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024 8 _ahttps://doi.org/10.1016/j.dib.2022.107807
040 _aMX-TxCIM
041 _aeng
100 1 _aWimalasiri, E.M.
_919180
245 1 0 _aDatasets for the development of hemp (Cannabis sativa L.) as a crop for the future in tropical environments (Malaysia)
260 _aNetherlands :
_bElsevier,
_c2022.
500 _aPeer review
500 _aOpen Access
520 _aAn evidence base was developed to facilitate adoption of hemp (Cannabis sativa L.) in tropical environments (Wimalasiri et al. (2021)). Agro-ecological requirements data of hemp were acquired from international databases and was contrasted against local climate and soil conditions using an augmented species ecological niche modeling. The outputs were then used to map the suitability for all locations for 12 possible calendar-year seasons within peninsular Malaysia. The most probable seasonal map was then used to generate a land suitability map for agricultural areas across 5 standard land suitability categories. Having developed the general suitability maps of hemp in Malaysia, detailed crop growth data were collected from literature and was then used to simulate an ideotype crop model (for both seed and fiber) for selected locations across Malaysia, where detailed daily climate data and soil information were available. Following the development of a downscaled future climate dataset, a simulated dataset of yield for the future conditions were also developed. Next, the simulated seed and fiber yield data were used to create yield maps for hemp across peninsular Malaysia. An economic value and cost-benefit analyses were also carried out using data that were collected from literature and local sources to simulate the true cost and benefit of growing hemp both for now and future conditions. This data provides the first ever evidence base for an underutilized crop in Southeast Asia. All data that was generated using the proposed published framework for the adoption of hemp in the future are stored in their original format in an online repository and is described in this article. The data can be used to map the suitability at finer scales, analyze and re-calibrate a yield model using any climate scenario and evaluate the economics of production using the standard methodology described in the above-mentioned publication.
546 _aText in English
650 7 _aData
_99002
_2AGROVOC
650 7 _aHemp
_922939
_2AGROVOC
650 7 _aEconomics
_91093
_2AGROVOC
650 7 _aLand suitability
_913797
_2AGROVOC
650 0 _aMaximum sustainable yield
_gAGROVOC
_910792
700 1 _aJahanshiri, E.
_922940
700 1 _aSyaherah, T.A.
_926465
700 1 _aKuruppuarachchi, N.
_922941
700 1 _aChimonyo, V.G.P.
_8001712688
_gSustainable Intensification Program
_gSustainable Agrifood Systems
_919177
700 1 _aAzam-Ali, S.N.
_922943
700 1 _aGregory, P.J.
_99373
773 0 _tData in Brief
_gv. 40, art. 107807
_dNetherlands : Elsevier, 2022.
_x2352-3409
856 4 _yOpen Access through DSpace
_uhttps://hdl.handle.net/10883/21880
942 _cJA
_n0
_2ddc
999 _c64913
_d64905