

The AI-powered cobot combines robotics with a powerful vision-language model (VLM) interface. This enables it to recognise, classify and sort any objects – without the need for manual programming.
The AI-powered cobot combines robotics with a powerful vision-language model (VLM) interface. This enables it to recognise, classify and sort any objects – without the need for manual programming.

Our air hockey system combines a physical table with an AI-controlled robot that has been trained using reinforcement learning. The training takes place initially in a realistic simulation before the strategies are applied to the real table.
A key area of research is the Sim2Real gap – the challenge of reliably transferring skills learnt in simulation to the real world.
Our air hockey system combines a physical table with an AI-controlled robot that has been trained using reinforcement learning. The training takes place initially in a realistic simulation before the strategies are applied to the real table.
A key area of research is the Sim2Real gap – the challenge of reliably transferring skills learnt in simulation to the real world.

This innovative screw sorter uses state-of-the-art AI technologies to precisely identify and sort screws using a camera. Through the use of unsupervised learning, the screws are automatically clustered based on their visual characteristics – without the need for any prior manual classification.
This innovative screw sorter uses state-of-the-art AI technologies to precisely identify and sort screws using a camera. Through the use of unsupervised learning, the screws are automatically clustered based on their visual characteristics – without the need for any prior manual classification.
In Progress

Our test bench enables the precise analysis of the energy consumption of AI algorithms. Using high-resolution measurement systems, various models and workloads can be tested.
Our test bench enables the precise analysis of the energy consumption of AI algorithms. Using high-resolution measurement systems, various models and workloads can be tested.

Our model vehicle is equipped with state-of-the-art sensor technology – including LiDAR, cameras and a wide range of other sensors. A high-performance GPU enables complex algorithms to be processed directly on board.
This system provides a safe and cost-effective platform for developing and testing autonomous driving technologies and driver assistance systems on a small scale – without any of the risks associated with real vehicles.
Our model vehicle is equipped with state-of-the-art sensor technology – including LiDAR, cameras and a wide range of other sensors. A high-performance GPU enables complex algorithms to be processed directly on board.
This system provides a safe and cost-effective platform for developing and testing autonomous driving technologies and driver assistance systems on a small scale – without any of the risks associated with real vehicles.
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