James Buttle Review: The Characteristics of Baseflow Resilience Across Diverse Ecohydrological Terrains

IF 3.2 3区 地球科学 Q1 Environmental Science Hydrological Processes Pub Date : 2025-03-15 DOI:10.1002/hyp.70101
Martin A. Briggs, Connor Newman, Joshua R. Benton, David M. Rey, Christopher P. Konrad, Valerie Ouellet, Christian E. Torgersen, Lance Gruhn, Brandon J. Fleming, Christopher Gazoorian, Daniel H. Doctor
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Abstract

The dynamic storage of aquifers is the portion of groundwater that can potentially drain to any given point along a stream to create baseflow. Baseflow typically occurs year-round in perennial streams, though the characteristics and stability of dynamic storage are often most important to instream processes during extended dry periods (without precipitation and snowmelt) when runoff and quickflows are minimised. The term ‘baseflow resilience’ is defined for this review as the tendency of baseflow in streams to maintain a consistent volume and water quality year to year while under stress from climate variability and extremes, along with anthropogenic stressors such as water withdrawals, land use change, and water quality degradation. ‘Baseflow resilience’ has, in part, a user-defined meaning spanning water supply and water quality variables of primary interest. Watershed characteristics that directly impact resilience can often produce non-intuitive feedbacks that enhance some attributes of baseflow while simultaneously impairing others. For example, permeable stream corridor geology creates strong stream-groundwater hydrologic connectivity, yet fast groundwater drainage via preferential high-permeability flowpaths can lead to streamflow not being sustained during extended dry periods. Also, shallow groundwater sources are generally more immediately vulnerable to extreme events, warming, salinization, transpiration, and precipitation drought, compared to deeper groundwater. Yet baseflow drought in streams influenced by deeper groundwater can lag precipitation drought by years, and contaminant legacies may propagate through deep groundwater flowpaths to receiving waters for decades to centuries. Finally, irrigation withdrawals can intercept groundwater that would have drained to streams, and the application of irrigation may leach contaminants from the soil zone by unnaturally raising water tables, yet irrigation return flows can sustain baseflow and groundwater-dependent habitats in semiarid areas. This review covers the concept of hydrologic resilience in the context of stream baseflow processes and summarises the common hydrogeological controls on, and multiscale stressors of, dynamic groundwater storage. Further, we present several quantitative metrics to assess a range of water supply to water quality baseflow characteristics using both broadly available and boutique data types, a subset of which are demonstrated using data from the Delaware River Basin, USA.

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含水层的动态储量是指有可能排泄到溪流沿岸任何给定点以形成基流的那部分地下水。在常年溪流中,基流通常全年都会出现,但在长期干旱期间(无降水和融雪),径流和急流最小时,动态储层的特性和稳定性通常对溪流过程最为重要。本报告中 "基流恢复力 "一词的定义是:当受到气候多变性和极端气候以及人为压力(如取水、土地利用变化和水质退化)的影响时,溪流中的基流仍能逐年保持稳定的水量和水质。基流恢复力 "在一定程度上是由用户定义的,涵盖了主要关注的供水和水质变量。直接影响恢复力的流域特征往往会产生非直观的反馈,在增强基流的某些属性的同时,损害其他属性。例如,渗透性强的溪流走廊地质可形成强大的溪流-地下水水文连接,但地下水通过高渗透性流道快速排泄会导致溪流在长期干旱期间无法维持。此外,与深层地下水相比,浅层地下水源通常更容易受到极端事件、气候变暖、盐碱化、蒸腾作用和降水干旱的影响。然而,受深层地下水影响的溪流基流干旱可能会比降水干旱滞后数年,污染物可能会通过深层地下水的流动路径传播到受纳水体数十年至数百年。最后,灌溉取水会截流本应排入溪流的地下水,而且灌溉可能会通过非自然地提高地下水位来浸出土壤中的污染物,但灌溉回流可维持半干旱地区的基流和依赖地下水的栖息地。本综述涵盖了溪流基流过程中的水文恢复力概念,并总结了动态地下水存储的常见水文地质控制和多尺度压力因素。此外,我们还介绍了几种定量指标,利用广泛可用的数据类型和精品数据类型来评估从供水到水质的一系列基流特征,其中一部分指标利用美国特拉华河流域的数据进行了演示。
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来源期刊
Hydrological Processes
Hydrological Processes 环境科学-水资源
CiteScore
6.00
自引率
12.50%
发文量
313
审稿时长
2-4 weeks
期刊介绍: Hydrological Processes is an international journal that publishes original scientific papers advancing understanding of the mechanisms underlying the movement and storage of water in the environment, and the interaction of water with geological, biogeochemical, atmospheric and ecological systems. Not all papers related to water resources are appropriate for submission to this journal; rather we seek papers that clearly articulate the role(s) of hydrological processes.
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