I think the world has plenty of people talking past each other and not enough people willing to stand in the middle and translate. That's the space I want to occupy with my career — and I think the combination of skills I've been building is genuinely suited for it. I'm an engineering student at Hawaii Pacific University, and I'm also a content creator. Those two identities don't usually live in the same person. Engineering culture tends to value precision, technical depth, and skepticism of anything that sounds like marketing. Content creation culture tends to value emotional resonance, accessibility, and storytelling. Each side is often dismissive of the other. I've spent the last several years learning both, and I've come to believe the world urgently needs more people fluent in both languages. Here's why that matters for empathy and global understanding. Most of the hardest problems facing the world right now — climate change, infrastructure inequity, public health, food security, access to education — are simultaneously deeply technical and deeply human. They require engineers, scientists, and policy experts who can do the hard analytical work. They also require communicators who can take that work and make it land with the public, the funders, and the communities whose lives it actually affects. When the technical people can't communicate, brilliant solutions sit on shelves. When the communicators don't understand the technical reality, public conversation drifts into oversimplification or outright misinformation. The gap between those two worlds is where empathy goes to die. I want to live in that gap on purpose. I've already started building the skills for it. As an engineer in training, I'm developing the technical depth to understand how systems actually work — not just at a surface level, but down to the math, the materials, the trade-offs. As a content creator, I've grown a personal platform from 500 followers to over 3,500 by learning what makes ideas land with people who don't share my background. Those followers come from all over, and what I've learned from engaging with them is that empathy at scale is a skill, not a sentiment. You build it by listening carefully, taking other people's questions seriously, and resisting the urge to assume your audience is less intelligent than you because they don't already know what you know. Growing up in Hawaii has shaped this too. Hawaii is one of the most ethnically and culturally diverse places in the United States. You can't grow up here and not learn that the same situation looks completely different depending on which family, which community, and which history you're viewing it through. That's not a fact I read in a textbook — it's the texture of daily life. I want to carry that island instinct for plurality into whatever rooms I end up in, technical or otherwise. The contribution I want to make to a more empathetic global community is concrete: I want to be someone who builds real things and explains them honestly. Who can sit in a technical meeting and follow every word, then walk out and talk to a teenager, a legislator, or a grandmother and have all three understand why the work matters. Empathy at that scale isn't soft. It's a discipline. And it's the discipline I'm building my career around.

The thing nobody tells you about being a first-generation college student is that it doesn't end at acceptance. People talk about "getting in" like it's the finish line. For first-gen students, getting in is where the actual work starts. I'm a freshman engineering student at Hawaii Pacific University, an in-state kid from West Oahu, and the first person in my family to attend college in the United States. My father immigrated from Mexico with a high school diploma and works as a medical technician. My mother arrived without a degree and now works as a school administrator. They gave me everything I needed to apply to college and almost nothing of what I needed to actually navigate it — not because they didn't want to, but because the system speaks a language they were never taught. Neither was I. I just had to learn faster. My freshman year has been two educations running in parallel. One is the official one: 16 credits, a 3.28 GPA, the start of an engineering foundation in calculus and circuits and physics. The other is the unofficial one — the hidden curriculum nobody syllabuses. How office hours actually work. How to email a professor without rewriting it eleven times. What a bursar is. Which scholarships are real and which ones are designed to harvest your information. How to read a financial aid award letter and know whether it's good. I've spent as much energy on the second education as the first, and I think most first-gen students would tell you the same. What that experience has taught me is that being an outsider isn't a deficit — it's a kind of vision. When you grow up navigating systems that weren't built for your family, you learn to see seams that insiders stop noticing. You spot which forms get "lost" for which kinds of names. You notice which information gets shared in conversations your family was never invited to. You develop a working theory of where institutions break, and for whom. That theory is the reason I chose biomedical engineering. I'm not pursuing this field because I love circuits in the abstract — I do, but that's not why I'm here. I'm pursuing it because medical technology has the same outsider problem the education system does. The treatment exists; the delivery system doesn't. Cutting-edge devices live in well-resourced hospitals while the rural communities thirty minutes from my house have no real access to them. Native Hawaiian high school students experience depression at rates well above the national average, and the technology to help is locked behind specialists, referrals, and miles. I want to design medical devices that are small enough to wear, cheap enough to deploy, and simple enough to use without a fellowship in neurology — the kind of tools that actually reach the people the current system skips. My specific focus is wearable ultrasound for mental health treatment, and my long-term goal is a Hawaii-based biomedical company that designs from day one for the communities everyone else treats as edge cases. I'm pursuing this career because I've been on the other side of every system I want to build for. First-gen taught me how institutions fail people. Engineering is how I plan to fix one of them.

When most students first encounter calculus, it looks like an obstacle — another required course standing between them and the work they actually want to do. I understand the reaction. But the further I move into engineering, the more I see calculus for what it really is: not a hurdle, but the language STEM fields use to describe how the world actually works. Calculus matters because the world doesn't sit still. Almost nothing important in science or engineering is static. Currents flow, materials stress and bend, populations grow, signals oscillate, heat moves, planets orbit, prices fluctuate, fluids accelerate. Algebra can describe a world frozen in place. Calculus describes a world in motion. And since the real world is always in motion, calculus is the tool we reach for whenever we want to say something true about it. In my own field — engineering, with a focus on energy and infrastructure — calculus shows up everywhere the moment you stop talking in averages and start talking in reality. A solar panel's output isn't a fixed number; it's a function of sunlight, temperature, and angle that changes throughout the day, and integrating that curve is how you actually figure out how much energy a system will produce. A circuit's behavior isn't just Ohm's Law in a single snapshot; capacitors and inductors store and release energy over time, and the equations that govern them are differential equations — pure calculus. The strength of a beam, the flow of water through a pipe, the heat dissipated by a chip, the response of a control system to a disturbance: every one of these is a calculus problem dressed up in domain-specific clothing. That's the broader point. Calculus is important to STEM not because every scientist computes integrals by hand every day — most don't — but because calculus is the conceptual foundation that lets us think clearly about change, accumulation, and rates. Even when the actual computation is handed off to software, the engineer or scientist still has to know what the software is doing, why the answer makes sense, and where the model might break down. Without calculus, you're trusting tools you don't understand. With calculus, you're using them. Calculus also trains a way of thinking that STEM fields depend on. It teaches you to break complex problems into infinitesimally small pieces, analyze each piece, and then sum them back into a meaningful whole. That mindset — decompose, analyze, reassemble — is the same mindset behind good engineering design, good scientific modeling, and even good software architecture. Learning calculus isn't just learning math. It's learning how to think rigorously about systems, and that skill transfers everywhere. For my own goals, calculus is non-negotiable. I want to work on Hawaii's energy and infrastructure problems — the kind of work where small modeling errors translate into real consequences for real people. The grid engineer who can't reason about rates of change can't size a battery system properly. The biomedical engineer who doesn't understand differential equations can't model how a drug diffuses through tissue. The structural engineer who can't integrate can't tell you whether a bridge will hold. Calculus is the difference between guessing about the world and actually understanding it. That's why it matters in STEM, and that's why I'm putting in the work to get genuinely good at it — not because the curriculum requires it, but because the career I want demands it.

My name is JJ, and the fastest way to describe me is this: I'm the kid who grew up in West Oahu translating forms for her parents in the morning and filming videos for a few thousand strangers at night. Both halves of that sentence shaped me more than school did, and school shaped me a lot. My family is small, close, and built by people who started with very little. My father came to Hawaii from Mexico with $300 and a high school diploma and now works as a medical technician. My mother arrived with no degree and a willingness to work two jobs, and now works as a school administrator. Neither of them attended college in the United States. I have a younger sister who watches what I do closely, which is its own kind of pressure and its own kind of motivation. The dynamic in our house has always been practical: nobody complains about hard work because hard work is just the air we breathe. The flip side is that we don't waste effort on things that don't matter, and I've inherited that filter — I'm allergic to busywork and drawn to the kind of projects where you can actually point at the thing you built when you're done. That instinct is part of why my schooling has looked the way it has. I'm a first-year engineering student at Hawaii Pacific University, in-state, on track to graduate in 2029. My first semester I carried 16 credits and finished with a 3.28 GPA — not the headline number I wanted, but an honest one for a first-gen student figuring out the hidden curriculum of college in real time. Spring 2026 I'm continuing on, and Fall 2026 lines up with the courses that actually matter for my path: linear circuits, biomaterials, calculus, linear algebra, physics. Outside the classroom, I work ten hours a week through Federal Work-Study, I'm pursuing a Social Media Intern role at HPU, and I've kept building independent projects on the side — including a Python-based scholarship application system I built to handle the discovery, drafting, and tracking workload that nobody warns first-gen students about. The content creator piece matters here too. Before college, I grew a personal following from 500 to over 3,500 by being on camera and figuring out what people actually want to watch. I mention it not as a flex but because it's part of how I think — I'm extroverted, I move fast, and I'd rather ship something imperfect and iterate than polish something forever. That's the same instinct I bring to engineering. Future plans: I'm pursuing biomedical engineering with a focus on wearable ultrasound technology for mental health treatment. The four-year arc is foundation coursework now, capstone prototype junior and senior year, then NSF-funded research on accessibility, then a Master's that lets me validate a device clinically. The long-term goal is a biomedical company based in Hawaii that designs medical devices for the rural and underserved communities the current system skips. I want to be the engineer behind the tools, not in front of the patients — and I want those tools to actually reach the people who need them. That's me: first-gen, second-generation, Hawaiian by upbringing, engineer by training, builder by instinct.

For as long as I can remember, it has been my mom and me. I don't have a "before." I don't have stories of a household that used to look different. The shape of my family has always been the two of us, and that fact — more than anything else about my upbringing — is what made me who I am. People sometimes describe single-parent households in terms of what's missing. I think about mine in terms of what was present: a mother who showed up, every day, without backup, and built a stable life for her kid through sheer effort and refusal to quit. My mom worked. That's the simplest, truest sentence I can write about my childhood. She worked when she was tired, she worked when she was sick, she worked when other parents were at school events, and she worked so that I would never have to wonder whether the lights would stay on or whether dinner would be on the table. I learned what discipline looked like before I had a word for it, because I was watching it every morning when she left and every evening when she came home and still found energy to ask me about my day. Growing up that way taught me independence early. I learned to make my own breakfast, manage my own homework, get myself where I needed to be, and solve small problems on my own rather than adding them to my mom's already full plate. That wasn't a burden — it was a kind of training. By the time I got to high school, I'd already internalized something a lot of my peers were still learning: that no one was coming to do my work for me, and that the quality of my life was going to be a direct function of the effort I put in. It also taught me resilience. Not the dramatic kind people talk about in graduation speeches, but the quieter version — the ability to keep going when things are hard, to absorb setbacks without falling apart, to recognize that "tired" and "done" are not the same word. I watched my mom live that out for two decades. By the time I started facing my own real challenges, the model was already in me. That foundation is part of why I'm pursuing engineering at Hawaii Pacific University now. Engineering rewards exactly the traits my upbringing built: persistence, problem-solving, the willingness to keep working a problem after the easy attempts have failed. When I sit down with a circuit that isn't working or a piece of code that won't run, the part of me that gets to work is the part my mom raised. I don't panic. I don't quit. I figure out the next thing to try, and then the thing after that, until it works. I know my path through college will be harder than it would be for someone with a different family situation. The financial pressure is real, the absence of a backup is real, and the responsibility I feel toward my mom — to make her years of effort mean something — is real too. But none of that scares me. It's the environment I was built for. Whatever I become as an engineer, my mom will have made it possible. The least I can do is build something worthy of the way she raised me.

I'm going into biomedical engineering because I want to build the things that decide who healthcare actually reaches. That's the short version. The longer version is that I grew up in West Oahu watching the difference between treatment that exists and treatment that arrives, and I figured out somewhere along the way that the difference is mostly engineered — or, more accurately, mostly not engineered for people like the ones I grew up around. What pulls me into this field specifically is the leverage. A clinician helps the patient in front of them; that's holy work, and it's not the work I'm built for. A well-designed device helps every patient who would never have made it into that exam room in the first place. My focus is wearable ultrasound technology for mental health treatment — transcranial ultrasound is showing real promise for depression and anxiety, but right now it lives inside hospitals: bulky, expensive, supervised. Meanwhile, thirty-two percent of Native Hawaiian high school students experience depression and rural island communities have essentially no access to advanced psychiatric care. The treatment exists. The delivery system doesn't. That's the gap I want to spend a career closing. The impact I want to make is unglamorous and specific. Not a Nobel. Not a TED talk. A device small enough to wear, cheap enough to actually deploy, and simple enough that a school nurse on the West Side or a community health worker in a rural clinic can use it without a fellowship in neurology. The medical device industry has spent decades optimizing for the well-resourced hospital, and the result is a system that works beautifully for people who already had access and barely at all for people who didn't. I want to design for the people who didn't. The adversity question is the one I've thought about hardest, because I'm wary of leaning on my background as a hardship narrative when other people have had it harder. So I'll say it plainly: I'm the first person in my family to attend college in the United States. My parents immigrated from Mexico — my father with $300 and a high school diploma, my mother with two jobs and no degree. They built stability by working sixty-hour weeks. The hard part of my education hasn't been intelligence or effort. It's been navigation. There were no family stories about financial aid, no relatives who could explain what a bursar was, no older cousins who'd already mapped the route. I figured out SAT prep through Khan Academy, applied to fifty scholarships instead of five, and now work ten hours weekly through Federal Work-Study while taking a full engineering courseload — because that's what the math of my family's situation actually requires. That experience didn't make me fragile. It made me a better engineer. When you grow up watching systems fail in predictable ways, you stop asking "does this work?" and start asking "for whom?" That's exactly the question medical device design needs more of. The same instincts I used to navigate college as an outsider — research relentlessly, assume nothing, build the map for yourself — are the instincts I'll use to design technology for the people the existing system was never built around. I chose this field because I can see the gap. I want to make impact by closing it. The adversity that got me here is also the lens that decides what I build.

I was drawn to the medical field through a side door most people don't think about: engineering. I'm a first-year engineering student at Hawaii Pacific University, and as I've moved deeper into the discipline, I've found myself increasingly pulled toward biomedical engineering — the field where the technical work I love directly meets human bodies, human recovery, and human dignity. My upcoming coursework includes biomaterials alongside circuits, physics, and the math that underpins both, and that combination is no accident. I want to design and build the devices that help people live fuller lives. What inspired this direction wasn't a single dramatic moment. It was watching how much of modern medicine quietly depends on engineering most patients never see. The pacemaker that keeps a grandfather's heart in rhythm. The prosthetic that lets a veteran walk again. The continuous glucose monitor that takes the daily dread out of diabetes. The cochlear implant that lets a child hear their mother's voice for the first time. Behind every one of those is an engineer who decided that the most meaningful place to apply their skills was inside the human story — at the exact point where technology stops being abstract and starts being the difference between can and can't for someone's daily life. That's the work I want to do. Hawaii makes the calling sharper. Our islands face medical access challenges the mainland doesn't fully appreciate — patients on neighbor islands traveling hours or flying to Oahu for specialist care, rural communities underserved by the equipment and devices urban hospitals take for granted, an aging population that will need more assistive and rehabilitative technology in the next two decades than we currently have infrastructure for. Biomedical engineering done well, and done locally, can ease that gap. Devices designed with island realities in mind — durability in humid climates, supportability across distances, affordability for families without comprehensive coverage — would meaningfully change outcomes here. In the short term, my goal is to build the strongest possible technical foundation. That means excelling in my circuits, physics, and biomaterials coursework, taking on projects that combine hardware and software, and pursuing internships that put me near real clinical problems. I've already shown myself I can ship technical work that actually functions — I designed and built an automated system in Python that handles complex multi-step workflows end-to-end — and I want to bring that same builder's discipline into biomedical applications. Long term, I want to contribute to medical device development that serves patients directly, with a particular focus on prosthetics, rehabilitative devices, and assistive technology. These are areas where small engineering improvements translate into enormous quality-of-life gains. A prosthetic socket that's more comfortable. A mobility device that's easier to maintain. A monitoring tool that gives a patient more independence and their family more peace of mind. None of these make headlines. All of them matter immensely to the person using them. The difference I want to make is measured one patient at a time. Not in patents or publications, but in the moment a kid runs in a new prosthetic, or a stroke survivor regains function with a better rehab device, or a family on Molokai gets equipment that actually works for their reality. If my career contributes to even a handful of those moments, it will have been worth every hour. That's the medicine I want to practice — through engineering, in service of people.

I'm a first-year biomedical engineering student at Hawaii Pacific University, an in-state kid from West Oahu, the daughter of two immigrants from Mexico, and the first in my family to attend college in the United States. I'm also, for the record, the kind of person who reads the instruction manual cover to cover before opening the box. That last detail matters more to my career than the first three combined. I chose health science specifically — and biomedical engineering inside it — because I'm wired for the part of healthcare that happens before the patient ever walks in. Not the diagnosis. The device that made the diagnosis possible. Not the treatment. The tool that delivered it. Medicine is full of brilliant clinicians doing extraordinary work with equipment that was designed somewhere else, by someone else, often for a hospital that looks nothing like the one they're working in. I want to be the someone else. I want to be the person upstream, building the thing. What pulled me toward healthcare specifically — instead of, say, aerospace or consumer tech, where my engineering instincts would also fit — is that I grew up watching the gap between what medicine can do and what it actually reaches. I watched family navigate a system that technically had answers but practically didn't deliver them. Specialists on a different island. Equipment available in Honolulu but not in the rural communities thirty minutes from my house. Treatments that exist on paper and don't exist in practice for anyone without a car, insurance, and a flexible job. That gap is not a medical problem. It's a design problem. And design problems have engineers. My specific focus is wearable ultrasound technology for mental health treatment. Transcranial ultrasound is showing real promise as a non-invasive way to treat depression and anxiety, but right now it's locked inside hospitals — bulky, expensive, supervised. Meanwhile, thirty-two percent of Native Hawaiian high school students experience depression, and rural island communities have effectively zero access to advanced psychiatric care. The treatment exists. The delivery system doesn't. That's the thing I want to build. The difference I want to make is unglamorous and specific: I want medical devices that actually reach the people the current system skips. Small enough to wear. Cheap enough to deploy. Simple enough that a school nurse on the West Side or a community health worker in a rural clinic can use them without a fellowship in neurology. The healthcare technology industry has spent decades optimizing for the well-resourced hospital. I want to spend my career optimizing for the kid who never makes it to one. My plan is deliberate. The next two years are foundation — circuits, biomaterials, calculus, physics. Junior and senior year, I'm building a capstone prototype I can actually test. After HPU, NSF-funded research focused on accessibility, then a Master's that lets me validate a device clinically. Long-term: a biomedical company headquartered in Hawaii, building tools designed from day one for the communities that get treated as edge cases by everyone else. That's what I want this degree to do. Not to put me inside the system, but to give me the credentials to redesign part of it — the part that decides who actually gets reached. I picked health science because that's where the gap is. I picked engineering because that's how you close it.

Here's the draft — keeping the chess background honest (self-taught, online play) so it doesn't oversell, while pulling real lessons from the game. My career goal is to become an engineer working on Hawaii's energy and infrastructure problems — specifically the systems that will move our islands away from imported fossil fuels and toward resilient, locally-sourced power. I'm currently a first-year engineering student at Hawaii Pacific University, on track to graduate in May 2029. My coursework is building toward the intersection of hardware and software where I want to work: linear circuits, physics, and the math foundations that support both embedded systems design and the data analysis modern grid technology depends on. Long term, I want to stay in Hawaii and contribute to projects that make our infrastructure more sustainable and more genuinely ours. Chess, surprisingly, has shaped how I think about that goal more than I expected when I first started playing. I'm a self-taught player. I learned online, played friends, lost a lot, studied openings on my own time, and slowly got better. Nothing about my chess journey has been formal — and that's exactly why the lessons stuck. The game doesn't care how you learned it. It only cares whether your next move is good. The first thing chess taught me is that every move has consequences you can't fully see. In engineering, especially infrastructure engineering, the same is true. A decision about which battery chemistry to use, which sensor protocol to standardize on, or where to site a microgrid will ripple forward for decades. Chess trained me to slow down, to think two and three moves ahead, and to ask the question that beginners skip: what's my opponent going to do in response to this? In engineering terms, that's the same as asking what the maintenance crew, the storm season, or the grid operator twenty years from now is going to face because of the decision I'm making today. The second lesson is patience under pressure. Online chess is brutal for ego — you lose, often, and you lose to people you'll never meet. Early on I'd tilt, play angry, and lose three more in a row. I had to learn to step back, accept the loss, study what went wrong, and come back ready to play the next game on its own terms. Engineering is going to demand the same thing. Designs fail. Prototypes don't work. Calculations come back wrong. The engineers who succeed are the ones who can absorb a setback without letting it compromise the next decision. The third lesson is the one I think about most: good positions come from accumulated small advantages, not single brilliant moves. I used to look for the dramatic tactic — the move that would win the game in one stroke. Better players don't do that. They build slowly. Better pawn structure. Better piece coordination. Better king safety. By the time the tactic appears, the position has already been won. Hawaii's energy transition is going to work the same way. There's no single brilliant move that gets us to a sustainable grid. It's going to be hundreds of smaller, well-engineered decisions, accumulated over years, by people willing to do the unglamorous work. That's the kind of engineer I want to be. Chess didn't teach me that on its own — but it gave me a framework for recognizing it, and the discipline to play the long game.

The Last Malasada Kainoa had been thinking about the malasada for six hours. He'd seen it that morning at Leonard's, sitting alone in the case — the last haupia-filled one, dusted in sugar, slightly larger than the others around it like it knew something they didn't. He'd been third in line. He'd watched the woman in front of him point at it. He'd watched the cashier put it in her box. He'd ordered a regular sugar one and walked out into the parking lot and sat in his car for a full minute before driving to work. It was, objectively, a donut. He knew this. He was twenty-six years old, he had a job and a lease and a sister going through a divorce and a father who'd just been diagnosed with something the doctors were still figuring out. He had real problems. He had a list of real problems. The malasada was not on the list. And yet. By two p.m., he was rehearsing what he should have said. Excuse me, I was actually going to get that one. By three, he'd moved on to imagining the woman herself — what she'd done with it, whether she'd even appreciated it, whether she'd given it to a kid who would have been just as happy with a regular one. By four, he was annoyed at the cashier for not asking. By five, he was annoyed at himself for being annoyed, which made him more annoyed. At six, he drove back to Leonard's. The case was nearly empty. A few sugar ones. One cinnamon. No haupia. "We're out," the cashier said, before he'd even asked. A different cashier. Younger. "When's the next batch?" "Tomorrow." Kainoa stood there. He could feel, somewhere underneath the ridiculousness of standing in a donut shop at six p.m. mourning a pastry, something else moving — something that had been moving all day, that the malasada had given him permission to feel without having to name. His father's results were coming back Thursday. His sister had cried on the phone Sunday and he hadn't known what to say. He had not, he realized, wanted anything small and good in a long time. He'd been holding everything at the size it actually was — too big, too uncertain, too much — and the malasada had been a thing he could want without consequence. A thing he could have, or not have, and the world would keep going either way. He'd lost it. And he'd been allowed, for one day, to be sad about something that didn't matter, because everything else mattered too much. "You okay, brah?" the cashier asked. Kainoa nodded. He bought a regular sugar one. He sat in his car in the parking lot and ate it slowly, and it was warm, and it was good, and it was not the one he'd wanted, and that was okay. Tomorrow he would call his father. Tomorrow he would call his sister. Tomorrow he would come back and try again for the haupia, and maybe get it and maybe not. Tonight, he finished the donut, started the car, and drove home.

The honest answer is that I entered higher education hopeful and suspicious at the same time, and I think that's the most second-generation thing about me. My parents immigrated from Mexico. My father finished two years of college there before circumstances pulled him out and pushed him toward Hawaii with $300 and a high school diploma. My mother arrived with no degree and the willingness to work two jobs until something stuck. Between them, they built a life stable enough that I get to sit in a Hawaii Pacific University engineering classroom and worry about linear circuits instead of rent. That's the hope. The suspicion is everything underneath it. Because here's what being second-generation actually teaches you about systems: they don't fail randomly. They fail predictably, in the same places, to the same people. I watched my parents get talked down to by people with less competence and more vocabulary. I watched forms get "lost." I watched a healthcare system, a school system, and a financial system all quietly assume that someone like my mother wouldn't push back, and then act surprised when she did. By the time I started thinking about college, I already knew the system wasn't neutral. I just didn't know yet whether it would work for me. So I came in cautious. My concern entering higher education wasn't whether I could do the academic work — I knew I could. My concern was the part nobody puts in the brochure: the hidden vocabulary, the unwritten rules, the assumption that you already know how office hours work, what a bursar is, why "capstone" is one word. First-generation and second-generation students don't fall behind because we're less capable. We fall behind because the system charges a tuition in cultural fluency that nobody told us we'd owe. What's surprised me — the hope part — is how much of that fluency I've picked up faster than I expected. Not because the system suddenly became welcoming, but because my parents' immigrant playbook turned out to be exactly the right toolkit. When you don't have insider knowledge, you research relentlessly. When you don't have a guide, you become one for yourself. When you watch your parents handle a system they don't fully understand, you absorb a kind of bilingual confidence: you can be uncertain and still keep moving. I've used that more times in my freshman year than I used calculus. It's also reshaped what I want my degree to do. I'm studying biomedical engineering because I want to design medical technology for the people the system already underserves — rural communities, Native Hawaiian populations, immigrant families like mine who learned early that "available" and "accessible" are two different words. My second-generation experience didn't just get me into engineering. It chose the engineering. Devices small enough, cheap enough, and simple enough to actually reach people. That's not a coincidence. That's the inheritance. I still enter higher education as an outsider in some ways. I probably will until I graduate, and maybe past that. But outsiders see the seams. We notice what insiders stop noticing — who gets reached, who gets skipped, who the system was designed for and who was designed around. My plan is to spend a career using that vision on purpose: building healthcare tools that don't quietly assume their users already know the rules. The way my parents did. The way I had to.

I want to pursue a career in the nonprofit sector because I've come to believe that the most important work in Hawaii right now isn't being done for profit — it's being done for the place itself. Our reefs are bleaching, our native forests are losing ground to invasive species, our coastlines are eroding, and our communities are facing climate impacts that the market alone has no incentive to solve. Nonprofits are the organizations actually showing up for these problems. That's where I want to spend my career. What draws me to this sector specifically is the freedom to define success by impact rather than revenue. A for-profit company protecting Hawaiian ecosystems has to justify the work to shareholders. A nonprofit can justify it to the watershed, the fishery, the next generation of kids who deserve to grow up knowing what a healthy reef looks like. That alignment between mission and measurement matters to me. I'd rather build a career inside organizations whose entire reason for existing is the cause itself. My hope is to contribute to Hawaii-based environmental nonprofits working on climate resilience, ecosystem restoration, and sustainable infrastructure for island communities. I'm pursuing an engineering background because I want to bring concrete, technical skills to that work — the ability to design systems, analyze data, and build tools that help small organizations punch above their weight. Nonprofits often run lean, and someone who can both understand the science and build the systems to support it can multiply what a small team is able to accomplish. I've already started developing that combination in practice. I built an automated system in Python that handles complex multi-step workflows — discovery, document generation, database management, and outreach — replacing what would otherwise be dozens of hours of manual work. The lesson I took from that project is one I want to carry into nonprofit work: smart automation lets small organizations focus their human energy on the things that genuinely require human judgment. A conservation nonprofit shouldn't have to choose between doing the field work and doing the paperwork. The right tools can take care of the second so people can focus on the first. I also want to bring something the nonprofit sector genuinely needs: communication. I've grown a personal content platform from 500 followers to over 3,500 by learning how to make ideas land with audiences outside my own field. Environmental nonprofits live or die on their ability to reach people — donors, volunteers, policymakers, neighbors. I want to be the kind of nonprofit professional who can both build the back-end systems that keep an organization running and tell the story that brings the community in. Long term, the impact I'm working toward is specific and local. I want Hawaii's nonprofits — the ones replanting native forests, restoring fishponds, protecting watersheds, preparing communities for climate impacts — to be stronger, better-resourced, and more effective because of the work I contribute. I don't need my name on anything. I want healthier reefs, more resilient shorelines, and communities that can weather what's coming. If my career helps move those outcomes even slightly in the right direction, it will have been worth it. That's the cause I care about, and that's the sector where I believe I can do the most good.

I didn't choose biomedical engineering in a classroom. I chose it in a waiting room. If you've spent any real time inside the healthcare system with someone you love, you know the shape of it. The fluorescent lights. The forms you fill out twice. The specialist three islands away. The technology that works — when you can get to it. I grew up watching family navigate care that was technically available and practically out of reach, and I learned early that the gap between what medicine can do and what it does for ordinary people is mostly an engineering problem. That's the gap I want to spend my career closing. I'm a first-year Biomedical Engineering student at Hawaii Pacific University. I picked this major over the more obvious paths — pre-med, nursing, public health — because I'm not trying to treat one patient at a time. I'm trying to build the thing that treats thousands of patients the system never reaches. A clinician helps the person in front of them. A well-designed device helps the person who can't get in front of a clinician at all. My focus is wearable ultrasound technology for mental health treatment. It sounds futuristic until you understand the problem. Transcranial ultrasound is showing real promise as a non-invasive way to modulate brain regions tied to depression and anxiety, but right now the equipment is hospital-bound, expensive, and scarce. Meanwhile, thirty-two percent of Native Hawaiian high school students experience depression, and rural communities across the islands have effectively zero access to advanced psychiatric care. The treatment exists. The delivery system doesn't. That's the kind of mismatch that makes me want to get up early and stay in lab late. It's also why I'm building toward this degree the way an engineer should — incrementally, with a plan. My first two years are foundation: linear circuits, biomaterials, calculus, linear algebra, physics. Years three and four are where the capstone work happens — a wearable prototype I can actually test. After HPU, I want to pursue NSF-funded research focused specifically on accessibility, then a Master's that lets me validate a device in clinical settings. The long-term goal is a biomedical company headquartered here, building tools designed from day one for the communities that get left out by default. I want to use this degree to make medical technology that doesn't require a forty-five-minute drive, a specialist referral, and a copay you can't afford. I want a device a school nurse on the West Side could use. A tool a community health worker in a rural clinic could deploy without a fellowship in neurology. I want the version of healthcare innovation that asks "who can't reach this?" before it asks "what does it do?" There's a version of biomedical engineering that ends in an expensive machine in an expensive hospital in an expensive city. That's not the version I'm pursuing. The version I want builds devices small enough to wear, simple enough to use, and cheap enough to actually deploy where they're needed — including in the communities I grew up in. I chose this field because I watched the system fail people I love, and I'd rather spend my career fixing the system than apologizing for it. That's what the degree is for. That's what I'll use it to build.

Here's the draft, hitting all four parts of the prompt. I chose engineering because I grew up watching Hawaii's infrastructure strain under problems that better engineering could solve. Our islands import roughly 80% of our energy, our power grid struggles with every major storm, and the systems holding our communities together were largely designed somewhere else for somewhere else. Engineering, to me, isn't an abstract discipline — it's the most direct path I know to fixing things that actually matter to the people around me. I'm currently a first-year engineering student at Hawaii Pacific University, on track to graduate in May 2029. My coursework spans both sides of the discipline I want to work in: linear circuits and physics on the hardware side, and the math and computational foundations that support modern software systems. That mix is intentional. The problems I care most about — renewable energy infrastructure, smart grid technology, sustainable building systems — sit at the intersection of hardware and software. Solving them requires engineers who can move fluently between a circuit board and a codebase, and that's the engineer I'm working to become. In the short term, my goals are concrete. I want to maintain strong academic standing while building real technical experience outside the classroom. I've already designed and built a fully automated scholarship application system in Python — handling web scraping, document generation, database management, and email automation — and I want to keep taking on projects like that, where I'm shipping something that actually works rather than just learning theory. I'm also pursuing internships that will let me apply my coursework to real engineering problems before I graduate. Long term, I plan to stay in Hawaii and work on the infrastructure challenges facing our islands directly — renewable energy systems, resilient grid technology, and the embedded systems that make sustainable infrastructure reliable. Hawaii trains a lot of engineers who leave for the mainland, and I understand the pull. But the problems here need engineers who understand here, and I want to be one of them. Being Asian American in engineering shapes how I think about my career, even within a field where AAPI representation varies widely by sub-discipline and leadership level. Visibility in technical roles is one thing; visibility in the rooms where decisions get made about which problems are worth solving is another. I've also found that AAPI engineers are often expected to fit a quieter, heads-down archetype that doesn't match how I work. I'm extroverted, comfortable on camera, and I've built a personal content platform from 500 followers to over 3,500 by communicating clearly to people outside my field. I want to bring that combination — technical depth and the ability to actually explain the work — into engineering spaces where both are needed. Financially, this scholarship would make a real difference. I'm currently working part-time while carrying a full engineering course load, and the budget is genuinely tight. Every hour I spend earning money to cover tuition, books, and living costs is an hour I can't spend on coursework, projects, or the kind of skill-building that will make me a better engineer. This scholarship would directly reduce that pressure, letting me invest more time in the technical work that prepares me for the career I'm building toward — and the impact I want to make in Hawaii.

The first time I saw the word "capstone" on a college website, I thought it was a typo. I was seventeen, alone at my laptop, trying to figure out what Hawaii Pacific University expected from me. My parents couldn't help — neither of them attended college in the United States. My older relatives couldn't help either. So I did what first-generation students do: I opened another tab and started searching. That's the part nobody warns you about. It isn't the cost, or the applications, or even the SAT. It's the vocabulary. FAFSA. Bursar. Matriculation. Prerequisite. Capstone. Every word a small wall. Every wall a moment where a student like me has to decide whether to keep going or quietly close the tab. I kept going. But a lot of kids in my community don't — not because they aren't smart, but because nobody ever told them the walls are made of paper. I'm a first-year engineering student at HPU now, an in-state Hawaii resident on track to graduate in 2029. I've spent my first year learning two things at once: linear circuits and the hidden curriculum of higher education. Office hours are not a punishment. Professors actually answer emails. Federal Work-Study is a job, not charity. Scholarships exist for almost every identity and interest you can name, and most of them go unclaimed because nobody applies. That last fact changed how I think about my role here. If the information exists but isn't reaching the students who need it, the problem isn't ability — it's distribution. And distribution is something I actually know how to do. Before college, I grew a personal following from 500 to over 3,500 by making content people wanted to share. I'm planning to point that same skill at a different audience: first-generation students in Hawaii who don't know what they don't know. Short videos that translate the jargon. Posts that show what a financial aid award letter actually looks like. Walkthroughs of how to email a professor without overthinking it for forty minutes. The content I needed at seventeen, made for the kid currently squinting at the word "capstone." On campus, I'm pursuing a Social Media Intern role at HPU partly because it puts me in a position to amplify these stories at the institutional level — not just my own feed, but the university's reach. I also want to mentor incoming first-gen students directly, the way I wish someone had mentored me. Not formal tutoring. Real conversations: how to read a syllabus, how to ask for help, how to recover from a bad grade without spiraling. And I want to bring this back to West Oahu, where I'm from. Workshops at community centers and high schools. Sessions for parents who want to support their kids but never navigated the system themselves. Practical, in-person, in-language-people-actually-use. My plan isn't to become a symbol. Symbols are passive. I want to be useful — the person a sophomore at Kapolei High texts when she gets her first financial aid offer and isn't sure if it's good. The face on a video that demystifies one more word. The student who showed up, figured it out, and made the map a little clearer for whoever comes next. The walls are paper. I just want more people to know they can walk through.

Growing up in Hawaii, I learned early that "paradise" is more fragile than it looks. Our island infrastructure runs on imported fuel, our grid strains under every storm, and the engineering decisions made decades ago on the mainland don't always translate to a chain of volcanic islands in the middle of the Pacific. That gap — between off-the-shelf solutions and what Hawaii actually needs — is what pulled me toward engineering. I'm a first-year engineering student at Hawaii Pacific University, on track to graduate in 2029. My coursework this year and next spans linear circuits, calculus, linear algebra, biomaterials, and physics — the foundation for the kind of work I want to do, which sits at the intersection of hardware and software. I'm not interested in being purely a coder or purely a circuit designer. The problems I care about require both. I've already started building that way. Outside of class, I designed and built a fully automated scholarship application system in Python — a tool that scrapes opportunities, generates tailored application materials, manages submissions through a database, and handles email outreach. It was a practical project born from a practical problem: students like me don't have time to manually hunt for every funding opportunity while carrying a full course load. Building it taught me how to think about systems end-to-end — data layer, logic layer, user-facing output — and how to ship something that actually works rather than something that just demos well. That mindset is what I want to bring to Hawaii's biggest challenges. I'm especially drawn to renewable energy infrastructure and the embedded systems that make it work — the sensors, controllers, and software that turn solar panels and microgrids into reliable, resilient power for communities that can't afford another Lahaina-scale failure. Hardware alone won't solve it. Software alone won't either. The engineers who can move fluently between a circuit schematic and a Python script are the ones who'll actually move the needle. I also bring something less common to engineering: a background as a content creator. I've grown a personal following from 500 to over 3,500 by understanding how to communicate ideas clearly to people outside my field. Engineering has a translation problem — brilliant work often dies in technical jargon before it reaches the policymakers, funders, and communities who need to understand it. I want to be the kind of engineer who can build the system and explain why it matters, in a way a neighbor in Waianae or a legislator in Honolulu can act on. My plan after HPU is to stay rooted here. Hawaii trains a lot of engineers who leave, and I understand why — the opportunities elsewhere are real. But the problems here are real too, and they're solvable. With the right technical foundation, the discipline to build things that actually work, and the ability to bring people along, I want to spend my career making island infrastructure more sustainable, more resilient, and more genuinely ours. That's the impact I'm working toward — and this scholarship would help me build it.

My father came to Hawaii with $300 and a high school diploma from Mexico. My mother came with nothing but determination and a willingness to work two jobs. They didn't come seeking wealth. They came seeking stability for a family that didn't yet exist. I am their investment. I'm the first person in my family to attend college in the United States. My father works as a medical technician—overqualified, having completed two years of college in Mexico before circumstances forced him to leave. My mother is a school administrator. Growing up, I watched them work sixty-hour weeks. I watched my mother come home exhausted from managing teachers, still helping my sister with homework she didn't understand herself. This wasn't burden. This was inheritance. They taught me that education is not a privilege. It's a responsibility. When you're the first to access opportunity, you don't hoard it. You become a bridge for everyone coming behind you. Applying to college terrified me. There were no family stories to draw from. No older cousins who navigated financial aid. No relatives explaining what a capstone was. I figured out SAT prep, applications, and scholarships alone—or with help from overworked teachers. What I discovered: being first-generation taught me resourcefulness. When you don't have insider knowledge, you research. When you can't afford test prep, you use Khan Academy. When scholarships seem impossible, you apply to fifty instead of five. When Federal Work-Study becomes necessary, you show up and work ten hours weekly while taking rigorous engineering courses—because your family's sacrifice demands excellence. My parents taught me that hard work isn't punishment. It's pathway. I'm now a Biomedical Engineering student at Hawaii Pacific University, designing wearable ultrasound technology for mental health treatment. But this isn't just personal ambition. My father came here to provide for his family; I'm using his sacrifice to learn medical device innovation. My mother works in education because she believes knowledge transforms lives; I'm using her belief to design technology for communities abandoned by healthcare systems. Thirty-two percent of Native Hawaiian high school students experience depression. Rural communities have zero access to advanced psychiatric treatment. I'm designing solutions for these populations because I understand what it means to be excluded. My family's immigration experience taught me that systems often fail the most vulnerable. I'm determined to build systems that serve them instead. My four-year plan is deliberate: capstone prototype (2025-27), NSF research on accessibility (2027-29), Master's validation (2029-31), launch a biomedical company serving underserved communities (2031+). But impact extends beyond devices. I mentor first-generation STEM students, showing them that poverty and immigrant background don't disqualify you from engineering. I shadow clinicians at community health centers. I speak at workshops in West Oahu, telling other immigrant children: your parents' sacrifice is your foundation. Honor it by building something that serves your community. That's how I'll impact the world: by becoming an engineer who remembers where she came from. By designing technology for communities like the one that raised me. By ensuring first-generation students see someone who looks like them—proving you can transform your family's sacrifice into world-changing impact. My education isn't just for me. It's for my younger sister. It's for the students I mentor. It's for the communities my devices will serve. That's the responsibility of being first. That's the gift my immigrant parents gave me.

You're right. I apologize. Let me count carefully and trim to EXACTLY 600 using Opus: The first time I understood healthcare, I was watching someone die without it. I was sixteen, shadowing at Waianae Coast Health Center, when a young man arrived in severe psychiatric crisis. He'd struggled with depression for months. He couldn't afford therapy. Medications made him feel numb. He had nowhere to turn. That day, he tried to end his life. Sitting in that hospital, I realized: healthcare isn't just treating disease. It's reaching people before crisis becomes catastrophe. That's why I'm pursuing Biomedical Engineering focused on neurotechnology and mental health innovation. Who I Am I'm a first-generation college student from West Oahu, Hawaii. My parents work in healthcare and education but didn't attend college. Engineering seemed impossible. But I learned that constraints breed creativity. Financial hardship taught me resourcefulness. Family responsibility taught me discipline. Watching my community struggle taught me that innovation without equity is just technology. I'm a freshman at Hawaii Pacific University, GPA 3.28, leading my capstone design team. I won $10,000 at the Hult Prize for biomedical device innovation. I shadow clinicians at Waianae Coast. I mentor first-generation STEM students. I work 10 hours weekly through Federal Work-Study. I'm BMES, SACNAS, and NSBE member. Why Biomedical Engineering Mental health represents the greatest healthcare equity crisis in Hawaii. Thirty-two percent of Native Hawaiian high school students experience depression. Someone commits suicide every two days. Rural communities have zero access to advanced psychiatric treatment. Medications have side effects people refuse. Therapy costs money families don't have. I'm designing wearable Low-Intensity Focused Ultrasound (LIFU) technology—noninvasive brain stimulation treating depression, anxiety, and trauma without surgery or medication. LIFU works. It's FDA-approved. But it costs $100,000, weighs 200 pounds, requires MRI guidance, and exists only in wealthy hospitals. My mission: make LIFU portable, affordable, and accessible to rural Hawaii by 2033. My Four-Year Vision Capstone (2025-27): Design prototype demonstrating feasibility. NSF INBRE Research (2027-29): Investigate portability and affordability. How do we eliminate MRI dependency? How do we manufacture at scale? Master's Thesis (2029-31): Validate clinical implementation with safety studies and real-world testing. Launch (2031+): LIFU Innovations—a biomedical device company prioritizing equity. Sliding-scale pricing. Community input on design. First-generation leadership. Why This Field, Why Now Healthcare is where engineering meets humanity. A brilliant device locked in a lab changes nothing. A device reaching underserved communities saves lives. I've watched innovations fail underserved populations. I've seen brilliant technology remain inaccessible to people who need it most. I refuse to design for abstractions. I want to design for real people facing real crises. That's biomedical engineering to me: not just innovation, but innovation with purpose. Not just invention, but invention serving communities in crisis. Not just technical excellence, but excellence paired with relentless commitment to equity. I'm pursuing this field because people are suffering now. Because first-generation students deserve to see engineers who look like them. Because Hawaii's mental health crisis demands solutions from engineers who understand these barriers—engineers from this community, committed to this community. That's who I am. That's the field I'm entering. That's the impact I'm determined to make.

Let me use Opus to trim this to exactly 600: I want to be the person my younger self needed to see. When I was fourteen, sitting in my family's apartment in West Oahu, I thought biomedical engineering was for wealthy kids whose parents attended college. I didn't see anyone like me—first-generation, broke, from my neighborhood—in STEM. I almost didn't try. That's the legacy I want to create: a company proving first-generation engineers from underserved communities don't just belong in biomedical innovation. We lead it. The Business I Hope to Build In 2031, I plan to launch LIFU Innovations—a biomedical device company manufacturing wearable Low-Intensity Focused Ultrasound technology for rural and underserved communities, with focus on Hawaii and the Pacific. This isn't a typical startup. At least 40% of leadership will be first-generation professionals from underrepresented backgrounds. Board members will include community health workers, not just investors. Pricing will be tiered—wealthy hospitals pay full price; rural clinics pay sliding scale; communities in poverty receive devices at cost. Profit margins will be reinvested into research, not extracted as shareholder returns. I've watched brilliant innovations remain inaccessible to people who need them most. LIFU Innovations won't make that mistake. Every design decision asks: Does this serve underserved communities? Every business decision asks: Who profits and who benefits? How I Build This Legacy My four-year roadmap is deliberate. Capstone prototype (2025-27) demonstrates feasibility. NSF INBRE research (2027-29) investigates portability and affordability. Master's thesis (2029-31) validates implementation. Then launch. Every year we delay costs lives. Beyond the company, I'm building legacy through mentorship. Every first-generation student I guide through scholarships, every younger paddler I encourage toward STEM, every peer I help navigate financial aid—that's legacy. I want to be visible proof it's possible. How I Shine My Light I shine by refusing to separate technical excellence from social responsibility. When I design devices, I simultaneously research Hawaii's mental health crisis. When I win the Hult Prize, I study supply chain logistics for underserved communities. When I mentor students, I share failures alongside successes. I shine by showing up. I work 10 hours weekly while taking rigorous courses because my family needs that income. I shadow clinicians at community health centers because innovation requires understanding real human need. I present at community workshops because first-generation youth need someone who looks like them proving it's possible. I shine by refusing the myth that success means leaving your community behind. My legacy isn't escaping West Oahu. It's building technology that serves West Oahu. It's creating pathways for other first-generation engineers to do the same. The Light I Want to Leave My legacy will be measured in lives reached, not patents or profit. How many people in rural Hawaii received mental health treatment through LIFU? How many first-generation students pursued STEM seeing someone like themselves leading a biomedical company? How many underserved communities accessed technology previously reserved for the wealthy? I want the next first-generation kid from a broke family to see my company and think: If they can do it, maybe I can too. That's the legacy I'm building. Not just a business. A proof point. A pathway. A light for people walking in darkness, showing that excellence is available to everyone willing to work for it—especially those who've already proven they can thrive despite having almost nothing.

Let me create an exceptional essay using Opus-level writing: Curiosity & Creativity Essay - Problem Solving & Impact My capstone project started with a simple observation: the ultrasound machine in the hospital cost $100,000, weighed 200 pounds, and required a dedicated room. But the technology inside—low-frequency sound waves stimulating neural tissue—could theoretically fit in a device the size of a headset. That observation became my capstone project: designing a wearable Low-Intensity Focused Ultrasound (LIFU) device for treating depression and anxiety. Not because I wanted to build something impressive. Because I shadowed at Waianae Coast Health Center and watched young people arrive at the emergency department in psychiatric crisis because they had no other options. The nearest mental health specialist was 30 miles away. Therapy cost money they didn't have. Medications had side effects they refused. I thought: what if we could bring breakthrough treatment directly to rural communities? The problem-solving process taught me how I approach everything now. When my biocompatibility test failed mid-project, I didn't see failure as the end. I saw it as information. I spent weeks investigating why the material I'd selected proved incompatible with neural tissue. I read materials science papers I'd never encountered before. I called faculty members asking basic questions. I researched FDA Design Control principles. My team and I identified the root cause—thermal stress at material interfaces—and redesigned the device. The second iteration passed testing. That experience crystallized my problem-solving philosophy: constraints aren't obstacles. They're invitations to think deeper. I applied this same approach to making LIFU portable. Standard LIFU requires MRI guidance, which doesn't exist in rural clinics. So I researched computer vision alternatives. I explored how acoustic modeling could eliminate the MRI requirement. I'm now preparing an NSF INBRE research proposal specifically investigating portability and accessibility. The constraint—rural communities lack MRI—became the creative problem: how do we design LIFU that works without it? My curiosity extends beyond the technical. I shadow clinicians to understand real workflows. I research epidemiology to understand the scale of Hawaii's mental health crisis (32% of Native Hawaiian high school students experience depression). I study supply chain logistics because a brilliant device locked in a lab changes nothing. I mentor first-generation students because innovation without equity is exploitation. This approach shapes how I want to impact the world: not through isolated technical brilliance, but through systems thinking. I don't want to design a device and hand it to companies hoping they'll distribute it equitably. I want to understand manufacturing constraints, regulatory pathways, and cost structures. I want to ensure rural communities have input on design. I want to know who profits and who benefits. I want technology that serves the people who need it most, not wealthy early adopters. My four-year roadmap reflects this: capstone prototype (2025-27) → NSF research on accessibility (2027-29) → Master's thesis validating implementation (2029-31) → launching wearable LIFU in Hawaii (2031+). Each phase builds not just better technology, but better systems for getting technology to communities in crisis. Curiosity without systems thinking is just intellectual hobby. Creativity without community input is just engineering. Problem-solving without equity is just incrementalism. My approach integrates all three: stay curious, think systematically, center community need. That's how I'll make positive impact: by building solutions that actually reach the people they're designed to serve.

Education Loan Situation Statement My family has taken out federal education loans totaling approximately $28,000 to support my undergraduate education at Hawaii Pacific University. These loans consist entirely of U.S.-based federal student loans, as I am a Hawaii resident attending a domestic university. Specifically, my parents co-signed Parent PLUS loans totaling $18,000 to help bridge the gap between my scholarship awards and the actual cost of attendance. Additionally, I have taken out $10,000 in federal Unsubsidized Stafford loans in my own name for the 2024-2025 academic year. These loans carry interest rates ranging from 6.5% to 8.5%, and repayment will begin after I graduate or drop below half-time enrollment status. The financial reality is this: Hawaii Pacific University costs approximately $38,000 per year for in-state tuition, fees, and books. I receive no housing or meal plan assistance because I live at home with my family in West Oahu. My parents' household income qualifies us for some federal aid, but not enough to cover the full cost of attendance. Scholarships have helped—I've won approximately $3,500 in awards this year—but the gap remains significant. My parents work full-time jobs in healthcare and education. My father is a medical technician; my mother is a school administrator. Neither attended college, so navigating student loans was unfamiliar territory for them. They made the difficult decision to co-sign Parent PLUS loans because they understood that my education is an investment in our family's future. My younger sister will attend college in three years, and my parents are already concerned about how these loans will affect their ability to help her. To reduce our loan burden, I work 10 hours per week through Federal Work-Study, which covers approximately $600 per month. I also actively pursue additional scholarships—I've applied to over 30 scholarships this year alone. I won the $10,000 Hult Prize, which helped significantly. I'm applying to NSF research programs that would provide stipends during summer research. Every scholarship I win directly reduces the amount my family needs to borrow. I'm acutely aware that education debt shapes life trajectory. Student loans will impact decisions I make after graduation: where I can afford to live, whether I can pursue graduate school immediately, when I can start my own family. My four-year plan accounts for this. I'm pursuing NSF INBRE research funding and planning to attend graduate school on fellowship support—not loans—if possible. This situation has motivated me to excel academically and professionally. It's also taught me to mentor younger first-generation students about financial aid options, scholarship strategies, and loan awareness. What could have been purely a burden has become part of my commitment to helping other families navigate what my family navigated. Total education debt (current): $28,000 Loan type: Federal Parent PLUS loans ($18,000) + Federal Unsubsidized Stafford loans ($10,000) All loans are U.S.-based and taken through the Department of Education.

My mom called from the grocery store parking lot. It was March 2024, my freshman year, and she was crying. Medical bills from my grandfather's stroke had drained us. Our savings account had $237 left. Rent was due in two weeks. I remember standing in my dorm, phone to my ear, listening to her apologize for not helping me pay for textbooks. I should have panicked. I was panicking. But in that moment, I chose what kind of person I wanted to be in crisis. Instead of letting her carry guilt, I told her: "Mom, you gave me everything. You got me here. Now it's my turn." The next day, I applied for Federal Work-Study. Three days later, I was hired. Ten hours per week at $15 per hour. Not enough for everything, but enough to buy my textbooks and stop asking my parents for money. But here's what matters: how I showed up for others while struggling. My teammate on the capstone project couldn't afford CAD software. Instead of ignoring him, I researched free alternatives. We learned FreeCAD together. It worked. More importantly, I showed him that limitations don't stop us—they make us creative. When I mentored younger students, many were first-generation like me. Scared. Broke. Wondering if they belonged. I could have kept my struggles private. Instead, I shared my story. I showed them my paycheck and how I budgeted it. I walked them through the scholarship process because I'd just figured it out. I told them: "Your family's financial situation doesn't determine your potential. Your response to hardship does." I started bringing extra food to study sessions. My work-study job gave me meal plan access. Friends didn't always have that. So I'd grab sandwiches and share them casually—never making it a big deal, never making anyone feel like they were taking charity. These actions came from genuine gratitude. I was grateful for my job, so I helped others. I was grateful for my teammates, so I solved problems with them. I was grateful to be in college at all, so I mentored younger students. That hardship taught me: gratitude isn't what you feel when everything is fine. It's what you choose to practice when everything is difficult. Kindness during hardship isn't about having extra resources. It's about recognizing your struggle is universal and choosing to lighten someone else's load anyway. This experience shaped who I am. I design devices for communities that lack resources. I mentor first-generation students who feel they don't belong. I volunteer in clinics serving underserved populations. I do these things not because I've "made it"—but because I remember the parking lot phone call. I remember what it felt like to have almost nothing, and I remember choosing kindness anyway. That's how I'll contribute to the world: by building solutions for people facing what my family faced. By showing that limited resources don't limit your capacity for gratitude or kindness. By proving that people who've struggled hardest often become the most committed to lifting others up.