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A leading research institution in Stuttgart is seeking a motivated student for a thesis project focused on mobile robotics. You will design simulation environments for bipedal robots and develop Reinforcement Learning algorithms. The ideal candidate will have a background in Computer Science or related fields. Join a dynamic team and gain hands-on experience while working with cutting-edge technology. The position offers a friendly atmosphere and opportunities to implement your own ideas.
automation technology, electrical engineering, computer science, cybernetics, aerospace engineering, mechanical engineering, mathematics, mechatronics, physics, control engineering, software design, software engineering, technical computer science or comparable.
In the Professional Service Robots - Outdoor research group we develop autonomous, mobile robots for a variety of outdoor applications, such as agriculture, forestry and logistics. The focus is on the development of an autonomous outdoor navigation solution as well as the hardware of the robots.
Wheeled, bipedal robots combine the advantages of dynamic walking with efficient wheeled locomotion. Controlling such systems in real-world environments is challenging due to the high-dimensional dynamics, non-linear contact interactions, and varying surface conditions. Reinforcement learning (RL) offers a promising approach to develop adaptive and robust control policies, but training on physical hardware is often impractical and unsafe. Realistic simulation environments are therefore essential. NVIDIA Isaac Sim with Isaac Lab enables high‑fidelity physics simulation, sensor emulation, and RL‑compatible environments for training and evaluating complex locomotion and navigation behaviours.
In this thesis, you will design and implement a simulation environment for a wheeled, bipedal robot in NVIDIA Isaac Sim, ensuring realistic physics for hybrid locomotion. You will develop and train RL algorithms for hybrid locomotion tasks, including transitioning between locomotion modes and balancing on uneven terrain. To assess the quality and limitations of the training, you will compare the simulated behaviour with the real‑world performance of our internally developed bipedal robot.
Ms. Jennifer Leppich
Recruiting
+49 711 970-1415
jennifer.leppich@ipa.fraunhofer.de
Fraunhofer Institute for Manufacturing Engineering and Automation IPA
www.ipa.fraunhofer.de
Requisition Number: 82451
Application Deadline: