Aerodynamics

Innovative Aerodynamics: The Challenge of Controlled Descent

One of the most critical aspects of our CanSat’s design is its descent mechanism, which relies on an autogyro rotor—a passive, rotating set of blades that generates lift without an engine. Unlike traditional parachutes, an autogyro uses the airflow created during descent to spin its rotor blades, slowing the fall in a controlled manner.

This approach is both mechanically simple and aerodynamically complex. The absence of active propulsion means our design remains lightweight and reliable, but achieving stable, predictable descent rates requires precise aerodynamic tuning. The angle of attack, blade shape, and rotational dynamics all influence performance, making this an exciting engineering challenge.

Our team is pushing the boundaries of CanSat aerodynamics with an innovative rotor design tailored for optimal stability and descent control. Successfully implementing this system demands extensive simulation, prototyping, and testing—key areas where funding can make a real impact. By supporting our team, you’ll be directly contributing to the development of cutting-edge aerospace solutions and helping the next generation of engineers tackle real-world challenges.​

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-Grant K.

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