Non-stationary precipitation design standards for stormwater infrastructure modernization at USAF installations

IF 4.8 2区 环境科学与生态学 Q1 ENVIRONMENTAL SCIENCES
Douglas C. Jaks , Ashish Shrestha , Christopher M. Chini
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Abstract

The resilience of defense infrastructure systems to a changing climate is critical for national security. Climate induced recurrent flooding is already impacting over 20 U.S. Air Force installations, underscoring the urgency of revisiting precipitation standards and stormwater infrastructure design. Despite growing scientific knowledge and an expanding set of tools for updating outdated precipitation standards based on the assumption of climate stationarity, the adoption of climate informed analyses remain limited in practice. This study utilizes an existing framework to update Intensity (or Depth)-Duration-Frequency (DDF) curves using an ensemble of future climate projections. Change factors in precipitation estimates are derived and applied to six USAF installations across the U.S. The analysis is further extended to evaluate the implications of climate-informed DDFs on stormwater infrastructure performance and flood analysis at Tyndall AFB. Results indicate that the current design precipitation estimates are likely to become obsolete in all six USAF bases by the end of the century. The wide range of change factors across 32 GCM ensembles highlights the need to integrate uncertainty and evolving scientific data into infrastructure planning. The study also finds that the impacts of a changing climate vary spatially and temporally, emphasizing the value of localized analysis for infrastructure decision-making. The work advances ongoing DoD and societal efforts to implement adaptation strategies aimed at enhancing infrastructure resilience.
美国空军设施雨水基础设施现代化的非固定降水设计标准
国防基础设施系统对气候变化的适应能力对国家安全至关重要。气候引起的经常性洪水已经影响了20多个美国空军设施,强调了重新制定降水标准和雨水基础设施设计的紧迫性。尽管科学知识不断增长,基于气候平稳性假设的过时降水标准的更新工具也越来越多,但在实践中采用气候信息分析仍然有限。本研究利用现有框架,利用未来气候预测的集合更新强度(或深度)-持续时间-频率(DDF)曲线。降水估算中的变化因子被导出并应用于美国六个空军基地。该分析进一步扩展到评估气候信息ddf对廷德尔空军基地雨水基础设施性能和洪水分析的影响。结果表明,到本世纪末,目前的设计降水估计可能在所有六个美国空军基地中过时。32个GCM整体的变化因素范围广泛,突出了将不确定性和不断发展的科学数据整合到基础设施规划中的必要性。研究还发现,气候变化的影响在空间和时间上存在差异,强调了基础设施决策的本地化分析的价值。这项工作推进了正在进行的国防部和社会努力,以实施旨在增强基础设施弹性的适应战略。
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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来源期刊
Climate Risk Management
Climate Risk Management Earth and Planetary Sciences-Atmospheric Science
CiteScore
8.20
自引率
4.50%
发文量
76
审稿时长
30 weeks
期刊介绍: Climate Risk Management publishes original scientific contributions, state-of-the-art reviews and reports of practical experience on the use of knowledge and information regarding the consequences of climate variability and climate change in decision and policy making on climate change responses from the near- to long-term. The concept of climate risk management refers to activities and methods that are used by individuals, organizations, and institutions to facilitate climate-resilient decision-making. Its objective is to promote sustainable development by maximizing the beneficial impacts of climate change responses and minimizing negative impacts across the full spectrum of geographies and sectors that are potentially affected by the changing climate.
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