Fire Protection of Steel Structures of Oil and Gas Facilities: Multilayer, Removable, Non-Combustible Covers

Fire Pub Date : 2024-03-14 DOI:10.3390/fire7030086
M. Gravit, Vasiliy Prusakov, Nikita Shcheglov, Irina Kotlyarskaya
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Abstract

Fire protection is required to protect metal structures of oil and gas facilities from fires. Such fire protection should provide high fire resistance limits: 60, 90, 120 and more minutes. Specialists of LLC “RPC PROMIZOL ” developed a multilayer, removable type of fire protection made of superfine basalt fibre and ceramic materials for operation in Arctic conditions. Five experimental studies were carried out in standard and hydrocarbon fire regimes. The fire protection effectiveness of the products for I20 beams without load was obtained: a 50 mm thick coating provided 130 min of a standard fire regime; a 15 mm thick coating provided 60 min. The 15 mm thick coating provided 30 min of a hydrocarbon fire regime and the 50 mm thick coating provided 93 min of a hydrocarbon fire regime. The I40 beam under a load of 19.9 tf showed an R243 for the standard fire regime. The coefficients of effective thermal conductivity and specific heat capacity of fire-retardant compositions were determined by solving the inverse heat conduction problem. The problem was solved by modelling using the QuickField 7.0 software package, which implements FEM. Modelling showed that for obtaining the fire resistance limit R120 under the standard fire regime for the sample steel structure from an I40 beam, it is enough to apply fire protection with a thickness of 25 mm instead of 50 mm, which agrees with the experimental data. For the hydrocarbon regime, it is predicted that R120 can be obtained at a thickness of 45 mm instead of 50 mm.
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石油和天然气设施钢结构的防火保护:多层、可拆卸、不可燃外罩
石油和天然气设施的金属结构需要防火保护。这种防火措施应具有较高的耐火极限:60 分钟、90 分钟、120 分钟甚至更长。RPC PROMIZOL "有限责任公司的专家开发了一种由超细玄武岩纤维和陶瓷材料制成的多层可移动式防火保护装置,可在北极条件下使用。在标准和碳氢化合物火灾条件下进行了五项实验研究。在无负载的情况下,产品对 I20 梁的防火效果如下:50 毫米厚的涂层可提供 130 分钟的标准防火时间;15 毫米厚的涂层可提供 60 分钟的标准防火时间;15 毫米厚的涂层可提供 30 分钟的标准防火时间。15 毫米厚的涂层可提供 30 分钟的碳氢化合物火灾保护,50 毫米厚的涂层可提供 93 分钟的碳氢化合物火灾保护。荷载为 19.9 tf 的 I40 梁在标准火灾条件下显示为 R243。通过求解反热传导问题,确定了阻燃成分的有效热传导系数和比热容。该问题通过使用 QuickField 7.0 软件包进行建模来解决,该软件包实现了有限元分析。建模结果表明,在标准火灾条件下,要获得 I40 梁钢结构样本的耐火极限 R120,只需采用厚度为 25 毫米而不是 50 毫米的防火材料即可,这与实验数据一致。在碳氢化合物条件下,预计厚度为 45 毫米(而不是 50 毫米)时可获得 R120。
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