000 04397nab|a22004217a|4500
001 69059
003 MX-TxCIM
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022 _a2666-1543 (Online)
024 8 _ahttps://doi.org/10.1016/j.jafr.2025.102161
040 _aMX-TxCIM
041 _aeng
100 1 _aHoque, M.A.
_97936
245 1 0 _aAlternating tillage with conservation agricultural practices in intensive rice (Oryza sativa L.)-based cropping systems can improve soil health and increase crop and systems productivity in the Eastern Indo-Gangetic Plains
260 _aNetherlands :
_bElsevier B.V.,
_c2025.
500 _aPeer review
500 _aOpen Access
520 _aAvailable ariable land for agriculture in South Asia's Eastern Indo-Gangetic Plains (EIGP) is decreasing while the population and the demand for food is increasing. Despite this pressure to intensify land use, large tracts of land still remain fallow during the dry season. Making productive use of these lands is essential to increasing farm output while safeguarding food security. One potential part of the solution to this challenge lies in improved land management practices. Conservation agriculture with no or reduced tillage (CA), or alternating tillage where monsoon rice is established with full tillage and dry season crops with reduced or zero tillage (AT), can potentially facilitate improved crop establishment, increase yield, and improve soil health and the resilience of cropping systems. This study was undertaken to evaluate CA, AT and conventional tillage (CT) under double- or triple cropping sequences on loamy soil in a (sub) tropical environment in the EIGP northern Bangladesh. The experiment included six cropping systems (CS) over three consecutive years: CS1, Aman rice (Oryza sativa L.) – Boro or winter rice (Oryza sativa L.) (R-R); CS2, Aman rice – Wheat (Triticum aestivum L.) (R-W); CS3, Aman rice – Maize (Zea mays L.)(R-M); CS4, Aman rice - Mung bean (Vigna radiata L.) (R-M); CS5, Aman rice – Wheat – Mung bean (R-W-MB); and CS6, Aman rice – Maize – Mung bean (R-M-MB). In CS5 and CS6, mung bean replaced land fallowing after the predominant dry season crop. Maize, but not rice, yields were higher in AT or CA than CT. The R-W-MB and R-M systems had the highest system-level rice equivalent yield. Soil chemical properties, except SOM, total N, and Mn, in the 0–15 cm portion of the soil profile also differed significantly among the systems. Cropping systems had a significant effect on soil penetration resistance up to 30 cm soil depth. The buffering capacity of the soil under these treatments against diurnal temperature variation was also higher under CA followed by AT. These results suggest that AT with CA-based management practices can improve cropping systems level yields and soil properties. These practices can also be be adapted to rice-based farming systems where they can support improved land management and increase systems productivity and soil health. Long-term studies are required across soil types, climates, and socio-economic conditions to extrapolate findings to larger areas of the EGP.
546 _aText in English
597 _dUnited States Agency for International Development (USAID)
_dBill & Melinda Gates Foundation (BMGF)
_dAustralian Centre for International Agricultural Research (ACIAR)
_dDepartment of Foreign Affairs and Trade (DFAT)
_fScaling for Impact
_uhttps://hdl.handle.net/10568/179019
650 7 _aConservation agriculture
_2AGROVOC
_92619
650 7 _aCropping systems
_2AGROVOC
_91068
650 7 _aRice
_2AGROVOC
_91243
650 7 _aYields
_2AGROVOC
_91313
650 7 _aSoil fertility
_2AGROVOC
_91952
650 0 _aTillage
_gAGROVOC
_97651
651 7 _aIndia
_2AGROVOC
_93726
700 1 _aGathala, M.K.
_gSustainable Agrifood Systems
_8INT3262
_9911
700 1 _aTimsina, J.
_gFormerly Sustainable Intensification Program
_8I1706280
_9337
700 1 _aZiauddin, A.T.M.
_919878
700 1 _aHossain, M.
_929486
700 1 _aKrupnik, T.J.
_gSustainable Agrifood Systems
_8INT3222
_9906
773 0 _tJournal of Agriculture and Food Research
_gv. 23, art. 102161
_dNetherlands : Elsevier B.V., 2025.
_x2666-1543
856 4 _yOpen Access through DSpace
_uhttps://hdl.handle.net/10883/35815
942 _cJA
_n0
_2ddc
999 _c69059
_d69051