A groundbreaking brain implant has helped a paralyzed man regain movement and the sensation of touch years after a spinal ...

Over the past several years, we have seen accelerating technological change. Machine learning is accelerating drug discovery, ...

A man who hasn’t been able to move or speak for years imagines picking up a cup and filling it with water. In response to the man’s thoughts, a robotic arm mounted on his wheelchair glides forward, ...

Brain-computer interfaces (BCIs) have made remarkable progress restoring movement and speech in people with paralysis. While ...

China's brain-computer interface (BCI) sector is accelerating its transition from the laboratory to industrialization, making steady progress via the market launch of diverse related products and ...

Expanding BCI technology beyond motor paralysis to psychiatric conditions like depression, anxiety, PTSD, and OCD requires shifting from static motor cortical decoding to dynamic, multi-region network ...

Noninvasive BCIs decode user intent from neural activity to enable control of external robotic systems. Shared autonomy is achieved by integrating decoded human intent with robotic intelligence.

Living with a sudden, life-altering injury can make even the simplest daily tasks feel like distant memories.

Science fiction has long imagined a world where our brains interact with machines to restore and augment our abilities—think of the neural implants that connected to Geordi La Forge’s visor in Star ...

As the body’s most external organ, skin is privileged for human-computer interfaces because it can be accessed non-invasively. Despite much progress on thin flexible devices that conform to skin for ...