2026

I was first introduced to chemistry in my mom's kitchen. People came to her when they were sick and she always
knew what to do. I watched her gather herbs, simmer them for hours, and grind dried roots into tea. My mom would
often include me in small steps of the process as she prepared each remedy. Watching her turn ingredients into
something that brought relief was the first time I understood that knowledge can be a form of care.

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When I first stepped into a chemistry lab in college, I recognized the same attention to detail, timing, and balance
that I had observed in my mother's work. I was especially fascinated by chemistry's ability to explain what I had
watched for years through the combination of mechanisms, structures, and reactivity. This connection shaped my
interest in designing and synthesizing new therapeutic compounds that could extend this legacy of care into modern
medicine.

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From the start, it was clear to me that organic chemistry offered the most powerful path toward my objectives. I was
able to apply my knowledge and skills in a research setting when I joined a faculty research group at Georgetown
College, where I investigated boronic acid derivatives as potential inhibitors in bacterial cells. My work involved
designing and synthesizing a series of boronic acid derivatives specifically tailored for selective protein interactions,
optimizing their structures to improve binding affinity and selectivity. Following that, I characterized the
synthesized compounds using NMR, mass spectroscopy, and HPLC. This research demonstrated how rational drug
design can potentially overcome antibiotic resistance, which represents one of the most pressing global health
challenges today. The successful synthesis and evaluation of these derivatives reinforced my commitment to
applying chemistry to real-world health challenges and motivated me to pursue a doctoral degree, where I can
expand my expertise in organic synthesis to design and develop therapeutic compounds that improve human health.

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Building on this commitment to health, my recent research has focused on developing methods to detect
environmental contaminants that pose public health risks. I worked on testing environmentally friendly approaches
to detect trace levels of harmful compounds in food and consumer products using advanced analytical techniques

including spectrofluorometry. Throughout the project, I optimized experimental variables through systematic assays,
created calibration curves, determined detection limits, and validated the method against real-world samples. This
project strengthened my ability to design rigorous experiments, troubleshoot independently, and connect analytical
chemistry principles to real-world health applications.

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As we navigate new global health challenges, I believe our scientific approach to these rising issues must evolve as
well. My research experience in both organic and analytical chemistry has trained me to integrate knowledge across
disciplines and address challenges through a multifaceted lens. This interdisciplinary foundation has prepared me to
contribute to research that bridges different areas of chemistry and connects fundamental discoveries to clinical
applications.

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Harvard's PhD program in Chemistry and Chemical Biology represents the ideal environment for advancing this
vision. I am drawn to Harvard's commitment to research that directly impacts human health and its collaborative
approach to chemical research. I am particularly interested in studying catalytic systems that enable selective
organic transformations for drug synthesis, and how these methods can be optimized to accelerate the development
of novel therapeutic candidates. The program's emphasis on collaborative, cross-disciplinary research, including
connections with Harvard Medical School, the Broad Institute, or other institutional partnerships, aligns perfectly
with my goal of bridging fundamental chemistry with meaningful clinical applications.

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I am drawn to the possibility of engaging with faculty whose research focuses on synthetic organic chemistry and its
applications to drug discovery and development. I am particularly interested in exploring how advanced catalytic
systems can improve reaction selectivity and efficiency in pharmaceutical synthesis, potentially enabling the
development of new therapeutics that were previously inaccessible through conventional synthetic routes.

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Harvard's exceptional infrastructure, collaborative research culture, and strong connections to pharmaceutical and
biomedical research present the ideal platform for my doctoral work. The program's flexibility in research rotations
will allow me to explore multiple research areas before committing to a dissertation focus, ensuring I find the
research direction where I can make the most meaningful contribution to therapeutic development.

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A PhD in Chemistry at Harvard University will provide the training and research foundation I need to develop
innovative synthetic approaches for drug design and contribute to the creation of life-changing therapeutics. This
will build on what I learned from my mother: that healing begins with identifying what someone needs and
responding with intention. I hope to carry that same sense of responsibility moving forward by using chemistry not
just to understand molecules, but to build medicines that honor the kind of care my mother taught me.