In this study, RNA-mediated allosteric protein regulation is proposed as a key mechanism driving viral capsid formation, revealing how single mutations can disrupt viral assembly and identifying new targets for antiviral treatments.

In this study, the authors describe the phase diagram of an ecological system with demographic noise, heterogeneous interactions, and migration, showing how mutualism can spontaneously emerge.

In study the authors show how the balance of two chemoreceptors and the strength of opposing gradients unlocks the prediction of bacterial adaptive responses to complex environments.

In this study, the authors propose mechanisms for how sarcomeres - the regular contractile units in muscle cells - self-assemble based on data indicating that myosin motors and actin crosslinkers initially form periodic patterns.

In this study, the authors measure vibration modes in human living cells, solving a 70-year-old mystery, using advanced microcantilever technology, which has potential application in cell fingerprinting and cell killing by ultrasound waves.

In this study, the authors employ atomic force microscopy to reveal how cells exert active forces on the basement membrane, measuring the tensions that shape and sustain the architecture of epithelial tissues.

In this study, the authors show that the collective motions of deuterium-enriched water can affect the protein dynamics in hydrated powders, posing a challenge to conventional deuteration techniques in neutron scattering studies.

In this study, the authors introduce MELON-4D, a computational tool for modeling chromatin organization in four dimensions. Initially applied to the Drosophila nucleus, its versatility allows it to reveal the underlying forces shaping nuclear architecture and dynamics across eukaryotes.

This study proposes a unifying explanation for ion channels collective behaviors such as clustering, cooperativity, and memory effects through lipid-mediated interactions.

In the study, authors reveal new geometric principles of bifurcations during spatiotemporal decision-making and demonstrate that a non-Euclidean neural representation of space simplifies decision-making in multi-target environments.

Using Atomic Force Microscopy and targeted enzymatic digestion, this study untangles the knots of the kinetoplast DNA, a unique genome made of interlinked DNA rings found in parasites, and uncovers the organisation of this unique structure.

In this study, the authors present a theory connecting environmental conditions with intracellular events, which explains why stressed cells are more resilient to future stress.

By studying the effect of thymic selection on the variability of the human T-cell receptor beta chain repertoire, the authors of this work found a smooth landscape challenging the concept of ‘forbidden’ receptors.

In this study, RNA-mediated allosteric protein regulation is proposed as a key mechanism driving viral capsid formation, revealing how single mutations can disrupt viral assembly and identifying new targets for antiviral treatments.

In this study, the authors explain how the variability in connection patterns among neurons influences the heterogeneity found in neuron activity.

In this study, the authors describe the phase diagram of an ecological system with demographic noise, heterogeneous interactions, and migration, showing how mutualism can spontaneously emerge.

In this study, the authors show how template-directed RNA ligation under non-equilibrium conditions could spontaneously lead to homochirality, offering insights on the origin of life.

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.