
Beyond Either-Or Reasoning: Transduction and Induction as Cooperative Problem-Solving Paradigms
Zenkner, Janis, Sesterhenn, Tobias, Bartelt, Christian
CORE Labs
Shared research infrastructure, joint projects, and a cross-national team advancing cognitive autonomous systems.
Explore the labsThe Initiative
CORE Labs runs shared laboratories in Goslar, Cluj-Napoca, and Rostock as a single facility. A joint compute cluster, common datasets, and a co-supervised student project programme let teams collaborate across borders.
This shared infrastructure turns three institutions into one coherent scientific platform for cognitive systems research.
Our labs operate as a unified distributed entity, sharing resources, data, and expertise to accelerate discovery.

Prof. Dr. Christian Bartelt
Principal Investigator
TU Clausthal

Dr. Christian Sacarea
Principal Investigator
Babeș-Bolyai University

Prof. Dr. Stefan Lüdtke
Principal Investigator
University of Rostock
Scientific Coordination
Our lab leads coordinate research and operational activities across our distributed locations.

TUC & UBB Operations
TU Clausthal / Babeș-Bolyai University
Leading operations fostering collaboration on autonomous systems and embodied robotics.

Rostock Operations
University of Rostock
Leading robotics research at Rostock focusing on multi-modal egocentric perception, spatial reasoning, and robot learning.

Multimodal Methods Lead
TU Clausthal
Developing multimodal methods that fuse visual and language information to improve model robustness, generalization, and reasoning across diverse real-world tasks.

Policy Learning Lead
TU Clausthal
Researching Reinforcement Learning, Large Language Models, and Self-play algorithms for autonomous decision-making.

Our research advances Cognitive Robotics by bridging perception, reasoning, and action. At the core is Dynamo, a comprehensive framework for dynamic manipulation and operational intelligence.
Dynamo is a cognitive robotic system built to adapt to unstructured environments and learn through interaction. By integrating foundation models with rigorous control theory, it achieves versatile, robust behavior in real-world settings.

Language-conditioned vial sorting on a Waveshare SO-101 arm using a pi0 vision-language-action model fine-tuned with LoRA. Two experiments compare static versus domain-randomized training data.
A VLA-based pick-and-place pipeline built with LeRobot: the robot receives a natural language instruction, observes the workspace from three RGB camera views, and executes the requested vial arrangement on Jetson inference. The project studies whether randomized training data improves transfer when lighting, rack placement, and vial colors change.

Leader following on a Ridgeback mobile base: camera-based detection singles out a chosen person by appearance, while fused point-cloud perception tracks the leader and visualizes the intended follow path in RViz.
The Ridgeback picks one designated person out of a multi-person scene, then fuses camera detection with point-cloud perception to follow them through clutter. Two iterations compare 2D and full 3D sensing for environment understanding.
A new initiative building upon Video Joint Embedding Predictive Architectures.
Our autonomous driving research combines cutting-edge algorithms with practical implementation, resulting in robust solutions for real-world scenarios.
Interactive tools for constructing and simulating complex traffic networks to rigorously test autonomous systems.
A comprehensive benchmarking suite for evaluating autonomous driving algorithms across various metrics and scenarios.
Advanced corridor planning using cubic spirals for smooth, kinematically feasible trajectory generation in real-time.
Testing real-world 1:10 scale autonomous driving capabilities, showcasing reliable navigation and control.
CORE Labs
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Zenkner, Janis, Sesterhenn, Tobias, Bartelt, Christian