CFD analysis of the effect of bed geometry on H2O adsorption and desorption efficiency

Pub Date : 2024-07-12 DOI:10.24425/ather.2024.151214
Szymon Janusz, Marcin Borcuch, Piotr Cyklis
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Abstract

The article presents a comprehensive computational fluid dynamics analysis of the adsorption and desorption cycles in adsorption refrigeration systems, focusing on the impact of the adsorbent bed geometry. The entire adsorption/desorption cycle has been modeled, allowing for the observation of events during the transitional period between processes and how these influence their progression. This approach is a novelty in the field. The developed numerical model was verified against experimental data available in the literature, demonstrating excellent convergence with the experiment, with a de-viation not exceeding 2%. The study illustrates how the geometrical parameters such as height and length of the bed affect the efficiency of the adsorption and desorption processes, emphasizing the importance of bed geometry in the adsorption of heat and mass exchangers in energy and adsorbate transfer. The research findings provide valuable insights for designing more efficient cooling devices using adsorption technology, highlighting the role of bed geometry in optimizing these systems. Modeling the entire adsorption/desorption cycle is a novelty and allows for the observation of what happens during the transitional period between processes and how this influences their progression.
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床层几何形状对 H2O 吸附和解吸效率影响的 CFD 分析
文章对吸附式制冷系统中的吸附和解吸循环进行了全面的计算流体动力学分析,重点关注吸附剂床几何形状的影响。本文对整个吸附/解吸循环过程进行了建模,从而可以观察两个过程之间的过渡时期发生的事件,以及这些事件如何影响两个过程的进展。这种方法在该领域尚属首次。根据文献中的实验数据对所开发的数值模型进行了验证,结果表明该模型与实验非常吻合,误差不超过 2%。研究说明了床层的高度和长度等几何参数如何影响吸附和解吸过程的效率,强调了床层几何参数在吸附热量和质量交换器的能量和吸附物传递中的重要性。研究成果为利用吸附技术设计更高效的冷却设备提供了宝贵的见解,突出了床层几何形状在优化这些系统中的作用。对整个吸附/解吸循环进行建模是一项创新,可以观察到过程之间的过渡时期发生了什么,以及这如何影响过程的进展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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