Hi, I'm Ruodi Yuan

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Engineering Portfolio · University of Toronto

Open to internships · May 2027 – Sept 2028

Hi, I'm
Ruodi Yuan

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I am a mechanical engineering student at the University of Toronto pursuing minors in Bioengineering and Mechatronics & Robotics, who is passionate about racing cars 🏎️, aerospace systems, and biomedical device design.

Mechanical Design Mechatronics & Robotics Simulation & FEA Formula Student CAD / SolidWorks/CATIA Bioengineering Minor Aero Design Python
Ruodi (Tinah) Yuan — Résumé BASc Mechanical Engineering · UofT · 2025
LinkedIn Get in touch
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2+Years FSAE
10+Projects
3+Awards
2Design Teams
🏎️ Formula SAE Michigan 2026 ✈️ SAE Aero Design 🏆 UofTHacks 2nd Place 💻 3DX Mechanical & Shape Designer - CATIA Associate Certified 📐 CSWA Certified 🔩 AWD EV Drivetrain 🤖 Robotics Minor
Ruodi Yuan
project 1



project 2

ruodi.yuan@mail.utoronto.ca

Vehicle Dynamics Lead @ UofT FSAE AWD Formula SAE EV UAS Payload Specialist Mechanical Engineering + PEY Co-op MATLAB · Simulink · ANSYS · SolidWorks UofTHacks 2nd Place 2026 Formula SAE Michigan 2026 Seeking Internships May 2027–Sept 2028 Vehicle Dynamics Lead @ UofT FSAE AWD Formula SAE EV UAS Payload Specialist Mechanical Engineering + PEY Co-op MATLAB · Simulink · ANSYS · SolidWorks UofTHacks 2nd Place 2026 Formula SAE Michigan 2026 Seeking Internships May 2027–Sept 2028
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All projects 10

cooling loop render
cooling loop
2025 — 2026 Formula SAE

Dual Series Cooling Loop

University of Toronto Formula SAE Racing

Designed, built, and tested a full dual cooling loop system for an electric powertrain, integrating CAD design, fabrication, and real-world validation. The project included tubing assembly, sensor integration, pump priming, and bench testing to ensure reliable thermal performance under race conditions.

SolidWorks Thermal Management Manufacturing
  • A dual-loop architecture with independent cooling loops for left and right sides of the vehicle.
  • This design enhances reliability and simplifies plumbing by minimizing long coolant runs.
  • Key considerations: Radiator placement and component ordering within the cooling loop
  • The rear was identified by the aerodynamics team as the optimal location for the radiator, benefiting from high-energy airflow while preserving front aerodynamics.
  • Performed multiple bench tests to evaluate cooling system performance, verify component operation, and troubleshoot issues prior to vehicle deployment.
  • Manufactured and assembled the physical cooling system by cutting and routing coolant tubing, installing sensors, fittings, pumps, and other cooling components.
  • Conducted cooling loop integration and commissioning activities, including system priming, leak checks, and flow verification.
  • Collaborated with team members to optimize cooling loop packaging, assembly procedures, and overall system reliability for endurance competition conditions.
  • Components are ordered to prioritize cooling of the inverter, which is temperature-sensitive and positioned downstream of the radiator: Pump → Radiator → Inverter → Motor cooling jackets (in series).
  • The pump's placement before the radiator improves reliability by maintaining positive pressure at the pump inlet, reducing cavitation risk.
drivetrain render
drivetrain
drivetrain
drivetrain
drivetrain
drivetrain
2025 — 2026 Formula SAE

UT26 Drivetrain System

University of Toronto Formula SAE Racing

Contributed to the design, manufacturing, and assembly of the UT26 in-hub AWD drivetrain system, engineered against corner-level targets of <40 kg mass, <0.25 kg·m² moment of inertia, and <3 h assembly time, ultimately achieving a 22.304 kg unsprung mass and 0.197 kg·m² mass moment of inertia. Supported integration of motors, gearbox components, and drivetrain hardware, including FEA-validated components such as the inboard motor mount (9.24 MPa max von Mises stress, safety factor >15). The project involved hands-on manufacturing, fixture design, and assembly process development to improve reliability and ease of installation.

SolidWorks Machining Hydraulic Pressure Press Gearbox Manufacturing
  • Designed and manufactured an assembly jig to facilitate safe and accurate rotor installation in permanent magnet motors, addressing strong magnetic attraction forces between rotor and stator to ensure proper alignment during assembly.
  • Assisted in the assembly and integration of the drivetrain system, including motors, gearbox components, and supporting hardware, engineered to corner-level targets of <40 kg mass and <0.25 kg·m² moment of inertia — achieving 22.304 kg unsprung mass and 0.197 kg·m² mass moment of inertia in the final design.
  • Machined drivetrain components such as inboard motor mounts, planet shafts, and retainers to meet design specifications and assembly requirements, including the inboard motor mount validated by FEA to a maximum von Mises stress of 9.24 MPa and a safety factor greater than 15.
  • Participated in gearbox assembly and verification, ensuring proper fitment and alignment of drivetrain components across all four identical corner assemblies.
  • Worked with team members to troubleshoot assembly challenges and develop practical solutions to improve manufacturing and integration processes.
  • Supported the transition from CAD designs to physical components through machining, fabrication, and hands-on assembly.
UAS structures
UAS structures
UAS structures
UAS structures
2025 — 2026 Aerospace / UAS

UT26 MAPLE — Structures

University of Toronto Aerospace Team — UAS

Worked on the structures team for a UAS aircraft, responsible for manufacturing and assembly of the fuselage and landing gear systems. This included fabrication planning, composite integration, and hands-on assembly of airframe components to ensure structural integrity and flight readiness.

SolidWorks 3D Printing Lasercutting Manufacture Aircraft Construction AutoCAD
  • Worked on the UAS structures team responsible for the design, manufacturing, and assembly of the aircraft fuselage and landing gear systems.
  • Created laser-cut templates and fabrication guides to support accurate and repeatable fuselage construction processes.
  • Built and assembled the fuselage structure, including alignment, bonding, and reinforcement of airframe components.
  • Applied Monokote covering to the fuselage to improve aerodynamic finish and structural surface protection.
  • Cut, drilled, and prepared carbon fibre tubes for structural use while maintaining dimensional accuracy and material integrity.
  • Installed and integrated landing gear systems into the airframe, ensuring secure mounting and proper load distribution during landing conditions.
nose landing gear
May 2026 Aerospace / UAS

UT26 Nose Landing Gear Integration

University of Toronto Aerospace Team — UAS

Redesigned the nose landing gear system to convert it from a fuselage-integrated structure into a modular, independent subassembly to improve maintainability and manufacturability. This redesign significantly simplified maintenance procedures and reduced system integration and repair complexity.

SolidWorks 3D Printing Mechanical Design
  • Redesigned and integrated the nose landing gear system to improve maintainability, manufacturability, and assembly efficiency.
  • Converted the landing gear from a fuselage-dependent installation into a modular subassembly, significantly reducing maintenance, replacement, and aircraft turnaround time.
  • Redesigned critical mounting and interface components to enable independent fabrication, testing, and installation of the landing gear assembly.
  • Developed a modular architecture that simplified repairs and future design iterations, reducing integration complexity during aircraft assembly.
  • Manufactured and assembled the housing using additive manufacturing (3D printing), performing hands-on installation and fitment verification on the aircraft.
  • Iterated the design through multiple development cycles, progressing to Version 2 based on testing feedback, manufacturability considerations, and cross-team requirements.
  • Collaborated with avionics, structures, and manufacturing subteams to ensure compatibility with aircraft systems and streamline integration.
arming housing
arming housing
arming housing
Mar 2026 Aerospace / UAS

UT26 MAPLE — Arming Housing Design

University of Toronto Aerospace Team — UAS

Designed and manufactured a modular arming housing system for a UAS platform, enabling safe and efficient electrical system activation and integration. The design was 3D printed and iteratively improved through multiple design cycles in collaboration with other subteams.

SolidWorks 3D Printing Mechanical Design
  • Designed and CAD-modeled a custom arming housing assembly for the UAS electrical system, ensuring secure integration with the airframe and accessibility during pre-flight operations.
  • Manufactured and assembled the housing using additive manufacturing (3D printing), performing hands-on installation and fitment verification on the aircraft.
  • Iterated the design through multiple development cycles, progressing to Version 2 based on testing feedback, manufacturability considerations, and cross-team requirements.
  • Collaborated with avionics subteams to ensure compatibility with aircraft systems and streamline integration.
red lamp
red lamp
Jan 2026 🏆 2nd Place · Hack the Human–Robot Experience Hackathon

Red Lamp — Companion Robot

UofTHacks 13

A companion robot that detects student emotion during solo study sessions and provides encouragement against isolation and burnout.

Raspberry Pi Arduino 3D Printing Embedded Systems Sensor Integration
  • Integrated hardware systems using a LeLamp kit, Raspberry Pi, sensors, LEDs, and custom 3D-printed components, transforming a standard lamp robot into a responsive companion device.
  • Debugged and optimized hardware–software interaction by troubleshooting power instability, loose wiring, and faulty components through voltage testing and iterative assembly.
  • Achieved reliable real-time responsiveness under hackathon constraints after resolving power instability and component failures.
  • Adapted system architecture mid-build by incorporating Arduino components after Raspberry Pi connectivity failures, improving overall system stability.
  • Designed and fabricated custom 3D-printed structural and aesthetic components for the robot chassis.
planet shaft
planet shaft
planet shaft
Feb 2026 — April 2026 Formula SAE

Planet Shafts Redesign

University of Toronto Formula SAE Racing

Redesigned the planet shaft component within the drivetrain's 11.97:1 compound planetary gearbox to improve manufacturability and serviceability, validating the new geometry against peak planetary-stage torque using FEA — achieving a maximum von Mises stress of 77.99 MPa with a minimum safety factor of 15 — before machining to tight tolerances. Gearbox-wide webbing optimization contributed to a 14% weight reduction (830.7 g → 711.49 g) while maintaining a predicted gearbox fatigue life of 580 hours.

SolidWorks ANSYS FEA Machining
  • Redesigned the planet shaft to improve assembly efficiency, manufacturability, and serviceability within the gearbox's 11.97:1 compound planetary reduction (59 sun teeth, 23/84 planet teeth).
  • Evaluated the shaft under peak planetary-stage torque, applying contact loads at needle-bearing interfaces with fixed supports at pin-retention features across all planet pins, using FEA to confirm a maximum von Mises stress of 77.99 MPa and a minimum safety factor of 15.
  • Supported gearbox-wide webbing optimization in KISSsoft that removed unnecessary material while preserving gear strength, contributing to a 14% weight reduction (830.7 g → 711.49 g) and a predicted gearbox fatigue life of 580 hours.
  • Machined the planet shaft within tight tolerances and ensured proper fit with mating drivetrain components during assembly.
P&G case competition
P&G case competition
Oct 2025 🏆 3rd Place Case Competition

P&G Marketing Campaign

2025 Engineering Business Future Case Competition

Worked in a team of four to develop a marketing strategy for Vicks Early Defense Nasal Spray, targeting increased household penetration using Porter's Five Forces and PESTLE, and delivered a clear, evidence-based presentation praised for its clarity and feasibility.

Marketing Public Speaking
  • Worked in a group of 4 engineering students to develop a marketing campaign for Vick's Early Defense Nasal Spray, aiming to increase household penetration from 10% to 20% in a year.
  • Identified a key gap — a lack of exposure and reliability — and built the strategy around tackling it by using frameworks like Porter's Five Forces and PESTLE.
  • Delivered an evidence-based presentation that impressed judges with its clarity, feasibility, and analytical depth.
face tracking robot
face tracking robot
Feb 2026 Hackathon

Autonomous Face-Tracking Robot

MakeUofT Hackathon 2026

Autonomous robot with real-time face detection and navigation, integrating computer vision, motor control, and a 3D-printed structure.

OpenCV Raspberry Pi Arduino Computer Vision 3D Printing
  • Built an autonomous robot using Raspberry Pi, OpenCV, and Arduino for real-time face detection, directional navigation, and expressive interaction.
  • Integrated motor control for differential drive, servo-driven head tilting for emotional expression, and dual power management (Pi + Arduino separate rails).
  • Implemented a smartphone-based animated face display for engaging visual feedback during interactions.
  • Resolved networking issues and improved face detection accuracy through iterative tuning of OpenCV parameters.
  • Developed both a hardware prototype and a 3D-printable robot case.
⚙️
In progress
Ongoing

More Coming Soon

🐾🐾🐾

Tinah is working hard...

Incoming
  • 🐶🐺🦊🦝🐱🦁🐯🫎🐮🐷🐭🐹🐻🐨🐼🐔
Vehicle Dynamics Lead June 2026 — Present

University of Toronto Formula SAE Racing

  • Led vehicle dynamics simulation and performance optimization using VI-CarRealTime, MATLAB, Dil and Adams Car, analyzing lap-time sensitivity, vehicle response, and handling performance across multiple vehicle configurations.
  • Developed a vehicle performance envelope using simulation data to characterize acceleration, braking, cornering, and tire-force limits across representative operating conditions.
  • Performed mass sensitivity analysis and established vehicle mass targets projected to reduce lap time by approximately 3% relative to the previous-year vehicle.
  • Developed and maintained vehicle dynamics analysis workflows in MATLAB, including automated simulation post-processing, parameter sweeps, and performance visualization to support setup and design decisions.
  • Performed suspension, and steering analysis, including suspension-link load correlation between Adams Car simulations and vehicle dynamics models within 20% difference to validate predicted loads.
  • Supported DIL testing and validation, coordinating test parameters, and maintaining test workflows
  • Maintained and compiled vehicle dynamics software PRs, supporting integration, validation, and deployment of simulation and testing updates.
Drivetrain Team Member → Drivetrain Team Lead Sept 2024 — June 2026

University of Toronto Formula SAE Racing

  • Co-led drivetrain architecture development for the team's first AWD Formula SAE EV race car and performed PM motor assembly.
  • Designed a custom rotor alignment tool to enable safe, precise, and repeatable installation given strong magnetic attraction forces.
  • Produced GD&T-compliant drawings, cost analysis, and manufacturing documentation for the inboard motor mount, planet shafts, and motor bearing.
  • Designed and validated a dual inverter cooling system in Simulink and ANSYS, sized from a digitized motor efficiency map.
  • Presented drivetrain architecture and engineering decisions to industry judges at Formula SAE Michigan 2026.
UAS Payload Specialist — SAE Aero Design June 2026 — Present

University of Toronto Aerospace Team

  • Leads the design of an autonomous moving payload for the SAE Aero Design Advanced Class mission, focused on lightweight, reliable mechanisms.
  • Developing navigation, capture, and release mechanisms through CAD, rapid prototyping, and engineering trade studies.
UAS Structures Member Sept 2025 — June 2026

University of Toronto Aerospace Team

  • Designed and iteratively refined payload pickup/release mechanisms for a hybrid V/STOL aircraft, validated through 3D-printed prototypes.
  • Collaborated cross-functionally with control and avionics teams to align mechanical design with mission requirements.
  • Contributed to landing gear design and fuselage structural integration, designing for maintenance accessibility.

Behind every role

See the projects that came out of these teams →

Engineering & Business Competitions
🥈
2nd Place
Hack the Human–Robot Experience
UofTHacks 13
2026
View on Devpost →
🥉
3rd Place
Engineering Business Future Case Competition
P&G · Vick's Marketing
2025
Drivetrain Team Lead
Formula SAE Michigan 2026
Design Presentation — Drivetrain
2026
Structures Member
International SAE Aero Design 2026
2026
Academic Honours
Dean's List University of Toronto Scarborough
2025
Mathematics Competitions

Waterloo Euclid Contest

Top 25%

Centre for Education in Mathematics · 2024

Canadian Open Math Competition

Distinction

COMC · 2023

Waterloo Fermat

Top 25%

Centre for Education in Mathematics · 2023

Waterloo Hypatia

Top 25%

Centre for Education in Mathematics · 2023

Curious what these led to?

Explore the projects behind the wins →

🖥️ Engineering
Software
💻 Programming
🔩 Fabrication &
Hardware
🤖 Embedded
Systems
📊 Data &
Analysis
🖥️

Engineering Software

3DEXPERIENCE/CATIAMech & Shape Designer Associate
SolidWorksCSWA Certified
MATLAB & Simulink
ANSYS FEA
Catia
Vi-Grade / rFpro / ADAMS Car
💻

Programming

Python C C++ JavaScript HTML MySQL Arduino
🔩

Fabrication & Manufacturing

🏭
Machining (Lathe, Mill, Drill Press)Certified — George Brown College, Oct 2025
🖨️
3D Printing (FDM)Extensive hands-on prototyping
✂️
Laser Cutting
🪨
Composite Assembly
📐
GD&T & Engineering DrawingsProduction-ready machined parts
🤖

Embedded & Hardware

Raspberry Pi Arduino Sensor Integration Motor Control OpenCV Computer Vision Power Management
📊

Data & Analysis

Machine Learning Data Preprocessing Load Spectrum Analysis Lookup Table Digitizing Thermal Modelling
🏅

Certifications & Languages

Certified 3DEXPERIENCE Mechanical & Shape Designer - CATIA Associate

View Credential

Dassault Systèmes · July 2026

Certified SOLIDWORKS Associate (CSWA)

View Credential

Dassault Systèmes · Dec 2025

Basic Machining — Lathe, Mill, Drill Press

George Brown College · Oct 2025

CPR & First Aid

Canadian Red Cross · Sept 2024

🇨🇦EnglishNative
🇨🇳ChineseNative
🇯🇵JapaneseElementary

See it all in action

These skills power every project →

Ruodi Yuan
Ruodi Yuan

I'm Ruodi Yuan, a Mechanical Engineering student at the University of Toronto St. George, pursuing a Certificate in Engineering Business and a minor in Bioengineering and Robotics & Mechatronics. I transferred into engineering from Life Sciences, and I believe that cross-disciplinary background gives me a unique perspective — blending biological intuition with rigorous mechanical and systems thinking. I'm proficient in industry-standard tools including SolidWorks (Certified SOLIDWORKS Associate), MATLAB, Simulink, ANSYS FEA, and Catia, which I apply regularly to real-world design and simulation challenges.

As Vehicle Dynamics Lead, and previously Drivetrain Lead, for the University of Toronto Formula SAE Racing team, I oversee mechanical design, manufacturing documentation, and thermal system simulation, including developing a standalone cooling loop model and working on motor assembly with permanent magnets. My work extends well beyond the computer — I'm actively involved in hands-on machining and manufacturing, coordinating fabrication processes and ensuring designs translate effectively from CAD to physical components. I also lead payload design for the UofT Aerospace team's SAE Aero Design entry, building on prior work designing arming housings and a modular nose landing gear subassembly for a hybrid V/STOL aircraft. Beyond hardware, I have strong programming skills in Python, C/C++, JavaScript, HTML, and MySQL, with experience in machine learning, data preprocessing, and web application development through both academic competitions and professional work.

2+
Years in FSAE
3+
Competition awards
10+
Projects
2
Engineering design teams
University of Toronto St. George
BASc in Mechanical Engineering + PEY Co-op
Sept 2025 — Apr 2030 (expected)
University of Toronto Scarborough
Honours BSc, Life Sciences (Health Sciences Stream) · Dean's List
Sept 2024 — Apr 2025

Want to know more?

Dig into the work or get in touch →

Open to opportunities

Let's build something
interesting together.

I'm seeking engineering internships for May – Sept 2027. Whether it's mechanical design, thermal systems, robotics, or anything that involves making things go fast — I'd love to chat.

📍 Toronto, Canada 🗓️ Available May 2027 – Sept 2028 🟢 Open to internships

What I love working on

🏎️Formula SAE Racing
✈️Aerospace Systems
🌡️Thermal Engineering
🤖Robotics
🧪Bioengineering
⚙️Mechatronics

Typically responds within 24 hours — unless I'm in the shop or on the track 🏁

Vehicle Dynamics Lead @ UofT FSAE AWD Formula SAE EV UAS Payload Specialist Mechanical Engineering + PEY Co-op MATLAB · Simulink · ANSYS · SolidWorks UofTHacks 2nd Place 2026 Formula SAE Michigan 2026 Seeking Internships May 2027–Sept 2028 Vehicle Dynamics Lead @ UofT FSAE AWD Formula SAE EV UAS Payload Specialist Mechanical Engineering + PEY Co-op MATLAB · Simulink · ANSYS · SolidWorks UofTHacks 2nd Place 2026 Formula SAE Michigan 2026 Seeking Internships May 2027–Sept 2028

Project Overview

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Key Features

Design Process