Identifying genomic regions determining shoot and root traits related to nitrogen uptake efficiency in a multiparent advanced generation intercross (MAGIC) winter wheat population in a high-throughput phenotyping facility

In the context of a continuously increasing human population that needs to be fed, with environmental protection in mind, nitrogen use efficiency (NUE) improvement is becoming very important. To understand the natural variation of traits linked to nitrogen uptake efficiency (UPE), one component of N...

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Veröffentlicht in:Plant science (Limerick) 2023-05, Vol.330, p.111656-111656, Article 111656
Hauptverfasser: Schmidt, Laura, Jacobs, John, Schmutzer, Thomas, Alqudah, Ahmad M., Sannemann, Wiebke, Pillen, Klaus, Maurer, Andreas
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container_title Plant science (Limerick)
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creator Schmidt, Laura
Jacobs, John
Schmutzer, Thomas
Alqudah, Ahmad M.
Sannemann, Wiebke
Pillen, Klaus
Maurer, Andreas
description In the context of a continuously increasing human population that needs to be fed, with environmental protection in mind, nitrogen use efficiency (NUE) improvement is becoming very important. To understand the natural variation of traits linked to nitrogen uptake efficiency (UPE), one component of NUE, the multiparent advanced generation intercross (MAGIC) winter wheat population WM-800 was phenotyped under two contrasting nitrogen (N) levels in a high-throughput phenotyping facility for six weeks. Three biomass-related, three root-related, and two reflectance-related traits were measured weekly under each treatment. Subsequently, the population was genetically analysed using a total of 13,060 polymorphic haplotypes and singular SNPs for a genome-wide association study (GWAS). In total, we detected 543 quantitative trait loci (QTL) across all time points and traits, which were pooled into 42 stable QTL (sQTL; present in at least three of the six weeks). Besides Rht-B1 and Rht-D1, candidate genes playing a role in gibberellic acid-regulated growth and nitrate transporter genes from the NPF gene family, like NRT 1.1, were linked to sQTL. Two novel sQTL on chromosomes 5 A and 6D showed pleiotropic effects on several traits. The high number of N-specific sQTL indicates that selection for UPE is useful specifically under N-limited conditions. •Breeding for nitrogen uptake efficiency (UPE) is essential.•Wheat varieties differ significantly in their ability to cope with N deficiency.•N-dependent QTL suggest that selection for UPE under low N is preferable.•In total, 543 QTL were detected by GWAS, pooled into 42 time stable QTL.•Multiple detected QTL showed pleiotropic effects.
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source MEDLINE; Elsevier ScienceDirect Journals
subjects environmental protection
genes
Genome-Wide Association Study
Genomics
GWAS
Haplotype
haplotypes
High-throughput phenotyping
human population
Humans
Multiparental population (MAGIC)
nitrates
Nitrogen
Nitrogen uptake efficiency (UPE)
nutrient use efficiency
Phenotype
QTL
Quantitative Trait Loci - genetics
quantitative traits
Triticum - genetics
Winter wheat
title Identifying genomic regions determining shoot and root traits related to nitrogen uptake efficiency in a multiparent advanced generation intercross (MAGIC) winter wheat population in a high-throughput phenotyping facility
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