Dynamic professional with a strong foundation in academic support and research, proven expertise in data analysis and instructional assistance. Skilled in demonstrating adaptability and reliability in fast-paced environments. Possesses exceptional problem-solving and communication skills, ensuring effective engagement with faculty and students. Committed to enhancing academic success by providing valuable support that empowers educators and learners to achieve their objectives.
Under Dr. Jason Kestner at University of Maryland, Baltimore County, I work in the field of Quantum Control where I use Julia, a high level, dynamic programming language used for numerical analysis to simulate the spin dynamics of two-level and coupled-spin systems. The goal is to optimize pulse sequences used in electron paramagnetic resonance (EPR) experiments that extract distance measurements between molecules.
I work as a TA for a variety of beginning level physics classes, such as PHYS 121 and 122. In PHYS 122, I lead a lab course once a week where I instructed students in performing experiments and graded their lab reports. In PHYS 121, I lead a discussion session once a week teaching concepts from the class that were not well understood by the students.
I worked in Professor Kempa's research group running simulations with CST Microwave Studio, a Finite Difference Time Domain software. I was responsible for modeling a variety of multi-layer 2D shapes, and simulating the interaction of electromagnetic waves in order to calculate the absorbance, transmittance, and reflectance of each design.
I worked as a homework grader for a variety of undergraduate mathematics classes. I worked eight hours grading about fifty different students' homework a week. The courses that I graded were Introduction to Abstract Algebra, Calculus II, Multivariable Calculus, and Probability.
Over the summer of 2020, I teleworked at the Jet Propulsion Lab at NASA for Dr. Stuart Shaklan in the High Contrast Imaging Group in the Optics Section. During the internship, I modeled the structure of starshade optical edges and simulated the scatter of sunlight around the edges using FDTD software in order to determine the performance of many anti-reflecting coatings. I optimized the designs to minimize the scatter of the intensity of sunlight about the optical edge directed into the telescope.