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Breeding Major Cereal Grains through the Lens o~ ~iutrition Sensitivity 被引量:2

Breeding Major Cereal Grains through the Lens o~ ~iutrition Sensitivity
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摘要 Cereal grains are the common food staples that collectively provide over 50% of dietary calories and proteins for the world's population. Although the Green Revolution has greatly increased the yield of commercial cereal crops, they often lack nutrients essential for human health in the edible tissues. In developing nutrition-sensitive agriculture, the nutritional quality of cereal grains has been a major target for improvement using breeding and biotechnology approaches. This review examines recent progress on biofortification of micronutrients (provitamin A and folates) and an essential amino acid (lysine) in three major cereal grains, wheat, rice, and maize, through plant breeding. In addition, how natural variations, induced mutations, and the advanced genome-editing technologies can be applied to improving the nutrient content and stability in these cereal grains are discussed. High-yield cereal crops pyramided with improved (micro)nutrient contents hold great promise to meet the increasing demand of nutritionally limited popula- tions and to contribute to achieving sustainable nutrition security. Cereal grains are the common food staples that collectively provide over 50% of dietary calories and proteins for the world's population. Although the Green Revolution has greatly increased the yield of commercial cereal crops, they often lack nutrients essential for human health in the edible tissues. In developing nutrition-sensitive agriculture, the nutritional quality of cereal grains has been a major target for improvement using breeding and biotechnology approaches. This review examines recent progress on biofortification of micronutrients (provitamin A and folates) and an essential amino acid (lysine) in three major cereal grains, wheat, rice, and maize, through plant breeding. In addition, how natural variations, induced mutations, and the advanced genome-editing technologies can be applied to improving the nutrient content and stability in these cereal grains are discussed. High-yield cereal crops pyramided with improved (micro)nutrient contents hold great promise to meet the increasing demand of nutritionally limited popula- tions and to contribute to achieving sustainable nutrition security.
作者 Shu Yu Li Tian
出处 《Molecular Plant》 SCIE CAS CSCD 2018年第1期23-30,共8页 分子植物(英文版)
关键词 cereal grains nutrition sensitive plant breeding provitamin A LYSINE FOLATES cereal grains, nutrition sensitive, plant breeding, provitamin A, lysine, folates
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  • 1Akhtar T A, Orsomando G, Mehrshahi P, Lara6.fiez A, Bennett M J, Gregory J F, Hanson A D. 2010. A central role fory-glutamyl hydrolases in plant folate homeostasis. The Plant Journal, 64, 256-266.
  • 2Anukul N, Ramos R A, Mehrshahi P, Castelazo A S, Parker H, Dirvart A, Lanau N, Mieulet D, Tucker G, Guiderdoni E. 2010. Folate polyglutamylation is required for rice seed development. Rice, 3, 181-193.
  • 3Basset G J C, Quinlivan E P, Ravanel S, Rrbeill6 F, Nichols B P, Shinozaki K, Seki M, Adams-Phillips L C, Giovannoni J J, Gregory J F. 2004a. Folate synthesis in plants: The p-aminobenzoate branch is initiated by a bifunctional PabA-PabB protein that is targeted to plastids. Proceedings of the National Academy of Sciences of the United States of America, 101, 1496-1501.
  • 4Basset G J C, Ravanel S, Quinlivan E P, White R, Giovannoni J J, Rrbeill6 F, Nichols B P, Shinozaki K, Seki M, Gregory III J F. 2004b. Folate synthesis in plants: The last step of the p-aminobenzoate branch is catalyzed by a plastidial aminodeoxychorismate lyase. The Plant Journal, 40, 453-461.
  • 5Cox K, Robertson D, Fites R. 1999. Mapping and expression of a bifunctional thymidylate synthase, dihydrofolate reductase gene from maize. Plant Molecular Biology, 41, 733-739.
  • 6de Crrcy-Lagard V, E1 Yacoubi B, de la Garza R, Noiriel A, Hanson A. 2007. Comparative genomics of bacterial and plant folate synthesis and salvage: Predictions and validations. BMC Genomics, 8, 245.
  • 7DellaPerma D. 2007. Biofortification of plant-based food: Enhancing folate levels by metabolic engineering. Proceedings of the National Academy of Sciences of the United States of America, 104, 3675-3676.
  • 8Dong W, Cheng Z, Wang X, Wang B, Zhang H, Su N, Yamamaro C, Lei C, Wang J. 2011. Determination of folate content in rice gerrnplasm (Oryza sativa L.) using tri-enzyme extraction and microbiological assays. International Journal of Food Sciences and Nutrition, 62, 537-543.
  • 9Geisel J. 2003. Folic acid and neural tube defects in pregnancy: A review. The Journal ofPerinatal & Neonatal Nursing, 17, 268-279.
  • 10Gilliland L U, Magallanes-Lundback M, Hemming C, Supplee A, Koomneef M, Bentsink L, DellaPenna D. 2006. Genetic basis for natural variation in seed vitamin E levels in Arabidopsis thaliana. Proceedings of the National Academy of Sciences of the United States of America, 103, 18834-18841.

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