🤖 Grasp Stability Prediction
Deep model that predicts whether a robotic grasp is stable using tactile sensor images, deployed as an interactive web app.
Machine Learning · Computer Vision · Optimization
I like building end-to-end ML systems: from models and algorithms to real, usable demos. Recently I’ve been working on tactile grasp stability prediction, coin classification with Vision Transformers, and route optimization with exact MIP formulations.
View Resume Browse ProjectsI’m a Computer Science student with a focus on machine learning, computer vision, and algorithms. I enjoy projects where I can combine theory (optimization, graph algorithms, deep learning) with practical deployment (APIs, dashboards, demos).
I’m currently looking for internships or working student roles where I can contribute to ML engineering or algorithmic problem solving while continuing to grow as an engineer.
Three projects that best represent how I think, build, and ship.
Deep model that predicts whether a robotic grasp is stable using tactile sensor images, deployed as an interactive web app.
Fine-tuned a Vision Transformer to classify Euro coin denominations from images, achieving perfect test accuracy on a custom dataset.
Exact solver for the Asymmetric Traveling Salesperson Problem using a Mixed Integer Programming model with MTZ subtour elimination.
Additional work in tabular ML, dashboards, detection, and optimization.
Predicts wine quality from physicochemical features with an end-to-end pipeline including preprocessing, feature selection, and model comparison.
Streamlit dashboard comparing unsupervised and supervised methods for fault classification on steel plates, with interactive visualizations.
Detects repeated circular objects (plates) using gradient-based keypoints, DBSCAN clustering, and ellipse fitting, deployed as a Gradio app.
Extended TSP to multiple agents, formulating a MIP model that partitions cities across salespeople while minimizing total cost.
Implemented Kruskal’s and Prim’s algorithms to build minimum spanning trees connecting all nodes with the lowest possible cost.
Built exact PCST models to select high-value nodes and connections by trading off collected prizes against edge costs.
For internships, working student roles, or collaboration ideas, feel free to reach out.
Email: [email protected]
GitHub: github.com/KasterEd