Lowry Christopher S, Anderson Mary P
Department of Geology and Geophysics, University of Wisconsin-Madison, 1215 West Dayton Street, Madison, WI 53706, USA.
Ground Water. 2006 Sep-Oct;44(5):661-7. doi: 10.1111/j.1745-6584.2006.00237.x.
Owing to increased demands on ground water accompanied by increased drawdowns, technologies that use recharge options, such as aquifer storage recovery (ASR), are being used to optimize available water resources and reduce adverse effects of pumping. In this paper, three representative ground water flow models were created to assess the impact of hydrogeologic and operational parameters/factors on recovery efficiency of ASR systems. Flow/particle tracking and solute transport models were used to track the movement of water during injection, storage, and recovery. Results from particle tracking models consistently produced higher recovery efficiency than the solute transport models for the parameters/properties examined because the particle tracking models neglected mixing of the injected and ambient water. Mixing between injected and ambient water affected recovery efficiency. Results from this study demonstrate the interactions between hydrogeologic and operational parameters on predictions of recovery efficiency. These interactions are best simulated using coupled numerical ground water flow and transport models that include the effects of mixing of injected water and ambient ground water.
由于对地下水的需求增加以及水位下降加剧,诸如含水层储存回灌(ASR)等采用回灌方案的技术正被用于优化可用水资源并减少抽水的不利影响。本文创建了三个具有代表性的地下水流模型,以评估水文地质和运行参数/因素对ASR系统回灌效率的影响。水流/质点追踪模型和溶质运移模型被用于追踪注水、储水和回灌过程中水的运动。对于所研究的参数/特性,质点追踪模型的结果始终比溶质运移模型产生更高的回灌效率,因为质点追踪模型忽略了注入水与周围水的混合。注入水与周围水之间的混合影响回灌效率。本研究结果表明了水文地质和运行参数在回灌效率预测方面的相互作用。使用耦合的数值地下水流和运移模型来模拟这些相互作用效果最佳,这类模型包括注入水与周围地下水混合的影响。