Neurotechnology

Prosthetic limbs that respond to thought and transmit touch, pressure, and temperature back to the user

Design principles that keep users in control when AI assists with prosthetics or medical devices

Computational models simulating neural circuits and brain function

Policies to prevent unequal access to cognitive enhancement technologies

Neural cuffs that read motor commands and deliver sensory feedback through peripheral nerves

Robotic systems controlled by brain signals for surgery, hazardous work, or remote operations

Decoding neural signals to infer mental states and enable brain-computer interfaces

Machine learning models that classify cognitive states like attention or fatigue from neural signals

Direct neural transmission of thoughts or commands between brains via networked interfaces

Real-time neural monitoring that triggers stimulation only when pathological activity is detected

AI-powered cochlear implants with fully internalized hardware for natural hearing restoration

Legal protections for mental privacy and freedom from neural interference

Headbands and earbuds using dry-EEG sensors to track brain activity for meditation, focus, and sleep

Adaptive brain stimulation that adjusts in real-time to reduce Parkinson's motor symptoms

Personalized brain simulations for testing treatments before applying them to patients

Machine learning systems that reconstruct dream imagery from brain activity during sleep

Stent-based electrodes implanted through blood vessels to record brain activity without open-skull surgery

External systems that extend memory, reasoning, and cognitive capacity beyond the brain

Polymer-based neural electrodes that flex with brain tissue to maintain stable contact

Ultrathin electrode arrays that conform to the brain's surface for high-resolution neural recording

Electrode arrays recording thousands of neurons simultaneously for brain–machine interfaces

EEG systems with 256+ electrodes for detailed, non-invasive brain activity mapping

XR environments controlled directly by brain signals for hands-free interaction

Wireless grain-sized sensors injected into neural tissue to record brain activity