Seasonality and evaporation of water resources in Reynolds Creek Experimental Watershed and Critical Zone Observatory, Southwestern Idaho, USA

IF 2.5 3区 地球科学 Q3 ENVIRONMENTAL SCIENCES Vadose Zone Journal Pub Date : 2023-08-31 DOI:10.1002/vzj2.20278
M. Schlegel, Jennifer Souza, S. Warix, R. MacNeille, E. Murray, A. Radke, S. Godsey, M. Seyfried, B. Finney, G. Flerchinger, K. Lohse
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Abstract

The Reynolds Creek Experimental Watershed (RCEW) and Critical Zone Observatory (CZO), located south of the western Snake River Plain in the Intermountain West of the United States, is the site of over 60 years of research aimed at understanding integrated earth processes in a semi‐arid climate to aid sustainable use of environmental resources. Meteoric water lines (MWLs) are used to interpret hydrologic processes, though equilibrium and nonequilibrium processes affect the linear function and can reveal seasonal and climatological effects, necessitating the development of local meteoric water lines (LMWLs). At RCEW‐CZO, an RCEW LMWL was developed using non‐volume‐weighted, orthogonal regression with assumed error in both predictor and response variables from several years of precipitation (2015, 2017, 2019, 2020, and 2021) primarily at three different elevations (1203, 1585, and 2043 m). As most precipitation is evaporated or intercepted by vegetation in the driest months, an RCEW LMWL for groundwater recharge (RCEW LMWL‐GWR) was also developed using precipitation from the wettest months (November through April). The RCEW LMWL (δ2H = 7.41 × δ18O – 3.09) is different from the RCEW LMWL‐GWR (δ2H = 8.21 × δ18O + 9.95) and compares favorably to other LMWLs developed for the region and climate. Comparative surface, spring, and subsurface water datasets within the RCEW‐CZO are more similar to precipitation during the wettest months than dry months, illustrating that some semi‐arid hydrologic systems may most appropriately be compared to MWLs developed from precipitation only from the wettest season.
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美国爱达荷州西南部雷诺兹河实验流域和临界带观测站水资源的季节性和蒸发
Reynolds Creek实验流域(RCEW)和临界区观测站(CZO)位于美国西部山间的西斯内克河平原以南,是进行了60多年研究的地方,旨在了解半干旱气候下的综合地球过程,以帮助可持续利用环境资源。气象水线(MWL)用于解释水文过程,尽管平衡和非平衡过程会影响线性函数,并可以揭示季节和气候效应,因此有必要开发当地的气象水线(LMWLs)。在RCEW‐CZO,使用非体积加权正交回归法开发了RCEW LMWL,并假设了几年降水量(2015、2017、2019、2020和2021)的预测变量和响应变量的误差,主要分布在三个不同海拔(1203、1585和2043 m)。由于大多数降水在最干旱的月份被植被蒸发或拦截,因此还利用最潮湿月份(11月至4月)的降水制定了用于地下水补给的RCEW LMWL(RCEW LMW‐GWR)。RCEW LMWL(δ2H=7.41×δ18O–3.09)不同于RCEW LMWL‐GWR(δ2H=8.21×Δ18O+9.95),并且与针对该地区和气候开发的其他LMWL相比是有利的。RCEW‐CZO内的地表水、泉水和地下水数据集与最潮湿月份的降水量相比,更为相似,这表明一些半干旱的水文系统可以最恰当地与仅从最潮湿季节的降水量发展而来的MWL进行比较。
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来源期刊
Vadose Zone Journal
Vadose Zone Journal 环境科学-环境科学
CiteScore
5.60
自引率
7.10%
发文量
61
审稿时长
3.8 months
期刊介绍: Vadose Zone Journal is a unique publication outlet for interdisciplinary research and assessment of the vadose zone, the portion of the Critical Zone that comprises the Earth’s critical living surface down to groundwater. It is a peer-reviewed, international journal publishing reviews, original research, and special sections across a wide range of disciplines. Vadose Zone Journal reports fundamental and applied research from disciplinary and multidisciplinary investigations, including assessment and policy analyses, of the mostly unsaturated zone between the soil surface and the groundwater table. The goal is to disseminate information to facilitate science-based decision-making and sustainable management of the vadose zone. Examples of topic areas suitable for VZJ are variably saturated fluid flow, heat and solute transport in granular and fractured media, flow processes in the capillary fringe at or near the water table, water table management, regional and global climate change impacts on the vadose zone, carbon sequestration, design and performance of waste disposal facilities, long-term stewardship of contaminated sites in the vadose zone, biogeochemical transformation processes, microbial processes in shallow and deep formations, bioremediation, and the fate and transport of radionuclides, inorganic and organic chemicals, colloids, viruses, and microorganisms. Articles in VZJ also address yet-to-be-resolved issues, such as how to quantify heterogeneity of subsurface processes and properties, and how to couple physical, chemical, and biological processes across a range of spatial scales from the molecular to the global.
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