Isabella Clyde - Portfolio

Hydroponic Trailer

I led the Agroponics team at UBC for three years, an engineering design team project focused on developing autonomous hydroponic systems through multidisciplinary collaboration. The project integrates IoT for automation, structural design for optimized growth environments, and experimental research on staple crop cultivation. Our goal was to enhance agricultural efficiency by reducing resource use and improving crop production in a controlled and sustainable setting.

Expanded Resources: Secured a trailer to create a controlled environment, providing increased space and resources. Gained lab access and equipment to analyze the nutritional quality of crops and correlate results with growing conditions, moving beyond qualitative observations.
Team Growth: Expanded the team and resources to support long-term success.
Reorganized Structure: Restructured the team into three specialized subteams, each with a lead, to address neglected areas and improve workload distribution.

This leadership role allowed me to integrate engineering innovation, sustainability, and team management to advance agricultural technology. I have loved my experience with the team and am incredibly grateful for the experience. View our website here: https://ubcagroponics.com/

Verilog Filter

Using the power of Verilog, I collaborated with two others to build a filter that transforms raw audio signals into pristine sound waves by eliminating unwanted noise and preserving the essence of your input signal. My primary focus throughout the project was the design of the encoder, decoder, and buffering system.

How It Works:
Finite Impulse Response (FIR) Design: Implemented using modular Verilog blocks, this filter precisely attenuates unwanted frequencies while preserving desired ones.
Real-Time Processing: Optimized for lightning-fast signal handling, perfect for applications demanding low latency and high fidelity.
Scalable Architecture: Designed with modularity in mind, the filter can adapt to various audio frequencies and use cases.

This project showcases hardware-level signal processing, bridging the gap between theory and practical implementation.

Magnetic Field Robot

The Magnetic Field Robot combines engineering precision with creative problem-solving to navigate using magnetic fields. With two operational modes—Track Mode to follow the transmitter and Command Mode to execute directional commands.

Technical Highlights:
Transmitter: Powered by an EFM8LB1 microcontroller, H-bridge circuit, and RLC components to emit precise magnetic fields at 15,420 Hz.
Receiver: Equipped with an ATmega328P microcontroller, inductors, amplifiers, and peak detectors to decode field signals into commands.
Hardware: Features servo motors driven by H-bridge circuits, collision avoidance sensors, and a custom battery monitor for reliable operation.
Software: Written in C and Assembly, leveraging ADC for signal processing, frequency decoding, and real-time motor control.

FPV Drone

The FPV Drone Project marked my first experience in combining software and hardware to create a fully functional system. This drone was designed to deliver an immersive first-person piloting experience by integrating technologies for smooth flight control and real-time video streaming. I used Betaflight Configurator to configure and fine-tune the flight controller, ensuring precise stabilization and responsive control. Additionally, I leveraged Python to analyze telemetry data and debug the system during development, which helped optimize flight performance and reliability.

The hardware featured a video transmitter for real-time FPV streaming, a microcontroller to manage flight dynamics, and a lightweight frame paired with powerful motors and a high-capacity battery to maximize endurance and maneuverability. My contributions focused on developing the flight control system, programming the microcontroller, and integrating the video transmitter for seamless operation. This project was more than just a technical accomplishment—it was an exciting introduction to combining software and hardware in a cohesive system.

This Website (if you hadn't noticed)

I designed and developed this portfolio website to showcase my projects, skills, and experiences in an engaging and creative way. Built from scratch using HTML, CSS, and JavaScript, it features a 3D animated model of myself, created and animated in Blender, rendered dynamically with Three.js. The site also includes a responsive design and interactive components powered by GSAP animations. This project highlights my ability to combine creativity and technical expertise, offering an immersive and user-friendly experience while refining my skills in web development and 3D rendering. I wanted to find a way to blend both my creativity and technical skills in my portfolio. The website is still being updated and improved. I hope you enjoy it!

2D Infinite World Game

One of my first coding projects, this 2D infinite world game used Python to create a procedurally generated environment that expands as the player explores. A grid-based system dynamically generated new terrain in real time while removing unused areas for smooth performance. This project introduced me to game development fundamentals, procedural generation, and optimizing code for interactive applications.

Automation Intern, 2025

For four months in Labrador City, Newfoundland and Labrador, I worked on automating operations for four main pellet plant mills, focusing on improving efficiency, reliability, and safety. I updated and optimized equipment interlocks to enhance operational safety and minimize downtime, while programming and troubleshooting Programmable Logic Controllers (PLC) and Human-Machine Interfaces (HMI) for seamless automation. Additionally, I designed detailed technical drawings and documentation to support project implementation and maintenance, collaborating with cross-functional teams to integrate automated systems with the existing plant infrastructure.

Implementation Consultant, 2023

Developed advanced statistical asset risk models for electrical utility clients in C# Led client workshops to design and configure custom risk models and asset user interfaces Spearheaded internal testing of innovative predictive analytics models Designed new sales demonstration assets and models based on industry research

Environmental Analyst, 2022

For four months in Toronto, I spearheaded an Environmental Impact Assessment (CDP), detailing the company’s carbon footprint, biodiversity impact, and sustainability improvement plans. I calculated scope 1, 2, and 3 emissions, identifying key areas for improvement and strengths. Collaborating with management, I organized short- and long-term sustainability goals and initiatives to align with the company’s environmental objectives.

Graphic Designer, 2016-2022