Nitrogen fluxes on catchment scale: the influence of hydrological aspects

被引:7
|
作者
Zessner, M [1 ]
Schilling, C
Gabriel, O
Heinecke, U
机构
[1] Veinna Univ Technol, Inst Water Qual & Waste Management, A-1040 Vienna, Austria
[2] Veinna Univ Technol, Inst Hydraul Hydrol & Water Resources Management, A-1040 Vienna, Austria
关键词
nitrogen surplus; denitrification; nitrogen balances; MONERIS; diffuse sources of pollution;
D O I
10.2166/wst.2005.0310
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
In two catchment areas with altogether eight subcatchments characterising different site-specific situations the interaction between anthropogenic activities (e.g. agriculture, nutrition and waste water management), nitrogen emissions and in stream loads as well as concentrations were studied in detail. Groundwater is the most important pathway for nitrogen inputs into surface waters. Denitrification in the soil/subsurface/groundwater system controls the amount of this input to a high extent. Key factors influencing this process are organic carbon availability, geology, precipitation and groundwater recharge rates as well as residence time in groundwater. The MONERIS emission model is a useful tool to quantify these relationships on (sub-)catchment scale. Areas where concentrations in groundwater (e.g. nitrate) tend to be higher due to little dilution with water and might be problematic in respect to limit values for drinking water, are much less relevant in respect to the loads transported to river systems and receiving seas, than regions with high precipitation. In cases with high water availability mainly high loads transported downstream and finally to the receiving sea are a considerable problem. Within a region mainly areas close to river systems contribute to nitrogen discharges to the river system because of the short residence times of the groundwater from these areas and - related to this - a lower influence of denitrification in the groundwater.
引用
收藏
页码:163 / 173
页数:11
相关论文
共 50 条
  • [31] Modelling nitrogen removal in potential wetlands at the catchment scale
    Arheimer, B
    Wittgren, HB
    ECOLOGICAL ENGINEERING, 2002, 19 (01) : 63 - 80
  • [32] Valuation of nitrogen retention as an ecosystem service on a catchment scale
    Rankinen, Katri
    Granlund, Kirsti
    Etheridge, Randall
    Seuri, Pentti
    HYDROLOGY RESEARCH, 2014, 45 (03): : 411 - 424
  • [33] Catchment land use effects on fluxes and concentrations of organic and inorganic nitrogen in streams
    Vogt, Esther
    Braban, Christine F.
    Dragosits, Ulrike
    Durand, Patrick
    Sutton, Mark. A.
    Theobald, Mark. R.
    Rees, Robert M.
    McDonald, Chris
    Murray, Scott
    Billett, Michael F.
    AGRICULTURE ECOSYSTEMS & ENVIRONMENT, 2015, 199 : 320 - 332
  • [34] Modeling the fluxes of nitrogen, phosphate and sediments in Linthipe catchment, Southern Lake Malawi Basin: Implications for catchment management
    Chikondi, Gomani McDonald
    Joshua, Valeta
    Phiri, Samson J. K. S.
    AFRICAN JOURNAL OF AGRICULTURAL RESEARCH, 2010, 5 (06): : 424 - 430
  • [35] FLUXES AND TRANSFORMATIONS OF NITROGEN IN A HIGH-ELEVATION CATCHMENT, SIERRA-NEVADA
    WILLIAMS, MW
    BALES, RC
    BROWN, AD
    MELACK, JM
    BIOGEOCHEMISTRY, 1995, 28 (01) : 1 - 31
  • [36] The Influence of Rainfall and Catchment Critical Scales on Urban Hydrological Response Sensitivity
    Cristiano, Elena
    ten Veldhuis, Marie-claire
    Wright, Daniel B.
    Smith, James A.
    van de Giesen, Nick
    WATER RESOURCES RESEARCH, 2019, 55 (04) : 3375 - 3390
  • [37] Spatio-temporal analysis of hydrological drought at catchment scale using a spatially-distributed hydrological model
    Mercado, Vitali Diaz
    Perez, Gerald Corzo
    Solomatine, Dimitri
    van Lanen, Henny A. J.
    12TH INTERNATIONAL CONFERENCE ON HYDROINFORMATICS (HIC 2016) - SMART WATER FOR THE FUTURE, 2016, 154 : 738 - 744
  • [38] Scientific evidence of the hydrological impacts of nature-based solutions at the catchment scale
    Lalonde, Morgane
    Drenkhan, Fabian
    Rau, Pedro
    Baiker, Jan R.
    Buytaert, Wouter
    WILEY INTERDISCIPLINARY REVIEWS-WATER, 2024, 11 (05):
  • [39] Evaluating catchment-scale hydrological modeling by means of terrestrial gravity observations
    Hasan, Shaakeel
    Troch, Peter A.
    Bogaart, Patrick W.
    Kroner, Corinna
    WATER RESOURCES RESEARCH, 2008, 44 (08)
  • [40] Linking fragipans, perched water tables, and catchment-scale hydrological processes
    McDaniel, P. A.
    Regan, M. P.
    Brooks, E.
    Boll, J.
    Bamdt, S.
    Falen, A.
    Young, S. K.
    Hammel, J. E.
    CATENA, 2008, 73 (02) : 166 - 173