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145 results for “Plasticity variation”
Intraspecific variation of Phragmites australis: Clinal adaption of functional traits and phenotypic plasticity vary with latitude of origin
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Data from: Adaptive plasticity and epigenetic variation in response to warming in an Alpine plant
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Data from: Soil erodibility differs according to heritable trait variation and nutrient-induced plasticity in the salt marsh engineer Spartina alterniflora
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Data from: The alignment between phenotypic plasticity, the major axis of genetic variation and the response to selection
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Evolution of phenotypic plasticity: genetic differentiation and additive genetic variation for induced defense in wild arugula Eruca sativa
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Data from: Life history as a constraint on plasticity: developmental timing is correlated with phenotypic variation in birds
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Selection and plasticity both account for inter-annual variation in life-history phenology in an annual prairie legume
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Data from: Individual variation in plasticity dulls transgenerational responses to stress
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Data for: Plasticity and co-variation of root traits govern phosphorus acquisition among 20 wheat genotypes
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Evolutionary and plastic variation in larval growth and digestion reveal the complex underpinnings of size and age at maturation in dung beetles
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Data from: Adaptive alignment of plasticity with genetic variation and selection
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Data from: Trait plasticity and tradeoffs shape intraspecific variation in competitive response in a foundation tree species
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Data from: Fear on the move: predator hunting mode predicts variation in prey mortality and plasticity in prey spatial response
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Data from: Individual variation in phenotypic plasticity of the stress axis
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Data from: Interannual variation in season length is linked to strong co-gradient plasticity of phenology in a montane annual plant
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Data from: The genetic basis of variation in sexual aggression: evolution versus social plasticity
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Species responses to changing precipitation depends on trait plasticity rather than trait means and intraspecific variation
<p>1. Trait-based approaches are key to develop mechanistic understanding of differences in plant species performance under environmental change. While mean trait values have been widely used to link functional traits to species performance, the contribution of intraspecific trait variation and trait plasticity remains unclear. Moreover, environmentally induced changes in species biomass is caused by changes in the number of individuals and individual growth rate, both of which should be influenced by trait differences and plasticity. Our goal in this study is to use trait-based information to explain species performance via changes in species abundance and individual weight.</p> <p>2. We measured the mean, intraspecific variation and plasticity of nine aboveground plant traits, and a further three mean root traits of ten common species in a precipitation manipulation experiment in semiarid grassland. We used this trait information to explain differences in the responses of species biomass, abundance and mean individual weight to changing precipitation. Species responses were calculated as the normalized slopes of the regressions between species biomass, abundance and individual weight with the manipulated precipitation amount.</p> <p>3. We found strong differences in species responses to changing precipitation for species biomass, abundance and mean individual weight. Reduced precipitation decreased biomass, abundance and mean individual weight for some species, but increased them for others. Biomass and mean individual weight of species with resource-acquisitive traits, such as shallow rooted species, showed stronger positive responses to changing precipitation compared to resource-conservative traits, like those with deep roots. For aboveground traits, trait plasticity was the strongest predictor of species responses compared to mean traits and intraspecific trait variation. In addition, trait plasticity regulated changes in species biomass more via changes in species abundance than mean individual weight.</p> <p>4. These results indicate that trait plasticity is a key driver for determining species specific responses to changing precipitation and needs more consideration for understanding and predicting ecosystem structure and functioning in future climate scenarios.</p>
Data from: Phenotypic plasticity, but not adaptive tracking, underlies seasonal variation in post-cold hardening freeze tolerance of Drosophila melanogaster
<p> In temperate regions, an organism's ability to rapidly adapt to seasonally varying environments is essential for its survival. In response to seasonal changes in selection pressure caused by variation in temperature, humidity, and food availability, some organisms exhibit plastic changes in phenotype. In other cases, seasonal variation in selection pressure can rapidly increase the frequency of genotypes that offer survival or reproductive advantages under the current conditions. Little is known about the relative influences of plastic and genetic changes in short lived organisms experiencing seasonal environmental fluctuations. Cold hardening is a seasonally relevant plastic response in which exposure to cool, but nonlethal, temperatures significantly increases the organism's ability to later survive at freezing temperatures. In the present study, we demonstrate seasonal variation in cold hardening in <em>Drosophila melanogaster</em> and test the extent to which plasticity and adaptive tracking underlie that seasonal variation. We measured the post-cold hardening freeze tolerance of flies from outdoor mesocosms over the summer, fall, and winter. We bred outdoor mesocosm-caught flies for two generations in the lab and matched each outdoor cohort to an indoor control cohort of similar genetic background. We cold hardened all flies under controlled laboratory conditions and then measured their post-cold hardening freeze tolerance. Comparing indoor and field-caught flies and their laboratory-reared G1 and G2 progeny allowed us to determine the roles of seasonal environmental plasticity, parental effects, and genetic changes on cold hardening. We also tested the relationship between cold hardening and other factors, including age, developmental density, food substrate, presence of antimicrobials, and supplementation with live yeast. We found strong plastic responses to a variety of field- and lab-based environmental effects, but no evidence of seasonally varying parental or genetic effects on cold hardening. We therefore conclude that seasonal variation in post-cold hardening freeze tolerance results from environmental influences and not genetic changes. </p>
Ancestral genetic variation in phenotypic plasticity underlies rapid evolutionary changes in resurrected populations of waterfleas
<p>The role that phenotypic plasticity plays in adaptive evolution has been debated for decades. This is because the strength of natural selection is dependent upon the direction and magnitude of phenotypic responses to environmental signals. Therefore, the connection between plasticity and adaptation will depend on the patterns of plasticity harbored by ancestral populations prior to a change in the environment. Yet, few studies have directly assessed ancestral variation in plasticity and tracked phenotypic changes over time. Here we resurrected historic propagules of <i>Daphnia</i> spanning multiple species and lakes in Wisconsin following the invasion and proliferation of a novel predator (spiny waterflea, <i>Bythotrephes</i> <i>longimanus</i>)<i>. </i>This approach revealed extensive genetic variation in predator-induced plasticity in ancestral populations of <i>Daphnia</i>. It is unlikely that the standing patterns of plasticity shielded <i>Daphnia</i> from selection to permit long-term coexistence with a novel predator. Instead, this variation in plasticity provided the raw materials for <i>Bythotrephes</i>-mediated selection to drive rapid shifts in <i>Daphnia</i> behavior and life history. Surprisingly, there was little evidence for the evolution of trait plasticity as genetic variation in plasticity was maintained in the face of a novel predator. Such results provide new insights into the link between plasticity and adaptation and highlight the importance of quantifying genetic variation in plasticity when evaluating the drivers of evolutionary change in the wild. </p>
Data from: Species' range dynamics affect the evolution of spatial variation in plasticity under environmental change
While clines in environmental tolerance and phenotypic plasticity along a single species' range have been reported repeatedly and are of special interest in the context of adaptation to environmental changes, we know little about their evolution. Recent empirical findings in ectotherms suggest that processes underlying dynamic species' ranges can give rise to spatial differences in environmental tolerance and phenotypic plasticity within species. We used individual-based simulations to investigate how plasticity and tolerance evolve in the course of three scenarios of species' range shifts and range expansions on environmental gradients. We found that regions of a species' range which experienced a longer history or larger extent of environmental change generally exhibited increased plasticity or tolerance. Such regions may be at the trailing edge when a species is tracking its ecological niche in space (e.g., in a climate change scenario) or at the front edge when a species expands into a new habitat (e.g., in an expansion/invasion scenario). Elevated tolerance and plasticity in the distribution center was detected when asymmetric environmental change (e.g., polar amplification) led to a range expansion. However, tolerance and plasticity clines were transient and slowly flattened out after range dynamics because of genetic assimilation.
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.