Fundamentally, science, technology, engineering, and mathematics (STEM) are disciplines dedicated to understanding and shaping the physical world. However, the word is never statics and it is in a constate state of change. Calculus is indispensable to the STEM field because it is the universal language of continuous change. Calculus is the mathematical bridge that allows engineers and scientists to transition from observing static snapshots of reality to modeling and optimizing systems. My appreciation for calculus matured a lot as I advanced through rigorous dual enrollment courses at Georgia Tech taking multivariable calculus and differential equations. I quickly realized that calculus is a powerful toolkit for solving real-world problems and not just a collection of weird rules that I had to memorize. For instance, in ecology and biology, populations are constantly fluctuating based on environmental pressures and competition. I utilized this exact mathematical framework during a research project analyzing wildlife populations in the Florida Everglades. By constructing a non-linear system of differential equations including the Lotka-Volterra equations, I was able to model the complex population interactions and reciprocal predation between American Alligators and Burmese Pythons. Without the foundational principles of calculus - specifically, analyzing interrelated rates of change over time - predicting the long-term survival rates and ecological balance within such a delicate ecosystem would be impossible. Furthermore, the rigorous precision demanded by calculus creates an analytical mindset that is necessary for a STEM major. Whether determining the physical stability of a mechanical structure or the efficiency of a software algorithm, engineers must thoroughly understand limits and boundaries. I experienced this directly when analyzing the convergence of complex infinite series. Evaluating these mathematical sequence requires a lot of precision and a single misplaced variable changes the entire model. For example, when running an integral test to determine convergence, adjusting the parameters by providing a specific missing term for the denominator, such as utilizing the expression 6n-1, completely changes the evaluation of the function's limit. This attention to detail is the exact same precision required to safely design structural foundations or program devices. Looking toward my future career in mechanical engineering, calculus is the invisible engine driving the technology I want to build. My goal is to design autonomous, heavy-lift drones for disaster relief operations. A drone's ability to navigate unpredictable, high-wind environments relies entirely on advanced calculus. The onboard microcontrollers must constantly calculate integrals and derivates to process spatial sensor data, adjust motor speeds, and optimize flight control algorithms on-the-go. To program a drone to dynamically course-correct mid-flight means I have to apply multivariable calculus in physical space. Ultimately, calculus is important to the STEM field because it turns theoretical concepts into tangible innovations. It describes to us how an apex predator population grows or the mechanics to keep a disaster-relief drone airborne. Calculus is the fundamental tool that empowers us to purposefully design the world as it could be.

Engineering is fundamentally an act of empathy, a philosophy that has defined both my personal and educational journey. Growing up at a dinner table where semiconductors and mechanical designs were a casual conversation, I learned early on that the true value of technology is its purpose to improve the lives of people. When my grandmother's arthritis made holding a cup of tea a painful and shaky task, I could not stand by and watch her struggle. I opened OnShape, designed, and 3D printed a custom gyroscopic mug-holder to stabilize her cups. Seeing the relief on her face as she comfortably took a sip confirmed my life's trajectory: I want to build things that tangibly improve human lives. To prepare for a future solving complex problems, I challenged myself with a rigorous academic path, enrolling in Georgia Tech's Dual-Enrollment Math program and completing Linear Algebra, Multivariable Calculus, Applied Combinatorics, and Differential Equations. Navigating these advanced university-level mathematics while balancing varsity golf, cross country, and track taught me discipline, but it also revealed my greatest weakness: rigid tendency toward perfectionism. Early in my journey, whether I was obsessing over a flawless mechanical golf swing or expecting my first 3D-printed designs to work perfectly, I treated mistakes as personal failures. It took watching a ball splash into a water hazard at the Georgia State Golf Association Junior Championship and seeing seven failed iterations of a custom camera housing build to teach me that perfectionism hinders innovation. I consciously transformed this weakness into my greatest strength: adaptable resilience. Today, I see clumsy first designs and calculation errors as essential data points in the iterative process of growth, and I carry that adaptable mindset into my community, where I have tutored over 50 peers in STEM subjects, teaching young mentees that patience and adaptation are the true pillars of problem-solving. My vision for the future scaled from household fixes to global tasks after touring Tritium Electronics, a US drone-motherchip manufacturer in Ohio. Holding a sample motherboard chip in my hands, I saw how the abstract circuit boards and algorithms could become life-saving technology. As a mechanical engineering student at the Georgia Institute of Technology, my dream is to pioneer the development of autonomous, heavy-lift unmanned aerial vehicles (UAVs) specifically optimized for emergency disaster relief. When natural disasters strike, initial response teams are frequently blinded and unable to act quickly due to hazardous terrain. I plan to conduct research through Georgia Tech's Vertically Integrated Projects, specifically collaborating with the Rotor-X Heavy-Lift Drone Technology team, to design swarms of autonomous UAVs capable of navigating unpredictable environments to deliver critical medical supplies and locate survivors where traditional vehicles cannot safely reach. Achieving this vision requires a deeply rooted commitment to service, a value I cultivated by co-founding Eagle Service Connection in high school. Through this organization, I built a reliable logistical system that mobilized 230 peers to raise over $4,000 and construct homes with Habitat for Humanity. Whether I am organizing community builds or mentoring elementary school students through robotics events, I have always believed in building systems that will outlast me and turn good intentions into reliable action. This scholarship is the catalyst that will help me scale my passion for service into global impact. Pursuing an intensive mechanical engineering degree while actively engaging in advanced laboratory research requires immense time and dedication. Financial support will alleviate the burden of educational expenses, granting me the freedom to dedicate my intellectual energy entirely to my undergraduate studies and research programs. By investing in my education, this scholarship empowers me to build the autonomous tools of tomorrow and translate my academic ambitions into a lifetime of tangible contributions to the world's most pressing needs.

Engineering, at its core, is the process of translating human needs into functional design. The most meaningful creation I have built was not for a business or a competition, but for my own family. When my grandmother developed arthritis, the simple joy of having a cup of tea became a difficult and shaky task. Observing her struggle, I realized that I could use my skills to build a practical solution. I designed and 3D-printed a custom gyroscopic mug-holder that physically stabilized her cups. Seeing the relief on her face as she comfortably took a sip was a profound reminder that engineering is an act of empathy. If I were granted unlimited funding and resources, I would scale this exact philosophy of using design to protect and uplift others to solve a much larger global problem: the inefficiencies in emergency disaster relief. Currently, when natural disasters strike, the initial response is often restricted by hazardous conditions and terrain. My solution would be to establish a fully autonomous, heavy-left drone disaster response network. While I have already written research papers highlighting how UAVs can be optimized for greater coverage and reliable detection, having the financial backing to physically create this system would allow me to execute a 4-phase plan. Phase 1: Advanced Research & Development First, I would establish an elite manufacturing incubator to spearhead a startup dedicated to emergency operations. Inspired by my time touring Tritrium Electronics in Ohio, a manufacturer of military-grade mother chips, I would fund the engineering of custom, proprietary microcontrollers. These chips would be specifically tailored for autonomous navigation in unpredictable environments. Phase 2: Heavy-Lift Mechanics Second, because most commercial drones lack the payload capacity for meaningful intervention in disaster situations, I would allocate significant time and capital toward researching and developing heavy-lift drone technology. These drones would be strong enough to move large debris or people in times of crisis. Additionally, these UAVs would be structurally designed to carry critical medical supplies, water, and communication beacons directly into zones that helicopters or ground vehicles cannot safely reach. Phase 3: Algorithmic Integration Third, acknowledging that hardware is only as effective as the software behind it, I would fund a team of software engineers to develop advanced flight control algorithms. Utilizing complex programming in Python and Java, we would create a unified mesh network allowing a swarm of drones to communicate seamlessly and dynamically route themselves based on real-time environmental data. Phase 4: Global Logistical Highway Finally, I would deploy these fleets to strategic locations globally.. In high school, I co-founded Eagle Service Connection, building a logistical "highway" that connected volunteers with community needs. With unlimited capital, I would build an international version of this highway, partnering with global relief organizations to ensure our heavy-lift drones can be deployed the moment and emergency is declared Whether I am designing a gyroscopic cup holder for my grandmother or conceptualizing a global network of autonomous UAVs for disaster relief, my driving principle remains the same throughout: I want to build systems that turn good intentions into life-saving action.

My ultimate career goal is to become a mechanical engineer dedicated to developing advanced, autonomous drone technology for disaster relief operations. My fascination with this field fully materialized when I toured Tritrium Electronics, a manufacturer of military-grade drone mother chips. Walking the factor floor and watching complex circuits and sensors seamlessly integrate into functional systems, I realized that I wanted to use engineering to solve pressing global challenges. Holding a sample motherboard chip in my hand, I saw the direct bridge between mechanical concepts and life-saving technology. I envision a career where I can design unmanned aerial vehicles (UAVs) optimized for greater coverage and reliable detection, ultimately safeguarding vulnerable populations during emergencies. While I am building the academic foundation for this highly technical space through rigorous coursework in differential equation and object-oriented programming. I have found that my approach to engineering is surprisingly mirrored in my favorite intellectual hobby: chess. I play the game leisurely, maintaining an ELO rating of around 1200. At this level, chess is less about memorization of theories and much more about mastering fundamentals and adapting to unexpected developments. This strategic adaptability directly translates to my engineering goals. In chess, a single rigid plan rarely works out when facing an opponent; you must constantly analyze the shifting board state and iterate your strategy while playing. I apply this exact mindset to mechanical designs. When I was engineering a 3D-printed, London-style telephone booth cover for my family's Ring camera, my initial draft failed almost everywhere. The camera was overheating due to lack of ventilation, the cord kinked due to improper cable exits, and the motion sensor was not as efficient due to the framing of the product. Instead of abandoning the project, I approached it like a complicated game. I observed the board, taking notes on cable strain and camera visual paths, and iteratively adjusted my design over seven version until it worked flawlessly. Furthermore, chess teaches the importance of synergy. A knight or a bishop is useful on its own, but they are even more powerful when coordinated toward a unified mate. Designing drones for disaster relief requires a similar orchestration. It is not enough to have an efficient motor or a strong sensor; the flight control algorithms, structure of the builds, and communication networks must all work in harmony to achieve the mission of helping those in need. As I take my next steps at the Georgia Institute of Technology, I intend to carry the lessons of the chessboard into the lab. By combining a solid grasp of fundamental mechanics with the strategic flexibility to adapt when designs fail, I am confident I can build innovative systems that turn good intentions into tangible, life-saving action.

My favorite aspect of playing golf is the constant demand for creative problem-thinking. There is a unique thrill in stepping up to a shot and realizing that the conventional, rigid approach will not always work. I experienced this vividly while competing at the GSGA Junior Golf Championship. Staring down a 136-yard shot guarded by swirling winds and a steep hill that led to a lake. I stubbornly tried to force the "perfect" mechanical swing, only to watch my ball land a couple yards short and trickle agonizingly into the water. That singular failure crystallized my favorite part of the part: it is a continuous, living puzzle. It taught me to read the course rather than fight against it, turning every round into a dynamic process of trail and error rather than a quest for absolute perfection. This shift from rigid thinking to adaptable resilience has profoundly impacted who I am today. I used to measure success purely by outcome and avoiding mistakes, but golf has taught me to also value recovery and innovation over flawless execution. This mindset has directly influenced my leadership style, particularly in my role as a coach for young mentees in out local PGA Junior League. I focus on teaching them that resilience in the face of a bad shot is the true measure of a golfer, and together, we celebrate inventive swing and adaptability just as much as low scores. The resilience forged on the golf course has been essential in navigated personal challenges outside of athletics. One of the most frustrating setbacks I have faced was the loss of a cherished, deeply personal skill. When I was eight years old, my uncle taught me how to play the acoustic guitar, a shared activity that forged a vital connection between us. However, as the overwhelming demands of high school academics and competitive sports grew, I stopped playing, and the guitar went back into its case. Years later, when I finally tried to pick the instrument back up, I found that my hands had completely forgotten the chords. This realization was incredibly frustrating; I felt as though I had lost not just a musical skill, but a tangible piece of my childhood and my connection to my uncle. However, drawing on the same patience and adaptability I developed on the fairway, I began the clumsy process of relearning. I had to accept that making mistakes—like buzzing strings and fumbled progressions—was simply part of moving forward. Through that challenge, I realized that forgetting the chords did not erase the joy of learning them, and rebuilding that skill ultimately strengthened my perseverance. Whether I am navigating an impossible lie on the golf course or relearning a forgotten chord progression, I now approach challenges with a clear understanding. Meaning, growth, and success do not stem from the expectation of perfection, but from the willingness to adapt and the connections we build along the way.

My passion for STEM is rooted in a simple but profound realization that engineering is fundamentally an act of empathy. It is the process of translating human needs into tangible, functional design. This perspective first crystallized at my family's dining table. Growing up surrounded by engineers, I frequently watched my family sketch designs on napkins or talk about the semiconductors they were working on in the office. It wasn't the gears or wires that captivated me, however, it was the purpose behind them. When my grandmother's arthritis made it difficult for her to hold a cup of tea without spilling, the abstract concepts of physics and design suddenly had a very personal application. I opened OnShape, designed, and 3D-printed a gyroscopic mug-holder to stabilize her cups. Seeing the relief on her face as she took a comfortable sip taught me that STEM is about improving lives. That intimate, hands-on application of technology ignited a curiosity that quickly scaled outward. Last summer, I visited a drone manufacturing facility in Ohio. Standing on the factory floor, watching hundreds of circuit boards and sensors seamlessly integrate into functional systems, I saw how abstract algorithms became physical solutions. Holding a sample motherboard chip in my hands, I realized I wanted to build the world through that same engineering lens. I became deeply invested in the potential of autonomous systems, specifically, how unmanned aerial vehicles can be mathematically and mechanically optimized for disaster relief operations to detect and safeguard vulnerable populations. To bridge the gap between simple 3D-printed mechanisms and advanced disaster-relief technology, I knew I had to push my academic boundaries. I sought out rigorous dual-enrollment coursework at the Georgia Institute of Technology, tackling subjects like Linear Algebra, Multivariable Calculus, Applied Combinatorics, and Differential Equations. I have loved being able to apply these advanced mathematical concepts to real-world, interdisciplinary scenarios, such as developing a non-linear system of differential equations to accurately model reciprocal predation and long-term survival rates of alligators and pythons in the Florida Everglades. Through these complex challenges, I learned that setbacks, whether in code or clumsy calculations, are simply necessary iterations on the path to a working model. Furthermore, I believe a passion for STEM cannot be contained to a single mind; it must be shared to truly impact the community. Through co-founding our school's Science National Honor Society and tutoring dozens of students in advanced math and science subjects, I have worked to nurture that same spark in younger generations. Whether I am helping a peer understand a calculus theorem or cheering on a young mentee as their robot places the ball in the basket, I am helping to build systems that turn academic curiosity into confident action. I am pursuing a higher education in STEM at Georgia Institute of Technology because I am captivated by the iterative process of observing a need, building a solution from scratch, and refining it until it works perfectly. Through a degree in mechanical engineering, I intend to spend a career creating technology that is purposeful, innovation, and profoundly human.

I first stepped onto a golf course in 2020. At a time when the world felt entirely unpredictable, the course offered a sanctuary of focus and ways I could use the things I learned in school. I was initially drawn to the sport not just for the competition, but for the intricate mechanics behind every swing. As someone who naturally views the world through a scientific and analytical lens, I quickly realized that golf was the ultimate physics problem with a complex interaction of angles and forces that dictate how the ball moves. Today, I even utilize AI diagnostic tools and research methodologies to analyze and refine my mechanics. But what started as a mechanical fascination soon evolved into a profound passion that has shaped my character over the last 6 years. Golf is deeply meaningful to me because it is a masterclass in resilience and adaptability. Early in my journey, I obsessed over executing the "perfect" mechanical shot. However, the turning point came when I learned to read the course rather than fight against it. When a perfectly struck ball inevitably takes a bad bounce, the sport demands you stay mentally present and not give in to frustration. This realization didn't just improve my scores, as it reshaped my entire mindset, teaching me that creativity and adaptability are often more valuable than rigid perfection. My dedication to this adaptable approach has yielded many milestones I cherish deeply. Over my 4 years on the Varsity golf team, we went to state 3 times and finished as victors in the 2026 County Championship. Through my team, I learned the delicate balance of individual focus and team synergy. Individually, I was honored to be named to the GSGA All-Boys State team, and I secured 2nd place at the GSGA Junior Tour Classic in both 2023 and 2024, as well as 3rd place at the 2024 GSGA Fall Classic. Yet, the accolade that resonates most deeply with me is the Spirit of the Eagle award. A coach's award that recognized me as the teammate most likely to be there for others, this award affirmed my belief that true leadership is rooted in support, empathy, and collective growth. Beyond the scorecard, golf has fundamentally shaped my relationships and long-term goals. Serving as a Team Captain for my high school team and working as a Head Coach for the youth golfers at Georgia Golf Performance, I have discovered immense joy in mentorship. Guiding young players, especially new players, as they develop their own swings and build resilience has taught me that the true value of any skill is found in sharing it with others. As I prepare to attend Georgia Institute of Technology in the fall to study mechanical engineering, I plan to carry the lessons of the fairway with me into the next stages of my life. Just as Rob Snyder found lifelong impact in this game, golf has given me the analytical tools to diagnose problems, the resilience to adapt when a plan fails, and the empathy to uplift those around me. I've learned that its much than a game and it has become the blueprint of how I intend to navigate my future.

I want to build systems that translate human empathy into tangible solutions. Coming from a family of engineers, my earliest memories involve dinner-table discussions about semiconductors and systems, but I was always more fascinated by the purpose behind the wires and gears rather than the mechanics themselves. Because of this, my vision for my future involves building on two fronts: physical technology and social infrastructure. Physically, I want to build human-centered technology that actively protects and aids vulnerable populations. This ambition started small, when I noticed my grandmother struggling to hold her tea due to arthritis. I designed and 3D printed a gyroscopic mug-holder to stabilize her cups, which taught me that engineering at its core is an act of empathy. I plan to scale this mindset by designing autonomous systems, specifically drones optimized for disaster relief operations. My passion for this solidified after I visited a military-grade drone-mother chip manufacturing-facility in Ohio. I learned all the ins-and-outs of how the technology was built and its purposes in item identification and compatible teamwork with one another. In this future, I hope to spearhead a startup that develops Unmanned Aerial Vehicles capable of reliable detection to safeguard lives during emergencies. Socially, I want to build the "highways" that connect people who want to help with the places that need hands. I have already started this work by co-founding Eagle Service Connection, a student organization that has turned the passive thought of "someone should do something" into a structured calendar of action. Through this organization, we mobilized 250 students, raised over $4000, and partnered with Habitat for Humanity to build homes for low-income families. I also actively strive to imbue confidence into the younger generation; as Vice President of the Science National Honor Society, I mentor elementary students in robotics and Science Olympiad. I will always remember watching my young mentee, Tyler, nervously clutch his bottle rocket and giving him words of reassurance to calm him down before successfully launching his rocket into the air. This moment has always reminded me of the profound impact of a strong support system and how much being there for someone actually means. Ultimately, building my future means ensuring that neither my technology nor my community efforts exist in a vacuum. Whether I am engineering physical drones to navigate disaster zones or architecting the social frameworks to organize a community build day, the positive impact remains the same. I am dedicated to creating clear roles and purposeful designs that leave behind a reliable playbook for other to follow long after I am gone.

Current social norms usually push us toward hyper-individualism where success is primarily measured by personal achievement and not collective uplift. Additionally, society often treats the fields of engineering and technology as cold and profit-driven enterprises that are disconnected from human emotion. I see my role in society as actively challenging both parameters: striving to be a positive force both now and in the future by building both social and mechanical systems that connect people and translate empathy into tangible life-praising solutions. Currently, I challenge the norm of individualism by engineering pathways for civic engagement. Recognizing a gap between high school students wanting to help and communities that needed that help, I co-founded Eagle Service Connection. Over the last 3 years, we turned intentions into action through spearheading over 250 students and raising over $4000 in partnership with Habitat for Humanity and Keep Cherokee Beautiful. By hammering wooden frames for low-income households and bonding with those families, I witnessed the immediate power of organized empathy. Furthermore, when obstacles arose like a bus cancellation that threatened a build day, we adapted by rerouting carpools and meetings so the next crew could operate more efficiently. I also extended this framework into education as Vice President of the Science National Honor Society, mentoring young students in robotics and Science Olympiad to bridge academic equity gaps and build their confidence. I also counter the norm of mechanical detachment by prioritizing human-centered product design. I believe technology should be personal and have that empathetic link back to its user. When I saw my grandmother struggling with arthritis, making it difficult for her to enjoy her tea, I designed and 3D-printed a gyroscopic mug-holder to stabilize her cops. Seeing the relief on her face reinforced that engineering is fundamentally an act of empathy. Similarly, when designing a 3D-printed London-style camera cover for a home security camera, I actively sought family feedback to ensure the final product felt like a friendly decoration rather than sterile "robot eye." I plan to scale this empathy-driven innovation to a global level through a career in mechanical engineering. My perspective fully shifted after visiting a manufacturing plant in Ohio to meet with Tanner Ewing, a US manufacturer or military-grade drone motherships. Holding a sample motherboard, I realized I wanted to build and help the world by designing drones that can solve real-world problems. Spending hours on online forums and learning Python and Java to program microcontrollers, I decided to focus my career on optimizing unmanned aerial vehicles (UAVs) for disaster relief operations. By improving drone coverage and reliable detection in emergency scenarios, I aim to deploy autonomous systems that safeguard lives when natural disasters occur. Whether I am organizing a community housing build, designing adaptive technology for the elderly, or working to program the next set of disaster-relief drones, my core mission remains the same. I strive to be a positive force by creating reliable system that connect the gap between human empathy and reality, proving that true progress is measured by the people we uplift.

I do not want to become an engineer simply because it is the "Lu-Trade" of my family. My earliest memories are of watching my family sketch designs on napkins or talk about the superconductors they were working on at dinner. What fascinated me wasn't the wires or gears, but the purpose those components held. Their works always circled back to helping people, inspiring me to solve problems. I want my legacy to be defined by being able to translate people's empathy into designs. Instead of simply building functional mechanisms, I aim to create systems that are deeply personal and human-centered. In the future, I plan to utilize a university incubator to spearhead a startup that develops drones for emergency operations and disaster relief. This business vision first formed after I traveled to Ohio to meet Tanner Ewing, a US manufacturer of military-grade drone mother chips. Watching hundreds of circuit boards come together on his factory floor gave me a firsthand understanding of how abstract ideas become usable technology. When he gifted me an Arduino circuit board kit that he used for some of his designs, I knew then that I wanted to build a business that designed drones capable of thinking, navigating, and solving survival challenges in our world. By focusing on optimizing Unmanned Aerial Vehicles (UAVs) for greater coverage and reliable detection, my company will hopefully deploy autonomous systems that safeguard lives during natural disasters. I shine my light by turning the phase "someone should do something" into a clear plan. As a co-founder of Eagle Service Connection, I exemplified that trait by creating a highway between people who want to help and places that need hands. Over 3 years, I spearheaded a network of over 250 students and raised $4500 to partner with Habitat for Humanity and Keep Cherokee Beautiful. I also shine my light through mentorship to ensure others can succeed. As Vice President of the Science National Honor Society for my school, I mentor local elementary and middle school students in Science Olympiads and robotics, teaching them to CAD, construct, and preserve through "unsolvable" problems. I vividly remember watching my mentee, Tyler, nervously clutching his bottle rocket before launch. Racing to his side to instill words of encouragement, we were able to calm him down and he was able to secure the parachute and build the pressure to the desired 80 psi we had practiced before. After that, we watched as his rocket soared into the air and glide back down. Whether I am trying to organize a cleanup or motivate up-and-coming STEM students, sharing my confidence with others is how I illuminate their potential. Ultimately, my legacy will not just be a single physical invention, but a playbook that others can use to keep the work going. This business of UAV search-and-rescue is something that I hope will come to life to save not only the lives of the people in danger, but also protect the lives of our first responders. I want to leave behind a reliable system that turns good intentions into tangible action.

For a long time, I treated golf as a sort of strict science. I would dissect my 9-iron fade frame by frame through numerous videos to "find" that perfect swing. But the biggest life lesson I have learned through golf is that out in the real world, problems cannot always be solved by strictly following the rules. A specific moment that really cemented this for me was while I was competing in the GSGA Junior Golf Championship. I was standing 136 yards from the pin. It seemed like a straightforward distance, but the conditions were complex with swirling winds and a steep hill that led to a pond, which guarded the front of the green, meaning I had to fly the ball at least 130 yards to clear the water. Anything less, and the ball would roll right back into the water hazard. Under pressure, my mind was entirely fixed on trying to execute the exact shot I had been envisioning. I took my swing, and it felt perfect off the face. However, as the ball faded back towards the pin, I also watched as a huge gust of wind stopped the ball and I watched helplessly as the ball landed just a few feet short of my target and spun back, trickling into the liquid abyss. Plop. That was the sound of my dream of victory vanishing. As I replayed that moment in my head, I realized my failure was entirely caused by rigid thinking. I was so hyper-focused on the "right" mechanical way to hit the ball that I failed to consider a different solution of not attacking the pin. I could have chosen a different club or aimed at the fat part of the green or played a shot that took the steep hill completely out of play. That single misstep shifted my perspective a lot as I learned that I needed to stop worrying about achieving absolute perfection and learned to embrace trial and error and then adapt. I put this lesson into practice when I began serving as a Head Junior Coach for Georgia Golf Performance. While helping my young mentees compete in PGA Junior League matches, I actively encouraged them to move past the frustration of a bad shot. I taught them that being creative actually lies in the resilience to adapt when things do not go as planned. Together, we focused on our swings, our ideas, and our ability to focus on the next shot rather than celebrate a final score. As I transition into a career in mechanical engineering at Georgia Tech, I plan to take this lesson of being adaptable into my own projects. In the lab or workshop, just as on the golf course, being too rigid on the "perfect" plan often leads to failure. Whether I am designing a physical product for a family member or developing autonomous systems, there is without a doubt in my mind that the environment will be unpredictable. Components are bound to fail and textbook theories will not always match the realities of the world we live. By carrying the mindset I developed on the fairway into my engineering career, I plan to take on complex design challenges by remaining resilient and creatively adapting until I build a system that works and helps humanity.

For me, innovation isn't always about inventing a new piece of technology and it's also about engineering a reliable system to bridge the gap between people who want to help and communities that need that help. I noticed a common issue at my high school where many students had a genuine desire to support marginalized populations, but the logistical hurdles of finding consistent, meaningful service opportunities often prevented them from doing what they desired. To solve this, I co-founded Eagle Service Connections, a student-led community service organization designed to be a "highway" for civic engagement. I wanted to turn the vague idea of "someone should do something" into an actionable system with a clear calendar and next step. Over the last 3 years, I spearheaded a network of 250 students, transforming good intentions into a mobilized workforce. We focused our efforts on housing insecurity, raising $4500 to partner with Habitat for Humanity and Keep Cherokee Beautiful. Through these funds and our organized labor, we helped build 2 small homes in our local area. One of the most impactful experiences was during Housing Day at the Georgia Capitol, where my teammates and I hammered wood frames to construct government-subsidized housing. While the physical labor was rewarding, the true value lay in the connections we made with the low-income families we were serving, and these included single mothers and children in the foster care system who expressed deep gratitude for our work. The innovation within this project was running it with an engineer's mindset. When a sudden bus cancellation threatened to offset a clean-up, we adapted immediately, rerouting carpools and moving indoor preparation tasks to our school gym. After every event, I facilitated quick "after-action" huddles to identify logistical bottlenecks so the next crew could move faster and more efficiently. This system-level approach to service mirrors my approach to physical engineering. For instance, when I saw my grandmother struggling with arthritis, I designed a 3D-print a gyroscopic mug-holder to stabilize her tea. By observing a physical hardship, I was able to translate empathy into a practical design that restored a piece of her independence. Whether I am designing a physical product for someone with a mobility impairment or building a social framework to build homes for underserved families, my core mission is the same: to create reliable and empathy-driven system that have an actual purpose to provide tangible support to those who need it most.

The most useful thing I have built so far was a highway between people who want to help and places that need that help. I realized that what makes a community better isn't just about intentions, but a reliable system that turns those intentions into tangible action. As I look toward my future as a mechanical engineer, my goal is to continue to build those systems, both physical and social to create a lasting impact. Currently, I am making my community better by designing frameworks for civic engagement. As the co-founder of Eagle Service Connections, a student-led community service group, I helped turn the passive thought of "someone should do something" into a clear next step with a calendar and contact list. Over the past 3 years, I spearheaded a network of over 230 students, raising over $4500 to partner with Habitat for Humanity and Keep Cherokee Beautiful. Together, we also funded and built 2 small homes. Additionally, through the associates at Habitat for Humanity, we were able to attend Housing Day at the Georgia Capitol, hammering wood frames for government-subsidized housing and bonding with low-income families. Through these experiences, I think I truly realized the power of organized empathy. When unexpected challenges arose like a bus cancellation not allowing students to make it to an event, we simply rerouted carpools and adapted. I learned to run "after-action" huddles so the next crew could move faster, ensuring our impact was sustainable and efficient. I eventually expanded this network of giving back into the realm of STEM. As Vice President of the Science National Honor Society, I helped mentor local elementary and middle school students in Science Olympiad and robotics, guiding them through the process of CAD and their own projects. I still remember watching a student clutch his bottle rocket, nervous and staring at his clammy hands. I raced to his side before launch, giving him words of encouragement. When the time came, I watched as he set the launching device to the desired 80 psi we had practiced and gave the rocket the power it needed to fly. By providing interdisciplinary mentorship, I am working to pique the curiosity of youth and build the next generation of confident problem-solvers. After college, I plan to scale this community-focused mindset to a global level through mechanical engineering and autonomous systems. My interest in this field was cemented after visiting a drone manufacturing facility and holding a military-grade motherboard. That small, intricate piece of technology shifted my perspective. I realized I wanted to design drones that can think, navigate, and solve pressing global challenges. Specifically, I plan to focus my career on optimizing unmanned aerial vehicles (UAVs) for disaster relief operations. By improving drone coverage and reliable detection in emergency scenarios, I want to deploy autonomous systems that can safeguard lives and deliver aid during natural disasters. Whether I am organizing a Habitat for Humanity build, mentoring a young student, or engineering disaster-relief drones, the core mission remains the same. I want to build a reliable system that is clear and purposeful, that can translate human empathy into tangible solutions. Throughout my experiences, I learned that making the world a better place means leaving behind a playbook that empowers others to keep the work going.

I am pursing mechanical engineering and plan to specifically focus on human-centered product designs. My earliest experiences in this field are rooted in the mechanics of wires, gears, and superconductors that were discussed at family gatherings. But my perspective shifted when I watched my grandmother struggle to hold her tea due to arthritis. Designing and 3D-printing a gyroscopic mug holder to stabilize her cup taught me that engineering is really an act of empathy. I want to build things that translate that empathy into purposeful designs. When we think of sustainability in engineering, the conversation often defaults to renewable energy or biodegradable materials. While those metrics are important, I plan to focus on a different, but still equal facet in my career and that is emotional durability and repairable designs that have intentions. We live in a disposable culture where products are mass-produced without a specific human connection, leading to a lot of waste. By centering empathy in the design process, we are able to create products that fill a deep and specific need rather just make something to make profit. When a product solves a problem (like a mug holder that allows a grandmother to drink her tea with comfort) it is valued and kept as true sustainability starts with designing things people actually want to keep. Furthermore, my approach to design is deeply iterative. It is much like learning to play an instrument: you try, fail, relearn, and adjust. I plan to bring this philosophy of "relearning" into sustainable manufacturing by advocating for modularity. Just as an old acoustic guitar can be taken out of its case years later and played again, the products we engineer should be built to last and re-used. The setbacks and clumsy iterations in the design process should not lead to scrapped materials and should really be used to be integrated into more adaptable systems. In my future field, I will prioritize sustainability by challenging the mindset of single-use designs. I want to design systems and products that are mechanically sound and deeply connected to the people that use them, ensuring that what we build today is cherished and functional for years to come.