Camilla Stefanini, Katalin Csilléry, Bartosz Ulaszewski, Jarosław Burczyk, Michael E Schaepman, Meredith C Schuman
{"title":"对欧洲山毛榉二十年微卫星研究的新综述揭示了冰川避难所遗传多样性的减少。","authors":"Camilla Stefanini, Katalin Csilléry, Bartosz Ulaszewski, Jarosław Burczyk, Michael E Schaepman, Meredith C Schuman","doi":"10.1007/s11295-022-01577-4","DOIUrl":null,"url":null,"abstract":"<p><p>Genetic diversity influences the evolutionary potential of forest trees under changing environmental conditions, thus indirectly the ecosystem services that forests provide. European beech (<i>Fagus sylvatica</i> L.) is a dominant European forest tree species that increasingly suffers from climate change-related die-back. Here, we conducted a systematic literature review of neutral genetic diversity in European beech and created a meta-data set of expected heterozygosity (<i>He</i>) from all past studies providing nuclear microsatellite data. We propose a novel approach, based on population genetic theory and a min-max scaling to make past studies comparable. Using a new microsatellite data set with unprecedented geographic coverage and various re-sampling schemes to mimic common sampling biases, we show the potential and limitations of the scaling approach. The scaled meta-dataset reveals the expected trend of decreasing genetic diversity from glacial refugia across the species range and also supports the hypothesis that different lineages met and admixed north of the European mountain ranges. As a result, we present a map of genetic diversity across the range of European beech which could help to identify seed source populations harboring greater diversity and guide sampling strategies for future genome-wide and functional investigations of genetic variation. 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A novel synthesis of two decades of microsatellite studies on European beech reveals decreasing genetic diversity from glacial refugia.
Genetic diversity influences the evolutionary potential of forest trees under changing environmental conditions, thus indirectly the ecosystem services that forests provide. European beech (Fagus sylvatica L.) is a dominant European forest tree species that increasingly suffers from climate change-related die-back. Here, we conducted a systematic literature review of neutral genetic diversity in European beech and created a meta-data set of expected heterozygosity (He) from all past studies providing nuclear microsatellite data. We propose a novel approach, based on population genetic theory and a min-max scaling to make past studies comparable. Using a new microsatellite data set with unprecedented geographic coverage and various re-sampling schemes to mimic common sampling biases, we show the potential and limitations of the scaling approach. The scaled meta-dataset reveals the expected trend of decreasing genetic diversity from glacial refugia across the species range and also supports the hypothesis that different lineages met and admixed north of the European mountain ranges. As a result, we present a map of genetic diversity across the range of European beech which could help to identify seed source populations harboring greater diversity and guide sampling strategies for future genome-wide and functional investigations of genetic variation. Our approach illustrates how to combine information from several nuclear microsatellite data sets to describe patterns of genetic diversity extending beyond the geographic scale or mean number of loci used in each individual study, and thus is a proof-of-concept for synthesizing knowledge from existing studies also in other species.
Supplementary information: The online version contains supplementary material available at 10.1007/s11295-022-01577-4.
期刊介绍:
Tree Genetics and Genomes is an international, peer-reviewed journal, which provides for the rapid publication of high quality papers covering the areas of forest and horticultural tree genetics and genomics.
Topics covered in this journal include:
Structural, functional and comparative genomics
Evolutionary, population and quantitative genetics
Ecological and physiological genetics
Molecular, cellular and developmental genetics
Conservation and restoration genetics
Breeding and germplasm development
Bioinformatics and databases
Tree Genetics and Genomes publishes four types of papers:
(1) Original Paper
(2) Review
(3) Opinion Paper
(4) Short Communication.