Master of Science in Data Science
Regis University
Expected Graduation: Spring 2026
Denver, CO
I am a graduate student in the Data Science program at Regis University with a strong interest in machine learning and computer vision. My academic work focuses on applying machine learning techniques to real-world problems, particularly in areas that involve image data and automated analysis.
During my studies, I have worked on projects involving object detection, image segmentation, and data analysis using tools such as Python, PyTorch, and computer vision frameworks. One of my recent projects explores combining YOLO object detection with the Segment Anything Model (SAM) to analyze aviation imagery across different datasets.
I enjoy learning how machine learning systems can be designed, tested, and applied to solve practical problems. I am especially interested in areas such as computer vision, applied machine learning, and building end-to-end ML pipelines that can support real-world applications.
My goal is to continue developing my skills as a machine learning engineer and work on projects that involve intelligent systems, visual data analysis, and scalable machine learning solutions.
Programming Languages
Python, R, SQL
Tools & Frameworks
VS Code
A segmentation-based computer vision pipeline for aviation image analysis. The project combines YOLO object detection with the Segment Anything Model (SAM) to detect and segment objects in aviation datasets including aircraft inspection images and airport operation scenes.
This project uses deep learning to automatically classify aerial disaster images into three categories — Intact, Major Damage, and Structural Failure. The images come from the LADI v2 dataset, which was collected by Civil Air Patrol pilots flying over US disaster zones between 2015 and 2023. Five different CNN models were built and trained from scratch to see which architecture performs best on this task. The main challenge was class imbalance — the dataset has far more Intact images than damaged ones, which makes it hard for the model to learn the minority classes. Several techniques were used to address this, including Focal Loss, balanced batch sampling, and data augmentation to increase the number of Major Damage training images. The DenseNet model performed best overall, while the Custom CNN Retrained was the only model that could detect Major Damage at a meaningful rate. GRAD-CAM heatmaps were generated to visually show which parts of each image the model focused on when making its predictions, helping explain the model's decisions in a human-readable way.
Feel free to reach out for collaboration opportunities, questions about my projects, or just to connect!
I'm always open to discussing new projects, creative ideas, or opportunities to be part of your vision.