Honored with Spirit of St. Vincent Award, Dr. Gerald Schell works to the best of his ability to help develop surgical techniques that are being used around the world. He has cured patients who previously had no hope for pain relief for osteoporotic compression fractures.

Being into minimally invasive surgery, Dr. Gerald believes that these techniques allow the spine surgeons to achieve the same goals of open surgery while minimizing the collateral damage associated with the open approaches. He has been affiliated with multiple hospitals in the area.

Pertaining to his areas of specialization, Gerald is proficient in neurosurgery, interventional spine medicine, neurosurgical spine reconstructive surgery, neurological spine surgery, and orthopedic spine surgery.

Dr. Gerald Schell has built his practice and reputation around the philosophy of providing the least invasive care to minimize recovery times and optimize clinical outcomes. Undeniably, he is one of the most experienced surgeons in the world performing minimally invasive spine procedures.

He, along with Dr. Kewin Lawson, offers the most suitable treatments for spinal disorders, ranging from spinal fusion and anterior cervical discectomy fusion to spinal cord simulations at Schell Spinal. He practices at Minimally Invasive Asc and is affiliated with Ascension St Marys Hospital.

Dr. Gerald Schell performed the first artificial lumbar disc surgery in the state of Michigan and plays a leading international role in the experimental development of single-level and two-level artificial discs for cervical disk problems.

About Dr. Gerald Schell
At Schell Spinal, Dr. Gerald Schell helps develop surgical techniques that are being used around the world. He works for 80-100 hours a week and serves on the hospital’s Board of Directors. Apart from this, he is aimed at providing stability in the lives of their parents by solving their spinal issues. He offers the most suitable treatments for spinal disorders, ranging from spinal fusion and anterior cervical discectomy fusion to spinal cord simulations.