Environmental patterns of adaptation after range expansion in Leontodon longirostris: The effect of phenological events on fitness‐related traits

Premise Because of expected range shifts associated with climate change, there is a renewed interest in the evolutionary factors constraining adaptation, among which are genetic bottlenecks, drift, and increased mutational load after range expansion. Here we study adaptation in the short‐lived speci...

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Veröffentlicht in:American journal of botany 2022-04, Vol.109 (4), p.602-615
Hauptverfasser: Pedro, Manuel, Mayol, Maria, González‐Martínez, Santiago C., Regalado, Ingrid, Riba, Miquel
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container_issue 4
container_start_page 602
container_title American journal of botany
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creator Pedro, Manuel
Mayol, Maria
González‐Martínez, Santiago C.
Regalado, Ingrid
Riba, Miquel
description Premise Because of expected range shifts associated with climate change, there is a renewed interest in the evolutionary factors constraining adaptation, among which are genetic bottlenecks, drift, and increased mutational load after range expansion. Here we study adaptation in the short‐lived species Leontodon longirostris showing reduced genetic diversity and increased genetic load along an expansion route. Methods We assessed the phenological patterns of variation, and their effect on fitness‐related traits, on 42 L. longirostris populations and six populations of the sister taxa L. saxatilis in a common garden located within the current range of both species. The comparison among L. longirostris populations allowed us to test for genetic clines consistent with local adaptation, whereas the comparison between taxa provided evidence for common adaptive features at the species level. Results We found significant within‐species variability for most traits, as well as differences with its close relative L. saxatilis. In general, seeds from drier, warmer, and unpredictable habitats showed overall lower and more restricted conditions for germination, seedlings emerged later and plants flowered earlier. Consequently, genotypes from arid and unpredictable environments attained smaller reproductive sizes and allocated more biomass to reproduction. Flowering time had the strongest direct effect on total plant size, but seedling emergence also showed an important indirect effect. Conclusions Our results show the crucial role of phenological patterns in shaping adaptive clines for major life‐history stage transitions. Furthermore, the genetic load observed in L. longirostris does not seem to preclude adaptation to the climatic variability encountered along the expansion route.
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Here we study adaptation in the short‐lived species Leontodon longirostris showing reduced genetic diversity and increased genetic load along an expansion route. Methods We assessed the phenological patterns of variation, and their effect on fitness‐related traits, on 42 L. longirostris populations and six populations of the sister taxa L. saxatilis in a common garden located within the current range of both species. The comparison among L. longirostris populations allowed us to test for genetic clines consistent with local adaptation, whereas the comparison between taxa provided evidence for common adaptive features at the species level. Results We found significant within‐species variability for most traits, as well as differences with its close relative L. saxatilis. In general, seeds from drier, warmer, and unpredictable habitats showed overall lower and more restricted conditions for germination, seedlings emerged later and plants flowered earlier. Consequently, genotypes from arid and unpredictable environments attained smaller reproductive sizes and allocated more biomass to reproduction. Flowering time had the strongest direct effect on total plant size, but seedling emergence also showed an important indirect effect. Conclusions Our results show the crucial role of phenological patterns in shaping adaptive clines for major life‐history stage transitions. 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Here we study adaptation in the short‐lived species Leontodon longirostris showing reduced genetic diversity and increased genetic load along an expansion route. Methods We assessed the phenological patterns of variation, and their effect on fitness‐related traits, on 42 L. longirostris populations and six populations of the sister taxa L. saxatilis in a common garden located within the current range of both species. The comparison among L. longirostris populations allowed us to test for genetic clines consistent with local adaptation, whereas the comparison between taxa provided evidence for common adaptive features at the species level. Results We found significant within‐species variability for most traits, as well as differences with its close relative L. saxatilis. In general, seeds from drier, warmer, and unpredictable habitats showed overall lower and more restricted conditions for germination, seedlings emerged later and plants flowered earlier. Consequently, genotypes from arid and unpredictable environments attained smaller reproductive sizes and allocated more biomass to reproduction. Flowering time had the strongest direct effect on total plant size, but seedling emergence also showed an important indirect effect. Conclusions Our results show the crucial role of phenological patterns in shaping adaptive clines for major life‐history stage transitions. 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Here we study adaptation in the short‐lived species Leontodon longirostris showing reduced genetic diversity and increased genetic load along an expansion route. Methods We assessed the phenological patterns of variation, and their effect on fitness‐related traits, on 42 L. longirostris populations and six populations of the sister taxa L. saxatilis in a common garden located within the current range of both species. The comparison among L. longirostris populations allowed us to test for genetic clines consistent with local adaptation, whereas the comparison between taxa provided evidence for common adaptive features at the species level. Results We found significant within‐species variability for most traits, as well as differences with its close relative L. saxatilis. In general, seeds from drier, warmer, and unpredictable habitats showed overall lower and more restricted conditions for germination, seedlings emerged later and plants flowered earlier. Consequently, genotypes from arid and unpredictable environments attained smaller reproductive sizes and allocated more biomass to reproduction. Flowering time had the strongest direct effect on total plant size, but seedling emergence also showed an important indirect effect. Conclusions Our results show the crucial role of phenological patterns in shaping adaptive clines for major life‐history stage transitions. Furthermore, the genetic load observed in L. longirostris does not seem to preclude adaptation to the climatic variability encountered along the expansion route.</abstract><cop>United States</cop><pub>Botanical Society of America, Inc</pub><pmid>35067917</pmid><doi>10.1002/ajb2.1815</doi><tpages>14</tpages><orcidid>https://orcid.org/0000-0003-2164-9880</orcidid><orcidid>https://orcid.org/0000-0001-8407-9083</orcidid><orcidid>https://orcid.org/0000-0002-6694-9759</orcidid><orcidid>https://orcid.org/0000-0002-4534-3766</orcidid><oa>free_for_read</oa></addata></record>
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subjects Acclimatization
Adaptation
Adaptation, Physiological
Aridity
Asteraceae
biomass allocation
Climate change
Clines
Environmental Sciences
Evolution
expansion load
Fitness
Flowering
flowering time
Genetic diversity
Genetic load
Genotypes
Germination
Leontodon
Leontodon longirostris
Leontodon saxatilis
Life history
life‐history evolution
phenology
Phenotype
Plants
Plants (botany)
Populations
range expansion
Range extension
Reproductive fitness
Seedlings
Seeds
Species
Taxa
Variability
title Environmental patterns of adaptation after range expansion in Leontodon longirostris: The effect of phenological events on fitness‐related traits
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