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Simulation and application of a detecting rapid response model for the leakage of flammable liquid storage tank

机译:易燃液体储罐泄漏检测快速响应模型的仿真与应用

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摘要

The oil terminal is a facility for oil transportation and storage. Flammable gas detectors (FGDs) are able to reliably detect the release of hazardous liquid chemical materials in the tank area, but it cannot accurately obtain the key detecting parameters at the alarm time. This work analyzes the three stages of storage tank leakages under a static storage state. Firstly, the key elements affecting the leakage and detection are analyzed after considering the relative-position relationship of the horizontal distance from the jet point on ground level to the leak hole (X-jet), which denoted by the FGD's coordinate and the wind direction. Secondly, the denser-than-air dispersion is calculated by the SLAB model based on the liquid-pool radius determined by the bisection method (r), the liquid pool area corresponding to the alarm-response time can be ascertained, and then the detecting rapid response model (DRRM) for the leakage of the flammable liquid storage tank is established. Finally, the model was verified by a small-scale tank leakage and some crucial parameters such as X-jet, rand area of liquid pool, mass accumulating during the continuous leakage period (M) and total leaking time that corresponds to the time to alarm (T-total)are obtained. These findings provide scientific data for providing early warning and emergency response. (C) 2020 Published by Elsevier B.V. on behalf of Institution of Chemical Engineers.
机译:石油码头是油运输和储存的设施。易燃气体探测器(FGDS)能够可靠地检测罐区域中危险液体化学材料的释放,但不能准确地获得闹钟时间的关键检测参数。这项工作在静态存储状态下分析了储罐泄漏的三个阶段。首先,在考虑从地面水平的水平距离与泄漏孔(X喷射)的水平距离的相对位置关系之后分析影响泄漏和检测的关键元件,该漏洞由FGD坐标和风向表示。其次,通过基于由双分型方法(R)确定的液晶池半径的板式模型计算更密集的 - 比空气分散,可以确定与警报响应时间对应的液体池区域,然后检测建立了易燃液体储罐泄漏的快速响应模型(DRRM)。最后,通过小规模罐泄漏和一些关键参数(如X-Jet,Rand面积)验证了该模型,在连续泄漏时段(M)期间的质量累积和对应于警报时间的总泄漏时间(T-总计)获得。这些调查结果提供了用于提供预警和应急响应的科学数据。 (c)由elsevier b.v发表的2020年代代表化学工程师机构。

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