TILLAGE EFFECTS ON SOIL FUNCTIONAL PROPERTIES: A REVIEW
Keywords:
Climate change, soil health, cover crop, chemigation, Scopus, Ukraine
Abstract
Soil is the foundation of all-natural production systems. There is a necessity to study the management systems impact on soil functional properties and crop productivity in response to climate change effects. Our review was conducted using published databases of Ukrainian and worldwide peer-reviewed publications, including high-quality databases in Scopus, Web of Science, ResearchGate, Ukrainian specialized publications, and other web sources to evaluate the effects of tillage, with- and without cropping diversity, cover crops, and chemigation, on soil functional properties associated with soil health and crop productivity. Globally used different types of tillage practices (plowing vs. no-till) affect soil biology, nutrient cycling and organic matter accumulation, water, nutrient, and air ecosystems, changes in the soil structural and hydrological properties, and factors responsible for soil erosion and degradation were evaluated. The relevance of the research is appropriate due to global climate change and the transition of farmers converting from plowing to minimum tillage technologies, including no-till in order to achieve economic crop production with enhanced agroecosystem services. While both plowing and minimum tillage technologies have contrasting benefits and limitations, there is a lacking of consistent advantages of one tillage technology over the other one to support economic crop production, regenerate soil health, and enhance agroecosystem services. Currently, no-till technologies are increasingly adopted by farmers in Ukraine; however, farmers are looking for evidence-based knowledge and the government to remove roadblocks. The issue is increasingly becoming more relevant in connection with climate change effects, which require further studies.
References
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2. Adamchuk, A. (2018). Yak Pivden' Ukrayiny prystosovuyet'sya do klimatychnykh zmin: ukrayins'ko-amerykans'ki doslidzhennya [How Southern Ukraine is Adapting to Climate Change: Ukrainian-American Studies]. Super Agronom.com, available at: https://superagronom.com/blog/408-yak-pivden-ukrayini-pristosovuyetsya-do-klimatichnih-zmin-ukrayinsko-amerikanski-doslidjennya. [in Ukrainian].
3. Bulyhin, S. Yu. (2003). Rehlamentatsiya tekhnolohichnoho navantazhennya zemel'nykh resursiv [Regulation of the technological load of land resources]. Zemlevporyadkuvannya, 2, 9-12. [in Ukrainian].
4. Veselovs'kyy, I.V., & Behey, S.V. (1995). Gruntozakhysne zemlerobstvo [Soil conservation agriculture]. Kyiv : Urozhay. [in Ukrainian].
5. Medvedyeyev, V.V., Plisko, I.V., Nakis'ko, S.H., & Titenko H.V. (2018). Dehradatsiya hruntiv u sviti, dosvid yiyi poperedzhennya i podolannya [Soil degradation in the world, experience of its prevention and overcoming]. Kharkiv: Styl'na typohrafiya. [in Ukrainian].
6. Yeshchenko, V.O. (2013). No-Till tekhnolohiya: yiyi s'ohodennya ta maybutnye [No-Till technology: its present and future]. Visnyk Umans'koho Natsional'noho universytetu sadivnytstva, 1-2, 4-9. [in Ukrainian].
7. Kovalenko, I. (2021). Pereyty na no-till. Chy varto vzhe s'ohodni minyaty tradytsiyni ustaleni tekhnolohiyi obrobitku gruntu? [Switch to no-till. Is it necessary to change the traditional established technologies of tillage today?] Ahrarnyy biznes. Available at: http://agro-business.com.ua/agro/ahronomiia-sohodni/item/20608-pereity-na-notill.html [in Ukrainian].
8. Kolomiyets', S.S. (2021). Termodynamichna systema gruntu, yoho homeostaz i virohidnyy mekhanizm utvorennya struktury [Thermodynamic system of the soil, its homeostasis and probable mechanism of structure formation]. Visnyk ahrarnoyi nauky, 3, 14-22. [in Ukrainian].
9. Konovalova, V.M., & Didenko, N.O. (2019). Dosvid vykorystannya tekhnolohiyi nou till i pershi rezul'taty [The experience of using the know tell technology and the first results]. Propozytsiya, 9, 56. Available at: https://propozitsiya.com/ua/dosvid-vykorystannya-tehnologiyi-nou-till-i-pershi-rezultaty. [in Ukrainian].
10. Kosolap, M.P, & Krotinov, O.P. (2011). Systemy zemlerobstva No-till: navchal'nyy posibnyk [No-till farming systems: a study guide]. Kyiv : Lohos. [in Ukrainian].
11. Ponomar'ov, O. (2018). Ya ne lyublyu rutynnoyi roboty, a u sil's'komu hospodarstvi ye ekstrym. Super Agronom.com. Available at: https://superagronom.com/articles/167-oleksandr-ponomarov-ya-ne-lyublyu-rutinnoyi-roboti-a-u-silskomu-gospodarstvi-ye-ekstrim. [in Ukrainian].
12. Kolomiiets, S., Bilobrova, A., Vyr’ovka, V., & Tarasenko, T. (2021). Porivnyal'nyy analiz profil'noyi minlyvosti vodno-fizychnykh vlastyvostey chornozemu pry dovhotryvalomu zastosuvanni oranky ta no-till tekhnolohiy (na prykladi Panfyl's'koyi doslidnoyi stantsiyi). [Comparative analysis of profile variability of water-physical properties of chernozem during long-term use of plowing and no-till technologies (on the example of the Panfilsk experimental station).] Melioratsiya i vodne hospodarstvo, 2, 101 - 133. Available at: https://doi.org/10.31073/mivg202102-289. [in Ukrainian].
13. Pryadko, S. (2018). Vprovadzhennya No-till v Ukrayini – rozstavlyayemo krapky nad «i» [Implementation of No-till in Ukraine - dotting the "i"]. Super Agronom.com. Available at: https://superagronom.com/articles/142-sergiy-pryadko-vprovadjennya-no-till-v-ukrayini--rozstavlyayemo-krapki-nad-i [in Ukrainian]. [in Ukrainian].
14. Medvedev, V. V. (2002). Monytorynh pochv Ukrayny. Kontseptsyya, predvarytel'nue rezul'tatu, zadachy [Soil monitoring in Ukraine. Concept, preliminary results, tasks]. Khar'kov: Antykva. [in Ukrainian].
15. Sayko, V.F., & Maliyenko, A.M. (2007). Systemy obrobitku gruntu v Ukrayini [Tillage systems in Ukraine]. Kyiv : VD EKMO. [in Ukrainian].
16. Tararyko, A. H. (1990). Ahroekolohicheskie osnovy pochvozashchitnoho zemledeliya [Agroecological foundations of conservation agriculture]. Kyiv: Urozhay. [in Russian].
17. Shcherbina, N. (2018). No-Till, abo termokul'tury: yak zvil'nytys' vid «kolorada» ta hospodaryuvaty bez dobryv [No-Till, or thermocultures: how to get rid of "Colorado" and farm without fertilizers]. Cherkasy. Available at: https://cheline.com.ua/news/society/no-till-abo-termokulturi-yak-zvilnitis-vid-kolorada-ta-gospodaryuvati-bez-dobriv-120747. [in Ukrainian].
18. Abdollahi, L., Munkholm, L. J., & Garbout, A. (2014). Tillage System and Cover Crop Effects on 324 Soil Quality: II. Pore Characteristics. Soil Science Society of America Journal, 78, 271-325 .
19. Nelson, N.O., Roozeboom, KL., Yeager, EA., Williams, JR., Zerger, SE, Kluitenberg, GJ., Tomlinson, PJ., Abel, DS., & Carver, R. E. (2023). Agronomic and economic implications of cover crop and phosphorus fertilizer management practices for water quality improvement. Journal of Environmental Quality, 52(1), 113-125. DOI: https://doi.org/10.1002/jeq2.20427
20. Aziz. I., Mahmood. T., & Islam. K.R.. (2013). Effect of long term no-till and conventional tillage practices on soil quality. Soil and Tillage Research, 131, 28-35. DOI: https://doi.org/10.1016/j.still.2013.03.002
21. Beltrão, J., Antunes da Silva A., & Asher J.B. (1996). Modeling the Effect of Capillary Water Rise in Corn Yield in Portugal. Irrigation and Drainage Systems, 10, 179-186.
22. Blanco-Canqui, H., & Ruis, S. (2018). No-till and soil physical environment. Geoderma, 326, 164-200. DOI: https://doi.org/10.1016/j.geoderma.2018.03.011
23. Bonfanto, A., Terrible, F., & Bouma. J. (2019). Refining physical aspects of soil quality and soil health when exploring the effects of soil degradation and climate change on biomass production: An Italian case study. Soil, 5(1), 1-14. DOI: https://doi.org/10.5194/soil-5-1-2019
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Published
2023-07-02
How to Cite
Didenko, N., Kolomiiets, S., Sardak, A., Islam, K., & Reeder, R. (2023). TILLAGE EFFECTS ON SOIL FUNCTIONAL PROPERTIES: A REVIEW. Land Reclamation and Water Management, (1), 85 - 93. https://doi.org/10.31073/mivg202301-356
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Articles
