NileRed, a YouTube chemist, has a remarkable way of revealing the hidden principles that govern our world. Watching him turn plastic gloves into grape soda sounds like science fiction, but through his experiments, he demonstrates that the seemingly impossible becomes possible once you understand chemical properties and universal laws. What started out for me as a curious watching of his clips developed into a better understanding of the universe that went beyond chemistry. At first, I was merely intrigued by his experiments, but, after watching multiple videos, a pattern emerged. In his videos, he demonstrates that everything is made of atoms, just arranged in different ways.
This fundamental principle that complex things can be understood through their basic components and then used for practical purposes has guided my love of science and my future career plans. Through my chemistry classes, I've discovered how to explore these principles. In labs, each experiment has revealed new layers of understanding as we observed invisible interactions, tracked changing variables, and analyzed how everything connects. Often, I find myself staying after class or returning after school to discuss deeper "why" and "what if" questions with my teacher, eager to understand more than just what's covered in our lessons.
Chemistry challenges my brain to think about the theoretical. Everything is at equilibrium, yet multiple things interact with one another. Seemingly minuscule interactions have such drastic physical impacts. And, ultimately, all components of the world interact no matter how big or small. It also shows me the practical use of experimentation to better what currently exists. For instance, one experiment that we performed tested insulatory properties of multiple materials for both exothermic and endothermic reactions. The direct application of this experiment is realized in the healthcare and restaurant industries for food safety, as well as in buildings for insulation.
These theoretical-to-practical interactions appear at every scale and in all scientific disciplines, as in physics, where calculations, experimentations, and observations meet to show what the application of change is in the real world. Our first lab saw us taking carts with sensors and experimenting with which way to tilt the plane of the track, how hard to push the cart, and what mathematical effect each change exhibited in the experiment. Our second lab took us through predicting how far a projectile would launch. Then, we had to observe trials to see if our calculations were correct.
Understanding the more complex principles of science that are a fundamental part of our universe isn't just academic—it's crucial for humanity's future. With the necessary emphasis today on STEM careers, making the complex understandable and usable to all is critical. As a student, I have chosen to pursue a career in aeronautical engineering. While some dream of space travel, I want to be the engineer making those dreams possible through mastery of the principles that govern our universe. The opportunities of internships with NASA or SpaceX excite me because of their long-lasting impact on the universe at large. Getting to space isn't just about building bigger rockets: it requires understanding how seemingly minuscule interactions have such drastic physical impacts and, ultimately, how all components of the world interact, no matter how big or small. Every component of our world affects every other.
My understanding of science and my ability to explain complex concepts can create pathways for greater universal understanding. Whether I'm helping classmates work through challenging assignments or managing complex light sequences and sound systems as my school's Technical Director, I apply these principles daily. More importantly, though, I've focused on developing future leaders, training a junior to take charge next year and preparing an eighth grader to follow him. Breaking down complex concepts into understandable components—whether they're sound waves, lighting configurations, or team dynamics—helps build stronger communities.
I believe that understanding our universe isn't just about scientific advancement; it's about bringing people together to solve shared challenges. When we understand how things work, from molecular interactions to human relationships, we can better address both technical problems and social issues. I want to use my knowledge not just to advance space exploration or explain things better to my peers, but to help create a world where seemingly impossible transformations become possible through understanding, collaboration, and dedication to our shared human experience.