Design considerations for dynamic fluid flow in porous media experiments using X-ray computed micro tomography – A review

Tannaz Pak , Nathaly Lopes Archilha , Steffen Berg , Ian B. Butler
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Abstract

Within the past decade, X-ray micro computed tomography (µCT) has become an advanced non-destructive tool to analyse the internal structure of opaque materials. In addition to high spatial resolution, new generations of laboratory-based µCT machines and synchrotron imaging facilities can achieve high temporal resolution. This makes µCT the method of choice to study dynamics processes such as multi-phase fluid flow within porous media at the micro-meter scale. To perform such experiments a system compatible with X-ray imaging is needed. This essentially includes an X-ray transparent flow cell which should both be compatible with the requirements of the experimental study and the constraints of the µCT facilities. So far, most µCT flow cells are custom built and optimised for specific experiments/purposes. This paper reviews the previously published X-ray transparent cell designs, their advantages, and limitations. We present the state-of-the-art in design of X-ray transparent flow systems and discuss the technical challenges around performing µCT-based fluid flow experiments. We also present a review of the main applications which have benefited from µCT imaging studies and discuss the flow cell designs according to applications.

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用x射线计算机微层析成像在多孔介质实验中动态流体流动的设计考虑。综述
在过去的十年里,X射线显微计算机断层扫描(µCT)已成为分析不透明材料内部结构的先进无损工具。除了高空间分辨率外,新一代基于实验室的µCT机器和同步加速器成像设施还可以实现高时间分辨率。这使得µCT成为在微米尺度上研究多孔介质内多相流体流动等动力学过程的首选方法。为了进行这样的实验,需要与X射线成像兼容的系统。这基本上包括一个X射线透明流动池,该流动池应与实验研究的要求和µCT设施的限制相兼容。到目前为止,大多数µCT流动池都是为特定实验/目的定制和优化的。本文综述了先前发表的X射线透明细胞设计、它们的优点和局限性。我们介绍了X射线透明流动系统的最先进设计,并讨论了基于µCT的流体流动实验的技术挑战。我们还回顾了受益于µCT成像研究的主要应用,并讨论了根据应用的流动池设计。
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