Micronutrient deficiency is increasingly recognized as a major challenge for food and nutrition security, particularly in developing countries. There is a growing global consensus on the need for food-based approaches to improve micronutrient intake. The extensive genetic diversity conserved in plant genetic resources offers important opportunities to identify micronutrient-rich genotypes that can be used directly for consumption or incorporated into breeding programs. Zinc concentration in unpolished brown rice typically ranges from 14.5 to 35.3 mg/kg (Maganti et al., 2020).
In this study, the authors assessed the nutritional composition of 926 accessions from the Oryza glaberrima and Oryza sativa minicore collections using X-ray fluorescence (XRF). They identified 143 zinc-rich accessions, including 73 from O. glaberrima and 70 from O. sativa. Zinc concentration in unpolished grains ranged from 30 to 39.5 mg/kg, with five O. glaberrima accessions showing particularly elevated levels (35–39.5 mg/kg). Compared to the previous collection, this updated dataset includes 68 additional accessions, increasing the overall representation of genetic diversity.
MCPD passport data
MCPD - d209074e-2d51-4dd1-b471-356d65c26e2a.xlsx
Apply custom filters to accessions in this subset
Explore subset accessions on the map
List of accessions included in the subset
CIV033 • DOI: 10.18730/H86X=CIV033 • DOI: 10.18730/SEA2TCIV033 • DOI: 10.18730/H98ZFCIV033 • DOI: 10.18730/H9NKCCIV033 • DOI: 10.18730/H9RZ9CIV033 • DOI: 10.18730/HB4Q3CIV033 • DOI: 10.18730/HB5T1CIV033 • DOI: 10.18730/HB67ECIV033 • DOI: 10.18730/HB6Z1CIV033 • DOI: 10.18730/HB713CIV033 • DOI: 10.18730/SCPTECIV033 • DOI: 10.18730/HBVS1CIV033 • DOI: 10.18730/HBVZ7CIV033 • DOI: 10.18730/HBX47CIV033 • DOI: 10.18730/HBX7ACIV033 • DOI: 10.18730/HBY42CIV033 • DOI: 10.18730/HBYKHCIV033 • DOI: 10.18730/HBYNKCIV033 • DOI: 10.18730/HBZJBCIV033 • DOI: 10.18730/HQ9RMCIV033 • DOI: 10.18730/HQGJGCIV033 • DOI: 10.18730/HQCG$CIV033 • DOI: 10.18730/HQEDNCIV033 • DOI: 10.18730/HQK7VCIV033 • DOI: 10.18730/HQM2HCIV033 • DOI: 10.18730/HC7RECIV033 • DOI: 10.18730/HC7WJCIV033 • DOI: 10.18730/HCCFHCIV033 • DOI: 10.18730/HCFTDCIV033 • DOI: 10.18730/HCHDVCIV033 • DOI: 10.18730/HCHY7CIV033 • DOI: 10.18730/HCSJXCIV033 • DOI: 10.18730/HCYXFCIV033 • DOI: 10.18730/HD45=CIV033 • DOI: 10.18730/HD5XHCIV033 • DOI: 10.18730/HD6BZCIV033 • DOI: 10.18730/HDHHKCIV033 • DOI: 10.18730/SD2RTCIV033 • DOI: 10.18730/HDHY*CIV033 • DOI: 10.18730/HDHZ~CIV033 • DOI: 10.18730/HE9MDCIV033 • DOI: 10.18730/HEE49CIV033 • DOI: 10.18730/HEN5CCIV033 • DOI: 10.18730/HES1SCIV033 • DOI: 10.18730/HFC9CCIV033 • DOI: 10.18730/HFQ6WCIV033 • DOI: 10.18730/SCPF3CIV033 • DOI: 10.18730/SCPG4CIV033 • DOI: 10.18730/HGFCSCIV033 • DOI: 10.18730/SCPPA