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The composition of nodes that effectively transmit sinusoidal waves in a model network resembling C. elegans' electrical synapses network changes according to the waves' wavenumber.

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.

Chemogenetic silencing reveals that entorhinal neurons require ongoing activity for survival, suggesting that their normal physiology may render them vulnerable to pathologies that impair transmission.

Low-frequency electrical waves in the stomach seem to be synchronised with the activity of a newly discovered resting-state network in the human brain.

A novel technology for recording muscle activity provides unprecedented access to the electrical signals that control the body across muscles, species, and behaviors.

Toddlers with autism spectrum disorders have alterations in gaze patterns together with frequency specific network atypicalities between key brain areas of the social brain when freely exploring naturalistic and ecologically valid dynamic social stimuli.

A combination of mathematical modeling and live-cell imaging reveals a strategy for the rational control over cell electrophysiology though modulation of ion channel expression.

Neural networks like the crustacean cardiac ganglion employ multi-faceted compensatory mechanisms to achieve the stability and robustness that are critical to long-term function.

A combination of human imaging and brain stimulation techniques show that the somatosensory cortex is essential to prosocial decision making, by transforming observed pain in accurate perception of others' distress.

Transient recruitment of electrical synapses mediates precisely timed excitation and inhibition to enhance synchronized control of cerebellar cortical output.