I have always wanted to build something with engines, so the summer after my junior year, I decided to start with a go-kart. Low and behold, it was a large and complex project due to size, integration, and the sheer force it would have to endure. Despite many issues during the build process, I was able to navigate and find unique solutions, completing the project after three months of work. I have continued to tinker with the go-kart, making improvements to design and functionality regularly.
I first became involved with 3D printing in sixth grade, driven by an early interest in engineering and hands-on problem solving. What began as simple experimentation quickly grew into a deep understanding of printer operation, troubleshooting, and iterative design. Over time, I applied these skills to real-world challenges, including production of PPE during the COVID-19 pandemic and managing 3D printers for my school’s robotics teams. I later co-founded Print With Purpose, using 3D printing to design accessible learning tools with meaningful community impact. Through years of continuous learning and application, 3D printing has become both a technical skillset and a way for me to turn ideas into practical solutions.
I have always enjoyed building hands-on projects, which led me to design and construct a DIY potato cannon from scratch using PVC pipe, epoxy, and common materials from a hardware store. While the initial design used a traditional lighter for ignition, I quickly recognized the need for improved reliability and safety. I upgraded the system to use an electric Tesla coil to generate the ignition spark, allowing the cannon to be fired from a safe distance. To further reduce risk, I built a remote launch box and implemented additional safety precautions, transforming the project into a more controlled and thoughtfully engineered system.
I have always been interested in flying machines, which led me to start designing and assembling DIY FPV drones. What began as a basic build quickly became a complex process involving precise soldering, electronics integration, and firmware configuration. Through trial and error, I learned how to tune PID values, optimize flight performance, and diagnose hardware and software issues to improve stability and responsiveness. Each build pushed me to better understand control systems and electronics, and I continue to refine my designs through testing, crashes, and incremental improvements.