Exploiting Longitudinal Context in Clinician-Verified Interactive Lesion Tracking
Click a lesion once in the baseline scan and LongiTrack follows it through every follow-up exam, with the clinician verifying each step.
I am a PhD student in the Division of Medical Image Computing at the German Cancer Research Center (DKFZ) and a member of the Helmholtz Information and Data Science School for Health (HIDSS4Health). I develop deep learning methods for 3D medical imaging. A large part of my work is on longitudinal imaging: radiologists rarely read a scan on its own, but compare it with earlier exams to see how a lesion has changed. I build methods that use this context, from segmenting lesions consistently across follow-up scans to tracking them interactively, with the clinician verifying each step. I am also interested in foundation models for radiology, learning general 3D representations through self-supervised learning on large collections of scans and connecting images with text through vision-language pretraining. Most of my research code is open source.
Before my PhD, I studied physics at Heidelberg University, where I completed my B.Sc. and M.Sc. with a scholarship from the German Academic Scholarship Foundation (Studienstiftung des deutschen Volkes). For my master's thesis, I spent a year as a visiting research student at the Institute for Particle Physics Phenomenology (IPPP) in Durham, where I applied machine learning to the electroweak phase transition in the early universe.
Our lesion tracking paper was presented as an oral at MICCAI 2026 and received the MICCAI Young Scientist Award.
Dataset Collections: Challenges of Large-Scale Data Aggregation in 3D Medical Image Datasets was accepted to the NeurIPS 2026 Evaluations & Datasets Track.
Our preprint nnFoundation: 3D Foundation Models for Radiology is out.
Exploiting Longitudinal Context in Clinician-Verified Interactive Lesion Tracking was early accepted at MICCAI 2026 (top 9%).
Click a lesion once in the baseline scan and LongiTrack follows it through every follow-up exam, with the clinician verifying each step.
A cheap auxiliary loss on the skeleton of the target that keeps vessels, nerves and other thin structures connected, for any network and with little extra compute.