How elevated CO2 affects our nutrition in rice, and how we can deal with it

Increased concentrations of atmospheric CO2 are predicted to reduce the content of essential elements such as protein, zinc, and iron in C3 grains and legumes, threatening the nutrition of billions of people in the next 50 years. However, this prediction has mostly been limited to grain crops, and m...

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Veröffentlicht in:PloS one 2019-03, Vol.14 (3), p.e0212840-e0212840
Hauptverfasser: Ujiie, Kazuhiro, Ishimaru, Ken, Hirotsu, Naoki, Nagasaka, Seiji, Miyakoshi, Yuichi, Ota, Masako, Tokida, Takeshi, Sakai, Hidemitsu, Usui, Yasuhiro, Ono, Keisuke, Kobayashi, Kazuhiko, Nakano, Hiroshi, Yoshinaga, Satoshi, Kashiwagi, Takayuki, Magoshi, Jun
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container_issue 3
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container_title PloS one
container_volume 14
creator Ujiie, Kazuhiro
Ishimaru, Ken
Hirotsu, Naoki
Nagasaka, Seiji
Miyakoshi, Yuichi
Ota, Masako
Tokida, Takeshi
Sakai, Hidemitsu
Usui, Yasuhiro
Ono, Keisuke
Kobayashi, Kazuhiko
Nakano, Hiroshi
Yoshinaga, Satoshi
Kashiwagi, Takayuki
Magoshi, Jun
description Increased concentrations of atmospheric CO2 are predicted to reduce the content of essential elements such as protein, zinc, and iron in C3 grains and legumes, threatening the nutrition of billions of people in the next 50 years. However, this prediction has mostly been limited to grain crops, and moreover, we have little information about either the underlying mechanism or an effective intervention to mitigate these reductions. Here, we present a broader picture of the reductions in elemental content among crops grown under elevated CO2 concentration. By using a new approach, flow analysis of elements, we show that lower absorption and/or translocation to grains is a key factor underlying such elemental changes. On the basis of these findings, we propose two effective interventions-namely, growing C4 instead of C3 crops, and genetic improvements-to minimize the elemental changes in crops, and thereby avoid an impairment of human nutrition under conditions of elevated CO2.
doi_str_mv 10.1371/journal.pone.0212840
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subjects Agricultural production
Atmosphere - chemistry
Biology and Life Sciences
Carbon dioxide
Carbon Dioxide - physiology
Carbon dioxide atmospheric concentrations
Carbon dioxide concentration
Chromosomes
Crop Production - methods
Crop Production - trends
Crop science
Crops
Crops, Agricultural - chemistry
Crops, Agricultural - physiology
Earth Sciences
Ecology and Environmental Sciences
Environmental science
Fabaceae - chemistry
Fabaceae - physiology
Feeding Behavior - physiology
Food Supply
Genetic improvement
Grain
Grain crops
Human nutrition
Humans
Iron
Legumes
Medicine and Health Sciences
Micronutrients - administration & dosage
Micronutrients - physiology
Nitrogen
Nutrition
Oryza - chemistry
Oryza - physiology
Photosynthesis - physiology
Physical Sciences
Plants, Genetically Modified - chemistry
Plants, Genetically Modified - physiology
Predictions
Proteins
Research and Analysis Methods
Rice
Translocation
Zinc
title How elevated CO2 affects our nutrition in rice, and how we can deal with it
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