Microtechnology Lab, Michigan State University, E. Lansing, MI 2024 - Present
My research focuses on developing MEMS-based electrochemical sensing systems for affordable and high-performance heavy metal detection. I designed a microfluidic potentiostat platform that integrates boron-doped diamond (BDD) and carbon electrodes for electroanalytical techniques such as Differential Pulse Voltammetry (DPV) and Cyclic Voltammetry (CV). The system features automated control and efficient data logging using a Teensy microcontroller and Python-based analysis pipeline. I have conducted over a thousand electrochemical tests to optimize electrode performance, benchmarked microfluidic systems against industrial potentiostats, and designed housing and water filtration structures using CAD and 3D printing. This work culminated in a paper at IEEE MEMS 2025 and a poster presentation at UURAF 2025, showcasing my efforts toward advancing low-cost, automated environmental sensing technologies.
A custom-built compact potentiostat PCB designed for portable electrochemical sensing. It interfaces seamlessly with a computer for real-time data acquisition and analysis, enabling low-cost and on-the-go heavy metal detection
3 in 1 Boron Doped Diamond (BDD) Wafer
Running Cyclic Voltammetry using Boron Doped Diamond Electrode with Ferrocyanide solution
Experiment Setup where Boron Doped Diamond Electrode is used as the working electrode
I designed this 3D structure in SolidWorks for a system that draws water from soil with precision. The ceramic filter, measured to fit accurately, sits in the bottom chamber, while a central chamber allows water to be pulled up by a motor. Three electrodes are inserted from the top to detect heavy metals in the soil solution, making the design both functional and efficient for environmental monitoring.
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