Fourth-year Electrical Engineering (Co-op) student at the University of Manitoba. I enjoy working across all parts of a project — from simulation and circuit design to hands-on building and testing.
I'm a fourth-year Electrical Engineering (Co-op) student at the University of Manitoba. My program covers a lot of ground — circuits, systems, simulation, controls — and I've genuinely enjoyed all of it. I use tools like PSCAD and LTSpice to simulate and understand how things behave before touching any hardware, which makes the hands-on work go a lot smoother.
I like getting into the details of how something actually works, not just getting it to function. Whether I'm running a simulation or building something on a bench, I want to understand the why behind what's happening. I don't consider a design done until it's been tested against real conditions.
Looking for Co-op and internship opportunities in electrical engineering — open to simulation, hardware design, controls, or wherever there are interesting problems to solve.
A mix of projects across simulation, embedded electronics, analog circuits, and audio hardware — each one taken from idea all the way to something that actually works.
Member of the University of Manitoba's SAE-affiliated competition tractor team, contributing to the full electrical design and integration of the vehicle. Designed sheet metal mounting brackets in AutoCAD and prepared files for laser cutting. Built custom wiring harnesses from scratch and configured a CAN bus network connecting four onboard controllers and sensors. Applied power tools and hands-on mechanical skills to build and integrate three critical vehicle subsystems throughout the active build season.
Designed a closed-loop DC motor speed controller maintaining constant RPM (2000–2400) under varying mechanical loads. Used a Hall-effect sensor and F-to-V converter for speed feedback, a difference amplifier to compute error, and a tuned PI controller driving a PMOS transistor — all simulated in LTSpice before physical build. The physical circuit hit 117.30 mA under heavy load, exceeding the 100 mA spec, with ±10% steady-state accuracy confirmed on the oscilloscope.
Modelled a two-way loudspeaker system (woofer + tweeter) as RLC equivalent circuits in LTSpice and designed a crossover network splitting frequencies at 3 kHz, with first-order LP and HP filters each verified at −3 dB at the crossover point. Designed impedance correction circuits for both drivers to flatten the impedance curve. Assembled and tested a Class-AB amplifier and physical crossover network on breadboard, and designed the speaker chassis enclosure in Autodesk Inventor.
Looking for Co-op and internship opportunities in electrical engineering — simulation, hardware, controls, or anything in between.