Process‐based models are becoming increasingly used tools for understanding how
species are likely to respond to environmental changes and to potential management …

Spatially explicit population models (SEPMs) can simulate spatiotemporal changes in
species' range dynamics in response to variation in climatic and environmental conditions …

Maximising the spatiotemporal variability of prescribed fire (ie pyrodiversity) is often thought
to benefit biodiversity. However, given mixed empirical support, the generality of the …

Diadromous species are particularly vulnerable to climate change because they utilize both
marine and freshwater habitat to complete their life cycles. Dispersal plays an important role …

Sleeper populations of non-native species can remain at low abundance for decades before
irrupting. For over a century, fallow deer (Dama dama) in the island state of Tasmania …

Several methods of measuring biodiversity in development‐offset trades exist. However,
there is little consensus on which biodiversity metrics should be used for quantifying …

Reliably modelling the demographic and distributional responses of a species to
environmental changes can be crucial for successful conservation and management …

Aim Many species are adapted to a particular fire regime and major deviations from that
regime may lead to localized extinction. Here, we quantify immaturity risks to an obligate …

Designing effective spatial management strategies is challenging because marine
ecosystems are highly dynamic and opaque, and extractive entities such as fishing fleets …

Considering local population dynamics and dispersal is crucial to project species' range
adaptations in changing environments. Dynamic models including these processes are …