top of page
Pic-Option-49_edited_edited.jpg

Computational Neurorehabilitation and Biomechatronics Lab

Department of Biomedical Engineering

​University at Buffalo

Research

Figure3.jpg

Compliant Systems for Assistive Robotics

Compliant systems enhance the organic feel of assistive robotics like exoskeletons. By utilizing the OpenSEA (Series Elastic Actuator), these systems achieve improved human-robot synergy, paving the way for advancements in wearable neurorehabilitation.

Rehabilitation Exoskeletons

Assistive devices designed to support rehabilitation strategies in volitional movement. Novel brain-machine interfaces used to create an adaptive user experience with biomimetic sensory-motor regulation

Exosk.jpg
Patch.jpg

High Density Sensors for Advanced Neuromuscular Control Applications

High-density sensors are a catalyst for innovation in assistive robotics, medical diagnostics, and personalized healthcare. Leveraging our lab’s patented advancements in bioimpedance and biopotential sensing, we are redefining how data-driven applications interact with the human body.

Wearable Hardware Development for Telerehabilitation

Development of state-of-the-art telemedicine technologies to improve the quality of out-patient care in post-stroke neurorehabilitation. Wearable systems that improve patient-therapist interaction and reduce resource requirements have the potential to transform the landscape.

IoTPCB.png
Pic-Option-49_edited.jpg

Contact Us

  • Twitter
  • LinkedIn

Thanks for submitting!

  • GitHub
  • LinkedIn

©2021 by Computational Neuroanatomy and Biomechatronics Lab. Proudly created with Wix.com

bottom of page