Selecting among competing statistical models is a core challenge in science. However, the
many possible approaches and techniques for model selection, and the conflicting …

Climate warming has caused the seasonal timing of many components of ecological food
chains to advance. In the context of trophic interactions, the match–mismatch hypothesis …

Phenotypic plasticity is a major mechanism of response to global change. However, current
plastic responses will only remain adaptive under future conditions if informative …

The phenology of many species shows strong sensitivity to climate change; however, with
few large scale intra-specific studies it is unclear how such sensitivity varies over a species' …

Climate change has been shown to induce shifts in the timing of life‐history events. As a
result, interactions between species can become disrupted, with potentially detrimental …

Many wild populations are experiencing temporal changes in life-history and other
phenotypic traits, and these changes are frequently assumed to be driven by climate change …

Climate change has caused a clear and univocal trend towards advancement in spring
phenology. Changes in autumn phenology are much more diverse, with advancement …

Seawater temperatures are increasing, with many unquantified impacts on marine diseases.
While prolonged temperature stress can accelerate host-pathogen interactions, the …

Climate change causes changes in the timing of life cycle events across all trophic groups.
Spring phenology has mostly advanced, but large, unexplained, variations are present …

Climate warming is expected to lengthen the growing season of tree species and enhance
radial growth rates. Alternatively, a longer growing season could not lead to improved radial …