• Designed and developed fabrication and mechanical assembly drawings for custom piping packages in the Glencore Sudbury INO furnace project.
• Assisted in structural steel design for Boston Metals, ensuring integration with mechanical components.
• Coordinated multi-disciplinary designs with structural, mechanical, electrical, and instrumentation teams.
• Participated in design reviews, quality checking workflows, and ensured compliance with engineering standards.
• Developed macros and automation tools to improve efficiency in drawing development and bulk editing.

• Actively engaged with Wireless sensor modules. Programmed crucial embedded drivers.
• Conducted characterization of sensors and rigorous testing procedures.
• actively participated in regular online meetings with cross-functional teams to discuss project progress, share insights, and address challenges.
• Demonstrated my ability to take on various other duties as assigned. This flexibility allowed me to contribute effectively to the overall success of the projects I was involved in.

• Worked in a team to research and develop a Battery Management System (BMS) for electric vehicles (EVs).
• Utilized lab equipment such as a battery cycler and other testing tools to analyze battery performance.
• Investigated optimal charging methods and regenerative braking technology to improve charging efficiency and reduce energy loss.
• Focused on strategies to accelerate battery charge times while maintaining safety and longevity.

• Collaborated in a team to design and implement a robotic work cell capable of detecting and sorting two different part types using 2D vision process guidance.
• Developed a vision system to identify and classify octagonal-shaped objects (Type 1) and small "B" parts (Type 2), ensuring accurate placement in a predefined grid pattern.
• Configured and calibrated a camera system, optimizing parameters such as standoff distance, focal length, lighting conditions, and field of view (FOV) for accurate part recognition.
• Programmed and tested the robot motion sequences in Roboguide, ensuring efficient pick-and-place operations while minimizing errors.
• Performed real-time calibration and troubleshooting during the final demonstration, adjusting user frames, tool offsets, and vision parameters as needed.

• Collaborated with a team of students and mentors by designing an intake subsystem of the robot from scratch at FIRST Robotics Club.
• Utilized AutoCAD inventor to create 3D models of the sub-system and ran simulated stress tests.
• Coordinated design with the manufacturing team and manufactured some parts myself as well using CNC and milling machines.