Evolution, Behaviour, Adaptation Group
Members
Maîtresse de conférences
UCBL
Tel: 33 04 72 43 26 33
Assistante ingénieure CDD
CNRS
Doctorante
CNRS
Professeure des universités
VetAgro-Sup
Tel: 04 78 87 25 71
Maîtresse de conférences
UCBL
Tel: 04 72 44 80 67
Professeur des universités
UCBL
Tel: 33 04 72 43 26 33
Directrice de recherche
CNRS
Tel: 33 04 72 43 14 04
Chargée de recherche
CNRS
Tel: 04 72 44 81 42
Post-doc
UCBL
Maître de conférences
UCBL
Tel: 33 04 72 43 13 37
Maîtresse de conférences
UCBL
Tel: 04 72 43 12 86
Directrice de recherche
CNRS
Tel: 33 04 72 43 29 10
Doctorant
UCBL
Tel: 04 72 44 81 42
Doctorante
UCBL
Professeur des universités
UCBL
Tel: 33 04 72 43 29 03
Directeur de recherche
CNRS
Tel: 04 72 44 81 42
Maître de conférences
UCBL
Tel: 33 04 72 43 27 85
Post-doc
UCBL
The Evolution, Adaptation and Behavior group aims at studying the evolution of phenotypic and behavioral traits through a combination of long-term monitoring of natural populations, of field and lab experiments, of molecular analyses, and of mathematical and computational modeling. Our research mainly focuses on animals, in particular mammals (alpine marmot, giraffe), birds (white-throated dipper, collared flycatcher, great tit) and insects (various Drosophila species, the parasitoid wasp Venturia canescens).
We study the evolution of fitness-related traits in interaction, either selective or plastic, with an individual’s biotic and abiotic environment. Interactions between individuals have a special importance in our reasoning and are thus the object of a first axis of research on group dynamics and social interactions. We also consider the environment as providing resources and informative signals through two other axes, one on phenotypic plasticity and the other on resource allocation and the sensitivity to environmental variables. In both, we consider the impact of stress factors caused by human activities — such as global warming, artificial lighting or invading species — or by the presence of pathogens.
Group dynamics and social interaction. The environment encountered by numerous animals contains, on top of resources and other elements, other individuals. Social interactions vary immensely between species, from a solitary lifestyle to such an extreme degree of cooperation that a part of the group sacrifices their reproduction at the benefit of others, specialized in this task. In this axis, we try to understand how groups form and how social structures are maintained, at various scales extending from unicellular organisms to cooperative mammals.
Here are a few examples of questions that we address:
- Evolution of sociality: what are the consequences of climate change on the benefits of group living (in the alpine marmot)? How does that impact group composition and the probability and age of dispersal?
- Group dynamics: how does the size and composition of familial groups evolve in the context of climate change? In giraffes, how do temporary groups form, and what role do kinship play in the probability and duration of pairing?
- Which evolutionary trajectories have led to multicellular organisms expressing differentiated cell types, a part of which sacrifice their reproduction?
- What are the neurogenomic determinants that signal the presence of related individuals in solitary individuals, triggering altruistic behaviors?
Phenotypic plasticity. Evolution by natural selection can drive phenotype changes on short timescales, in the order of a few generations. Yet it remains inefficient to track more frequent environmental changes. Phenotypic plasticity is a means to buffer such environmental variations, either through informed decisions or fixed reaction norms, which are the object of study in this axis.
Here are a few examples of questions that we address:
- How do individual characteristics, in particular personality traits, shape the use of information on the environment for decision-making?
- Is there a trade-off between the speed of decision making and its accuracy? What conditions favor genotypes that make fast, error-prone decisions, or slower, more accurate genotypes?
- What types of environmental variations select for plastic genotypes?
- Do changes in gene expression observed during environmental fluctuations induce behavioral changes?
Resource allocation and sensitivity to environmental variables. Organisms make other decisions throughout their lives as they decide how much resources to allocate to various traits, such as survival, growth, reproduction or immunity. This differential allocation of resources relies on complex systems, or instance the endocrine system in animals, that we study. These systems can be disturbed by anthropogenic changes that disrupt the long-term ecological setting in which they have evolves, resulting in major phenotype perturbations.
Here are a few examples of questions that we address:
- How do endocrine systems — that allow the communication between tissues and control the differential allocation of resources — evolve?
- How do chemical pollutants affect physiological processes, ageing and thereby life-history strategies in response to environmental variation?
- What role do climatic fluctuations play in the heterogeneity of parasite infection, especially at stages that go through the external environment?
Publications
Display of 1 to 30 publications on 453 in total
Female Embryos Are More Likely to Die than Males in a Wild Mammal
The American Naturalist . 205 ( 2 ) : 000-000
DOI: 10.1086/733425
Journal article
see the publicationContribution of variable TE content on phenotype and plasticity in Drosophila melanogaster.
Annual meeting of the Society of Molecular Biology and Evolution (SMBE) .
Conference paper
see the publicationContribution of variable TE content on phenotype and plasticity in Drosophila melanogaster.
Conférence Jacques Monod Life is plastic .
Conference paper
see the publicationContribution of variable TE content on phenotype and plasticity in Drosophila melanogaster
International congress of transposable elements .
Poster
see the publicationThe great tit HapMap project: A continental‐scale analysis of genomic variation in a songbird
Molecular Ecology Resources . 24 ( 5 )
Journal article
see the publicationProjet DS2 : Drosophila suzukii « Développer des Stratégies de gestion efficaces, économiquement viables et durables »
Innovations Agronomiques . 94 : 127-140
Journal article
see the publication(Epi)mutation Rates and the Evolution of Composite Trait Architectures
The American Naturalist . 204 ( 3 ) : E42-E56
DOI: 10.1086/731461
Journal article
see the publicationSons Shorten Mother’s Lifespan in Preindustrial Families with a High Level of Infant Mortality
The American Naturalist . 204 : 315 - 326
DOI: 10.1086/731792
Journal article
see the publicationÉvaluation des risques liés aux helminthoses digestives chez le chien et le chat
Le Point vétérinaire . ( 457 ) : 24-29
Journal article
see the publicationTraitements des helminthoses digestives chez le chien et le chat
Le Point vétérinaire . ( 457 ) : 40-46
Journal article
see the publicationIntérêt et interprétation de la coproscopie chez le chien et le chat
Le Point vétérinaire . ( 457 ) : 30-38
Journal article
see the publicationHow to solve novel problems: the role of associative learning in problem-solving performance in wild great tits Parus major
Animal Cognition . 27 ( 1 ) : 32
Journal article
see the publicationDOHaD: A Menagerie of Adaptations and Perspectives: Long-lasting effects of the presence of male siblings in utero on subsequent reproductive performance
Reproduction [Cambridge] . 167 ( 3 ) : e230049
DOI: 10.1530/rep-23-0049
Journal article
see the publicationSocial interactions throughout life impair longevity and age-specific mating success in male parasitoids
Behavioral Ecology and Sociobiology . 78 : 90
Journal article
see the publicationModelling thermal reaction norms for development and viability in Drosophila suzukii under constant, fluctuating and field conditions
Journal of Thermal Biology . 123 : 103891
Journal article
see the publicationHuman-aided dispersal and population bottlenecks facilitate parasitism escape in the most invasive mosquito species
PNAS Nexus . 3 ( 5 ) : 175
Journal article
see the publicationForaging at night under artificial light: impacts on senescence and lifetime reproductive success for a diurnal insect
Animal Behaviour . 210 : 85-98
Journal article
see the publicationPoster de présentation du living lab Antharès - Réseau de living labs Solu-Biod
Lancement officiel du Programme national de recherche sur les Solutions fondées sur la Nature .
Poster
see the publicationProteome allocation and the evolution of metabolic cross-feeding
Evolution - International Journal of Organic Evolution .
Journal article
see the publicationOn the road to adulthood: exploring progressive changes in foraging behaviour during post-fledging immaturity using remote tracking
Peer Community In Ecology .
Journal article
see the publicationA synthesis of biological invasion hypotheses associated with the introduction–naturalisation–invasion continuum
Oikos . 5 ( 5 ) : e09645
DOI: 10.1111/oik.09645
Journal article
see the publicationThe for gene as one of the drivers of foraging variations in a parasitic wasp
Molecular Ecology . 32 ( 7 ) : 1760-1776
DOI: 10.1111/mec.16834
Journal article
see the publicationLarval density in the invasive Drosophila suzukii : Immediate and delayed effects on life‐history traits
Ecology and Evolution . 13 ( 8 ) : e10433
DOI: 10.1002/ece3.10433
Journal article
see the publicationEditorial: Links between cognition and fitness: Mechanisms and constraints in the wild
Frontiers in Ecology and Evolution . 10
Journal article
see the publicationLarval density in the invasive Drosophila suzukii : Immediate and delayed effects on life‐history traits
Ecology and Evolution . 13 ( 8 ) : 1760-1776
DOI: 10.1002/ece3.10433
Journal article
see the publicationThe for gene as one of the drivers of foraging variations in a parasitic wasp
Molecular Ecology . 32 ( 7 ) : 1760-1776
DOI: 10.1111/mec.16834
Journal article
see the publicationThe for gene as one of the drivers of foraging variations in a parasitic wasp
Molecular Ecology . 32 ( 7 ) : 1760-1776
DOI: 10.1111/mec.16834
Journal article
see the publicationMicrobiota-mediated competition between Drosophila species
Microbiome . 11 : 201
Journal article
see the publication
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