按月进行快速气候压力测试的综合框架

K. Fowler, Natasha Ballis, A. Horne, A. John, R. Nathan, M. Peel
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引用次数: 6

摘要

“自下而上”的方法越来越多地用于评估水系统对气候变化的脆弱性。这些方法的核心是气候“压力测试”,即系统受到各种气候变化的影响,以测试不可接受的结果。我们提出了一个以月为时间步长的气候压力测试框架,适用于主要动力是季节性或更长时间的系统。具有结转储存的水资源系统)。该框架将多站点随机气候生成与微扰方法和内置降雨径流模型相结合。随机生成包括适合表示多年波动的低频分量。提供了多种扰动选项,从简单的增量变化到改变的季节性和低频动态。该框架运行迅速,支持全面的多维压力测试,而无需借助于超级计算设施。我们在澳大利亚南部的一个大型水资源系统中演示了该框架。Matlab/Octave框架可以从https://doi.org/10.5281/zenodo.5617008免费下载。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Integrated framework for rapid climate stress testing on a monthly timestep
“Bottom-up” methods are increasingly used to assess the vulnerability of water systems to climate change. Central to these methods is the climate “stress test”, where the system is subjected to various climatic changes to test for unacceptable outcomes. We present a framework for climate stress testing on a monthly timestep, suitable for systems whose dominant dynamic is seasonal or longer (eg. water resource systems with carry-over storage). The framework integrates multi-site stochastic climate generation with perturbation methods and in-built rainfall runoff modelling. The stochastic generation includes a low frequency component suitable for representing multi-annual fluctuations. Multiple perturbation options are provided, ranging from simple delta change through to altered seasonality and low frequency dynamics. The framework runs rapidly, supporting comprehensive multi-dimensional stress testing without recourse to supercomputing facilities. We demonstrate the framework on a large water resource system in southern Australia. The Matlab/Octave framework is freely available for download from https://doi.org/10.5281/zenodo.5617008.
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