Biofortification and bioavailability of Zn, Fe and Se in wheat: present status and future prospects

Key message Knowledge of genetic variation, genetics, physiology/molecular basis and breeding (including biotechnological approaches) for biofortification and bioavailability for Zn, Fe and Se will help in developing nutritionally improved wheat. Biofortification of wheat cultivars for micronutrient...

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Veröffentlicht in:Theoretical and applied genetics 2021, Vol.134 (1), p.1-35
Hauptverfasser: Gupta, P. K., Balyan, H. S., Sharma, Shailendra, Kumar, Rahul
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container_title Theoretical and applied genetics
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creator Gupta, P. K.
Balyan, H. S.
Sharma, Shailendra
Kumar, Rahul
description Key message Knowledge of genetic variation, genetics, physiology/molecular basis and breeding (including biotechnological approaches) for biofortification and bioavailability for Zn, Fe and Se will help in developing nutritionally improved wheat. Biofortification of wheat cultivars for micronutrients is a priority research area for wheat geneticists and breeders. It is known that during breeding of wheat cultivars for productivity and quality, a loss of grain micronutrient contents occurred, leading to decline in nutritional quality of wheat grain. Keeping this in view, major efforts have been made during the last two decades for achieving biofortification and bioavailability of wheat grain for micronutrients including Zn, Fe and Se. The studies conducted so far included evaluation of gene pools for contents of not only grain micronutrients as above, but also for phytic acid (PA) or phytate and phytase, so that, while breeding for the micronutrients, bioavailability is also improved. For this purpose, QTL interval mapping and GWAS were carried out to identify QTLs/genes and associated markers that were subsequently used for marker-assisted selection (MAS) during breeding for biofortification. Studies have also been conducted to understand the physiology and molecular basis of biofortification, which also allowed identification of genes for uptake, transport and storage of micronutrients. Transgenics using transgenes have also been produced. The breeding efforts led to the development of at least a dozen cultivars with improved contents of grain micronutrients, although land area occupied by these biofortified cultivars is still marginal. In this review, the available information on different aspects of biofortification and bioavailability of micronutrients including Zn, Fe and Se in wheat has been reviewed for the benefit of those, who plan to start work or already conducting research in this area.
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subjects 6-Phytase - genetics
Agriculture
Bioavailability
Biochemistry
Biofortification
Biological Availability
Biomedical and Life Sciences
Biotechnology
Cultivars
Food, Fortified
Gene mapping
Genes, Plant
Genetic diversity
Iron - analysis
Life Sciences
Marker-assisted selection
Micronutrients
Micronutrients - analysis
Nutritive Value
Physiological aspects
Physiology
Phytic acid
Phytic Acid - analysis
Plant Biochemistry
Plant Breeding
Plant Breeding/Biotechnology
Plant Genetics and Genomics
Plants, Genetically Modified
Quantitative Trait Loci
Review
Selenium - analysis
Transgenes
Triticum - chemistry
Triticum - genetics
Wheat
Zinc
Zinc - analysis
title Biofortification and bioavailability of Zn, Fe and Se in wheat: present status and future prospects
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