Introducing BrainBridge, the world's first revolutionary concept for a head transplant machine, which uses state-of-the-art robotics and artificial intelligence to conduct complete head and face transplantation procedures, ensuring smooth outcomes and faster recoveries.

Because head transplants require high speed, precision, and efficiency, BrainBridge utilizes advanced, high-speed, high-precision robotic systems to speed up the process, eliminate human error, prevent brain cell degradation, and ensure seamless compatibility.

The head transplant procedure involves removing a person's entire head containing the brain from their current diseased body and attaching it to the body of a healthy, young, brain-dead donor.

Head transplants could provide individuals with severe medical conditions, such as terminal cancer, paralysis, spinal cord injuries, or neurodegenerative diseases, the opportunity to have a fully functional body while preserving their consciousness, memories, and cognitive abilities.

The neurons are the longest-lasting functional cells in the human body, and according to our estimates, the brain is capable of lasting several hundred years, provided that the rest of the body remains young.

The BrainBridge concept involves the use of the integrated robotics platform comprised of the two autonomous surgical robots designed to perform simultaneous surgeries on two bodies side by side within a single setup.

The complete robotization of the process allows for the surgery to be performed in an environment with varying temperature and pressure.

The procedure begins by preparing the donor and recipient bodies. The donor is a brain-dead patient who has a functional body with vital organs in good condition, while the recipient is the patient whose head will be transplanted onto the new body.

General anesthesia is administered to both the recipient and the donor. Both patients undergo tracheotomy with a tube inserted into the trachea to provide respiratory support and facilitate mechanical ventilation.

Our proprietary artificial plasma solution is administered to both the recipient and the donor. This solution is designed to keep the brain and body oxygenated, prevent clotting, and allow for safe operation at low temperatures.

The recipient's head and the donor body are cooled to approximately 5 degrees Celsius to reduce potential brain damage during the detachment.

Guided by advanced real-time molecular-level imaging systems, BrainBridge carefully separates the heads from the two bodies with the help of a specialized surgical technique that preserves the spinal cord and key blood vessels.

Deep incisions are carefully made around the neck to expose the necessary structures, including the carotid and vertebral arteries, jugular veins, and spine.

With the help of specialized AI algorithms, BrainBridge tracks both muscles and nerves during surgery to facilitate seamless reattachment.

Next, incisions are made in the trachea, esophagus, veins, and arteries. The blood is then completely drained from the recipient's head to prevent clotting.

The recipient's head is then positioned adjacent to the donated body using a mobile platform. BrainBridge immediately connects the detached head to the circulatory system of the donor body, which helps maintain blood flow during the rest of the procedure. It also rewarms the recipient's head and provides it with oxygenated blood.

With the help of its ultra-precision surgical instruments, BrainBridge begins reconnecting the spinal cord, esophagus, trachea, nerves, blood vessels, and other tissues. This step facilitates communication between the brain and the new body.

The machine utilizes microsurgery techniques and delicate microscopic adjustments to ensure the proper alignment and fusion of the spinal cord and other tissues.

To help reconnect the severed neurons, BrainBridge uses a proprietary chemical adhesive, polyethylene glycol, which is applied locally to the spine at the point of fusion.

Once the spinal cord is connected, a specialized implant is placed in the epidural space behind the spine over the point of fusion. This implant promotes the repair of damaged neurons and allows the patient's brain to form neural connections with the new body and ensures that the sensory system is restored. It also functions as a temporary backup control device for the donor body.

The next step of the operation is a face and scalp transplant where all the muscles, soft tissues, and skin are removed from the recipient's face. The donor's face, muscles, and soft tissues are then precisely transplanted in their place.

By transplanting younger donor tissues, this reduces the possibility of tissue rejection and improves the aesthetic outcome, especially in cases where the recipient is significantly older.