I enjoy developing robust, data-driven solutions and acitonable insights. Here are a selection of projects that I have worked on over the years.
🚀 Using Quasars to Uncover Black Hole Pairs 🌌 As the lead on this project, I explored how quasars—exceptionally bright objects powered by black holes—can help identify pairs of merging supermassive black holes. By integrating data from gravitational waves, quasar activity patterns, and galaxy observations, I developed a framework to estimate how often quasars host these black hole pairs. Key Outcomes: Found that quasars are up to seven times more likely than other galaxies to host black hole pairs, highlighting them as priority targets for future studies. Improved regression analysis efficiency by 300x, enabling faster and more scalable data analysis. Why It Matters for Industry: This project demonstrates my ability to combine diverse datasets, optimize computational performance, and uncover insights in complex systems—skills directly relevant to data science, machine learning, and analytics roles. Let’s connect to discuss how these approaches can solve challenges in your industry! 🌟
🚀 Unlocking the Secrets of Gravitational Waves 🌌 As project lead for a collaboration of over 100 scientists, I investigated how patterns in gravitational waves—the ripples in space-time caused by merging supermassive black holes—can reveal new insights about the Universe. Using data from the NANOGrav 15-year dataset, I built models to detect unexpected signals and studied how individual black hole pairs contribute to the larger wave background. 📊 Key Outcomes: Identified subtle deviations in wave patterns, possibly linked to individual black hole mergers. Discovered a frequency range where signals from individual events or early-Universe phenomena could emerge. Published our findings in a top-tier journal, highlighting their significance to the field. 💡 Relevance for Industry: This project showcases my ability to transform complex, noisy datasets into meaningful insights—skills directly applicable to AI, machine learning, and predictive modeling challenges in industry. Let’s connect to explore how advanced data science can drive innovation in your field! 🌟
🚀 Using Neural Networks to Classify Galaxies 🌌 I led the development and analysis of a project that applied machine learning techniques to classify galaxy shapes using imaging data from the Sloan Digital Sky Survey (SDSS). This work explored how convolutional neural networks (CNNs) can handle the rapidly growing datasets in astronomy, enabling scalable and efficient classification of galaxy morphologies. Key Outcomes: Built and trained a CNN on over 300,000 galaxy images. Demonstrated the potential of neural networks for large-scale image classification tasks, even with limited training data. Identified avenues for improvement, including expanding datasets, optimizing model configurations, and parallelizing computations for scalability. Why It Matters for Industry: This project highlights my experience in developing machine learning pipelines, optimizing performance, and handling large datasets—skills directly applicable to data science, machine learning, and research-driven innovation. Let’s connect to discuss how these techniques can create value in your organization! 🌟