallizers, a non-invasive, temperature-controlled flow-cell is designed in this work. In particular, this flow cell has been designed to examine crystals in a fluorinated ethylene propylene (FEP) tube with an inner diameter of 1.6 mm. Crystals can be investigated using a standard optical camera and microscope. An image processing routine enables the evaluation of crystal size. This is crucial for the assessment of the process and crystal size distribution, which is often a quality criterion in the crystallization process. The contribution will show how the flow-cell for two-phase flow is constructed and the evaluation routine is implemented. Based on experimental data, the applicability of the equipment and the evaluation method are described.
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