About Me
University of Waterloo | BASc - Nanotechnology Engineering (Electrical, Mechanical, and Chemical)
I study Nanotechnology Engineering at the University of Waterloo, with a focus on analog electronics and
hardware design. Most of my projects begin with something that doesn't exist at a reasonable cost and end with
a working prototype. That's taken me through low-noise analog circuit design, custom PCB layouts, and hands-on
fabrication.
I previously worked in medical device manufacturing, handling quality control and detailed component-level
inspections. That work sharpened my ability to read datasheets, trace failures methodically, and hold work to
a high standard. I'm looking for a Fall 2026 internship in hardware or instrumentation engineering.
Noteworthy Projects
Olyntia (In Progress)
Solid-State Nanopore Measurement System
- Picoamp-level Resolution
- Custom Low-Noise PCB
- High-Fidelity AFE
What: A low-cost, portable solid-state nanopore measurement system engineered to resolve
picoamp-level currents. This hardware platform is capable of sequencing DNA for applications in personalized
medicine, specifically targeting CYP2C19 genetic screening, which is responsible for metabolizing 10% of
prescription drugs.
Why: Commercial sequencing instrumentation is prohibitively expensive. This project
develops a high-precision, budget-friendly (~$500) alternative while advancing expertise in low-noise analog
circuit design and signal integrity.
How: I designed a custom analog front-end (AFE) utilizing transimpedance amplification to
capture minute ionic current blockades. I routed custom PCB layouts to isolate sensitive analog traces from
digital interference. I also integrated this hardware with a microcontroller for data acquisition and housed
the fluidic components within CAD-modeled assemblies.
View Olyntia Repository on GitHub
Fume Extractor
Industrial Grade Extraction System
- 120mm Noctua Fan
- 3D Printed Housing
- High Airflow
What: A high-airflow fume extraction system powered by a 120mm industrial grade Noctua
fan, designed to remove VOCs released from solder flux fumes.
Why: Commercial fume extractors frequently fail to balance adequate suction power with
cost efficiency. This project engineers a custom, high-power filtration solution to ensure respiratory
safety during electronics fabrication and PCB assembly.
How: I engineered a custom enclosure using SOLIDWORKS, applying fluid dynamics principles
to optimize airflow and secure the filtration media. I manufactured the housing via FDM 3D printing and
integrated the mechanical assembly with a widely available electronic fan controller.
View Fume Extractor Repository on GitHub
Triboelectric Nanogenerator
Electromechanical Energy-Harvesting
- 3.4V @ 14 Hz output
- 15% Efficiency Increase
- 5+ Iterations
What: An electromechanical energy-harvesting system utilizing the triboelectric effect to
convert ambient kinetic motion into usable electrical power.
Why: The project was a team challenge proposed in a first-year course, providing real
engineering constraints with materials, tools, and time. This project investigates how wind energy can be
harvested into electrical energy by means of the triboelectric properties of common materials.
How: I modeled a specialized centrifugal fan and housing assembly in SOLIDWORKS and
manufactured the prototypes via 3D printing. A range of PLA, PETG, and TPU was used to suit different needs
within the assembly. Iterating through five hardware revisions yielded a 15% efficiency increase, achieving
a consistent 3.4V output at a frequency of 14 Hz.