Zalety upraw pasowych z wsiewka roslin motylkowych a mozliwosc ograniczenia strat azotu

• Autorzy: Burczyk P
• Języki publikacji: PL

Abstrakty

EN

A relatively new concept in agriculture is the strip intercropping system with more than three crops grown in continuous, field-length narrow strips (3-9 m width). Crops are rotated annually. There are many advantages to the strip intercropping system as compared to traditional systems. Strip intercropping systems have greater production potential than the traditional systems. Microclimate variations are greater than in large fields, what helps to explain the boundary effects on crop yield. When the appropriate crops are situated side by side, the competition between plants is minimized and the yields increase, especially along the strip border. The small grain cereals interseeded with legumes reduce soil erosion. Legumes in the cropping accumulate nitrogen and reduce the need for nitrogen fertilizers. Rotation and use of nitro gen from legumes instead of fertilizers, may reduce nitrates' leaching from soil into groundwater.

Słowa kluczowe

PL

ochrona wod; rosliny motylkowe; gleby; uprawa roslin; uprawa pasowa; zawartosc azotu; rolnictwo; ochrona gleb; rolnictwo zrownowazone

• Wydawca: -
• Czasopismo: Postępy Nauk Rolniczych
• Rocznik: 2003
• Tom: 50
• Numer: 2
• Opis fizyczny: s.15-24,tab.,rys.,bibliogr.

Twórcy

autor

Burczyk P

• Instytut Melioracji i Uzytkow Zielonych, Falenty

Bibliografia

• [1] Burczyk P. 1999. Zmiany zawartości rożnych form azotu w zasobach wodnych gleby w pasowym systemie uprawy roślin. Rozprawa doktorska. Instytut Melioracji i Użytków Zielonych - maszynopis: 71 ss.
• [2] Clark E.A., Francis C.A. 1985. Transgressive yielding in bean: maize intercrops, interference in time and space. Field Crops Research 11: 37-53.
• [3] Cook R.J., Boosalis M.G., Doupnik B. 1978. Influence of crop residues on plant diseases. Crop residue management systems. ASA Spec. Publ. No. 31. ASA, Madison, WI: 45-51.
• [4] Crookstone R.K., Hill D.S. 1979. Grain yields and land equivalent ratios from intercropping com and soybeans in Minnesota. Agron. J. 71: 37-53.
• [5] Cruse R.M. 1990: Strip Intercropping. Farming Systems for Iowa: Seeking Alternatives. Leopold Center for Sustainable Agriculture. Conference Proceedings. Iowa State University, Ames: 39-41.
• [6] Cruse R.M. 1992. Strip Intercropping. Annual Progress Reports. Northeast Research Farm Nashua Iowa: 11-13.
• [7] Deming W.G., Brewbaker H.E. 1934. Border Effect in Sugar Beets. Journal of the American Society of Agronomy 26(7): 615-619.
• [8] Durkowski T. 1996. Intensywne rolnictwo Pomorza Zachodniego a zawartość azotu w wodach drenarskich. Mat. Konf. Nauk. Międzynarodowa Konferencja „Nadmiar azotu w rolnictwie wynikiem zagrożenia zdrowia człowieka". Warszawa 9-10.01.1997 r. Wydawnictwo IMUZ Falenty: 16-23.
• [9] Fortin M.C., Culley J., Edwards M. 1994. Soil Water, Plant Growth, and Yield of Strip-Intercropped Corn. J. Prod. Agric. 7: 63-69.
• [10] Francis C. 1986. Strip Cropping Corn and Grain Legumes: A Review. Amer. J. Alternative Agric. 1(4): 159-164.
• [11] Francis C.A., Clegg M.D. 1990. Crop Rotations. W: Sustainable Agricultural Systems. Soil and Water Conservation Society, Ankeny: 107-127.
• [12] Garcia-Prechac F. 1991. Strip position, tillage and water regime effects on a strip intercropping rotation. Ph. D. Dissertation. Iowa State University: 85ss.
• [13] Garcia-Prechac E. 1992. Strip position, tillage and water regime effects on strip intercropping rotation. Dis. Abstr. Int. 52(8): 3954B-3955B.
• [14] Ghaffarzadeh M., Garcia-Prechac F., Cruse R.M. 1994. Grainyield response of corn, soybean and out grown in a strip intercropping system. American Journal of Alternative Agriculture 9(4): 171-177.
• [15] Hardgrove W.L. 1986. Winter legumes as a nitrogen source for no-till grain sorghum. Agron. J. 78: 70-74.
• [16] Hadjichristodoulou A. 1983. Edge effects on yield, yield components and other traits in mechanized durum wheat and barley trials. Journal of Agricultural Science 101. Cambridge: 383-387.
• [17] Hadjichristodoulou A. 1993. Edge effects on yield, yield components and other physiological characteristics in cereals and oilseed crops. Journal of Agricultural Science 120. Cambridge: 7-12.
• [18] Hellenberg G.R., Gross B., Libra R.D. 1990. Iowa state-wide rural well-water survey. Iowa Groundwater Assoc. 2(10): 21-22.
• [19] Hollowel E.A., Heusinkveld D. 1933. Border effect studies of red clover and alfalfa. Journal of American Society of Agronomy Madison Wisconsin 25(12): 779-789.
• [20] Jackson W. 1980. New roads for agriculture. Friends of the Earth, Salinakan: Land Institute, San Francisco, CA: 45 ss.
• [21] Jurik T.W. 1994. Microclimate of narrow strips of corn and soybean. Progress report prepared for the Leopold Center for Sustainable Agriculture. Cropping Systems Interdisciplinary Research Team. R.M.Cruse and Karlen D.L. Leopold Center for Sustainable Agriculture Ames Iowa. 70 ss.
• [22] Kersebaum K.C., Richter J. 1996. Effects of annual set-aside practices on nitrogen leaching from arable land. Transactions of the 9th Nitrogen Workshop. Technische Universität Braunschweig September: 39-43.
• [23] Koc J., Ciećko Cz., Janicka R., Rochwerger A. 1996. Czynniki kształtujące poziom mineralnych form azotu w wodach obszarów rolniczych. Azotany w ekosystemach rolniczych. Zesz. Prob. Post. Nauk Rol. 440: 175-185.
• [24] Koźmiński Cz. 1983. Agro klimat województwa szczecińskiego. STN, Wydział Nauk Przyrodniczo-Leśnych: 194 ss.
• [25] Lal R., Echert D.J., Logan 1987. Environmentally Sustainable Dryland Farming System. J.F. Power (red.) Proceedings: Role of Legumes in Conservation Tillage Systems. National Conference, Athens, GA, April 27-29, 1987. Soil and Water Conservation Society, Ankeny, IA: 135-143.
• [26] Lesoing G., Francis C. 1990. Strip cropping corn and soybeans under dryland and irrigated conditions in eastern Nebraska. Univ. of Nebraska Crop Prod. News X(10): 51-54.
• [27] Musick G.J., Beasley L.E. 1978. Effect of the crop residue system on pest problems in field corn (Zea mays L.) production. Crop Residue Management Systems. ASA Spec. Publ. No. 31., CSSA and SSSA. Madison WI: 173-186.
• [28] Niemczyk H. 1997. Wpływ ścieżek przejazdowych na plonowanie zbóż. Zesz. Probl. Post. Nauk Roln. 439: 237-246.
• [29] Niklas K.J. 1992. Plant biomechanics. University of Chicago Press, Chicago: 250 ss.
• [30] Papini R., Bazzoffi P., Pellegrini G., Brandi G., Montagna G. 1996: Seasonal nitrate dynamics and their distribution in soil profile as affected by tillage and fertilization. Transactions of the 9th Nitrogen Workshop. Technische Universität Braunschweig September: 295-299.
• [31] Pendelton J.W., Bolen C.D., Seif R.D. 1963. Alternating Strips of Corn and Soybean. vs. Solid Plantings. Agron. J. 55: 293-295.
• [32] Pondel H. 1989. Wpływ nawożenia mineralnego na chemiczne właściwości gleb oraz na wody glebowo-gruntowe i powierzchniowe. W: Some aspects of chemical contamination of soils. MAB Scope, PAN: 11-39.
• [33] Rachoń L.1991. Produktywność roślin brzegowych pszenicy ozimej. Fragmenta Agronomica Zeszyt Specjalny 2/91: 71-75.
• [34] Radecki A., Niemczyk H. 1988. Mat. konf. nauk. nt. Obsada a produktywność roślin uprawnych. IUNG Puławy: 34-43.
• [35] Sanches C.A., Blackmer A.M. 1988. Recovery of anhydrous ammonia-derived nitrogen-15 during three years of corn production in Iowa. Agronomy Journal 80: 102-108.
• [36] Sapek A. 1990. Procesy związane z wymywaniem azotu z gleb użytkowanych rolniczo. Materiały na sympozjum „Zanieczyszczenia obszarowe w zlewniach rolniczych". Mat. Semin. IMUZ Falenty nr 26: 17-29.
• [37] Sapek A., Sapek B. 1995. Application of Nitrogen Balance and CREAMS Model to Describe and Foresee the Nitrogen Loses in Polish Agriculture. Proceedings of 9th International Symposium on Computer Science for Environmental Protection CSEP; 95 „Space and Time in Information Systems", Part 2: 214-222.
• [38] Sapek A. 1996. Zagrożenie zanieczyszczenia wód azotem w wyniku działalności rolniczej. W: Azotany w ekosystemach rolniczych. Zesz. Probl. Post. Nauk Roln. 440: 331-343.
• [39] Sapek A. 1996. Udział rolnictwa w zanieczyszczaniu wody składnikami nawozowymi. Zeszyty Edukacyjne IMUZ Falenty 1: 9-34.
• [40] Sawchik J. 1994. Positional and temporal variation of selected plant and soil parameters under strip intercropping corn and soybeans in Minnesota. M.S. thesis. Iowa State University: 52 ss.
• [41] Schibles R., Anderson I.C. 1993. Crop Physiology. Textbook for Agronomy 516 course (Crop Physiology and Management) 240, 11.18/0.
• [42] Stinner B.R., Blair J.M. 1990. Ecological and agronomic characteristics of innovative cropping systems. Opublikowane w opracowaniu pod redakcją Edwards C.A., Lal R., Madden P., Miller R.H. and House G. Sustainable Agricultural Systems. Soil and Water Conservation Society, Ankeny Iowa: 123-141.
• [43] Szabo G., Demene G., Koch R., 1984. Międzynarodowe Czasopismo Rolnicze 4: 50 ss.
• [44] Van K. 1994. Microclimate of narrow strips of oats, corn and soybeans. M.S. thesis. Iowa State University: 51 ss.
• [45] Voss R.D., Shrader W.D. 1984. Rotation effects and legume sources of nitrogen for corn. Organic Farming. ASA Spec. Publ., Madison WI No. 46: 61-68.
• [46] Weber E. 1993. Creating wider windows of opportunity Leopold Letter. Newsletter of the Leopold Center for Sustainable Agriculture, Fall 5(3): 4-6.
• [47] West T.D., Griffith D.R. 1992. Effect of Strip-Intercropping Corn and Soybean on Yield and Profit. J. Prod. Agric. 5: 107-110.
• [48] Whigham D.K. 1985. Strip and relay intercropping of soybean. World Soybean Research Conference III: Proc. 12-17 August. Ames, IA. Westview Press Inc. Boulder CO: 1025-1031.
• [49] Whigham D.K., Bharati M.P. 1985. Soybean sole-cropping and intercropping in temperate and subtropical environments. W: Soybean in Tropical and Subtropical Cropping Systems. Asian Vegetable Res. and Dev. Center. Shanhua, Taiwan: 37-47.
• [50] Wittler G.K. 1986. Summary of strip cropping. Parkland College, Champaign, IL: 150 ss.
• [51] Wright W.E. 1981. Yield response of soybeans when strip intercropped with corn. M.S. thesis Iowa State University. Ames: 45 ss.