Derivation of a pH Dependent Solid-Liquid Interfacial Tension and Theoretical Interpretation of the Physicochemistry of Dewetting in the CO2-Brine-Silica System

M. Amadu, A. Miadonye
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引用次数: 3

Abstract

The solid-liquid interfacial tension is a fundamental parameter in areas of wettability pertaining to adhesive bonds and petroleum engineering practice. In wettability issues related to surface functionalized polymeric materials design to achieve specific adhesive properties, the solid-liquid interfacial tension can be pH dependent due to amphoteric behavior. In this paper, we have used the theory of pH dependent surface charging and the 2-pk model as well as the site binding model of the electric double layer theory to derive a pH dependent solid-liquid interfacial tension equation. Following the fundamental relationship between solid-liquid interfacial tension and contact angle in light of Young’s equation, we have extended the theoretical basis of the derivation. Consequently, we have also derived a pH dependent cosine of the thermodynamic contact angle. Both equations give satisfactory explanations for observed experimental data available in the literature.
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pH依赖固液界面张力的推导及co2 -卤水-二氧化硅体系脱湿物理化学的理论解释
固液界面张力是与黏合剂和石油工程实践有关的润湿性领域的一个基本参数。在与表面功能化聚合物材料设计相关的润湿性问题中,由于两性行为,固液界面张力可能与pH值有关。本文利用pH依赖表面充电理论和2-pk模型以及双电层理论的位点结合模型,推导出了pH依赖固液界面张力方程。从杨氏方程出发,根据固液界面张力与接触角的基本关系,扩展了推导的理论基础。因此,我们也推导出了与pH值有关的热力学接触角余弦。这两个方程对文献中观测到的实验数据都给出了令人满意的解释。
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