通过计算流体动力学建模的推拉式通风系统设计指南。

R. Rota, G. Nano, L. Canossa
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引用次数: 27

摘要

露天储罐在工业实践中经常使用。当涉及有害物质时,控制工人接触需要使用局部通风系统。推拉系统包括从油箱一侧吹出的一股空气,由另一侧的排气罩收集;该系统可节省高达50%的通风空气。设计这种通风系统有几个指导原则,主要基于实验结果。然而,它们的有效性局限在一个狭窄的操作窗口内。在这项工作中,使用了基于计算流体动力学开发的数学模型,将现有准则的有效性扩展到它们已被验证的范围之外,特别是涉及到储罐宽度和气流速度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design guidelines for push-pull ventilation systems through computational fluid dynamics modeling.
Open surface tanks often are used in industrial practice. When harmful substances are involved, control of worker exposure requires the use of a local ventilation system. The push-pull system, among others, involves a jet of air that is blown from one side of the tank and collected by an exhaust hood on the opposite side; this system can save up to 50% of the ventilation air. Several guidelines are available for design of such a ventilation system, mainly based on experimental results. However, their validity is confined inside a narrow operating window. In this work a mathematical model developed based on computational fluid dynamics has been used to extend the validity of the existing guidelines outside the range in which they have been validated, with particular reference to tank width and to the velocity of the air drafts.
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