基于多尺度agent的地下水污染管理分布式模拟框架

S. Schmidt, C. Picioreanu, B. Craenen, R. Mackay, Jan-Ulrich Kreft, G. Theodoropoulos
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引用次数: 4

摘要

地下水就像暗物质——除了知道它非常重要之外,我们所知甚少。由于数据的缺乏,数学模型可以起到一定的作用,但现有的地下水模型主要局限于通过平均空间异质性对污染物对降解生物的可利用性的影响,在整个污染场地的尺度上模拟污染物的迁移和降解。因此,这些粗尺度平均场模型往往依赖于对数据的拟合,而不是预测。此外,它们不太适合纳入空间变异性和非线性动力学和反馈。我们建议通过开发一个灵活而强大的分布式模拟框架来解决环境补丁性和数据稀缺性这两个相互加剧的问题,该框架使用在不同处理器/计算机上运行的小规模模拟集合来扩大规模,即将小规模补丁性的影响输入到地下水污染物降解动态的并发站点尺度模拟中。我们的缩放方法通过在小尺度上模拟动力学来解决问题#1,其中一些补丁存在,问题#2通过使用实验室数据对我们的小尺度模型和缩放方法进行严格验证,这是低成本的高质量。
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A Multi-scale Agent-Based Distributed Simulation Framework for Groundwater Pollution Management
Groundwater is like dark matter -- we know very little apart from the fact that it is hugely important. Given the scarcity of data, mathematical modelling can come to the rescue but existing groundwater models are mainly restricted to simulate the transport and degradation of contaminants on the scale of whole contaminated field sites by averaging out the effect of spatial heterogeneity on the availability of the pollutant to the degrading organisms. These coarse-scale mean-field models therefore tend to rely on fitting to data rather than being predictive. Also, they are less suited to incorporate spatial variability and non-linear kinetics and feedbacks. We propose to solve the two mutually exacerbating problems of environmental patchiness and data scarcity by developing a flexible and robust distributed simulation framework that uses an ensemble of small scale simulations running on different processors/computers to scale-up, i.e. to feed the effect of small-scale patchiness into a concurrent site-scale simulation of the dynamics of groundwater pollutant degradation. Our scaling approach solves problem #1 by simulating dynamics also on the small scale where some of the patchiness resides, and problem #2 by enabling rigorous validation of our small-scale model and scaling approach with laboratory data, which are high quality at low cost.
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