多孔介质中捕获相的溶解传质

IF 1.4 Q3 ENGINEERING, MECHANICAL
Anindityo Patmonoaji, Yingxue Hu, Chunwei Zhang, T. Suekane
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引用次数: 2

摘要

多孔介质中捕获相(TP)向流动相(FP)的溶解传质在非水相液体污染地下水、地下水原位生物修复和地质固碳等水文地质研究中发挥着重要作用。本章将描述这种现象。首先,给出了物理模型和数学模型。然后,讨论了影响这一过程的各种条件,即多孔介质特性、毛细捕获特性、流旁通、TP特性和FP速度。根据影响溶解传质的三个参数:TP界面面积(A)、TP溶解比(ξ)和传质系数(k)来描述这些不同的条件。最后,基于无因次模型建立了传质预测模型。本章的所有数据都是基于我们最新工作中使用微层析成像和一系列图像处理技术获得的实验数据。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dissolution Mass Transfer of Trapped Phase in Porous Media
Dissolution mass transfer of trapped phase (TP) to flowing phase (FP) in porous media plays significant roles in hydrogeology, e.g., groundwater contamination by non-aqueous phase liquids, groundwater in-situ bioremediation, and geological carbon sequestration. In this chapter, this phenomenon is described. First, the physical and mathematical models are given. Afterwards, various conditions affecting this process, i.e., porous media characteristics, capillary trapping characteristics, flow bypassing, TP characteristics, and FP velocity, are discussed. These various conditions are described based on three parameters affecting the dissolution mass transfer: TP interfacial area (A), TP dissolution ratio (ξ), and mass transfer coefficient (k). Eventually, models to predict the mass transfer are formulated based on non-dimensional model. All of the data in this chapter are based on the experiments obtained by using micro-tomography and a series of image processing techniques from our latest works.
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CiteScore
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