I work at the intersection of computer vision, computer graphics, and machine learning.
My research interests are focused on static and dynamic reconstruction using multiple modalities,
in particular radar.
Apart from theoretical
research, I strive to apply my work to real-world scenarios such as medical applications.
[10/2024] 🎉 I created a Youtube
channel 📹 for my oral presentations
[08/2024] 🎉 One paper accepted at IEEE Journal of Microwaves
[07/2024] 🎉 Two papers accepted (IROS, EuRAD)
[02/2024] 🎉 Our paper "ShaRPy" won the Digital
Rheumatology Award for the most innovative publication in the field of digital
rheumatology in the last two years
[10/2024] 🎉 Our paper "A Realistic Radar Ray Tracing Simulator for Hand Pose Imaging"
won the Young Engineer Price
[10/2023] 🎉 Our abstract pitch about "ShaRPy" at the IEEE BHI won the Best
Poster Award
[07/2023] 🎉 Two papers accepted (ICCVW, EuRAD)
Research
I'm interested in computer vision, computer graphics, machine learning, and novel sensor concepts.
My primary application focus is within the medical domain.
Representative papers are highlighted.
We propose a spatial calibration method for high-resolution radars
that operate in the near-field, in conjunction with RGB-D cameras.
Our calibration enables close-range sensor fusion applications with millimeter precision.
We improve our previous work
for SOTA Radar reconstruction by utilizing three carrier frequencies.
The proposed method enables real-time reconstructions with improved quality.
We apply different material parameters to simulate the radar signal of a human hand using a Ray
Tracing simulator. In this way, we can show that it is possible to generate very realistic
simulations of radar data.
We propose a novel hand pose and shape tracking pipeline that calculates the uncertainty, which
remains in the parameter estimates. We apply this pipeline to hand function assessments in the
medical domain.
We improve the performance of current SOTA Radar Imaging methods by the approximation of
possible surface locations and subsequent refinement operations.
Our method works with only two carrier frequencies.
We investigate the phenomenon of Author-UnificAtion (AUA), which describes the high structural
similarity of two co-authoring engineers that share the same forename, surname, institution, and
academic career without being related by blood.
The template of this website can be stolen from Jon Barron's source
code.