The summer after fourth grade is a time in my life I keep coming back to. I was invited to attend a summer camp at Kennedy Space Center with a small group of kids. Going in, I wasn’t that excited, but immediately I was blown away with all that Space Coast had to offer. Suddenly all the history I’d learned about space exploration wasn’t tucked away in some textbook across school, it was right in my face. For a couple days I was a little astronaut, braving through mock rocket launches, touching real moon rocks, and drinking Tang all day long. Yet my favorite part might have been watching a rocket launch live, which I’ll never forget.
I had an absolute blast at Kennedy Space Center, but more critically, it charted my course toward aerospace engineering. The experience was just as fun as it was inspiring. It showed me how much of an impact engineers can have, that little geeks like me really can put people on the moon. I wanted to go back, not as a mesmerized child, but as an engineer ready to contribute to that rich history of space exploration. I hoped that one day, I’ll watch my own rocket lift off just as I saw others so many years ago. Most importantly, I found Tang, my favorite beverage as a kid, which utterly escapes my understanding years later because it tastes nasty now.
High school gave me pimples, a better sense of fashion, and new ways to view the universe built upon the old fascinations I had as a child. In my quest to understand the world around me I gravitated to what seemed to underlie it all: numbers, math, physics and its applications. Numbers seemed to me these marvelously regular objects. Calculus and physics took hold of me because every problem was like a window into the fabric of the universe itself. Everything that exists, existed, or ever could exist, in some way, shape, or form, boils down to just straight math, whether it be physics, music, or Mrs. Owen’s essays I had to write in AP Lang. There’s no way I could turn my back on such power. Trading fascination with those rockets I once saw for captivation with how they work, I never looked back from the path of engineering.
One characteristic that’s stuck with me for years is that I like thinking about life’s biggest questions. The philosophical implications of my reverent perspective of numbers has not gone unnoticed by me. The summer before senior year gave me another way to understand this universe, one not observed, but one conceived through the lens of philosophy. The power of numbers to predict everything in my mind necessarily implies a deterministic view of the universe. That didn’t sit right with me at first, but it’s a point that I’ve become more than eager to debate with anybody who’s willing to sit and listen to me blabber. Making connections between STEM and philosophy, I spent that summer going down a rabbit hole of philosophical ideas, from determinism through stoicism and terminating at the hazardous straits of pessimism and nihilism as described by Nietzsche (although I will be the first to remind you that Nietzsche was not a nihilist - read Thus Spoke Zarathustra). I think that the ideas of Nietzsche, Zapffe, and other philosophers are useful and have connections beyond the abstract. Science, the pursuit of truth, seems to lead me down odd streets like this, but in my investigation of the universe I’ve appreciated every dead end and side street it’s driven me down. I’ve taken a liking to exploring on my own in philosophy, both by reading the works of great thinkers before me and outlining my thoughts in fits of creative writing. Writing makes me feel intellectually liberated because it’s almost like a universe that I’m creating myself
That same summer, I made important discoveries in another way closer to my home in STEM: through fluid mechanics research in Pioneer Academics. In this summer program, I learned about the inner workings of fluid mechanics from Duke professor Dr. Kabala, created an original research topic, and wrote a full research paper at an undergraduate level. It was exactly the engineering opportunity that I was looking for to soothe my captivation of how rockets work, but it certainly wasn’t easy. I stayed up late reading my professor’s textbook to understand the Navier-Stokes equations. I scoured the Internet and my brain about my research topic, the aerodynamics of the novel tilt-rotor aircraft in transition, and devoted hours to synthesizing the perfect paper all while incorporating the feedback of my professor and my peers. Running my trusty NACA0012 airfoil through transient flow to gather the lift and drag coefficients definitely gave me a hard time. I had to run tons and tons of simulations in ANSYS Fluent, but I persevered, and I was delighted to hear Dr. Kabala awarded me the highest possible grade. My paper is currently nominated to the Pioneer Research Journal, the program’s highly competitive journal. It’s curious to know that in working to better understand something, specifically the math and physics behind complex fluid interactions, I contributed something completely unique and useful to the engineering academia.
While performing that research, what became increasingly clear to me was how many useful technologies and ideas hinge on our developing understanding of the universe. Tilt-rotor aircraft, the star of my research, may very well be the future of aviation if more researchers can come along, perfect the design, and figure out all the unknowns. Despite our best efforts, turbulent flow continues to be a difficult issue to approach, resulting in dangerous and problematic designs like the V-22 Osprey. The solution to the Navier-Stokes equations is so important to our understanding of anything regarding fluid mechanics that there’s a $1 million prize for uncovering it, but it’s eluded mathematicians for decades. The study of the smallest things, quantum mechanics, seems to have bearing on the largest questions in our universe. The field that I intend to enter as an aerospace engineer is filled with unknowns and difficulties that could propel us to the stars if tackled, like how to make asteroid mining economical or how to conduct interstellar travel in a reasonable amount of time. Understanding all of these great questions about our universe will pay for humanity with new ideas, technologies, and advancement as a species.
Moving onto college I want to be a part of that pursuit to understand the universe. While the perspective and difficulties of numbers is undoubtedly my favorite and certainly one that will lead my contribution to the quest, I want to draw from many fields to have a more complete understanding. I enjoy philosophical thinking and I appreciate the connections I’ve made between philosophy and science, spurring numerous thoughtful debates with my friends and family. Mathematics and physics still fascinate me, and walking in the footsteps of Newton I know I have gargantuan shoes to fill. More recently, coding has emerged as a tool for me to invent new products, such as a plastic bottle recycling machine which I used to clean up my local community. I’m always open to new fields that interest me as well, questioning away and making connections. As I continue to acquire more knowledge from all these fields, I’ll better understand how the world works and be able to give back to the world through projects like the recycling project. Others joining on this trek may make their own contributions, like vanquishing the Navier-Stokes equations once and for all or coming up with a new cheap and efficient aircraft design.
Following college, I’ll unite everything that I’ve learned to push the space industry higher and higher. The Space Race gave us so many technologies and products, like headphones, smoke detectors, and of course Tang, which after being so heavily associated with NASA, tastes most strongly of discovery. I want to be similarly illuminating in my quest for understanding; breathing new life into a struggling industry to kickstart a new golden age of discovery and advancement. On the global scale, an understanding combining the perspectives of people everywhere will ultimately benefit people everywhere more than just through headphones and smoke detectors. In my relentless questioning and exploration I know I stand on the shoulders of giants, like Newton, Reimann, Nietzsche, and all the others before me. We should all take part in this quest, because though we may never succeed in understanding everything, we’ll still help ourselves in the process.