Coupling between cell motility and strong confinement alters the force generators that cause flow fields to change their handedness and lead to enhanced mixing.

A proposal for a complete cellular/network implementation of trial-and-error motor learning in the olivo-cerebellar system.

During early cortical development, microRNA-128 regulates the homeostasis of neural stem cells by targeting PCM1, a protein that is critical for cell division.

The Ca²⁺-dependence of vesicle priming, fusion, and replenishment at cerebellar mossy fiber boutons show a prominent Ca²⁺-dependent priming step, a shallow non-saturating dose-response curve up to 50 µM, and little Ca²⁺-dependence of sustained vesicle replenishment.

Despite lacking traditional ganglia or centralization, the Hydra nervous system computes sensorimotor responses via localized neuron ensembles.

A microfluidic experimental approach combined with dynamical systems theory reveals how to entrain an embryonic oscillator, the segmentation clock, and allows for the quantification of its entrainment properties.

Structural biology studies reveal the importance of protein dynamics on understanding molecular mechanisms underlying allosteric modulation of G protein-coupled receptors (GPCR) that offer insights into future GPCR research and drug discovery.

A novel mechanism of local plasticity in the distal dendrites of hippocampal granule cells.

Xenopus embryos use tissue surface tension to generate hoop-stress around the blastopore to help close it during gastrulation.

Manipulations of Wnt signalling in the chicken embryo reveal how it controls in a dose-dependent manner the formation of the neurosensory territories of the early developing inner ear.