I build computer vision and deep learning systems, with a PhD in Electrical Engineering from Chalmers and first-author papers three years running at MICCAI, the top venue in medical image computing. My work centres on structured prediction, segmentation, and efficient transformer architectures: image-to-graph models producing topologically valid vascular trees from 3D CT, and models that halve peak GPU memory at comparable accuracy. I work end to end, from data curation and training on Swedish national HPC to evaluation design and reproducible pipelines.
PhD Electrical Engineering
Chalmers University of Technology (Gothenburg, Sweden)
Jan 2021 - Jun 2026
MSc. Complex Adaptive Systems
Chalmers University of Technology (Gothenburg, Sweden)
Sep 2018 - Jun 2020
BE Electrical Engineering
National University of Sciences and Technology (Islamabad, Pakistan)
Sep 2012 - Jun 2016
Research on structured prediction and efficient architectures for 3D medical imaging, funded by MedTech West. Thesis: Centerline Extraction for Tubular Trees in Medical Images.
Custom transformer, CNN, and recurrent architectures for structured prediction, image-to-graph modelling, segmentation, detection, and registration in 2D and 3D. Efficient and mixed-resolution designs, plus semi-supervised, self-supervised, and reinforcement learning.
Python, PyTorch, TensorFlow, CUDA, C++, MATLAB, SQL. NumPy, SciPy, pandas, scikit-learn, OpenCV, SimpleITK.
Large-scale multi-GPU training on Swedish national HPC (NAISS, Berzelius, Mimer) as project PI. SLURM, containerised environments, custom CUDA kernels, GPU profiling and memory optimisation.
Building and publicly releasing benchmark datasets for image segmentation and spatial graphs. Custom metrics, benchmark design, and failure-mode analysis. Large-scale multimodal data (CT, MRI, endoscopy, natural images, text), including sensitive patient data under ethics approval.
Git, Bash, Conda, Docker, Linux, Google Cloud. Experiment tracking with Weights & Biases and Neptune. Android development.