I develop wearable medical devices by combining electronics, embedded systems, mechanical prototyping, physiological sensing, verification, data analysis, and clinical research.
I recently completed a double Master's degree between the University of Illinois Chicago and Politecnico di Milano, where I developed medical technologies from concept to clinical evaluation.
I enjoy turning clinical and user needs into functional systems that can be built, tested, and improved.
My experience developed from flexible electronics and additive manufacturing to miniaturized intra-oral devices, embedded sensing, and clinical evaluation.
I work at the intersection of hardware, product development, biomedical research, and real-world testing. My projects span mixed-signal PCB design, sensor integration, firmware, CAD, prototyping, verification, data processing, and collaboration with clinical teams.
Pescara → Milan → Chicago. An academic path from flexible electronics and biomedical engineering in Italy to wearable-device development and clinical research in the United States.
My background is relevant to hardware development, product development, biomedical engineering, clinical engineering, manufacturing support, and verification.
Authorized to work in the United States under F-1 OPT and eligible to work across the European Union.
Developed wearable medical-device hardware through PCB design, embedded electronics, capacitive sensing, BLE, mechanical integration, prototyping, testing, and iterative redesign.
Supported IRB-approved clinical evaluations, device operation, signal-integrity checks, on-site data collection, and quantitative analysis of rehabilitation outcomes.
Conceived and developed a multimodal intra-oral monitoring platform integrating pressure, PPG, force, IMU sensing, BLE, haptics, battery management, and wireless charging.
Mentored 95+ students from multiple disciplines through the development of wearable devices and user interfaces.
Developed a flexible sEMG electrode array and characterized Aerosol Jet Printing parameters for biomedical flexible electronics.
Every image shown is drawn from my real project work and theses. No AI-generated project imagery is used.
A wireless intra-oral wearable platform for quantitative tongue assessment and precision visual-feedback rehabilitation of neurologically impaired individuals following stroke and traumatic brain injury.
A miniaturized multimodal intra-oral wearable designed for continuous respiratory and physiological monitoring during physical activity and clinical rehabilitation, integrating custom electronics, embedded firmware, and wireless biofeedback.
A flexible high-density electrode array fabricated using Aerosol Jet Printing technology to improve muscle activity monitoring in post-orthotic rehabilitation.
Requests are reviewed individually. No documents or design files are distributed automatically.
Proprietary or institution-owned technical material is shared only when permitted.
L. Di Silverio, A. Scarpellini, A. R. Carroll, E. M. Babbitt, J. Patton, and H. Esmailbeigi
L. Di Silverio, D. Patel, U. Patel, and H. Esmailbeigi