Provide a novel control pathway for patients with spinal cord injury, high paraplegia, or amyotrophic lateral sclerosis (ALS). By decoding cortical signals, patients can directly control robotic arms, exoskeletons, or wheelchairs to complete actions such as grasping, walking, and moving, regaining their autonomy in movement.

Patients with severe aphasia caused by stroke, amyotrophic lateral sclerosis (ALS), etc. can decode the neural signals of the language cortex or handwritten intention in the brain, convert "thoughts" into text or speech output, and achieve mental typing or speech synthesis.

Explore a new information input mode for blind or deaf patients. Encode visual and auditory information captured by cameras or microphones into specific patterns of electrical stimulation sequences, which are directly applied to the visual or auditory cortex to assist in the formation of basic spatial perception or sound recognition.

By collecting the motor intentions of stroke patients and spinal cord injury patients, driving electrical stimulators to activate damaged nerves, or controlling rehabilitation terminals for auxiliary training, neural plasticity is enhanced and functional recovery is promoted.

Provide precise and adaptive treatment plans for patients with drug-resistant epilepsy and other diseases. By monitoring the biological electrical signal markers of disease characteristics, closed-loop management of diseases and symptom relief can be achieved.