PIPages
Labs

Ziwei Ma

University of Tennessee-Chattanooga, TN·Biomedical Engineering

Traumatic brain injury, autism spectrum disorder and other neurologic conditions can disrupt movement, balance and coordination, making daily life harder. Rehabilitation can last months or years.

Fields

Biomedical Engineering

Engineering

Computer Science

Topics

wearable sensors

rehabilitation monitoring

remote rehabilitation

Grants
1 known grant, through Sep 2030

What they work on

  1. Develop energy-efficient sensing approaches and feature-extraction methods for multimodal wearable sensors, to capture informative movement signals during rehabilitation outside the clinic.
  2. Build patient-specific machine learning methods for high-dimensional time-series sensor data, to identify movement patterns linked to neurologic motor disorders and create quantitative biomarkers of recovery.
  3. Compare wearable sensor measurements with established clinical evaluations in people with traumatic brain injury and autism spectrum disorder, and assess the feasibility of the remote rehabilitation monitoring framework.

More about the research

However, progress is usually checked only during clinic visits, so clinicians know little about how patients move and function at home. This collaborative project explores whether wearable sensors combined with artificial intelligence (AI) tailored to each patient can track recovery objectively outside the clinic.

Why it matters

Objective, at-home measures of movement recovery could support clinicians treating people with traumatic brain injury, autism spectrum disorder and other neurologic motor disorders. These measures could add to clinic-based evaluations and guide individualized rehabilitation. They could also widen access to remote rehabilitation and help flag delayed recovery earlier.

Known grants

From NIH and NSF research grants. Labs often have other funding we can't see.

SCH: Collaborative Research: Rehabilitation Evaluation of Neurologic Motor Disorders using Wearable Sensors

NSF · Oct 2026 – Sep 2030

Closest labs

Najim Dehak

Johns Hopkins University, MD·Engineering

Provide engineering and technology expertise, including mobile digital health tools, robotics and AI, to support translational research on frailty in older adults.

Zhaoshuo Jiang

San Francisco State University, CA·Engineering

Develop a robust data-driven classification model that detects walking events from floor vibration signals recorded by sensors in a home.

Erik Henricson

University of California-Davis, CA·Biomedical Engineering

Test whether movement performance, community mobility and patient-reported independence and well-being reflect one shared mobility process, using integrated computational models.

The school

University of Tennessee-Chattanooga: 2 labs on PI Pages, $12M a year on research, 14 research doctorates a year.

More about University of Tennessee-Chattanooga

Reach out

A start for your email. Fill in the brackets.