Engineering Meets Racing
As both a race car driver and an aeronautical engineering student, I've come to appreciate that racing isn't just a sport—it's one of the most demanding real-world applications of engineering. Most people see the driver behind the wheel making split-second decisions at nearly 200 miles per hour. What many don't realize is that every lap, every adjustment, and every result is built on a foundation of engineering.
For me, racing and engineering aren't two separate passions—they're deeply connected. As I pursue my Aeronautical Engineering degree through Arizona State University while competing in the ARCA Menards Series, I've gained an even greater appreciation for how much engineering influences every aspect of motorsports.
At its core, racing is a real-world engineering challenge.
Every race car is a collection of systems working together. Aerodynamics, suspension geometry, tire performance, engine efficiency, weight distribution, and data analysis all play a role in determining how fast a car can go and how consistently it can perform. The difference between winning and finishing a few positions back can come down to tiny details that engineers spend countless hours analyzing and refining.
As drivers, we often communicate what we feel inside the car—whether it's loose, tight, unstable, or lacking grip. Engineers then take that information and translate it into measurable changes. They use data, simulations, and experience to solve problems and improve performance. It's a continuous cycle of observation, analysis, testing, and adjustment.
That process mirrors what I am learning in engineering.
Engineering is about solving problems. It's about understanding why something happens and determining how to make it better. Racing demands that same mindset. Rarely does a weekend go exactly as planned. There are mechanical challenges, changing track conditions, strategic decisions, and unexpected obstacles. Success often comes from the ability to analyze a situation, adapt quickly, and find solutions under pressure.
Some of the concepts I study in aeronautical engineering are directly applicable to racing. Aerodynamics, for example, affects both aircraft and race cars. Understanding how air flows around a vehicle can impact stability, drag, speed, and efficiency. The same principles that help an aircraft perform better in the sky can help a race car perform better on the track.
Engineering has also changed the way I think as a driver.
Instead of simply reacting to what the car is doing, I find myself asking more questions. Why is the car behaving this way? What variables might be contributing to the issue? How can we approach the problem differently? Having a technical perspective helps me communicate more effectively with my team and better understand the decisions being made behind the scenes.
At the same time, racing has made me a better engineering student.
Racing teaches resilience, teamwork, and the importance of execution. You can have the best plan in the world, but success depends on how well that plan is carried out. It teaches you to stay calm under pressure, trust the process, and continue learning from every experience—qualities that are equally valuable in engineering.
One of the things I love most about motorsports is that it's truly a team sport. Drivers, crew members, engineers, mechanics, and strategists all contribute to the final result. No one succeeds alone. Engineering is the bridge that connects all those efforts and transforms ideas into performance.
The more I race and the more I study engineering, the more I realize they are built on the same foundation: curiosity, innovation, and the pursuit of continuous improvement.
Whether I'm studying aerodynamic principles or in the race car searching for another tenth of a second, the goal is the same—to understand, improve, and perform at the highest level possible.
Engineering and racing don't just work together. They depend on each other.