The cumulative effects of cascade reservoirs control nitrogen and phosphorus flux: Base on biogeochemical processes

The reservoir serves as a water source, a flood control structure, a navigational aid, and also impacts the downstream ecosystem as well as the reservoir zone. However, debate exists about effectiveness of cascade reservoirs in controlling the transportation of nutrients, particularly in the Yangtze...

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Veröffentlicht in:Water research (Oxford) 2024-03, Vol.252, p.121177-121177, Article 121177
Hauptverfasser: Li, Leifang, Chen, Lei, Chen, Shibo, Zhang, Yuhan, Xu, Yanzhe, Zhi, Xiaosha, Meng, Xinyi, Shen, Zhenyao, Liu, Yong, Yang, Dawen, Tang, Lihua
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container_title Water research (Oxford)
container_volume 252
creator Li, Leifang
Chen, Lei
Chen, Shibo
Zhang, Yuhan
Xu, Yanzhe
Zhi, Xiaosha
Meng, Xinyi
Shen, Zhenyao
Liu, Yong
Yang, Dawen
Tang, Lihua
description The reservoir serves as a water source, a flood control structure, a navigational aid, and also impacts the downstream ecosystem as well as the reservoir zone. However, debate exists about effectiveness of cascade reservoirs in controlling the transportation of nutrients, particularly in the Yangtze River basin, which has been significantly affected by reservoir development. This research develops a new model X-NPSEM (X with Nitrogen and Phosphorus Steady-state Reservoir Model) based on biogeochemical processes of nitrogen and phosphorus reaction for investigating the dynamic storage capacity of cascade reservoirs at both reservoir- and watershed scales. Then the cumulative effects of cascade reservoirs and the related mechanism were investigated in Fujiang watershed, China. Based on the results, cascade reservoirs retained 16.3 % of nitrogen fluxes and 37.6 % of phosphorus fluxes annually. Downstream reservoirs have higher retention rates of phosphorus (0.48/d) compared to upstream reservoirs (0.10/d), mainly due to inflow sediment. Nitrogen retention rates show seasonal variations: wet season (0.21/d) and dry season (0.17/d). These fluctuations in nitrogen retention are primarily influenced by changes in temperature rather than other factors such as operation period, nitrogen and phosphorus concentration, or the nitrogen/phosphorus ratio. In upstream, the concentration of sediment entering the reservoir plays a decisive role in the transformation of P retention from sink to source. The X-NPSRM coupler model could be used for global reservoir operation and watershed management. •New model was developed and could be with other models for simulating reservoir processes.•Cumulative effects of cascade reservoirs were quantified with higher downstream retention rates.•It was found that nitrogen retention rate in reservoir is higher in wet season than dry season.•A transition of phosphorus from being a sink to becoming a source exists in reservoir region. [Display omitted]
doi_str_mv 10.1016/j.watres.2024.121177
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However, debate exists about effectiveness of cascade reservoirs in controlling the transportation of nutrients, particularly in the Yangtze River basin, which has been significantly affected by reservoir development. This research develops a new model X-NPSEM (X with Nitrogen and Phosphorus Steady-state Reservoir Model) based on biogeochemical processes of nitrogen and phosphorus reaction for investigating the dynamic storage capacity of cascade reservoirs at both reservoir- and watershed scales. Then the cumulative effects of cascade reservoirs and the related mechanism were investigated in Fujiang watershed, China. Based on the results, cascade reservoirs retained 16.3 % of nitrogen fluxes and 37.6 % of phosphorus fluxes annually. Downstream reservoirs have higher retention rates of phosphorus (0.48/d) compared to upstream reservoirs (0.10/d), mainly due to inflow sediment. Nitrogen retention rates show seasonal variations: wet season (0.21/d) and dry season (0.17/d). These fluctuations in nitrogen retention are primarily influenced by changes in temperature rather than other factors such as operation period, nitrogen and phosphorus concentration, or the nitrogen/phosphorus ratio. In upstream, the concentration of sediment entering the reservoir plays a decisive role in the transformation of P retention from sink to source. The X-NPSRM coupler model could be used for global reservoir operation and watershed management. •New model was developed and could be with other models for simulating reservoir processes.•Cumulative effects of cascade reservoirs were quantified with higher downstream retention rates.•It was found that nitrogen retention rate in reservoir is higher in wet season than dry season.•A transition of phosphorus from being a sink to becoming a source exists in reservoir region. 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These fluctuations in nitrogen retention are primarily influenced by changes in temperature rather than other factors such as operation period, nitrogen and phosphorus concentration, or the nitrogen/phosphorus ratio. In upstream, the concentration of sediment entering the reservoir plays a decisive role in the transformation of P retention from sink to source. The X-NPSRM coupler model could be used for global reservoir operation and watershed management. •New model was developed and could be with other models for simulating reservoir processes.•Cumulative effects of cascade reservoirs were quantified with higher downstream retention rates.•It was found that nitrogen retention rate in reservoir is higher in wet season than dry season.•A transition of phosphorus from being a sink to becoming a source exists in reservoir region. 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These fluctuations in nitrogen retention are primarily influenced by changes in temperature rather than other factors such as operation period, nitrogen and phosphorus concentration, or the nitrogen/phosphorus ratio. In upstream, the concentration of sediment entering the reservoir plays a decisive role in the transformation of P retention from sink to source. The X-NPSRM coupler model could be used for global reservoir operation and watershed management. •New model was developed and could be with other models for simulating reservoir processes.•Cumulative effects of cascade reservoirs were quantified with higher downstream retention rates.•It was found that nitrogen retention rate in reservoir is higher in wet season than dry season.•A transition of phosphorus from being a sink to becoming a source exists in reservoir region. 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source MEDLINE; Elsevier ScienceDirect Journals
subjects Biogeochemical reaction processes
Cascade reservoirs
China
Cumulative effects
dry season
Ecosystem
ecosystems
Environmental Monitoring
flood control
Nitrogen
Nitrogen - analysis
nitrogen retention
Phosphorus
Phosphorus - analysis
Retention rate
sediments
temperature
transportation
water
Water Pollutants, Chemical - analysis
watershed management
watersheds
wet season
Yangtze River
title The cumulative effects of cascade reservoirs control nitrogen and phosphorus flux: Base on biogeochemical processes
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