
The University of Florida (UF) has launched its Center for Engineering Human Performance and Wellness. This new center unites engineering and health experts to advance how human movement, recovery, and performance are measured and improved. The initiative aims to transform continuous health and movement data into actionable insights for a diverse user base.
Leveraging wearable sensors, robotics, and advanced data analytics, the center focuses on athletes, older adults, and everyday individuals. Researchers seek to convert real-time data from devices embedded in clothing, footwear, and headsets into smarter, personalized strategies. These strategies will address health, stability, and overall performance across the lifespan.
Wearable technology has seen rapid growth, with one in three Americans using a device to track health and fitness, according to the National Institutes of Health. These sensors are no longer limited to wrists. They are now found in shoes, on fingers, within clothing, and even integrated into glasses and headsets. These devices continuously collect data about how bodies function.

UF researchers see a significant opportunity to harness this constant stream of data. Daniel Ferris, Ph.D., the Robert W. Adenbaum professor of engineering innovation in UF’s J. Crayton Pruitt Family Department of Biomedical Engineering, highlighted the center’s mission. “Wearable sensors and robotics are rapidly changing how we understand human movement, health and performance,” Ferris said. “Our goal is to position the university at the center of that transformation.” The center also aims to prepare students and researchers to lead future developments in this field.
The new center evolved from a 2024 investment in the UF & Sports Collaborative. This prior initiative involved engineering faculty partnering with The University Athletic Association. Their work explored AI-powered athletics using data collected from student-athletes. This collaboration revealed broader possibilities for improving performance on the field and impacting health far beyond it.
Ferris, who also directs the new center, noted the existing data collection. “The University Athletic Association at UF collects a large amount of data from student athletes on health, nutrition and sports performance,” he explained. This includes information from wearable sensors used during practices and games. He added that much of this data is currently under-analyzed and under-utilized. Treating this data effectively could significantly benefit team performance and student-athlete health and well-being. The insights gained from this type of analysis can also inform the development of advanced analytics for youth hockey, helping younger athletes train more effectively.
The establishment of the center addresses a need for greater collaboration among experts. Ferris explained that many individuals within the college were working on human performance-related topics. However, they were often unaware of each other’s specific projects. The new center fosters an interdisciplinary environment.
“The center allows us to take an interdisciplinary approach to advance the research and education using engineering methods,” Ferris stated. This collaborative model is crucial for developing sophisticated solutions that integrate insights from various engineering and health disciplines. This approach aligns with broader trends in sports medicine, where technologies like concussion detection technology are continually being refined through interdisciplinary research.
The Center for Engineering Human Performance and Wellness is expanding its vision into several key areas. By bringing together diverse expertise and leveraging cutting-edge technology, UF aims to translate complex data into practical, personalized strategies. These advancements stand to benefit not only elite athletes but also contribute to the health and well-being of older adults and the general population. The future of human performance, recovery, and stability is increasingly reliant on such data-driven, engineering-led initiatives.

Lorem ipsum dolor sit amet, consectetur adipiscing elit. Ut elit tellus, luctus nec ullamcorper mattis, pulvinar dapibus leo.
Lorem ipsum dolor sit amet, consectetur adipiscing elit. Ut elit tellus, luctus nec ullamcorper mattis, pulvinar dapibus leo.