Polygenic adaptation and negative selection across traits, years and environments in a long-lived plant species (Pinus pinaster Ait., Pinaceae)

A decade of association studies in multiple organisms suggests that most complex traits are polygenic; that is, they have a genetic architecture determined by numerous loci distributed across the genome, each with small effect-size. Thus, determining the degree of polygenicity and its variation acro...

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Hauptverfasser: Marina De Miguel, Rodriguez-Quilon, Isabel, Heuertz, Myriam, Hurel, Agathe, Grivet, Delphine, Juan Pablo Jaramillo-Correa, Vendramin, Giovanni G, Plomion, Christophe, Majada, Juan, Alia, Ricardo, Eckert, Andrew J, Gonzalez-Martinez, Santiago C
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container_title Molecular ecology
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creator Marina De Miguel
Rodriguez-Quilon, Isabel
Heuertz, Myriam
Hurel, Agathe
Grivet, Delphine
Juan Pablo Jaramillo-Correa
Vendramin, Giovanni G
Plomion, Christophe
Majada, Juan
Alia, Ricardo
Eckert, Andrew J
Gonzalez-Martinez, Santiago C
description A decade of association studies in multiple organisms suggests that most complex traits are polygenic; that is, they have a genetic architecture determined by numerous loci distributed across the genome, each with small effect-size. Thus, determining the degree of polygenicity and its variation across traits, environments and years is useful to understand the genetic basis of phenotypic variation. In this study, we applied multilocus approaches to estimate the degree of polygenicity of fitness-related traits in a long-lived plant (Pinus pinaster Ait., maritime pine) and to analyze how polygenicity changes across environments and years. To do so, we evaluated five categories of fitness-related traits (survival, height, phenology-related, functional, and biotic-stress response traits) in a clonal common garden network, planted in contrasted environments (over 12,500 trees). First, most of the analyzed traits showed evidence of local adaptation based on QST-FST comparisons. Second, we observed a remarkably stable degree of polygenicity, averaging 6% (range of 0-27%), across traits, environments and years. As previously suggested for humans, some of these traits showed also evidence of negative selection, which could explain, at least partially, the high degree of polygenicity. The observed genetic architecture of fitness-related traits in maritime pine supports the polygenic adaptation model. Because polygenic adaptation can occur rapidly, our study suggests that current predictions on the capacity of natural forest tree populations to adapt to new environments should be revised, which is of special relevance in the current context of climate change. Competing Interest Statement The authors have declared no competing interest. Footnotes * Additional analysis on gene function enrichment at pathway-level have been incorporated. Writting of all sections has been reorganized and improved.
doi_str_mv 10.1101/2020.03.02.974113
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source Wiley Online Library Journals Frontfile Complete
subjects Adaptation
Climate change
Genetic diversity
Genomes
Life Sciences
Negative selection
Phenotypic variations
Pinus pinaster
Polygenic inheritance
Reproductive fitness
title Polygenic adaptation and negative selection across traits, years and environments in a long-lived plant species (Pinus pinaster Ait., Pinaceae)
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