Pioneering Biological Intelligence through Neural Networks, DNA Computing, and Synaptic Processing
Revolutionary brain-computer interfaces that integrate living neurons with silicon chips, enabling direct synaptic communication between biological neural networks and artificial neural processing units through optogenetic stimulation and electrophysiological recording.
Cutting-edge biocomputing systems that utilize DNA, RNA, and protein molecules as computational units, creating living neural processors that can perform complex pattern recognition and learning tasks through molecular interactions and enzymatic reactions.
Living neural networks grown in vitro that can be trained and controlled through optogenetics, chemogenetics, and electrical stimulation, demonstrating learning capabilities and pattern recognition through synaptic plasticity and neural circuit formation.
Advanced systems that decode and manipulate neural memory formation through hippocampal neural networks, utilizing optogenetics to enhance, erase, or implant memories by controlling synaptic plasticity and neural circuit dynamics.
Creating artificial neural ecosystems where biological neurons, DNA computing systems, and protein-based processors interact in virtual environments, simulating complex biological intelligence and consciousness through multi-scale neural modeling.