I have been interested in engineering for as long as I can remember. In sixth grade, I asked my mom if I could transfer to a STEM-focused school thirty minutes from our home because I wanted stronger math and science programs. At the time, I did not realize how much that decision would shape my future, but it opened the door to opportunities that later confirmed my interest in aerospace engineering.
For a long time, I struggled to answer whether I think more with the left side of my brain or the right. Eventually, I realized that engineering works best when both are involved. Creativity and logic are often treated as opposites, but in engineering they constantly overlap. Aerospace engineering especially requires imaginative thinking combined with strict physical constraints. Designing something that flies means balancing creativity with the realities of aerodynamics, structural loads, and propulsion. That challenge is what attracts me most to the field.
When I entered high school, I chose the most rigorous classes available to me, even when advanced options were limited. Those courses pushed me to participate in science fair, which became one of the most influential parts of my academic experience. Each year, my projects grew closer to my interests. I started with aerodynamics, then explored planetary science, and eventually focused on space weather and its effects on satellites. Through these projects, I learned how to analyze data, write technical reports, and approach complicated problems step by step. By my junior year, I placed first at my local science fair, qualified for the state level, and received a scholarship for my project. More importantly, I discovered how much I enjoy research and the process of solving problems through experimentation.
During my junior year, I also joined a rookie FIRST Robotics Competition team. I now serve as a mechanism lead, guiding five students through designing and building one of the robot’s mechanisms. Robotics showed me a different side of engineering. Instead of carefully planned experiments, the process often involved rapid prototyping, unexpected failures, and redesigning ideas multiple times before they worked. Learning to treat failure as part of progress became one of the most valuable lessons I gained from robotics.
To prepare for engineering in college, I continued challenging myself academically. I took a math course over the summer and completed two math classes during my senior year, finishing high school in College Credit Plus Calculus II. I also had the opportunity to intern with Northrop Grumman during my junior year, where I worked on a drone swarming project involving quadcopters and autonomous coordination. That experience introduced me to systems-level engineering and reinforced my interest in aerospace technologies. I also joined the National Museum of the United States Air Force’s model rocketry team to explore rocket systems through hands-on work.
Transferring schools in sixth grade exposed me to opportunities I would not have known about otherwise. Because of that experience, I try to help younger students discover similar opportunities. I volunteer at a local museum where I run hands-on science activities for elementary students, including a rocket-building activity I designed so students can experiment, redesign, and test their ideas. Through museum programs and church camps, I have worked with over 100 students and encouraged them to explore STEM programs such as robotics.
In college, I plan to approach opportunities with the same curiosity that led me to transfer schools years ago. I hope to pursue research, internships, and engineering organizations that deepen my technical skills while working with others and continuing outreach that helps younger students discover opportunities in STEM.