Abhishek Prasad

Abhishek Prasad serves as an Associate Professor in the Department of Biomedical Engineering within the College of Engineering at the University of Miami. His research focuses on developing advanced neural interfaces and brain-computer systems for neuroprosthetic applications, particularly targeting spinal cord injury rehabilitation. His laboratory investigates fundamental mechanisms at the electrode-tissue interface including neuroinflammation, oxidative stress, and foreign body responses that impact chronic neural recording stability.

Dr. Prasad's research interests center on translating neural engineering breakthroughs into clinical applications. His work spans brain-computer interface development, electrocorticography signal processing, neuroprosthetic control systems, and biomaterial solutions for neural interfaces. His team has pioneered at-home BCI implementations for spinal cord injury patients, demonstrating long-term viability of implanted systems for upper and lower extremity control. Current investigations examine inflammasome activation, iron-mediated oxidative damage, and complement cascade involvement in neural device failure.

Analysis of his 15 most recent publications reveals a strong focus on chronic neural interface stability and clinical translation of neuroprosthetics. His work consistently addresses the electrode-tissue interface challenges while developing practical solutions for home-based neurotechnology. Key trends include longitudinal studies of implanted BCIs (5+ years), modular system design for user independence, and molecular-level investigations of neuroinflammatory pathways affecting device performance.

Dr. Prasad's research has demonstrated significant clinical impact through successful implementation of fully implanted BCI systems that restore hand grasp function and ambulation capabilities in spinal cord injury patients. His work bridges fundamental neuroengineering with practical rehabilitation applications, focusing on system portability, user independence, and long-term stability.

His laboratory maintains active research collaborations across neurosurgery, rehabilitation medicine, and materials science to develop next-generation neural interfaces. Current projects focus on mitigating foreign body responses through novel biomaterial coatings and molecular interventions to enhance chronic recording performance.