3D Numerical Simulation for Thermal Protection of Phase Change Material-Integrated Firefighters' Turnout Gear.

Susan S Xu, Jonisha Pollard, Weihuan Zhao
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Abstract

This work aims to investigate and develop a novel phase change material (PCM)-integrated firefighters' turnout gear technology that would significantly enhance the thermal protection of firefighters' bodies from thermal burn injuries under high-heat conditions (such as in fire scenes). This work established a 3D human thermal simulation to explore the thermal protection improvements of firefighters' turnout gear by using PCM segments under flashover and hazardous conditions. This simulation study will guide future experimental design and testing effectively and save time and effort. The study found that the 3.0-mm-thick PCM segments with a melting temperature of 60°C could extend the thermal protection time for skin surface to reach second-degree burn injury (60°C) by one to three times under flashover conditions compared to the turnout gear without PCM. Moreover, thinner PCM segments, i.e., 1.0-3.0 mm thickness, could also significantly mitigate the skin surface temperature increase while avoiding the added weight on the turnout gear. The 3D modelling results can be used to develop a next-generation firefighter turnout gear technology.

相变材料集成消防员防护服热防护三维数值模拟。
本研究旨在调查和开发一种新型相变材料(PCM)集成消防员冲锋衣技术,该技术可显著提高消防员在高热条件下(如火灾现场)的热防护能力,防止热烧伤。这项工作建立了一个三维人体热模拟,以探索在闪蒸和危险条件下使用 PCM 部件对消防员冲锋衣热保护的改进。这项模拟研究将有效指导未来的实验设计和测试,并节省时间和精力。研究发现,与不含 PCM 的防护服相比,熔化温度为 60°C 的 3.0 毫米厚 PCM 片材可将闪光条件下皮肤表面达到二度烧伤(60°C)的热防护时间延长一至三倍。此外,更薄的 PCM 部件(即 1.0-3.0 毫米厚度)也能显著减轻皮肤表面温度的升高,同时避免增加道岔装置的重量。三维建模结果可用于开发下一代消防员防护装备技术。
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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