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Journal of Integrative Agriculture  2015, Vol. 14 Issue (7): 1309-1320    DOI: 10.1016/S2095-3119(14)60962-X
Physiology·Biochemistry·Cultivation·Tillage Advanced Online Publication | Current Issue | Archive | Adv Search |
The main physical properties of planosol in maize (Zea mays L.) cultivation under different long-term reduced tillage practices in the Baltic region
 K?stutis Romaneckas, Egidijus Šarauskis, Dovil? Avi?ienyt?, Sidona Buragien?, David Arney
1、Institute of Agrosystems and Soil Sciences, Aleksandras Stulginskis University, Akademija 53361, Lithuania
2、Institute of Agricultural Engineering and Safety, Aleksandras Stulginskis University, Akademija 53362, Lithuania
3、Department of Nutrition and Animal Products Quality, Institute of Veterinary Medicine and Animal Sciences, Estonian University of Life Sciences, Tartu 51006, Estonia
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摘要  The impact of sustainable reduced tillage (RT) on the physical properties of soil is well documented worldwide; however, there is no precise information about the influence of long-term RT or no-till (NT) on the soils at the boundary for grain maize-growing in the semi-humid subarctic climate conditions of the Baltic states, especially on the formation of a hardened upper soil layer (10–15 cm in depth) - “loosening hardpan”. This study was carried out at the Research Station of Aleksandras Stulginskis University, Lithuania from 2009–2012. The investigations were based on a long-term (since 1988) field experiment. The aim of the investigation was to ascertain the influence of reduced primary tillage on the main soil’s physical properties. This study examined soils that were deep ploughing (DP), shallow ploughing (SP), deep cultivation (DC), shallow cultivation (SC), and no-till (NT). Reducing the tillage intensity to NT had no significant effect on the structural soil’s composition; however, the stability of the structure of the >1 and >0.25 mm-size fractions was significantly higher in the non-reversibly tilled (DC, SC) and NT plots. The penetration resistance of the DP soils was less after primary tillage and wintering, and became similar to the NT plots at the end of the maize growth season. After primary tillage and wintering, the soil moisture content in the upper soil layer (0–5 cm depth) of the NT plots was 17–49 and 16–18% higher than that in the DP. Long-term reduction of primary tillage up to NT generally had no significant effect on the moisture content and soil bulk density of the 0–10 and 10–20 cm layers. The results showed that long-term RT stabilized the physical quality of soil. Less soil penetration resistance was established in the DP plots compared to both RT and NT, however, indicators of the formation of a uniform “loosening hardpan” layer were not found. It is summarized that long-term RT or NT systems stabilize, or may increase, the physical quality of soil in crop cultivation with low inter-row coverage potential (maize), and could be applied in semi-humid subarctic climate conditions as a good option to prevent soil degradation.

Abstract  The impact of sustainable reduced tillage (RT) on the physical properties of soil is well documented worldwide; however, there is no precise information about the influence of long-term RT or no-till (NT) on the soils at the boundary for grain maize-growing in the semi-humid subarctic climate conditions of the Baltic states, especially on the formation of a hardened upper soil layer (10–15 cm in depth) - “loosening hardpan”. This study was carried out at the Research Station of Aleksandras Stulginskis University, Lithuania from 2009–2012. The investigations were based on a long-term (since 1988) field experiment. The aim of the investigation was to ascertain the influence of reduced primary tillage on the main soil’s physical properties. This study examined soils that were deep ploughing (DP), shallow ploughing (SP), deep cultivation (DC), shallow cultivation (SC), and no-till (NT). Reducing the tillage intensity to NT had no significant effect on the structural soil’s composition; however, the stability of the structure of the >1 and >0.25 mm-size fractions was significantly higher in the non-reversibly tilled (DC, SC) and NT plots. The penetration resistance of the DP soils was less after primary tillage and wintering, and became similar to the NT plots at the end of the maize growth season. After primary tillage and wintering, the soil moisture content in the upper soil layer (0–5 cm depth) of the NT plots was 17–49 and 16–18% higher than that in the DP. Long-term reduction of primary tillage up to NT generally had no significant effect on the moisture content and soil bulk density of the 0–10 and 10–20 cm layers. The results showed that long-term RT stabilized the physical quality of soil. Less soil penetration resistance was established in the DP plots compared to both RT and NT, however, indicators of the formation of a uniform “loosening hardpan” layer were not found. It is summarized that long-term RT or NT systems stabilize, or may increase, the physical quality of soil in crop cultivation with low inter-row coverage potential (maize), and could be applied in semi-humid subarctic climate conditions as a good option to prevent soil degradation.
Keywords:  bulk density       maize       moisture content       penetration resistance       reduced tillage       soil aggregation  
Received: 04 May 2014   Accepted:
Fund: 

Investigations were partly funded by a grant from the Research Council of Lithuania (MIP-116/2012).

Corresponding Authors:  K?stutis Romaneckas, Tel: +370-656-30044,E-mail: kestas.romaneckas@asu.lt     E-mail:  kestas.romaneckas@asu.lt

Cite this article: 

K?stutis Romaneckas, Egidijus ?arauskis, Dovil? Avi?ienyt?, Sidona Buragien?, David Arney. 2015. The main physical properties of planosol in maize (Zea mays L.) cultivation under different long-term reduced tillage practices in the Baltic region. Journal of Integrative Agriculture, 14(7): 1309-1320.

Aikins S H M, Afuakwa J J. 2012. Effect of four differenttillage practices on soil physical properties under cowpea.Agriculture and Biology Journal of North America, 3, 17-24

Alvarez R, Steinbach H S 2009 A review of the effects of tillagesystems on some soil physical properties, water content,nitrate availability and crops yield in the Argentine PampasSoil & Tillage Research, 104, 1-15

Arvidsson J, Bölenius E, Cavalieri K M V. 2012. Effects ofcompaction during drilling on yield of sugar beet (Betavulgaris L.). European Journal of Agronomy, 39, 44-51

Arvidsson J, Westlin A, Sörensson F. 2013. Working depth innon-inversion tillage - effects on soil physical propertiesand crop yield in Swedish field experiments. Soil & TillageResearch, 126, 259-266

Avi?ienyt? D, Romaneckas K, Pališkyt? R, Bogu?as V,Pilipavi?ius V, Šarauskis E, Adamavi?ien? A, Vaiciukevi?iusE. 2013. The impact of long-term reduced primary soiltillage on maize (Zea mays L.) productivity. Zemdirbyste-Agriculture, 100, 377-382

Bertolino A V F A, Fernandes N F, Miranda J P L, Souza AP, Lopes M R S, Palmieri F. 2010. Effects of plough pandevelopment on surface hydrology and on soil physicalproperties in Southeastern Brazilian Plateau. Journal ofHydrology, 393, 94-104

Buragien? S, Šarauskis E, Romaneckas K, Adamavi?ien?A, Avi?ienyt? D, Katkevi?ius E. 2011. The influence ofdifferent tillage technologies on soil mechanical-physicalproperties. ?em?s ūkio in?inerija. Mokslo Darbai, 43, 25-42(in Lithuanian)

Celik I, Turgut M M, Acir N. 2012. Crop rotation and tillageeffects on selected soil physical properties of a typicHaploxerert in an irrigated semi-arid Mediterranean region.International Journal of Plant Production, 6, 457-480

Daraghmeh O A, Jensen J R, Petersen C T. 2009. Soil structurestability under conventional and reduced tillage in a sandyloam. Geoderma, 150, 64-71

Derpsch R, Franzluebbers A J, Duiker S W, Reicosky D C,Koeller K, Friedrich T, Sturny W G, Sá J C M, Weiss K.2014. Why do we need to standardize no-tillage research?Soil & Tillage Research, 137, 16-22

Dospechov B A, Vasiljev I P, Tulikov A M. 1977. Practicum ofMethods in Agriculture. Kolos Press, Moscow, Russia. (inRussian)Feiza V, Feizien? D, Deveikyt? I. 2006. Reduced tillage inspring: 1. Influence on soil physical properties. Zemdirbyste.Mokslo Darbai, 93, 35-55(in Lithuanian)

Gozubuyuk Z, Sahinb U, Ozturkc I, Celik A, Adiguzel M C. 2014.Tillage effects on certain physical and hydraulic propertiesof a loamy soil under a crop rotation in a semi-arid regionwith a cool climate. Catena, 118, 195-205

Gruber S, Mohring J, Claupein W. 2011. On the way towardsconservation tillage-soil moisture and mineral nitrogen ina long-term field experiment in Germany. Soil & TillageResearch, 115-116, 80-87

Hamza M A, Anderson W K 2005. Soil compaction in croppingsystems. A review of nature, causes and possible solutions.Soil & Tillage Research, 82, 121-145

Hillel D. 1982. Introduction to Soil Physics. Academic Press,INC, Harcourt Brace Jovanovich, San Diego, USA. pp.58-63

Jodaugiene D, Raudonius S, Spokiene N, Treciokas K. 2005.The influence of ploughing and ploughless soil tillage onsoil properties in winter wheat crop. Agronomijas Vestis(Latvian Journal of Agronomy), 8, 200-205

Król A, Lipiec J, Turski M, Kus J. 2013. Effects of organic andconventional management on physical properties of soilaggregates. International Agrophysics, 27, 15-21

Kumar A, Chen Y, Sadek A, Rahman S. 2012. Soil cone index inrelation to soil texture, moisture content, and bulk density forno-tillage and conventional tillage. Agricultural EngineeringInternational: CIGR Journal, 14, 26-37

Lebert M, Böken H, Glante F. 2007. Soil compaction-indicatorsfor the assessment of harmful changes to the soil in thecontext of the German Federal Soil Protection Act. Journalof Environmental Management, 82, 388-397

Letey J. 1985. Relationship between soil physical propertiesand crop production. In: Stewart B A, ed., Advances in SoilScience. vol. 1. Springer, New York, USA. pp. 277-294

López M V, Blanco-Moure N, Limón M Á, Gracia R. 2012.No tillage in rainfed Aragon (NE Spain): Effect on organiccarbon in the soil surface horizon. Soil & Tillage Research,118, 61-65

Lopez-Garrido R, Madejon E, Leon-Camacho M, Giron I,Moreno F, Murillo J M. 2014. Reduced tillage as analternative to no-tillage under Mediterranean conditions: Acase study. Soil & Tillage Research, 140, 40-47

Munkholm L J, Heck R J, Deen B. 2013. Long-term rotation andtillage effects on soil structure and crop yield. Soil & TillageResearch, 127, 85-91

Nerpin S, Chudnovsky А. 1967. Soil Physics. Nauka Press,Moscow, Russia. (in Russian)van den Putte A, Govers G, Diels J, Langhans C, Clymans W,Vanuytrecht E, Merckx R, Raes D. 2012. Soil functioningand conservation tillage in the Belgian Loam Belt. Soil &Tillage Research, 122, 1-11

Revut I V. 1972. Soil Physics. Kolos Press, Leningrad, Russia.(in Russian)Romaneckas K, Romaneckien? R, Šarauskis E. 2006. Theeffect of primary soil tillage methods on sugar beet growthon a light loam luvisol. Zemdirbyste-Agriculture, 93, 81-87

Romaneckas K, Romaneckien? R, Šarauskis E, Pilipavi?ius V,Sakalauskas A. 2009. The effect of conservation primaryand zero tillage on soil bulk density, water content, sugarbeet growth and weed infestation. Agronomy Research,7, 73-86

Romaneckas K, Šarauskis E, Masilionyt? L, Sakalauskas A,Pilipavi?ius V. 2013. Impact of different tillage methods onsilty loam luvisol water content in sugar beet (Beta vulgarisL.) crop. Journal of Environmental Protection, 4, 219-225

Rusu T, Moraru P I, Ranta O, Drocas I, Bogdan I, Pop A I, Sopterean M L. 2011. No-tillage and minimum tillage-theirimpact on soil compaction, water dynamics, soil temperatureand production on wheat, maize and soybean crop. BulletinUASVM Agriculture, 68, 318-323

Salem H M, Valero C, Muñoz M A, Gil Rodríguez M, Silva LL. 2015. Short-term effects of four tillage practices on soilphysical properties, soil water potential, and maize yield.Geoderma, 237-238, 60-70

Soane B D, Ball B C, Arvidsson J, Basch G, Moreno F, Roger-Estrade J 2012. No-till in northern, western and southwesternEurope: A review of problems and opportunitiesfor crop production and the environment. Soil & TillageResearch, 118, 66-87

Stancevi?ius A, Jodaugien? D, Špokien? N, Raudonius S,Tre?iokas K. 2003. The influence of long-term ploughing andploughless soil tillage on soil properties and spring barleycrop. Zemdirbyste-Agriculture, 83, 40-51

Stancevi?ius A, Špokien? N, Jodaugien? D, Tre?iokas K,Raudonius S. 1999. The effects reduced tillage on winterwheat yield and agrophysical soil properties. In: Proceedingsof the International Scientific Conference of Baltic StatesAgricultural Universities. Agroekological Optimization ofHusbandry Technologies. Latvia University of Agriculture,Jelgava, Latvia. pp. 157-165

Stancevicius A, Spokiene N, Raudonius S, Treciokas K,Jodaugiene D, Kemesius J. 2000. Reduced primary soiltillage on the light loamy soils. In: Proceedings of theInternational Conference. The Results of Long-TermField Experiments in Baltic States. Latvia University ofAgriculture, Jelgava, Latvia. pp. 133-146

Šarauskis E, Romaneckas K, Buragien? S. 2009. Impactof conventional and sustainable soil tillage and sowingtechnologies on physical-mechanical soil properties.Environmental Research, Engineering and Management,49, 36-43

Šarauskis E, Buragien? S, Masilionyt? L, Romaneckas K,Avi?ienyt? D, Sakalauskas A. 2014. Energy balance, costsand CO2 analysis of tillage technologies in maize cultivation.Energy, 69, 227-235

Šimanskait? D. 2007. The effect of ploughing and ploughlesssoil tillage on soil physical properties and crop productivity.?em?s ūkio Mokslai, 14, 9-19 (in Lithuanian)
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