ENERGY ANALYSIS OF CROP ROTATIONS IN VARIOUS SYSTEMS OF MANAGEMENT

被引:0
|
作者
CIGLAR, J
STREDANSKA, A
POSPISIL, R
机构
来源
ROSTLINNA VYROBA | 1995年 / 41卷 / 02期
关键词
CROP ROTATIONS; SYSTEM OF MANAGEMENT; INTEGRATED; ORGANIC; ENERGY ANALYSIS; DRY MATTER PRODUCTION OF BIOMASS; RATIONALIZATION;
D O I
暂无
中图分类号
S3 [农学(农艺学)];
学科分类号
0901 ;
摘要
Within two different cropping systems, the so-called integrated (A) and organic (B), and three modelling crop rotations, were studied for analysis of energy and material inputs and outputs. It can be seen from results obtained, that integrated system is more energy-demanding, on average 23,65%, comparing to organic system (Tab. II, Fig. 1) when biomass production was analyzed. Organic system showed higher biomass productivity (5,48%) comparing to integrated system, despite the fact, that no synthetic fertilizers and pesticides were applied to organic system (Tab. II, Fig. 3). Other energy evaluation as energy efficiency and relative energy used are more preferred in organic system (Tab. II, Figs 4, 5). Where utilization of solar radiation in photosyntetic process was studied, organic system had better results, higher on average by 9,41% comparing to the integrated system (Tab. II). From the total energy evaluation of studied systems, especially analysis of dose energy inputs, can be concluded, that organic system showed better energy performance in comparison with integrated system. The possibilities of energy saving are not only in rationalizing of production processes but also depend on biological stability of cropping system.
引用
收藏
页码:59 / 63
页数:5
相关论文
共 50 条
  • [31] Optimal weed management in crop rotations: incorporating economics is crucial
    van den Berg, F.
    Gilligan, C. A.
    Gerdessen, J. C.
    Gregoire, L. A. H.
    van den Bosch, F.
    WEED RESEARCH, 2010, 50 (05) : 413 - 424
  • [32] Evaluation of Crop Rotations and Nematicides for Management of Reniform Nematode in Sweetpotato
    Smith, T. P.
    Hammond, A.
    Story, R.
    Burris, E.
    HORTSCIENCE, 2009, 44 (03) : 574 - 575
  • [33] Energy requirements for conventional tillage following different crop rotations
    Perfect, E
    McLaughlin, NB
    Kay, BD
    TRANSACTIONS OF THE ASAE, 1997, 40 (01): : 45 - 49
  • [34] Nematode management in sugar beet crop rotations: The Rhineland experience
    Kochs, HJ
    ZUCKERINDUSTRIE, 2000, 125 (09): : 698 - 701
  • [35] DETERMINATION OF THE INFLUENCE OF VARIOUS CROP ROTATIONS ON SOIL FERTILITY AND CROP PERFORMANCE AS SHOWN BY TEST PLANT YIELDS
    KUS, J
    NAWROCKI, S
    ARCHIV FUR ACKER UND PFLANZENBAU UND BODENKUNDE-ARCHIVES OF AGRONOMY AND SOIL SCIENCE, 1982, 26 (05): : 335 - 342
  • [36] Effects of Organic Farming Systems and Crop Rotations on Crop Productivity and Properties of Haplic Luvisol
    Baksiene, Eugenija
    Razukas, Almantas
    Nedzinskiene, Terese Laimute
    Salina, Olga
    Repeckiene, Jurate
    RURAL DEVELOPMENT 2009, PROCEEDINGS, VOL 4, BOOK 1, PROCEEDINGS, 2009, : 345 - 350
  • [37] Herbicide tolerant canola systems and their impact on winter crop rotations
    Stanton, R. A.
    Pratley, J. E.
    Hudson, D.
    Dill, G. M.
    FIELD CROPS RESEARCH, 2010, 117 (01) : 161 - 166
  • [38] Crop Rotations in California Rice Systems: Assessment of Barriers and Opportunities
    Rosenberg, Sara
    Crump, Amanda
    Brim-DeForest, Whitney
    Linquist, Bruce
    Espino, Luis
    Al-Khatib, Kassim
    Leinfelder-Miles, Michelle M.
    Pittelkow, Cameron M.
    FRONTIERS IN AGRONOMY, 2022, 4
  • [39] Effect of various crop rotations on rice yield and nitrogen use efficiency in paddy-upland systems in southeastern China
    Chen, Song
    Liu, Shaowen
    Zheng, Xi
    Yin, Min
    Chu, Guang
    Xu, Chunmei
    Yan, Jinxiang
    Chen, Liping
    Wang, Danying
    Zhang, Xiufu
    CROP JOURNAL, 2018, 6 (06): : 576 - 588
  • [40] Crop residue management and soil health: A systems analysis
    Turmel, Marie-Soleil
    Speratti, Alicia
    Baudron, Frederic
    Verhulst, Nele
    Govaerts, Bram
    AGRICULTURAL SYSTEMS, 2015, 134 : 6 - 16