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Integrated risk analysis of water-energy nexus systems based on systems dynamics, orthogonal design and copula analysis

机译:基于系统动力学,正交设计和关联分析的水能关系系统综合风险分析

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Within specific cities or regions, water and energy are intimately and highly interwoven, forming water-energy nexus (WEN) systems. Such a nexus system is complicated, leading to the generation of coupled risks of water and energy resources. In this research, an integrated approach of systems dynamics, orthogonal design and copula analysis (IA-SOC) was developed for supporting risk analysis of WEN systems. Innovations of this approach includes: 1) the development of a method through coupling system dynamics and orthogonal design, and 2) the combination of Copula analysis for supporting interactive risk assessment of both water and energy resources. The proposed approach was applied in Jing-Jin-Ji (J-J-J) region to deal with risk analysis of WEN and promote coordinated development. The results showed that: 1) the established system dynamics models can be employed to predict the water and energy demands; 2) the orthogonal table L-27 (3(13)) can be adopted to obtain the representative scenario combinations, which could be introduced into system dynamic models to obtain the water and energy demands over the planning period; 3) it was appropriate to employ Lognormal distribution to establish the marginal distribution function of water and energy resources, meanwhile the Bivariate Frank Copula function was adopted to construct the joint distribution function of WEN to quantify the inherent relationship between water and energy resources; 4) the demands for water and energy resources in J-J-J region over the planning period were [252.06, 290.7] billion m(3) and [433.67, 477.02] million tons of standard coal equivalent (S.C.E.), respectively. Correspondingly, the shortage risks of water and energy resources were [0.938, 0.981] and [0.835, 0.936]; and 5) different scenario combinations were set to identify the controlled amount of water and energy demands. The results could provide reasonable policy recommendations on the risk analysis of water and energy resources to promote regional coordinated development.
机译:在特定的城市或地区内,水和能源紧密且高度交织,形成了水能联系(WEN)系统。这样的联系系统很复杂,导致水和能源资源的耦合风险的产生。在这项研究中,开发了一种系统动力学,正交设计和关联分析(IA-SOC)的集成方法来支持WEN系统的风险分析。该方法的创新包括:1)通过耦合系统动力学和正交设计开发方法,以及2)结合Copula分析以支持对水资源和能源的交互式风险评估。该方法在京津冀(J-J-J)地区得到应用,以处理西非地区的风险分析并促进协调发展。结果表明:1)建立的系统动力学模型可用于预测水和能源需求。 2)可以采用正交表L-27(3(13))来获得代表性方案组合,可以将其引入系统动态模型中以获得规划期内的水和能源需求; 3)利用对数正态分布建立水资源和能源的边际分布函数是适当的,同时采用二元Frank Copula函数来构造WEN的联合分布函数,以量化水资源和能源之间的内在联系。 4)在规划期内,J-J-J地区对水资源和能源的需求分别为[252.06,290.7]亿立方米(3)和[433.67,477.02]百万标准煤当量(S.C.E.)。相应地,水资源和能源短缺风险分别为[0.938,0.981]和[0.835,0.936]; 5)设置了不同的方案组合,以识别控制量的水和能源需求。研究结果可为水资源和能源资源风险分析提供合理的政策建议,以促进区域协调发展。

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