With a strong academic foundation in Chemical and
Biomolecular Engineering complemented by a minor in
Computer Science, my background is a unique blend of
technical expertise and interdisciplinary knowledge. As
a recent graduate from Johns Hopkins University, I am
equipped with a diverse skill set that encompasses
software engineering, research, and leadership.
Throughout my undergraduate years, I excelled in
challenging coursework, earning a cumulative GPA of
3.81/4.00 and consistently making the Dean's List. I
delved into core engineering principles, such as
Transport Phenomena and Chemical and Biological Process
Analysis, while also expanding my knowledge in computer
science through courses like Data Structures and
Artificial Intelligence. This cross-disciplinary
approach has allowed me to understand complex systems
and find innovative solutions at the intersection of
technology and engineering.
In my professional experiences, I have had the
opportunity to apply my skills and make a tangible
impact. As a Lead Software Engineer at CraniUS LLC, I
developed an automated scanning tool to identify
vulnerabilities in open-source software, resulting in
the discovery of critical vulnerabilities and
contributing to enhanced security measures. I also
spearheaded the creation of software-bill-of-materials
generation and analysis scripts, significantly reducing
vulnerability scanning time.
At CraniUS, communication to the implantable devices and
their respective companion devices exclusively uses the
Bluetooth Low Energy (BLE) protocol. Encryption is
provided by the protocol but there have been
vulnerabilities detected in this protocol in the past so
CraniUS utilizes its own an additional encryption scheme
to secure this communication. I was responsible to
developing this procedure with the remote “bonding” of
the two devices. My implementation was able to achieve
long-term encrypted and authenticated communication
channel, that is resilient to companion device failure
or compromise and hence mitigates the risk or need for
unplanned, revision surgery and/or premature device
explantation. In the world of implantable medical
devices, this is a novel technology and as such this
method has been envisioned into an all inclusive system
that is patent pending (Medical Implant Software Systems and Methods
US-20230422041-A1), where I am listed as the 2nd inventor, having
implemented and designed a majority of the system within
my capacity at CraniUS.
Additionally, I have contributed to groundbreaking
research as an Undergraduate Research Assistant at the
Centre for Nanomedicine at Wilmer Eye Institute. My work
involved the development of antibiotic-eluting sutures
to prevent ophthalmic infections, as well as the
creation of a portable version of the Humphrey visual
field analyzer test. These experiences have not only
honed my technical skills but have also taught me the
importance of meticulous experimentation and attention
to detail.
Beyond my academic and professional endeavors, I have
actively engaged in leadership roles and extracurricular
activities. As a Resident Advisor at Johns Hopkins
University Residential Life, I mentored and supported
fellow students, fostering a sense of community and
facilitating their transition to campus life. I also
participated in the American Institute of Chemical
Engineers (AIChE), conducting thermodynamic analysis and
contributing to data visualization and analysis
projects.
