利用分子动力学模拟反向电渗析中外力对碳纳米管颗粒分散和物质渗透性的影响

Q1 Chemical Engineering International Journal of Thermofluids Pub Date : 2024-10-18 DOI:10.1016/j.ijft.2024.100915
Dheyaa J. Jasim , Ali B.M. Ali , Abdulrahman A. Almehizia , Amer Alhaj Zen , Soheil Salahshour , Sh. Esmaeili
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引用次数: 0

摘要

背景采用新型技术和解决方案对生产清洁水至关重要。本研究旨在分析外力(EF)对反向电渗析中碳纳米管通道形态、颗粒分散和物质渗透性的影响。这项研究是通过研究分子运动的计算机模拟完成的。这项研究旨在利用反向电渗析方法研究 EF 对颗粒分散和物质通过碳纳米管的渗透性的影响。结果表明,EF 值从 0.0001 到 0.0005 eV/Å,电流和流体流动强度从 5.31 e/ns 和 211.31 atom/ns 增加到 5.62 e/ns 和 263.01 atom/ns。此外,密度从 4.83 原子/纳米3 下降到 4.66 原子/纳米3。通过了解 EF 对颗粒运动和材料通过碳纳米管的影响,研究人员可以优化反向电渗析系统的设计,从而提高其性能。这将带来更有效、更具成本效益的水处理解决方案,对生产清洁水至关重要。
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Effect of external force on the dispersion of particles and permeability of substances via carbon nanotubes in reverse electrodialysis using molecular dynamics simulation

Background

Using novel technologies and solutions is crucial for producing clean water. There are different ways to remove dissolved salts from water.

Methods

This study aimed to analyze the effect of an external force (EF) on the morphology of channels, the dispersion of particles, and the permeability of substances via carbon nanotubes in reverse electrodialysis. It was done using a computer simulation that studied the movement of molecules. This research aimed to study the effect of EF on the dispersion of particles and permeability of substances via carbon nanotubes using a reverse electrodialysis approach. The results show that increasing the EF from 0.0001 to 0.0005 eV/Å increased the electric current and fluid flow intensity from 5.31 e/ns and 211.31 atom/ns to 5.62 e/ns and 263.01 atom/ns. Moreover, the density decreased from 4.83 to 4.66 atom/nm3. Furthermore, the number of broken hydrogen bonds increased from 116 to 166.

Significant findings

By understanding the effect of EF on particle movement and material passage through carbon nanotubes, researchers can optimize the design of reverse electrodialysis systems to enhance their performance. This can lead to more effective and cost-efficient water treatment solutions, crucial for producing clean water.
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来源期刊
International Journal of Thermofluids
International Journal of Thermofluids Engineering-Mechanical Engineering
CiteScore
10.10
自引率
0.00%
发文量
111
审稿时长
66 days
期刊最新文献
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