ATP imaging of spiking optic nerve axons in real time reveals correlation between ATP levels and electrical activity as well as contribution of lactate metabolism to axonal ATP homeostasis.

Microtubule networks in frog egg extracts can spontaneously contract in a manner that can be quantitatively described by an active fluid model.

When crowded bacterial colonies invade a closed area, flow-induced alignment creates strong radial orientation and leads to the formation of aster defects.

Membrane receptor proteins move through primary cilia largely by passive diffusion rather than by active intraflagellar transport.

Mesoscopic properties of motor-microtubule assemblies, such as contractile rates and length scales, can be quantitatively connected to single-motor properties of kinesin motors.

Combining quantitative biological experiment and physical description of actomyosin cortex reveals a contractile instability in the cortex of C. elegans embryo, and its biochemical control in order to robustly drive morphogenetic events.

The cryo-EM structure of Escherichia coli Crl–TAC reveals the mechanism of DNA-contact-independent transcription activation.

In an investigation into the effects of drugs on proteins, an active machine learning algorithm chose which sets of experiments to perform and was able to learn an accurate model of the effects after doing only a fraction of the experiments.

Methods for screening hundreds of DNA sequences for enhancer activity have been extended for use in vivo, uncovering novel enhancer elements active in the early postnatal brain.

The concentration of motile bacteria, expressing a light-driven proton pump, can be precisely controlled in space and time by spatially modulating their swimming speeds with a structured light pattern.