I'm a Bioengineering student at Lehigh University focused on bioelectronics, embedded systems, and biomedical-device development. My work sits at the intersection of electronics, biology, and computation, with a particular interest in technologies that can sense, interpret, and interact with biological systems.
My current research interests center on flexible and mechanically compliant bioelectronics for interfacing with human tissue. I'm especially interested in developing conformable electronic platforms that integrate microscale sensors and electrodes, flexible circuit architectures, data-acquisition systems, and signal-processing electronics to record electrophysiological activity with high fidelity. Longer term, I hope to explore systems capable of not only sensing biological signals, but also delivering controlled electrical or optical stimulation for closed-loop bioelectronic and neural interfaces.
I'm particularly drawn to the engineering challenges that emerge when electronics are designed to operate directly with living tissue: mechanical mismatch, signal quality, miniaturization, biocompatibility, long-term interface stability, and reliable acquisition of physiologically meaningful data.
My project experience spans circuit and PCB design, embedded programming, mechanical fabrication, laboratory experimentation, and computational analysis. Across laboratory instrumentation, wearable rehabilitation technology, microfluidics, and computational biology, I enjoy working across hardware, software, and biology rather than treating them as separate disciplines. Ultimately, I want to contribute to bioelectronic technologies that translate fundamental engineering research into practical tools for understanding, monitoring, and interacting with biological systems.
Embedded electronics, PCB design, sensor integration, and physical prototyping.
Microfluidics, biomedical experimentation, laboratory workflows, and validation.
Python, MATLAB, bioinformatics pipelines, data processing, and visualization.
Key milestones across my engineering and research journey.
Began undergraduate studies with a focus on bioengineering and mechanical engineering fundamentals.
Designed and built the Hula Mixer, then diagnosed a motor phase-desync issue by isolating wiring/power sequencing from firmware execution order — root-causing across hardware and code before fixing either.
Conducted microfluidics research abroad, developing lab-on-chip techniques for biological sample analysis.
Developed CareAlert as part of the Global Social Impact Fellowship, addressing a real-world healthcare need.
Built computational pipelines for epigenetic age estimation and raspberry crossbreeding trait prediction.