I love math because it makes sense in a way that feels honest and straightforward. Even when it’s difficult, there is always a clear process behind it. If I take the time to understand the steps and think through the problem, the answer is there for a reason. That structure is something I really enjoy, especially compared to subjects where things can feel more subjective. One of my favorite parts of math is problem-solving. Math challenges me to slow down, think logically, and work through problems step by step. When I get stuck, I know the solution isn’t random — it means I need to review my work and find where things went wrong. That process has taught me patience and persistence. Instead of getting frustrated, I’ve learned to see mistakes as part of learning, not as failure. Math is also rewarding because it builds confidence. Solving a problem that once seemed impossible reminds me that effort actually pays off. Each concept I understand makes the next one feel more manageable. Over time, that has helped me trust my ability to learn challenging material and push through difficult moments, both in math and in other subjects. Another reason I love math is how useful it is. Math connects to so many areas of STEM and everyday life, from analyzing data to understanding patterns and systems. It’s not just numbers on a page — it’s a tool for understanding how things work. That practicality makes learning math feel meaningful rather than abstract. Math also ties closely to my interest in technology and cybersecurity. Logical thinking, precision, and attention to detail are essential in both math and technical fields. Math helps train my mind to approach problems carefully and systematically, which supports my academic goals and the career path I want to pursue. Overall, I love math because it challenges me in a way that feels productive and rewarding. It has strengthened how I think, solve problems, and approach difficult tasks. Math has shown me that progress comes from consistency, patience, and effort, and that mindset is something I carry with me beyond the classroom.

Calculus is important in the STEM field because it helps explain how things change rather than just how things exist at one moment in time. Many real-world problems in science, technology, engineering, and mathematics involve movement, growth, limits, and optimization. Calculus provides the tools needed to understand these changes and describe them accurately. Without it, much of modern STEM would depend on rough estimates instead of precise and reliable solutions. In science, calculus plays a major role in understanding how systems behave over time. Fields such as physics, chemistry, and biology rely on rates of change, including velocity, acceleration, reaction speed, and population growth. Calculus allows scientists to analyze these relationships mathematically and make predictions instead of simply observing outcomes after they occur. This ability to model and predict behavior is essential for scientific discovery and innovation. Engineering depends heavily on calculus as well. Engineers use calculus to design structures, optimize systems, and ensure safety and efficiency. Whether calculating the stress on a bridge, managing electrical currents, or improving mechanical performance, calculus allows engineers to make informed decisions based on accuracy rather than guesswork. It also helps engineers test ideas through simulations before applying them in real life, which saves time, reduces costs, and lowers risk. Calculus is also important in technology and computer science, even if it is not always obvious. Many algorithms depend on optimization, which is rooted in calculus concepts. Areas such as machine learning, computer graphics, data analysis, and network performance all use calculus to improve speed, accuracy, and efficiency. In fields like cybersecurity and networking, calculus helps analyze system performance, traffic flow, and potential bottlenecks. Understanding these concepts allows technologists to design systems that are more reliable, secure, and scalable. Beyond its technical applications, calculus is important because of how it trains the mind. Learning calculus strengthens problem-solving skills, logical reasoning, and persistence. It teaches students how to break complex problems into smaller parts and work through them step by step, even when solutions are not immediately clear. These habits of thinking are valuable across all STEM fields and continue to be useful long after a specific formula is forgotten. Overall, calculus is important in STEM because it connects theory to real-world application. It allows scientists, engineers, and technologists to understand change, predict outcomes, and design effective solutions. By learning calculus, students gain both powerful analytical tools and a stronger way of thinking, which are essential for progress, innovation, and problem-solving in STEM fields.

I chose to pursue a degree in STEM because it has always been the space where my curiosity felt most natural. From a young age, I was drawn to computers, not just for entertainment, but for understanding how they worked. I liked figuring things out on my own, especially when something didn’t work the way it was supposed to. That curiosity pushed me toward science and technology early on and helped me realize that STEM wasn’t just an interest, but a path I wanted to follow. As I grew older, my interest in STEM became more focused. I started teaching myself how technology functions at a deeper level, from software to systems, and eventually became interested in cybersecurity. STEM appealed to me because it is constantly evolving and requires critical thinking, creativity, and persistence. It is a field where learning never stops, which aligns with how I naturally approach challenges. I enjoy problem-solving, troubleshooting, and working through complex issues until I understand them, even when it takes time. As a Dominican student and a person of color, pursuing a degree in STEM carries additional meaning. Growing up, I did not see many people who looked like me represented in technical or scientific careers. Fields like cybersecurity and engineering often lack diversity, and that absence is noticeable. Instead of discouraging me, it motivated me. I want to be part of the change that increases representation in STEM and helps redefine who belongs in these spaces. I hope to have an impact in the STEM field by using my education and experiences to support and inspire others from underrepresented backgrounds. Representation matters, especially for younger students who may not believe that STEM careers are accessible to them. I want to show that someone with my background can succeed in highly technical fields. Whether through mentoring, sharing my experiences, or simply being visible in professional environments, I hope to encourage others to pursue STEM with confidence. In addition to representation, I want my impact to be practical and meaningful. My interest in cybersecurity is rooted in the idea of protecting people and communities through technology. STEM has the power to shape how information is shared, how systems are secured, and how individuals are protected in digital spaces. I want to use my skills to help create safer and more equitable technology, especially as reliance on digital systems continues to grow. Ultimately, I chose STEM because it allows me to turn curiosity into purpose. As a Dominican student, I bring my background, perspective, and experiences with me into this field, and I see them as strengths rather than limitations. By pursuing a degree in STEM and continuing toward a career in cybersecurity, I hope to contribute to a more diverse, inclusive, and impactful future in science and technology.

The first time I taught myself how to code, I didn’t think of it as preparing for a future in computer science. I was in elementary school, around fifth grade, sitting at a computer and trying to make something work without anyone showing me how. I kept experimenting, breaking things, and fixing them until the code finally did what I wanted. That moment of trial and error is what shaped my interest in technology and continues to influence my goals today. Even at that age, I enjoyed the challenge more than the result. Teaching myself to code at such a young age made me comfortable with problem-solving and failure. I learned primarily in Ruby and Rust, not through structured lessons, but by figuring things out on my own. If something didn’t work, I didn’t give up — I adjusted it and tried again. That mindset became the foundation for my computer science goals and showed me that learning is an ongoing process, not something that ends once a problem is solved. It also taught me discipline and independence early on. My primary computer science goal is to work in cybersecurity as a penetration tester or cybersecurity engineer. As a Computer Network Technology (CNT) major at Borough of Manhattan Community College, I am developing a strong understanding of networking, systems, and security. What draws me to cybersecurity is the challenge of identifying weaknesses in systems and helping strengthen them before they can be exploited. I want to play an active role in protecting networks and data in a world that depends heavily on technology, especially as digital threats continue to grow. In addition to my technical goals, I have non-computer science goals that are just as important to me. I value communication, ethics, and responsibility, especially in a field that directly affects people’s privacy and safety. I want to be someone who can explain complex technical concepts clearly and work effectively with others, not just someone who understands the technical side. I also have a strong commitment to education and personal growth, and I plan to continue my studies beyond an associate degree by pursuing both a bachelor’s and a master’s degree. In the future, I plan to combine these goals by working in roles that require both technical expertise and strong interpersonal skills. Cybersecurity is not only about code and tools; it involves people, trust, and ethical decision-making. By combining my computer science skills with communication, leadership, and a commitment to lifelong learning, I hope to build a career that strengthens digital security while making technology safer and more accessible for everyone.

The first time I realized I cared about science wasn’t in a classroom. It was sitting in front of a computer that wasn’t working, trying to figure out why. I didn’t want to replace it or walk away from it — I wanted to understand it. That curiosity has followed me my entire life and is what eventually led me toward science, technology, and engineering. In elementary school, around fifth grade, I began teaching myself how to code. I learned primarily in Ruby and Rust, not through classes or step-by-step lessons, but by experimenting on my own. I would write code, see it fail, and keep adjusting it until it worked. That process taught me how to think logically, troubleshoot problems, and stay patient when things didn’t go right the first time. Teaching myself at such a young age showed me that learning doesn’t always have to be structured to be effective. My interest in computers went beyond coding. I used to collect old or broken technology and try to bring it back to life. I would take apart outdated computers and devices just to see how they worked and whether I could fix them. Sometimes I succeeded, and sometimes I didn’t, but every attempt taught me something new. These hands-on experiences helped me understand how hardware and software interact and reinforced my interest in science as an active, problem-solving process rather than just a subject. Today, I am a Computer Network Technology (CNT) major at Borough of Manhattan Community College (BMCC), where I am building a strong foundation in networking, systems, and security. My educational goals do not stop at earning an associate degree. I plan to continue my studies by pursuing a bachelor’s degree and eventually a master’s degree, as my desire to learn and grow in this field continues to deepen. As I have progressed academically, my interests have become more focused on cybersecurity. I am especially interested in penetration testing and becoming a cybersecurity engineer, where I can help identify weaknesses and strengthen systems people rely on every day. Receiving this scholarship would have a meaningful impact on my educational journey. It would reduce financial stress and allow me to focus more fully on my coursework, hands-on learning, and skill development at BMCC. More importantly, it would support my long-term educational and career goals, helping me turn a lifelong curiosity into a future as a scientist and engineer in cybersecurity.