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Electrical Engineering Intern

Jitterware

• Designed and developed electrical systems, circuits, and PCB layouts using KiCAD and stm32CUBE.
• Built and tested prototypes, troubleshot systems, and optimized designs for improved performance and efficiency.
• Collaborated with cross-functional teams to meet project deadlines, document progress, and provide technical reports.

Assistant Director

Mathnasium

• Led and motivated a team of 6 instructors, improving student retention by 25%
• Increased enrollment by 40% through effective lead response and successful student onboarding.
• Built strong relationships with students and parents by delivering exceptional customer service and progress updates.

Teaching Assistant

Mathstronauts

• Assisted the lead instructor and created an inclusive learning environment.
• Helped with Python and Scratch coding exercises and projects.
• Helped students troubleshoot and overcome persisting challenges within their assignments.

Bachelors of Engineering

McMaster University

Electrical Engineering

• Communication and Control Systems
• Data Structures and Algorithms
• Electronic Devices and Circuits II
• Electromagnetics II
• Energy Conversion
• Logic Design
• Microprocessor Systems

ControlCore

• Designed a system monitoring and media controller using an ESP32 microcontroller and an OLED display.
• Used C/C++ to integrate an ESP32 microcontroller with the display leveraging I2C/UART communication protocols.
• Implemented a custom graphical user interface (GUI) with dynamic button layouts and easy navigation for seamless user interaction.

Spatial Mapping Device

• Designed a system monitoring and media controller using an ESP32 microcontroller and an OLED display.
• Used C/C++ to integrate an ESP32 microcontroller with the display leveraging I2C/UART communication protocols.
• Implemented a custom graphical user interface (GUI) with dynamic button layouts and easy navigation for seamless user interaction.

Digital-to-Analog Converter

• Designed a 3-bit DAC using a transistor-resistor network to convert digital inputs into proportional analog voltages.
• Determined bit weights based on full-scale voltage ratio and the number of possible digital values.
• Implemented a resistive network with an inverting unity-gain buffer to produce precise analog output from digital inputs.