Dryland agricultural environment and sustainable productivity

Cited 11 time in scopus
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dc.contributor.authorG X Li-
dc.contributor.authorB C Xu-
dc.contributor.authorL N Yin-
dc.contributor.authorS W Wang-
dc.contributor.authorS Q Zhang-
dc.contributor.authorL Shan-
dc.contributor.authorSang Soo Kwak-
dc.contributor.authorQ Ke-
dc.contributor.authorX P Deng-
dc.date.accessioned2020-09-24T03:12:31Z-
dc.date.available2020-09-24T03:12:31Z-
dc.date.issued2020-
dc.identifier.issn1863-5466-
dc.identifier.urihttps://oak.kribb.re.kr/handle/201005/22649-
dc.description.abstractGlobal climate change is expected to cause progressively increased frequency and severity of drought events, which further seriously limit plant growth and crop yields. Increasing water use efficiency (WUE) and yield per unit rainfall are one of the most important challenges in dry land agriculture. Here, we reviewed the comprehensive technical strategies including conserving water to combine both increased agricultural productivity and resource conservation; enquiring into how crop plants respond to drought through morphological, physiological, and molecular modifications that occur in all plant organs; breeding for drought tolerance where there is a delineated stress environment and genotype × environment interactions are stable; effective conservation of rainfall and high efficiency of use. In addition, we discussed the preponderance of biological water-saving measures, which embraces improvements in WUE and drought tolerance, by genetic improvement and physiological regulation. Sustainable agriculture would be benefited from modern engineering such as biological engineering, conservation tillage, and breeding technologies.-
dc.publisherSpringer-
dc.titleDryland agricultural environment and sustainable productivity-
dc.title.alternativeDryland agricultural environment and sustainable productivity-
dc.typeArticle-
dc.citation.titlePlant Biotechnology Reports-
dc.citation.number0-
dc.citation.endPage176-
dc.citation.startPage169-
dc.citation.volume14-
dc.contributor.affiliatedAuthorSang Soo Kwak-
dc.contributor.alternativeNameLi-
dc.contributor.alternativeNameXu-
dc.contributor.alternativeNameYin-
dc.contributor.alternativeNameWang-
dc.contributor.alternativeNameZhang-
dc.contributor.alternativeNameShan-
dc.contributor.alternativeName곽상수-
dc.contributor.alternativeNameKe-
dc.contributor.alternativeNameDeng-
dc.identifier.bibliographicCitationPlant Biotechnology Reports, vol. 14, pp. 169-176-
dc.identifier.doi10.1007/s11816-020-00613-w-
dc.subject.keywordConservation tillage-
dc.subject.keywordDry land agriculture-
dc.subject.keywordGlobal climate change-
dc.subject.keywordSustainable production-
dc.subject.keywordWater use efficiency-
dc.subject.keywordWater-saving biology-
dc.subject.localConservation tillage-
dc.subject.localconservation tillage-
dc.subject.localDry land agriculture-
dc.subject.localGlobal climate change-
dc.subject.localSustainable production-
dc.subject.localwater use efficiency-
dc.subject.localWater use efficiency-
dc.subject.localWater-saving biology-
dc.description.journalClassY-
Appears in Collections:
Division of Research on National Challenges > Plant Systems Engineering Research > 1. Journal Articles
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