Personalized Exoskeletons Improving Life and Rehabilitation for Lower Limb Paralysis Patients
The evolution of the exoskeleton robot suit is today’s latest achievement towards providing the closest sensation of walking to those who are paralyzed. This technology is a highly advanced exoskeletal suit that is designed to assist people with lower limb paralysis. A better fitted robot suit makes a better walking aid and enables more efficient therapy. The design utilizes 3D printing and the latest advancements in material science and neuromachine interface technology to enable affordable, customized exoskeleton robot suits for all people suffering from paralysis and including small, growing children. This is the only exoskeletal suit available that can be customized as a child grows. A better fitted robot suit makes a better walking aid and enables more efficient therapy. The inventors have developed a prototype and shown that the ability to customize this suit makes it the most effective, lightest, and most powerful robot walking aid available.
  • Therapy aid for paralysis patients
  • Medical tool for therapy, rehabilitation assistance, and diagnostics
  • Research instrument, market extension to upper limb rehabilitation, or market extension as an assistive exoskeleton for on-the-job applications that require strength and endurance
Problems Addressed
  • Lower limb paralysis affects almost 1 million people in the US who would benefit from a better exoskeleton system.
  • The exoskeleton robot suits available today are limited and typically can only be fitted to an average sized adult.
  • They also cannot not provide sufficient treatment during therapy and rehabilitation and especially not for small, growing children.
Competitive Advantages
  • Customized equipment gives patients more effective therapy.
  • Customized equipment “fits better” and therefore can cause the user to feel better/ more confident while coping with this condition.
  • Reducing the disability factor of paralysis patients reduces extra burden placed on society
  • PCT/US2017/037457
  • Contreras-Vidal, Jose L et. al. IEEE’s 5th International Winter Conference on Brain-Computer Interface (BCI) Location: SOUTH KOREA Date: JAN 09-11, 2017Yongtian He et. al,. MEDICAL DEVICES-EVIDENCE AND RESEARCH Volume: 10 Pages: 89-107. 2017
Case ID
Dr. Jose Luis Contreras-Vidal
Professor, Department of Electrical Engineering