Revolutionary brain-computer interfaces that integrate living neurons with silicon chips, enabling direct synaptic communication between biological neural networks and artificial processing units.
The world's first truly neural-silicon hybrid processor that combines the adaptability of living tissue with the precision of electronic processing.
Direct integration of living neurons with silicon circuits, enabling seamless communication between biological and artificial neural networks.
Millisecond-precision neural signal processing with bidirectional communication capabilities for real-time control and feedback.
Self-adapting neural networks that learn and evolve through synaptic plasticity and neural circuit formation.
Detailed technical parameters and performance metrics
Revolutionary applications transforming healthcare and human capabilities
Restoring motor function in paralyzed patients through direct neural control of prosthetic limbs and exoskeletons.
Bypassing damaged optic nerves to restore vision through direct stimulation of the visual cortex.
Augmenting human memory through neural interfaces that can store, retrieve, and enhance cognitive functions.
Creating hybrid human-AI systems that combine biological intelligence with artificial processing power.
Ongoing experimental research and breakthrough discoveries
We are conducting advanced optogenetic experiments using ChR2 and Chrimson proteins to achieve precise neural control. Our current experiments involve:
Our electrophysiological recording experiments are testing new microelectrode array designs and signal processing algorithms:
We are testing direct neural control of robotic systems through implanted interfaces: