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Bio-inspired adaptive neurons that dynamically adjust weights during inference, bringing biological flexibility to rigid artificial neural networks for smarter, more adaptable AI.

MIT researchers place an ultrathin layer of PDMS between metal plates so voltage-driven motion stores a short history of inputs and then fires like a biological cell.

Could your brain be communicating without synapses? New research uncovers how ephaptic coupling could be driving brain activity during sleep and beyond.

A polymer nanogel crossed into the brain, lowered one protein in support cells, and produced working neurons plus better memory in mice.

Neurobots integrate neurons into living frog-cell robots to create complex movement patterns and possible sensory abilities, revealing new insights into biological plasticity and regenerative medicine applications.

This study uses brain recordings to recreate what mice see, revealing how visual information is processed and potentially aiding research on perception across species.

New organic transistors mimic the brain’s synapses to dramatically reduce energy consumption in future computing and artificial intelligence applications.

EPFL researchers activate three genes in memory neurons to reverse age-related decline and improve recall in models of Alzheimer's disease, offering new hope for brain health.

Neuroscientists have reactivated a spatial memory and tested the successful reactivation of the memory circuit in laboratory mice.

The Neuropixels Ultra probe enhances the ability to capture electrical activity from thousands of individual brain cells simultaneously, improving insights into how they form networks that control behavior.