Nitrogen source apportionment modeling and the effect of land-use class related runoff contributions

Nordic Hydrology

Volumn 38, Issue 4-5, 2007, Pages 317-331

  Lindgren, G A ^a   Wrede, S ^b,c   Seibert, Jan ^b   Wallin, M ^a  

^a SWEDISH UNIVERSITY OF AGRICULTURAL SCIENCES   (Sweden)

^b STOCKHOLM UNIVERSITY   (Sweden)

^c DELFT UNIVERSITY OF TECHNOLOGY   (Netherlands)

Author keywords

Fyrismodel; HBV N D model; Leaching coefficients; Model comparison; River Fyris catchment; Source apportionment

Indexed keywords

COMPUTER SIMULATION; LAND USE; LEACHING; NITROGEN; RIVERS; RUNOFF;

FYRISMODEL; LEACHING COEFFICIENT;

CATCHMENTS;

CATCHMENT; COMPUTER SIMULATION; HYDROLOGICAL MODELING; LAND USE PLANNING; NITROGEN CYCLE; NUTRIENT CYCLING; RUNOFF; WATER MANAGEMENT; WATER QUALITY;

HEPATITIS B VIRUS;

EID: 37349108212     PISSN: 00291277     EISSN: None     Source Type: Journal    
DOI: 10.2166/nh.2007.015     Document Type: Article

References (43)

1. Ahlgren, I., Frisk, T. and Kamp-Nielsen, L. (1988). Empirical and theoretical models of phosphorous loading, retention and concentration vs. lake trophic state. Hydrobiologia, 170, 285-303.
2. Alexander, R.B., Smith, R.A. and Schwarz, G.E. (2000). Effect of channel size on the delivery of nitrogen to the Gulf of Mexico. Nature, 403, 758-761.
3. Atheimer, B. (1998). Riverine Nitrogen: Analysis and Modelling under Nordic Conditions. Linkoping Studies in Arts and Science, 185. Terna University, Linköping, 12.
4. Arheimer, B. and Brandt, M. (2000). Watershed modelling of nonpoint nitrogen losses from arable land to the Swedish coast in 1985 and 1994. Ecol. Engng., 14, 389-404.
5. Bergström, S. (1976). Development and Application of a Conceptual Runoff Model for Scandinavian Catchments. Report No. RHO 7. SMHI, Noffköping.
6. Bergström, S. (1992). The HBV Model - Its Structure and Applications. RH No. 4. SMHI Hydrology, Norrköping.
7. Beven, K., Heathwaite, L., Haygarth, P., Walling, D., Brazier, R. and Withers, P. (2005). On the concept of delivery of sediment and nutrients to stream channels. Hydrol. Process., 19, 551-556.
8. Bexelius, A. (1999). Sammanställning på dagvattenledningsnätet samt teoretisk beräkning av föroreningstransporter fråin dagvatten i Uppsala (in Swedish). Uppsala kommun, tekniska kontoret, VA-avdelningen, Uppsala.
9. Billen, G. and Garnier, J. (1999). Nitrogen transfers through the Seine drainage network: a budget based on the application of the 'Riverstrahler' model. Hydrobiologia, 410, 139-150.
10. Boesch, D., Hecky, R., O'Melia, C., Schindler, D. and Seitzinger, S. (2006). Eutrophication of Swedish Seas. Rapport 5509. Naturvårdsverket, Stockholm.
11. Brandt, M. and Ejhed, H. (2002). TRK, Transport - Retention - Källfördelning, belastning på havet (in Swedish). Rapport 5247. Naturvårdsverket, Stockholm.
12. de Wit, M.J.M. (2001). Nutrient fluxes at the river basin scale I: the PolFlow model. Hydrol. Process., 15, 743-759.
13. Doherty, J. (2005). PEST: Model-independent Parameter Estimation, User Manual, Watermark Numerical Computing, Brisbane.
14. Ejhed, H., Malander, M. and Staaf, H. (2004). Kunskapsläget om enskiida avlopp i Sveriges kommuner En enkätstudie (in Swedish with English summary). Rapport 5415. Naturvårdverket, Stockholm.
15. Hansson, K., Wallin, M. and Lindgren, G. (2006). The FYRIS Model Version 2.0 - A Tool for Catchment-scale Modeling of Source Apportioned Gross and Net Transport of Nitrogen and Phosphorus in Rivers. Technical Description. Report 2006:17. Department of Environmental Assessment, Swedish University of Agricultural Sciences, Uppsala.
16. HELCOM (1993). The Baltic Sea Joint Comprehensive Environmental Action Programme. Baltic Sea Environment Proceedings, No. 48, Helsinki Commission, Baltic Sea Environment Protection Commission, Helsinki, Finland.
17. HELCOM (1999). Guidelines for the Fourth Baltic Sea Pollution Load Compilation (PLC-4). Baltic Sea Environment Proceedings, No. 93, Baltic Sea Environment Protection Commission, Helsinki, Finland.
18. Johnsson, H. and Hoffmann, M. (1998). Nitrogen leaching from agricultural land in Sweden - Standard rates and gross loads in 1985 and 1994. Ambio, 27, 481-488.
19. Johnsson, H. and Mårtensson, K. (2002). Kväveläckage från svensk åkermark, beräkningar av normalutlakning för 1995 och 1999, underlagsrapport till TRK (in Swedish). Rapport 5248. Naturvårdsverket, Stockholm.
20. Karssenberg, D., Burrough, P.A., Sluiter, R. and de Jong, K. (2001). The PCRaster software and course materials for teaching numerical modelling in the environmental siences. Trans. GIS, 5(2), 99-110.
21. Kvarnäs, H. (1996). Modellering av näringsämnen i Fyrisåns avrinningsområde. Källfördelning och retention (in Swedish). Report. Fyrisåns vattenförbund, Uppsala.
22. Kvarnäs, H. (2000). The Q Model, A Simple Conceptual Madel for Runoff Simulation in Catchment Areas, Rapport 2000:15, Department of Environmental Assessment, Swedish University of Agricultural Sciences, Uppsala.
23. Kyllmaf, K. (1995). Växtnäringsförluster till vatten från ett jordbrukyområde i södra Dalarna 1989-94 (in Swedish). Rapport 26. Seminarier och Examensarbete, Division of Water Quality Management, Swedish University of Agricultural Sciences, Uppsala.
24. Kyllmar, K., Martensson, K. and Johnsson, H. (2005). Model-based coefficient method for calculation of N leaching from agricultural fields applied to small catchments and the effects of leaching reducing measures. J. Hydrol., 304, 343-354.
25. Langner, J., Persson, C. and Robertson, L. (1995). Concentration and deposition of acidifying air pollutants over Sweden: Estimates for 1991 based on the match model and observations. Water Air Soil Pollut., 85(4), 2021-2026.
26. Lindström, G., Johansson, B., Persson, M., Gardelin, M. and Bergström, S. (1997). Development and test of the distributed BBV-96 hydrological model. J. Hydrol., 201(1-4), 272-288.
27. Ministry of Sustainable Development Sweden (2005). Summary of Government Bill 2004105:150, Environmental Quality Objectives: - A Shared Responsibility. Article No. M2006.26. Stockholm.
28. Nash, J.E. and Sutcliffe, J.V. (1970). River flow forecasting through conceptual models, 1. A discussion of principles. J. Hydrol., 10, 282-290.
29. Neitsch, S.L., Arnold, J.G., Kiniry, J.R., Williams, J.R. and King, K.W. (2002). Soil and Water Assessment Tool Theoretical Documentation, GSWRL Report 02-01, Grassland, Soil & Water Research Laboratory, Temple, TX.
30. Nixon, S.W. (1995). Coastal marine eutrophication - A definition, social causes, and future concerns. Ophelia, 41, 199-219.
31. O'Callaghan, J.F. and Mark, D.M. (1984). The extraction of drainage networks from digital elevation data. Comput. Vis. Graph. Image Process., 28, 328-344.
32. Palm, O., Malmén, L. and Musson, H. (2002). Robusta, uthålliga, små avloppssystem, en kunskapssammanställning (in Swedish). Rapport 5224. Naturvårdsverket, Stockholm.
33. SCB (2003). Statistik för avrinningsområden 2000 (in Swedish). Statistiska meddelanden serie MI 11 SM 0301. Statistiska Centralbyrån, Stockholm.
34. Seibert, J. (1999). Regionalisation of parameters for a conceptual rainfall-runoff model. Agric. Forest Meteorol., 98-99, 279-293.
35. Smith, V.H., Tilman, G.D. and Nekola, J.C. (1999). Eutrophication: impacts of excess nutrient inputs on freshwater, marine, and terrestrial ecosystems. Environ. Pollut., 100, 179-196.
36. Sonesten, L., Wallin, M. and Kvamäs, H. (2004). Kväve och fosfor till Vänern och Västerhavet. Transporter, retention och årgärdsscenariern inom Göta älvs avrinningsområde (in Swedish). Rapport No. 2004:33. Länsstyrelsen i Västra Götalands län, Göteborg.
37. Swedish Environmental Protection Agency (2006). Naturvårdsverkets allmänna råd till 2 och 26 kap. miljöbalken och 12-14 och 19 §§ förordningen (1998:899) om miljöfarlig verksamhet och hälsokydd om små avloppsanordningar for hushållsspillvatten (in Swedish). NFS 2006:7. Naturvårdsverket, Stockholm.
38. Tilman, D., Cassman, K.G., Matson, P.A., Naylor, R. and Polasky, S. (2002). Agricultural sustainability and intensive production practices. Nature, 418, 671-677.
39. Uhlenbrook, S., Roser, S. and Tilch, N. (2004). Hydrological process representation at the meso-scale: the potential of a distributed, conceptual catchment model. J. Hydrol., 291(3-4), 278-296.
40. Wade, A.J., Durand, P., Beaujouan, V., Wessel, W.W., Raat, K.J., Whitehead, P.G., Butterfield, D., Rankinen, K. and Lepisto, K. (2002). A nitrogen model for European catchments: INCA, new model structure and equations. Hydrol. Earth Syst. Sci., 6, 559-582.
41. Windolf, J., Jeppesen, E., Jensen, J.P. and Kristensen, P. (1996). Modelling of seasonal variation in nitrogen retention and in-lake concentration: a four-year mass balance study in 16 shallow Danish lakes. Biogeochemistry, 33, 25-44.
42. 18O signals in a meso-scale catchment. J. Hydrol., 332(3-4), 497-510.
43. Wrede, S. (2006). Distributed Solute Transport Modelling in the Fyrisån Catchment in Sweden. MSc Thesis, Institute of Hydrology, Univensity of Freiburg, Freiburg.