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A fluid-structure interaction (FSI) and energy generation modelling for roof mounted renewable energy installations in buildings for extreme weather and typhoon resilience

机译:用于极端天气和台风弹性的建筑物屋顶安装可再生能源装置的流体结构相互作用(FSI)和能量产生建模

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The Philippines is visited by an average of 20 typhoons every year. Due to the damage to the infrastructure caused by the Typhoon, communities devastated by the typhoon are left without power. Solar panels can supply power to the affected community during power outages. However, these installations are also structurally vulnerable to extreme weather such as typhoons strength winds. A Fluid Structure Interaction (FSI) is implemented in a low-rise gabled building with roof mounted solar panels. This building was subjected to typhoon strength winds using Computational Fluid Dynamics (CFD) analysis. Building energy simulation (BES) was also performed in the same building to account for solar PV energy generation and energy consumption. The results from the FSI showed the areas of failure in the panels with regards to installation location. On the other hand, BES results showed that the highest power generation potential is based on the building orientation at 90 degrees and roof pitch of 14 degrees. It was suggested to install the panel system configuration to a 26 degrees pitch roof to sustain occupancy loads. This framework which combines energy systems resilience and building energy performance can help the stakeholders to properly plan and design better disaster resilient infrastructures. Crown Copyright (C) 2020 Published by Elsevier Ltd. All rights reserved.
机译:菲律宾每年平均地访问20间台风。由于台风造成的基础设施造成损害,由台风毁坏的社区没有动力。太阳能电池板可以在停电期间向受影响的社区供电。然而,这些装置也在结构上容易受到极端天气的影响,例如Typhoons强度风。流体结构相互作用(FSI)在具有屋顶安装太阳能电池板的低层手机建筑中实现。使用计算流体动力学(CFD)分析,该建筑物受到台风强度风。建筑能量仿真(BES)也在同一建筑物中进行,以考虑太阳能光伏能量产生和能耗。 FSI的结果显示了在安装位置的面板中的故障区域。另一方面,BES结果表明,最高发电势基于90度和屋顶间距为14度的建筑方向。建议将面板系统配置安装到26度的音高屋顶以维持占用载荷。该框架结合了能量系统的弹性和建筑能量性能可以帮助利益相关者正确规划和设计更好的灾害弹性基础设施。 Crown版权所有(c)2020由elestvier有限公司出版的所有权利保留。

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