David Demory

TL;DR: A new study models the potential effects of preferentially deploying recovered individuals, who are seropositive for anti-SARS-CoV-2 antibodies, into the community to reduce the number of interactions between susceptible and infected people, thereby limiting transmission of the virus.

TL;DR: In this article, the authors assessed how temperature influences the interplay between the main genetic clades of this prominent microalga and their viruses and showed that temperature changes critically affect the outcome of Micromonas infection and have implications for ocean biogeochemistry and evolution.

TL;DR: This study reconstructed single cell trajectories in an open raceway using an original hydrodynamical model offering a powerful discretization of the Navier–Stokes equations tailored to systems with free surfaces and revealed an unexpected photosynthetic response compared to that recorded under the on/off signals usually used in the literature.

TL;DR: A dynamic, adaptive model is developed and forecast simulations are run, exploring a range of adaptation time scales, to probe the likely responses to climate change and stress how biodiversity erosion depends on the ability of organisms to adapt rapidly to temperature increase.

TL;DR: An epidemiological intervention model that leverages serological tests to identify and deploy recovered individuals as focal points for sustaining safer interactions via interaction substitution is developed and analyzed, showing that a shield immunity approach may significantly reduce the length and reduce the overall burden of an outbreak.