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UT24 Projects

2024 Competition

Second year as Drivetrain Lead, focusing on refinement and optimization of the electric platform. This year marked the team's first driverless-capable vehicle and advanced thermal management systems.

FSAE Competition History

A chronological overview of my involvement with the University of Toronto Formula Racing team, from UT22 to UT26, highlighting the evolution of vehicle performance, technical innovation, and leadership roles.

UT24 — 2024 Competition Car
UT24 — 2024 Competition Car
2024

Second year as Drivetrain Lead, focusing on refinement and optimization of the previous year's electric platform, including improvements in cooling, efficiency, and reliability.

Performance: 1st Overall at Formula Hybrid + Electric New Hampshire, 9th Overall at FSAE Michigan, and first driverless-capable vehicle in team history.

Impact: Achieved top-tier performance and reached design finals at both Michigan and New Hampshire competitions.

Simulation & Dynamics

Advanced simulation frameworks for vehicle performance analysis, from basic lap time optimization to integrated multi-physics modeling.

MATLAB Lap Simulation Development
MATLAB Lap Simulation Development
2024

Led the transition from commercial OptimumLap software to custom MATLAB lapsim framework, collaborating with suspension team to implement TTC tire models and establishing foundation for advanced vehicle dynamics simulation.

MATLAB/SimulinkTTC Tire ModelsVehicle Dynamics FrameworkOpen-Source DevelopmentAdvanced Tire Modeling

Impact: Established foundation for advanced simulation with 5% accuracy improvement through TTC tire model integration and custom MATLAB framework development

Thermal Management Systems

Comprehensive thermal engineering from component design to experimental validation and CFD optimization.

Radiator Characterization & Testing
Radiator Characterization & Testing
2024

Designed and built UTFR's first comprehensive radiator characterization test bench with custom circuit board for data acquisition, featuring 1 flow rate sensor, 2 pressure sensors, 2 water temperature sensors, 2 air temperature sensors, and hot wire anemometer - all logged directly to computer. This marked the first experimental radiator testing in team history and generated valuable thermal performance data.

Experimental DesignPCB DesignThermal TestingData AcquisitionAnalytical Validation

Impact: Established experimental thermal testing capabilities and generated comprehensive radiator performance database for CFD validation and cooling system design

2024 Cooling System Design & Thermal Optimization
2024 Cooling System Design & Thermal Optimization
2024

Advanced thermal management optimization using CFD analysis and experimental validation, building on the 2023 foundation with significantly improved routing and component placement to achieve 10% cooling efficiency improvement and 5°C temperature reduction.

CFD AnalysisThermal OptimizationExperimental ValidationANSYSHeat Transfer Engineering

Impact: Achieved 10% cooling efficiency improvement and 5°C motor temperature reduction through CFD-driven design optimization

CFD Radiator Simulation
CFD Radiator Simulation
2024

Developed STAR-CCM+ expertise for thermal analysis by creating a comprehensive radiator model using porous media approach, establishing foundation for advanced CFD thermal simulations in electric vehicle cooling systems.

STAR-CCM+CFD Thermal AnalysisPorous Media ModelingConjugate Heat TransferThermal Validation

Impact: Established STAR-CCM+ thermal analysis capabilities and created validated radiator model for cooling system optimization

Mechanical Design & CAD

Foundation of vehicle development through CAD modeling, component design, and manufacturing processes.

Drivetrain Harmonic Analysis
Drivetrain Harmonic Analysis
2024

Comprehensive harmonic analysis of driveshafts and sprockets to prevent resonance failures. Performed hand calculations of critical speeds, ANSYS modal analysis, and fatigue evaluation, revealing driveshafts require 1,192,700 cycles at equivalent distance of 1,648 km to fail at natural frequency, which would require unrealistic vehicle speeds of 1,079 km/h.

Modal AnalysisHarmonic AnalysisCritical Speed AnalysisFatigue AnalysisANSYS

Impact: Ensured drivetrain reliability by preventing resonance failures and validated exceptional component durability for FSAE competition conditions

Let's Connect

Whether you're a recruiter, fellow engineer, friend, or just a curious stranger, I'd love to hear from you.