
Iodine deficiency is a widespread micronutrient malnutrition problem, and the addition of iodine to table salt represents the most common prophylaxis tool. The biofortification of crops with iodine is a recent strategy to further enrich the human diet with a potentially cost-effective, well accepted and bioavailable iodine source. Understanding how iodine functions in higher plants is key to establishing suitable biofortification approaches. This review describes the current knowledge regarding iodine physiology in higher plants, and provides updates on recent agronomic and metabolic engineering strategies of biofortification. Whereas the direct administration of iodine is effective to increase the iodine content in many plant species, a more sophisticated genetic engineering approach seems to be necessary for the iodine biofortification of some important staple crops.
Crops, Agricultural, Biological Availability, Agriculture, Biotechnology; Bioengineering; Biomedical Engineering, Metabolic Engineering, Humans, Biofortification, Iodine
Crops, Agricultural, Biological Availability, Agriculture, Biotechnology; Bioengineering; Biomedical Engineering, Metabolic Engineering, Humans, Biofortification, Iodine
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