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第 46 卷             胡倩然,等: 基于人工神经网络的居民住宅燃气爆炸后果预测                                 第 5 期

               的增大与空间布局的复杂化,最大超压与温度均呈递增趋势。客厅因空间开阔、泄压条件良好,始终表
               现为最低水平超压;而卧室内未设窗口的墙体附近则易形成超压与温度的极值区域。此外,厨房和卧室
               点火分别可导致室内产生最严重的超压和温度后果,反映出点火位置对爆炸后果的差异化影响规律。
                   本文中预测模型,属于机器学习在气体爆炸灾害预测领域中的初步探索,为具有典型分隔结构的居
               民住宅爆炸后果快速评估提供了有效工具。为提升模型的泛化能力与工程普适性,未来工作应着重于:
               引入可以量化障碍物分布与泄压条件的建筑拓扑参数作为显式输入,并构建涵盖更广泛户型的大规模
               数据集,以驱动更精准、鲁棒性更强的智能预测模型发展。


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