Hello, I'm
Building intelligent systems at the intersection of mathematical rigor and software architecture. Advancing from applied mathematics into scalable AI and computer vision engineering.
"My background is applied math, and I've been moving into the software side of robotics: perception, kinematics, planning. The gap between clean theory and code that has to run on real hardware is where most of the interesting problems live, and I'm still learning how to close it well."
Coming from a background in Applied Mathematics, I initially treated coding strictly as a research tool. However, I quickly discovered that I was just as invested in the engineering behind the algorithms as I was in the theoretical results.
That realization drove my pivot into Computer Science. I wanted to move beyond writing code that works for a single experiment to building robust, scalable systems that handle real-world complexity.
Now, as a graduate student at UPenn, I combine analytical problem-solving with modern software engineering, focusing on computer vision, deep learning, and how algorithmic efficiency drives intelligent technology.
Computer Vision & Deep Learning
Object detection, image classification, and neural network architectures for visual understanding.
Algorithmic Design
Optimizing computational efficiency using mathematical frameworks and data structures.
Software Architecture
Designing scalable, maintainable systems with strong object-oriented foundations.
Master of Computer & Information Technology (MCIT)
Expected May 2027 | GPA 4.00 | Full-Time
Relevant Coursework: Data Structures & Software Design, Computer Systems Programming, Artificial Intelligence, Deep Neural Networks
B.A. in Applied Mathematics
Computational Biophysics
QC Physics Dept. • Supervised by Dr. Oleg Kogan
Investigated whether collective interactions among Daphnia magna induce systematic deviations from random turning behavior. Developed a computational pipeline to track, model, and statistically analyze rotational dynamics across hundreds of trials.
Epigenetics & Behavioral Biology
QC Biology Dept. • Supervised by Dr. Sebastian Alvarado
Analyzed how environmental stimuli trigger epigenetic modifications driving phenotypic plasticity and behavioral adaptation. Validated computational models of mutation response pathways using ChIP-seq and ATAC-seq datasets.
Cybernetic Hardware Interface for Robotic Operations & Networking
A geometry-driven robot motor cortex running in MuJoCo at ~500 Hz. Built around damped least-squares inverse kinematics (1000 iter, 5mm tolerance) and a self-measuring gripper model that reads finger offset, pad height, and actuator range directly from the robot definition, eliminating hardcoded constants across arm configurations.
Handles pick-and-place end-to-end with gripper-envelope collision checks, corridor clearance along planned paths, adaptive carrying-height search, grasp verification with auto-retry, and automatic decomposition of stacked scenes into executable sub-tasks.
Behavior Recognition, Object Tracking & Environmental Understanding System
An open-vocabulary perception pipeline combining YOLO-World detection (87% confidence, 21 FPS on CPU), IoU-based multi-object tracking, and monocular depth estimation via MiDaS, feeding a four-criteria grasp affordance heatmap.
Dual-hand gesture and animation recognition uses MediaPipe's 42 keypoints, 35-dimensional feature vectors with palm-orientation encoding for rotation invariance, and Dynamic Time Warping for speed-invariant temporal matching, with per-hand persistence to disk.
Autonomous Terrain & Hazard Exploration Navigation Agent
A browser-based 3D rover autonomy simulator with four interchangeable pathfinding algorithms (A*, Dijkstra, RRT, D* Lite) behind a unified stepper interface. Features real-time search visualization, cost heat mapping, and multi-waypoint mission chaining.
Built on a deterministic chunk-based terrain generator using seeded 3-layer fractal Brownian motion noise and spatial cell hashing, with parameterized planetary profiles for Mars, Venus, Europa, and Titan driving geometry, lighting, fog, and surface coloring from configuration.
Athens, GA • June 2025
"Collective Behavior of Daphnia"New York, NY • Aug 2024
"Collective Behavior of Daphnia"Queens College • Fall 2024 - Spring 2025
Selected for a year-long funded research program designed to deepen undergraduate participation in authentic STEM research. Recognized for advanced scholarly work in computational biophysics and preparation for graduate-level study.
Queens College • Aug 2024
Awarded for outstanding contribution to the Undergraduate Research Program. Recognized for commitment to scholarly inquiry and excellence in biophysical computation.
Actively seeking opportunities in software engineering, computer vision, and AI research. Whether you have a role to discuss or simply want to connect, please reach out.
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