Four subsystems, one race bike. Explore what each team does and dive into the resources we hand every new recruit before they touch a wrench, a battery, or a line of code.
Design, build, and test a real electric race bike from the ground up — not a simulation, not a coursework project
Work alongside 30+ students across four subsystems and take the bike you built to the track and to sponsors
Dedicated to crafting a strong, lightweight, aerodynamically superior frame that delivers top-tier performance — from frame and suspension design to braking, transmission, and ergonomics. Build a bike engineered for speed, durability, and efficiency, and collaborate with a dynamic team to push the limits of e-bike technology.
Start here — basics of structures (stress, strain, materials, kinematics) and transmission (types, gear ratios):
The essential core of the bike, without which it can't function. This subsystem designs a functional, ergonomic battery pack for high-efficiency performance and specs the motor and motor controller to run at peak output. A low-voltage subsystem operates at 12V, handling telemetry, logging, and control for safer energy distribution.
Dive into these topics — electric powertrain basics, battery tech, basic electronics, and power & energy:
Uses computer programs and optimization tools to enhance mechanical design performance. Advanced neural networks optimize top speed and track times, streamline management and billing for efficiency, and power virtual simulations that let us precisely optimize design elements before physical prototyping.
Go through the following to get a better understanding:
Coordinates every function to ensure the team's success — integrating technical work like motor performance and battery management with logistics like race strategy, communication, sponsorships, and resource allocation. Effective management keeps engineers, riders, and support staff working cohesively toward one goal: winning on the track.
Go through the following links to get a better understanding: