000			01781nab|a22003017a|4500
999			_c62541 _d62533
001			62541
003			MX-TxCIM
005			20240919021229.0
008			200907s2015||||ne |||p|op||||00||0|eng|d
022			_a0958-1669
024	8		_ahttps://doi.org/10.1016/j.copbio.2014.11.027
040			_aMX-TxCIM
041			_aeng
100	1		_aLangridge, P. _98803
245	1	0	_aGenomic tools to assist breeding for drought tolerance
260			_aAmsterdam (Netherlands) : _bElsevier, _c2015.
500			_aPeer review
520			_aWater deficit or drought stress is a major limitation to crop production globally. Plant breeders have used a wide range of technologies to successfully breed varieties that perform well under the growth conditions for their target environments but they are always seeking new opportunities to enhance rates of genetic gain. Under drought, yield is determined by the integration of variable levels of water deficit across the developmental life of the crop. Genomics technologies were seen as a path to understand the genetic and environmental complexity of drought stress. To be relevant to breeding programs, genomic studies must consider the nature of drought stress in the target environment and use plant material and phenotyping techniques that relate to field conditions.
546			_aText in English
591			_aJiafa Chen : No CIMMYT Affiliation
650		7	_aPlant breeding _gAGROVOC _2 _91203
650		7	_2AGROVOC _91082 _aDrought tolerance
650		7	_2AGROVOC _91081 _aDrought stress
650		7	_2AGROVOC _91132 _aGenomics
700	1		_aReynolds, M.P. _gGlobal Wheat Program _8INT1511 _9831
773	0		_tCurrent Opinion in Biotechnology _gv. 32, p. 130-135 _dAmsterdam (Netherlands) : Elsevier, 2015. _x0958-1669
942			_cJA _n0 _2ddc