Rostami Milad, Green-Mignacca Santinah, Bucking Scott
Department of Civil and Environmental Engineering, Carleton University, 1125 Colonel By Drive, Ottawa, Ontario, K1S 5B6, Canada.
Data Brief. 2024 Jan 9;52:110036. doi: 10.1016/j.dib.2024.110036. eCollection 2024 Feb.
The increasing intensity and frequency of extreme weather events resulting from climate change have led to grid outages and other negative consequences. To ensure the resilience of buildings which serve as primary shelters for occupants, resilient strategies are being developed to improve their ability to withstand these extreme events (e.g., building upgrades and renewable energy generators and storage). However, a crucial step towards creating a resilient built environment is accurately estimating building performance during such conditions using historical extreme climate change-induced weather events. To conduct Building Performance Simulation (BPS) in extreme conditions, such as weather events induced by climate change, it is essential to utilize Actual Meteorological Year (AMY) weather files instead of Typical Meteorological Year (TMY) files. AMY files capture the precise climatic conditions during extreme weather events, enabling accurate simulation of such scenarios. These weather files provide valuable data that can be used to assess the vulnerabilities and resilience of buildings to extreme weather events. By analyzing past events and their impacts using BPS tools, we can gain insights into the specific weaknesses and areas that require improvement. This approach applies to both existing buildings needing climate change-resilient retrofits and new building designs that must be compatible with future climatic conditions. Moreover, the intensification and frequency increase of these extreme weather events makes developing adaptation and resilient-building measures imperative. This involves understanding the potential losses that households may experience due to the intensification of extreme events and developing farsighted coping strategies and climate-proof resilient-building initiatives. However, addressing the knowledge gap caused by the absence of an AMY weather file dataset of extreme events is essential. This will allow for accurate BPS during past extreme climate change-induced weather events. To fill this gap, this article introduces a comprehensive .epw format weather file dataset focusing on historical extreme weather events in Canada. This collection encompasses a diverse array of past extreme climate change occurrences in various locations, with potential for future expansion to include additional locations and countries. This dataset enables energy simulations for different types of buildings and considers a diverse range of historical weather conditions, allowing for better estimation of thermal performance.
气候变化导致的极端天气事件强度和频率不断增加,已引发电网停电及其他负面后果。为确保作为居住者主要庇护所的建筑物具备恢复力,正在制定恢复力策略以提高其抵御这些极端事件的能力(例如建筑升级、可再生能源发电机及储能设备)。然而,创建具有恢复力的建筑环境的关键一步是利用历史上由极端气候变化引发的天气事件,准确估算此类情况下的建筑性能。为在极端条件下(如由气候变化引发的天气事件)进行建筑性能模拟(BPS),使用实际气象年(AMY)天气文件而非典型气象年(TMY)文件至关重要。AMY文件捕捉了极端天气事件期间的精确气候条件,能够对此类场景进行准确模拟。这些天气文件提供了有价值的数据,可用于评估建筑物在极端天气事件中的脆弱性和恢复力。通过使用BPS工具分析过去的事件及其影响,我们可以深入了解具体的薄弱环节和需要改进的领域。这种方法适用于需要进行气候变化恢复力改造的现有建筑以及必须与未来气候条件相兼容的新建筑设计。此外,这些极端天气事件的强度增加和频率上升使得制定适应措施和恢复力建筑措施势在必行。这包括了解家庭可能因极端事件加剧而遭受的潜在损失,并制定有远见的应对策略和抗气候恢复力建筑倡议。然而,解决因缺乏极端事件的AMY天气文件数据集而导致的知识差距至关重要。这将使我们能够在过去由极端气候变化引发的天气事件期间进行准确的BPS。为填补这一差距,本文引入了一个全面的.epw格式天气文件数据集,该数据集聚焦于加拿大的历史极端天气事件。此集合涵盖了不同地点过去发生的各种极端气候变化情况,未来有可能扩展到包括更多地点和国家。该数据集能够对不同类型的建筑物进行能源模拟,并考虑了各种历史天气条件,从而更好地估算热性能。