Self-organization based on a feedback loop between cell geometry and division plane positioning plays a central role in the building of tissue architectures in Arabidopsis thaliana embryo through both stereotyped and variable division patterns.

An ecological trade-off between growth and death enables microbes with different dispersal strategies to coexist on particulate matter in the oceans.

Combined optogenetic and computer modeling approaches reveal how mechanical bistability of the mesoderm epithelium works jointly with apical constriction to facilitate mesoderm invagination in Drosophila, a well-characterized model for epithelial folding.

Laboratory experiments using a microbial community and mathematical modeling reveal how environmental disturbances can predictably alter the diversity and composition of an ecosystem.

A precise sequence of left-right asymmetries, combined with mechanical constraints, is sufficient to drive the looped morphogenesis of the embryonic heart tube, with potential impact for congenital heart defects.

Neural networks can emulate normal and abnormal human ventricular action potentials accurately and potentially much faster than regular simulations paving the way for more efficient quantitative systems pharmacology studies.

Customization of ion channel gating enhances homeostatic regulation through automatic detection and correction of abnormal physiological changes, as illustrated by self-restoration of excitation rhythm in cardiac arrhythmias.

Studying individual Achilles tendon geometry and interface sliding capacity may allow prediction of injury sites, and targeted training on specific muscle-(sub-)tendon units may boost beneficial outcomes for Achilles tendinopathy.

A combination of two local cell interactions, intercalation and ingression amplified by a community-effect, is sufficient to explain the global movements of amniote gastrulation.