We are pleased to announce that our paper, “Sequence-SOD: Bio-inspired Sequence-aware Spiking Object Detection for Event Cameras,” by Katharina Bendig, René Schuster, and Didier Stricker, has been accepted for publication in Cognitive Computation, a Springer Nature journal. The paper introduces a sequence-aware approach that enables spiking neural networks to better exploit temporal information in continuous event-camera data.
The paper connects the real-world problem of evolving class sets to AI-based document layout analysis.
Special recognition goes to Nick Jochum for carrying out the thesis work that formed the foundation of this publication, as well as to Insiders Technologies for the valuable collaboration.
The paper presents results of our collaboration with the Islamic University of Gaza on sensor fusion for 3D scene flow estimation. Our work has received the Emerging Research Award, highlighting the quality of the presented paper.
The Computer Vision Conference 2026 took place in Amsterdam, NL, from May 21st to 22nd.
The Augmented Vision department has 3 papers accepted at the upcoming ICPR 2026 conference. The conference will be taking place at the International Convention Center, Lyon, France, from August 17th to 22nd. The accepted papers are:
The department Augmented Vision has 4 accepted papers at the upcoming CVPR 2026 conference taking place from June 3-7, 2026 at the Colorado Convention Center, Denver, USA.
The CVPR conference is the premier international conference in computer vision and pattern recognition.
We are happy to anounce that our work on sensor generalization has won a Best Paper Award at ICPRAM 2026. The conference was held in Marbella, Spain, from March 2nd to 4th.
On Ocotober 27th, 2025 Michael David Fürst successfully defended his doctoral thesis entitled “Fusion in Object Detection and Human Pose Estimation for Automotive Scene Understanding”.
The PhD thesis was carried out in the Augmented Vision department at DFKI, supervised by Prof. Dr. Didier Stricker.
The PhD examination commission consisted of Prof. Dr. Didier Stricker (RPTU), Prof. Dr. Jörg Dörr (RPTU), Prof. Dr. Carlo Alberto (School of Advanced Studies, Pisa).
Congratulations on your PhD and we wish you all the best for the future!
René Schuster gave a talk on “Visual Continual Learning – Beyond Current Incremental Settings” during the 2nd Workshop on Human-Centered Vision and Media Technologies (HCVM) on 23.05.2025 in Tokyo. The workshop was part of the ASPIRE program (Adopting Sustainable Partnerships for Innovative Research Ecosystem) of the Japanese Science and Technology Agency.
The researchers of the Augmented Vision department have presented 4 papers at the ICPRAM 2025 conference taking place Feb 23 – 25, 2025 in Porto, Portugal.
The International Conference on Pattern Recognition Applications and Methods (ICPRAM) is a point of contact between researchers and engineers working on Pattern Recognition, both from a theoretical and application perspective.
The researchers of the department Augmented Vision have presented 4 papers at WACV 2025 conference taking place Feb 28 – Mar 4, 2025 in Tucson, Arizona, USA.
The IEEE/CVF Winter Conference on Applications of Computer Vision (WACV) one of the three major Computer Vision conferences organized by TCPAMI.
“AnonyNoise: Anonymizing Event Data with Smart Noise to Outsmart Re-Identification and Preserve Privacy”, Katharina Bendig, René Schuster, Nicole Thiemer, Karen Joisten, Didier Stricker
We are proud to announce that our paper “RMS-FlowNet++: Efficient and Robust Multi-scale Scene Flow Estimation for Large-Scale Point Clouds” by Ramy Battrawy, René Schuster, and Didier Stricker has been published in the International Journal of Computer Vision (IJCV). The online version of the paper can be found here a preprint is available here. The paper extends our previous work on efficient scene flow estimation in dense point clouds that has been published at ICRA 2022.
René Schuster and Prof. Dr. Didier Stricker moments after the oral defense.
On March 18th, 2022, René Schuster successfully defended his dissertation entitled “Data-driven and Sparse-to-Dense Concepts in Scene Flow Estimation for Automotive Applications”. The reviewers were Prof. Dr. Didier Stricker (Technical University of Kaiserslautern) and Prof. Dr. Andrés Bruhn (University of Stuttgart). Mr. Schuster received his doctorate from the Department of Computer Science at the Technical University of Kaiserslautern.
In his thesis, Mr. Schuster worked on three-dimensional motion estimation of the dynamic environment of vehicles. The focus was on machine learning methods, and the interpolation of individual estimates into a dense motion field. A particular challenge was the scarcity of annotated data for this problem and use case.
René Schuster received an M. Sc. in computational engineering from Darmstadt University of Technology in 2017. He then moved to DFKI to join the augmented reality group of Prof. Stricker. Much of his research was done in collaborative projects with BMW.
René Schuster at the celebration of his newly earned title.
We are happy to announce that our project DECODE has been accepted for the Nvidia Academic Hardware Grant. Nvidia will support our research in the field of human motion estimation and semantic reconstruction by donating a Nvidia A100 GPU for data centers. We will use the new hardware to accelerate our experiments for continual learning.
We are happy to announce that our paper “Multi-scale Iterative Residuals for Fast and Scalable Stereo Matching” has been accepted to the CSCS 2021!
The Computer Science in Cars Symposium (CSCS) is ACM’s flagship event in the field of Car IT. The goal is to bring together scientists, engineers, business representatives, and anyone who shares a passion for solving the myriad of complex problems in vehicle technology and their application to automation, driver and vehicle safety, and driving system safety.
In our work, we place stereo matching in a coarse-to-fine estimation framework to improve runtime and memory requirements while maintaining accuracy. This multiscale framework is tested for two state-of-the-art stereo networks and shows significant improvements in runtime, computational complexity, and memory requirements.