Majoring in Electrical Engineering
Expected Graduation in 2026
May 2025 - August 2025
R&D Electrical Engineering Intern
Toyota Motor North America, Ann Arbor
2024 - Present
Undergraduate Research Assistant
Microtechnology Lab, Michigan State University, E. Lansing
ECE 331 Microprocessors and Digital Systems Undergraduate Learning Assistant
College of Engineering, Michigan State University, E. Lansing
2023 - Present
Resident Assistant
Michigan State University, E. Lansing
Supported development of proprietary soft robotic actuation systems code in C programming, integrating real-time feedback, software safety interlocks and multi-intensity operation
Designed and implemented a master–slave CAN bus architecture to enable precise control, real-time communication, and robust error-handling protocols for multiple soft robotic actuators
Conducted experimental and bench testing of actuators, collecting and analyzing actuation data to optimize control algorithms and enhance system reliability and safety
Active contributor of software code, circuit design and fabrication in cross-functional Toyota team to develop complex system prototypes aligned with automotive and aircraft standards
Project 1: Developing Low-Cost Potentiostat for Heavy Metal Detection
Developing an affordable micro-fluidic potentiostat platform for electroanalytical techniques for continuous and automatic heavy metal sensing, leveraging a custom-built circuit featuring Teensy microcontroller for streamlined system operations, achieving reliable and efficient performance
Developed and implemented potentiostat control code for Differential Pulse Voltammetry (DPV), Anodic Stripping Voltammetry (ASV), and Cyclic Voltammetry (CV)
Designed and implemented a multi-threaded microcontroller (MCU) based file management system code for efficient data logging and analysis, integrating Python scripts to enable seamless data processing and compatibility with diverse analytical tools.
Conducted testing and data acquisition on a microfluidic platform using carbon electrodes, analyzing performance and benchmarking results against industrial potentiostat to drive system improvements
Project 2: Heavy Metal detection in buffer and soil solutions using nanostructured boron doped diamond electrodes
Conducted over 1000 electrochemical experiments for heavy metal ions over utilizing electrochemical analysis techniques including Cyclic Voltammetry (CV), Differential Pulse Voltammetry (DPV) and Fast-Scan Cyclic Voltammetry (FS-CV) using nanostructured boron doped diamond electrodes
Prepared and analyzed experimental data using MATLAB, generating detailed graphical outputs to optimize system performance and to identify the most effective working electrode with its key characteristics
Designed a housing structure for BDD sensors and water filters using Computer-Aided Design (CAD) software, enabling efficient soil water extraction through 3D Printing.
At Michigan State University, I completed a series of cleanroom-based fabrication labs for ECE 477 Microtechnology course (Ongoing) that guided me through the full process of semiconductor device manufacturing—from wafer preparation and oxidation to photolithography, diffusion, and gate oxide formation. These hands-on experiences allowed me to apply theoretical concepts of semiconductor physics in a practical setting, develop strong technical precision, and gain a deep appreciation for the workflow and discipline required in modern microfabrication.
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