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Sustainable Agricultural NP Turnover in the 27 European Countries

  • Péter CsathóEmail author
  • László Radimszky
Chapter
Part of the Sustainable Agriculture Reviews book series (SARV, volume 9)

Abstract

A deep contrast of NP balances, water nitrate contamination, soil P and rural development has appeared between Western and Eastern European countries since the implementation of the European nitrate directive in 1991 (91/676/EEC). In an economy ruled by free market rich countries become richer and poor countries become poorer from the point of view of water nitrate contamination and soil P overloads. There is a need for a paradigm shift in the European agro-environmental protection legislation. Instead of speaking about it, agro-environmental protection, social, and rural development principles should gain real priority. According to the principle of subsidiarity, the present problems can be solved only at the highest European-level, i.e., in the legislation and in the administration.

We reviewed the anomalies in the NP turnover of the European countries. The major points are: (1) instead of some agronomic factors such as soil NP status, added farmyard manure, and expected yield level, per capita gross domestic product and population density were the major factors affecting the magnitude of mineral and organic NP application. (2) Countries with the highest livestock densities do not take into account previous farmyard manure application and soil P status as mineral NP dose diminishing factors. This practice contradicts to the basic principles of sustainable crop nutrition. As a result, between 1991 and 2005, highest P surpluses, the most positive P balances were reached in the countries with the highest soil P level, further enhancing their agricultural P load to the environment. (3) Similarly, the European countries with the highest organic NP application, The Netherlands, and Belgium, were those who applied most mineral NP fertilisers reversely to the agronomic principles, and, resulting in most positive NP balances, and, as a consequence, the most severe environmental threat, the most severe agronomic NP load to the environment. (4) The major cause of heavy agricultural NP loads to the environment was livestock density exceeding 100 livestock units 100 ha agricultural land−1. (5) A positive correlation was found in the European countries between cumulative N balances for the period of 1991–2005 and the degree of ground water nitrates contamination. The main added value of this paper is to compare NP balances values to groundwater nitrate contaminations as well as soil P status, and evaluate their correlation from both agronomic and environmental point of views. Former works evaluate these factors, although correlative to each other, separately (Steén I, A European fertilizer industry view on phosphorus retention and loss from agricultural soils. In: Tunney H, Carton OT, Brookes PC, Johnston AE (eds) Phosphorus loss from soil to water. CABI, Wallingford, pp 311–328, 1997; OECD, Environmental indicators for agriculture, vol 3. OECD, Paris, pp 117–139, 2001; OECD, OECD trends of environmental conditions related to agriculture. In: Environmental indicators for agriculture, vol 4. OECD, Paris, Chapter 3, www.oecd.org, 2008).

Keywords

Agricultural NP loads Polarization Livestock density Nitrates Directives Inefficiency New priorities in EU legislation 

Abbreviations

EU

European Union

EU15 countries

The Western European EU countries including Austria Finland and Sweden

FER

Mineral fertiliser

FYM

Farmyard manure

GDP

Gross Domestic Product

NEU12 countries

The newly joined Central- and Eastern European countries including Bulgaria and Romania

STP

Soil test phosphorus

Notes

Acknowledgements

Much of the work in this paper was due to the initiative of the COST Action 832 entitled “Quantifying the agricultural contribution to eutrophication” (1997–2003) and COST Action 869 entitled “Mitigation options for nutrient reduction in surface and groundwaters” (2006–2012). The authors wish also to thank Prof. E. Frossard, ETH Zurich, Switzerland, for initiating a throughout review on NP balances and soil P status of the CEE countries, Prof. A.E. Johnston, IACR, Rothamsted, UK, for his valuable advice on how to improve the manuscript, and Prof. E. Kamprath, North Carolina State University, Raleigh, USA, for encouraging and supporting the authors to publish the manuscript. Authors are grateful to the Editors and Reviewers for their valuable suggestions to improve the quality of this work.

References

  1. Amberger A (1982) Gülle – Ein Schlechtgenutzter Dünger. DLG Mitt 97:78–80Google Scholar
  2. Anonymous (1978) The spreading of animal excrement on utilized agricultural areas of the community. I. CEC. Inf Agric 47:1–154Google Scholar
  3. Anonymous (1980) Profitable and sensible use of poultry manure, vol 274, Pennsylvania State University, College of Agriculture, Extension Service. Special circular. Pennsylvania State University, College of Agriculture, Extention Service, University Park, p 6Google Scholar
  4. Anonymous (1982) Profitable utilization of livestock manures, vol 2081, Booklet. Ministry of Agriculture, Fisheries and Food, Alnwick, pp 1–22Google Scholar
  5. Árendás T (1999) Effect of mineral and organic fertilizers on a Chernozem soil with forest residues and other typical Hungarian soils (In Hungarian). PhD thesis, Keszthely-Martonvásár, HungaryGoogle Scholar
  6. Asmus F, Specht G, und Lange H (1971) Zur Wirkung der Nährstoffe aus Gülle. Archiv für Acker- und Pflanzenbau und Bodenkunde 15:905–912Google Scholar
  7. Astover A, Roostalu H (2002) Nutrient balance of arable soils in Estonia. In: 7th Congress of the European Society for Agronomy, Book of proceedings, ESA, Cordoba, Spain, pp 729–730Google Scholar
  8. Baumgärtel G (1989) Phosphat-Düngbedarf von Getreide und Zuckerrüben im Südniedersächsischen Lössgebiet. Zeitschrift für Pflanzenernährung und Bodenkunde 152:447–452CrossRefGoogle Scholar
  9. Beauchamp EG (1983) Manure for crop production, Factsheet. Ontario Ministry of Agriculture and Food, Toronto, May 4Google Scholar
  10. Bodemkundige Dienst van België (2006) De chemische bodemvruchtbaarheid van het Belgische akkerbouw- weilandareaal (1989–2003), Heverlee, 138pGoogle Scholar
  11. Bogdanović D, Ubavić M, Dozet D (1993) Chemical properties of Vojvodina soils and their provision with essential macroelements. In: Heavy metals and pesticides in the soils of the Vojvodina Province, Faculty of Agriculture, Institute of Field and Vegetable Crops, University of Novi Sad, Serbia and Montenegro, pp 197–216 (In Serbian)Google Scholar
  12. Brouwer FM, Godeschalk FE, Hellegers PJ, Kelholt HJ (1995) Mineral balances at farm level in the European Union, vol 137, Onderzoeksverlag. Agricultural Economics Research Institute (LEI-DLO), Den HaagGoogle Scholar
  13. Čermák P, Budňáková M (2003) Fertilization in the Czech Republic – the consumption of fertilizers and content of nutrient in the soil. In: Schnug E et al (eds) Proceedings of the 14th CIEC symposium “Fertilizers in context with resource management in agriculture”, vol 1, Debrecen, Hungary, pp 227–232Google Scholar
  14. CIA (2001) World of Factbook. http://www.mrdowling.com
  15. Council Directive of 12 December 1991 concerning protection of waters against pollution caused by nitrates form agricultural sources (91/676/EEC)Google Scholar
  16. Csathó P (2002) Evaluation of the corrected AL-P model on the database of Hungarian winter wheat P fertilization experiments, 1960–2000. Agrokémia és Talajtan 51:351–380 (In Hungarian)CrossRefGoogle Scholar
  17. Csathó P (2003a) Factors affecting winter wheat responses to P fertilization, obtained in the database of the Hungarian field trials, published between 1960 and 2000. Növénytermelés 52:679–701 (In Hungarian)Google Scholar
  18. Csathó P (2003b) Factors affecting maize responses to P fertilization, obtained in the database of the Hungarian field trials, published between 1960 and 2000. A review. Agrokémia és Talajtan 52:455–472 (In Hungarian)CrossRefGoogle Scholar
  19. Csathó P (2005) Estimations on changes in soil P status in the CEE countries in the periods where there are not published data, based on changes in P balances. RISSAC HAS, Budapest, Hungary. ManuscriptGoogle Scholar
  20. Csathó P, Radimszky L (2005a) Agronomic and environmental protection approached NPK balances of the Hungarian agriculture, 1901 to 2000. A review. Agrokémia és Talajtan 54:217–234 (In Hungarian)CrossRefGoogle Scholar
  21. Csathó P, Radimszky L (2005b) Environmental NP balance of Albania, Bulgaria, Latvia, Lithuania and Romania in 1961, 1985 and 2000. RISSAC HAS, Budapest, Hungary. ManuscriptGoogle Scholar
  22. Csathó P, Radimszky L (2007) The first 15 years of the Nitrates Directive: results, failures, and urgent tasks in reducing agricultural NP loads to the environment within the EU. A forum. Növénytermelés 56:83–110 (In Hungarian)Google Scholar
  23. Csathó P, Radimszky L (2009) Two worlds within EU27: sharp contrasts in organic and mineral NP use, NP balances and soil P status. Widening and deepening gap between Western and Central Europe. Commun Soil Sci Plant Anal 40:999–1019CrossRefGoogle Scholar
  24. Csathó P, Árendás T, Németh T (1998) New, environmentally friendly fertiliser advisory system, based on the data set of the Hungarian long-term field trials set up between 1960 and 1995. Commun Soil Sci Plant Anal 29:2161–2174CrossRefGoogle Scholar
  25. Csathó P, Sisák I, Radimszky L, Lushaj S, Spiegel H, Nikolova MT, Nikolov N, Čermák P et al (2007) Agriculture as a source of phosphorus causing eutrophication in Central and Eastern Europe. Soil Use Manag 23(suppl 1):36–56CrossRefGoogle Scholar
  26. Csathó P, Árendás T, Fodor N, Németh T (2009) Evaluation of different fertilizer recommendation systems on various soils and crops in Hungary. Commun Soil Sci Plant Anal 40:1689–1711CrossRefGoogle Scholar
  27. De Clercq P, Gertsis AC, Hofman G, Jarvis SC, Neeteson JJ, Sinabell F (eds) (2001) Nutrient management legislation in European countries. Wageningen Pers, Wageningen, 348pGoogle Scholar
  28. Directive 2000/60/EC of the European Parliament and of the Council establishing a framework for the Community action in the field of water policyGoogle Scholar
  29. Egner H, Riehm H, Domingo WR (1960) Untersuchungen über die chemische Bodenanalyse als Grundlage für die Beurteilung des Nahrstoffzustandes der Böden. II. Lantbr Högsk Ann 26:199–215Google Scholar
  30. FAO (2005) Statistical database for agriculture. www.fao.org
  31. Gartley KL, Sims JT (1994) Phosphorus soil testing: environmental uses and implications. Commun Soil Sci Plant Anal 25:1565–1582CrossRefGoogle Scholar
  32. Hajas I, Rázsó J (1969) Agriculture in numbers. Mezőgazdasági Kiadó, Budapest (In Hungarian)Google Scholar
  33. Hamell M (2007) Implementing the nitrates directive. European Commission. DG Environment. Unit Agriculture, Forest and Soil. In: 16th international symposium of CIEC, A PPT presentation, Gent, Belgium, Sept 2007, pp 17–19Google Scholar
  34. Handboek melkveehouderij (1997) Themaboek 25. Wageningen UR, Wageningen (http://www.pv.wageningen-ur.nl/index.asp?producten/boeken/themaboek/rsp/25.asp)
  35. Hera C, Borlan Z, Stefanescu D (1998) Some aspects of phosphorus fertilizer use in Romania during the last two decades (1975–1995). Bibliotheca Fragmenta Agronomica, Tom 3:327–338Google Scholar
  36. Järvan U, Kanger J, Kevvai L, Sisask M, Tüür R (1996) Establishment of agrochemical status of the arable land in Estonia. Trans Estonia Agric Univ 187:15–22Google Scholar
  37. Johnston AE, Lane PW, Mattingly GEG, Poulton PR (1986) Effect of soil and fertilizer P on yields of potatoes, sugarbeet, barley and winter wheat on a sandy clay loam soil at Saxmundham, Suffolk. J Agric Sci, Cambridge 106:155–167CrossRefGoogle Scholar
  38. Jungk A, Claassen N, Schulz V, Wendt J (1993) Pflanzenverfügbarkeit der Phosphatvorräte ackerbaulich genutzter Böden. Zeitschrift für Pflanzenernährung und Bodenkunde 156:397–406CrossRefGoogle Scholar
  39. Kamprath E (2005) North Carolina phosphorus loss assessment: 1. Model description and II. Scientific basis and supporting literature, The N.C. Plat Committee, North Carolina Agricultural Research Service Technical Bulletin 323, North Carolina State University, RaleighGoogle Scholar
  40. Karklins A (1998) Plant available phosphorus in Latvian soils and trends in fertilizer use. Bibliotheca Fragmenta Agronomica, Tom 3:310–316Google Scholar
  41. Kemppainen E (1989) Nutrient content and fertilizer value of livestock manure with special reference to cow manure. Annales Agric Penniae 28:163–284Google Scholar
  42. Klir J (2005) OECD soil surface nitrogen and phosphorus balances for the Czech Republic, 1950 to 2004. Research Institute of Crop Production, Prague-Ruzyne. ManuscriptGoogle Scholar
  43. Kopiński J (2005) OECD soil surface nitrogen and phosphorus balances for Poland, 1960 to 2004. Institute of Soil Science and Plant Cultivation, Puławy. ManuscriptGoogle Scholar
  44. Laine T (1967) Lietelännan Käyttöarvo. Koetoin. Ja Käyt 40:28Google Scholar
  45. Lazauskas S (2005) OECD soil surface nitrogen and phosphorus balances for Lithuania, 1950 to 2004. Lithuanian Institute of Agriculture, Dotnuva, Lithuania. ManuscriptGoogle Scholar
  46. Leskošek M (1998) Phosphorus in soil and phosphorus fertilization in Slovenia. Bibliotheca Fragmenta Agronomica, Tom 3:401–406Google Scholar
  47. Lisovoj MV, Nikitjuk ML (2004) Nutrient balances in Ukrainian agriculture. Agrarna Nauka, C55-58. Kiev, Ukraine (In Ukrainian)Google Scholar
  48. Manojlović M (2005) Soil surface nitrogen and phosphorus balances for Serbia and Montenegro, 1955 to 2003. Faculty of Agriculture, University of Novi Sad, Novi Sad, Serbia and Montenegro. ManuscriptGoogle Scholar
  49. Mazvila J, Vaisvila Z, Masauskas V (1996) Phosphorus and potassium available in Lithuanian soils, their effect on the yield of agricultural crops. Agric Sci 2:21–29 (In Lithuanian)Google Scholar
  50. McCallister DL, Shapiro CA, Raun WR, Anderson FN, Rehm GW, Engelstad OP, Ruselle MP, Olson RA (1987) Division S-8. Fertiliser technology and use. Soil Sci Soc Am J 51:1646–1652CrossRefGoogle Scholar
  51. McCollum RE (1991) Buildup and decline in soil phosphorus: 30-year trends on a typic umprabuult. Agronomy J 83:77–85CrossRefGoogle Scholar
  52. Nikolov N (1998) Use and future needs of mineral fertilizers for sustainable crop production in Bulgaria. Bibliotheca Fragmenta Agronomica Tom 3:290–297Google Scholar
  53. Nikolova M (2005) Soil surface nitrogen and phosphorus balances for Bulgaria, 1986 to 2002. University of Forestry, Faculty of Agronomy, Sofia. ManuscriptGoogle Scholar
  54. Nosko BS, Loboda MB, Khristenko AO (1994) The nutritious substances contents variation in soils according to data of agrochemistry examination. The data book of agrochemical and agroecological state of soils in Ukraine (In Ukrainian). Kiev: Urozhai, pp 109–111Google Scholar
  55. Obojski J, Straczynski S (1995) Soil pH and content in major and trace elements (In Polish). IUNG, PulawyGoogle Scholar
  56. OECD (1997) Methodology handbook for calculating OECD surface nitrogen balances. A manuscript. OECD, ParisGoogle Scholar
  57. OECD (2001) Environmental indicators for agriculture, vol 3. OECD, Paris, pp 117–139Google Scholar
  58. OECD (2008) Chapter 3: OECD trends of environmental conditions related to agriculture. In: Environmental indicators for agriculture, vol 4. OECD: Paris, France. www.oecd.org
  59. Rieder JB (1983) Gülle als Dünger Richtig Einschätzen. DLG-Mitt 98:394–398Google Scholar
  60. Sarkadi J (1993) Efficiency of the nutrient contents in organic manure and mineral fertiliser in long-term experiments. I. Nitrogen turnover. Agrokémia és Talajtan 42:293–308 (In Hungarian)Google Scholar
  61. Sharma RG, Crewal JS, Sengh M (1980) Effects of annual and biannual applications of phosphorus and potassium fertilizer and farmyard manure on yields of potato tubers, on nutrient uptake and on soil properties. J Agric Sci 94:533–538CrossRefGoogle Scholar
  62. Sharpley AN, Chapra SC, Wedepohl R, Sims JT, Daniel TC, Reddy KR (1994) Managing agricultural phosphorus for protection of surface waters: issues and options. J Environ Qual 23:437–451CrossRefGoogle Scholar
  63. Sluijsmans CMJ, Kolenbrander GJ (1977) The significance of animal manure as a source of nitrogen in soils. In: Proceedings of the international seminar on soil environment and fertility management in intensive agriculture (SEFMIA), Tokyo, pp 403–411Google Scholar
  64. Smith KA, van Dijk TA (1987) Utilization of phosphorus and potassium from animal manures on grassland and forage crops. In: Van der Meer HG et al (eds) Animal manure on grassland and fodder crops. Fertilizer or waste? Martinus Nijhoff, Dordrecht, pp 87–102CrossRefGoogle Scholar
  65. Spiegel H (2007) Comparison of fertilizer advisory systems based on Austrian soil sample results. In: 19th MOEL meeting of the Central and Eastern European Countries, CD-ROM edition, Visegrad, Hungary, 25–27 Apr 2007Google Scholar
  66. Stanners D, Bourdeau Ph (eds) (1995) Europe’s environment. The Dobřiš assessment. European Environment Agency, CopenhagenGoogle Scholar
  67. Steén I (1997) A European fertilizer industry view on phosphorus retention and loss from agricultural soils. In: Tunney H, Carton OT, Brookes PC, Johnston AE (eds) Phosphorus loss from soil to water. CABI, Wallingford, pp 311–328Google Scholar
  68. Sutton AL, Nelson DW, Hof JD, Mairose WD (1982) Effects of infection and surface applications of liquid swine on corn yield and soil composition. J Environ Qual 11:468–472CrossRefGoogle Scholar
  69. Swinbank A, Daugbjerg C (2006) The 2003 CAP reform. Accomodating WTO pressures. Comp Eur Polit 4:47–64CrossRefGoogle Scholar
  70. TAPAS (2007) Agreement number 67101.2006.001-2007.097. Gross nutrient balances: to calculate the technical coefficients needed to compile the national and regional nitrogen and phosphorus balances. Eurostat, LuxemburgGoogle Scholar
  71. The Agricultural Council, April, 2001Google Scholar
  72. The Cardiff European Council, June, 1998Google Scholar
  73. The Göteborg European Council, June, 2001Google Scholar
  74. The Helsinki European Council, December, 1999Google Scholar
  75. The International Year of Planet Earth. www.esfs.org
  76. Torma S (2001) Crop production and nutrient balances in the Slovak Republic. In: Balanced fertilisation for crop yield and quality, Proceedings of workshop, Research Institute of Crop Production, Prague – Ruzyne, Czech Republic, pp 35–40Google Scholar
  77. Torma S (2005) OECD soil surface nitrogen and phosphorus balances for Slovakia, 1960 to 2004. Soil Science and Conservation Research Institute, Bratislava. ManuscriptGoogle Scholar
  78. Tunney H (1980) Fertiliser value of animal manures. Farm Food Res 11:78–79Google Scholar
  79. Tunney H, Breeuwsma A, Withers PJA, Ehlert PIA (1997) Phosphorus fertiliser strategies: present and future. In: Tunney H, Carton OT, Brookes PC, Johnston AE (eds) Phosphorus loss from soil to water. CABI, Wallingford, pp 177–204Google Scholar
  80. UKSUP (2000) Results of agrochemical soil testing in Slovakia in the period 1995–1999 (10th cycle). UKSUP, Bratislava, p 100Google Scholar
  81. Valmari J (1933) Karjanlannan talteenonosta ja hoidosta. Pellervo 34:52–55Google Scholar
  82. Várallyay Gy (2008) Innovation grand prize, 2007. Agrokémia és Talajtan 58:207–208 (In Hungarian)Google Scholar
  83. Vetter H, Fruchtenicht K (1974) Wege zur Ermittlung des Dungerbedarfs mit grosserer Treffsicherheit (Methods of determining fertiliser requirements with more accuracy). Landwirtschaftliche Forschung 31(1):290–320.; cit: Tunney H, Csathó P, Ehlert P (2003) Approaches to calculating P balance at the field-scale in Europe. J Plant Nutr Soil Sci 166:438–446Google Scholar
  84. Webster N (1961) Webster’s third new international dictionary of the English language unabridged I-II. Bell and Sons, London, 2662pGoogle Scholar
  85. World Bank (2005) Food safety and agricultural health standards: challenges for opportunities in developing country exports. Report No. 31207, World Bank, Washington, DCGoogle Scholar

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Authors and Affiliations

  1. 1.Institute for Soil Science and Agricultural Chemistry, Centre for Agricultural ResearchHungarian Academy of SciencesBudapestHungary

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