Extremal Contours: Gradient-driven contours for compact visual attribution
Training-free method that uses gradient-driven smooth contours for compact visual attribution.
Computer Scientist
I am a Ph.D. candidate in Computer Science at the University of Copenhagen, specializing in computer vision, deep learning, and medical image analysis. My work focuses on building robust, end-to-end machine learning systems, with expertise in 3D segmentation, self-supervised learning, object detection, domain generalization, and explainable AI. I design and implement solutions across the full ML lifecycle — from data engineering and modeling to evaluation, reproducibility, and deployment.
Alongside research, I have industry and hospital collaboration experience developing production-oriented vision systems and leading small technical teams in interdisciplinary, international environments. I am particularly motivated by applying strong ML engineering and problem-solving skills to real-world products where robustness, interpretability, and measurable impact are central.
If you are interested, please reach out to collaborate 😃
Outside of research, I enjoy solving mechanical puzzles, exploring new technologies, and studying psychology and human behavior. Currently, I am reading evolutionary biology (mostly Richard Dawkins books) out of curiosity about complex adaptive systems and the evolution behind them.
PhD Computer Science
Copenhagen University
MS in Biomedical Engineering
Sharif University of Technology
BS in Biomedical Engineering
Amirkabir University of Technology
Training-free method that uses gradient-driven smooth contours for compact visual attribution.
Contrastive learning framework with overlap-aware modules for improved 3D medical image segmentation.
Extremal Contours; Gradient-driven contours for compact visual attribution
PiMPiC; An Overlap-Aware Contrastive Learning Framework for 3D Patch-Based Medical Image Segmentation