CBE Seminar: Nathan Richbourg
"Modular Hydrogel Design to Model Health and Disease"
This event is sponsored by FAMU-FSU Engineering Department of Chemical & Biomedical Engineering.
This event is sponsored by FAMU-FSU Engineering Department of Chemical & Biomedical Engineering.
Presented by Norman J. Wagner, Unidel Robert L. Pigford Chair in Chemical & Biomolecular Engineering, University of Delaware & STF Technologies LLC
Researchers at the FAMU-FSU College of Engineering are developing breakthrough technologies in advanced 3D printing that could fundamentally transform how astronauts sustain themselves during long-duration space missions. These technologies would enable on-demand manufacturing in the challenging environments of space.
ATHENGUARD, founded by Saiabhinav “Sai” Devulapalli, addresses the pervasive issue of sports-related concussions (SCs) and traumatic brain injuries (TBIs) in the workforce. Devulapalli is a senior studying Biomedical Engineering in the FAMU-FSU College of Engineering.
Many presbyopes with age-related farsightedness require multifocal lenses to correct multiple refractive errors (near and farsightedness). After initial screening, prescribing multifocal lenses relies on a heuristic approach, requiring patients to try their lenses before reporting visual issues. We need a more effective method to determine prescriptions for multifocal lenses in presbyopic eyes, measured by fewer return appointments for fittings or post-fitting surveys assessing fit quality. We designed the Apex Viewer to simulate how multifocal lenses work in real-life environments.
We aimed to optimize the biocompatibility of ClariVy™ Cervical IBF System implants. The ClariVy™ Cervical IBF System consists of spinal implants made from polyether-ketone-ketone polymer (PEKK). Though this polymer shows much potential due to its high biocompatibility, it remains biologically inert, which prevents it from reacting to tissue cells and ultimately rejects cell adhesion. PEKK emerged as the newest polymer implant material, following the similar polymer PEEK (poly-ether-ether-ketone). This polymer contained similar properties to PEKK, such as high biocompatibility.
Patient anxiety leads many to avoid healthcare and drill vibrations significantly contribute to patient discomfort in dental situations. These vibrations are transmitted through bone structure, causing physical discomfort and amplifying stress during procedures. We developed WhisperGuard to reduce patient anxiety by absorbing vibrations from dental drills. The device utilizes materials with high damping coefficients and vibration-damping properties, such as Sorbothane, polyurethane and EDM1029.