NEW ARTICLE
Even when the underlying model for a neuron is unknown, relevant information on ion channels can still be inferred by utilizing recursive piecewise assimilation of electrophysiological data, and model error can be quantified.
Stephen A. Wells, Joseph D. Taylor, Paul G. Morris, and Alain Nogaret
PRX Life 2, 023007 (2024)
NEW ARTICLE
Building on a variational quantum eigensolver and utilizing divide-and-conquer strategies, an algorithm that combines short and long DNA sequence reads shows promise for the optimization of quantum computing applied to genome assembly.
Jing-Kai Fang et al.
PRX Life 2, 023006 (2024)
NEW ARTICLE
A new spectral regularization method that disentangles entropy from coevolutionary signals in protein sequences is able to infer contact maps with higher accuracy enabling the design of new stable proteins.
Haobo Wang et al.
PRX Life 2, 023005 (2024)
NEW ARTICLE
A deep neural network architecture merges segmentation and tracking, offering enhanced precision for image analysis of densely packed bacterial and eukaryotic cells.
Jean Ollion et al.
PRX Life 2, 023004 (2024)
NEW ARTICLE
The study reveals that Pseudomonas aeruginosa’s pilus activity promotes cell detachment and migration and, in combination with passive adhesion, forms an effective strategy for colonizing surfaces in shear flow conditions.
Ahmet Nihat Simsek et al.
PRX Life 2, 023003 (2024)
NEW ARTICLE
This study identified a new mechanism of active self-organization in microbial communities by which motile bacteria induce non-equilibrium spatial patterns in non-motile ones through surface-swimming-induced fluid flows.
Silvia Espada Burriel and Remy Colin
PRX Life 2, 023002 (2024)
NEW ARTICLE
In this study, non-ergodic models accounting for slow behavioral adaptive changes explain universal long-term patterns observed in the motions of animals, such as larval zebrafish and C. elegans.
Antonio Carlos Costa, Gautam Sridhar, Claire Wyart, and Massimo Vergassola
PRX Life 2, 023001 (2024)
NEW ARTICLE
This study shows that spatial correlations add to the information that cells can derive about their position in the embryo, and experimental data shows that this extra information is just enough to specify cellular identities uniquely.
Lauren McGough et al.
PRX Life 2, 013016 (2024)