Do you want to work on the next generation robot manipulators to give machines the ability to exploit repetitive contact and intentional collisions for swiftly performing pick-and-place and assembly tasks? Are you passionate and skilled in advanced mathematics, robot dynamics, machine learning, robot control, advanced programming, and experimental validation? If so, you might be an excellent candidate for this PhD position. Join us, helping develop a technology that could provide a step change in manufacturing, logistics, aviation, and construction domains.
InformationThe demand for autonomous robots capable of physically interacting with the world in flexible and adaptable ways is rapidly increasing across industries and society. These robots are needed to perform complex and fast physical interaction tasks, spanning from fine manipulation, such as kitting and cables manipulation, to heavy non-ergonomic tasks in semi-structured environments, such as depalletization and truck unloading.
This PhD project wants to explore the latest advances in robot control, robot learning, physics simulation, and robot hardware to generate robust contact-rich and impact-aware strategies that allow to perform assembly and pick-and-place tasks in man-made environments, targeting industry relevant use cases at required execution speed. This is enabled by latest tactile robots that are impact-resilient, back-drivable, and capable of sensing contact interactions with the environment as well as computational hardware and parallel physics simulation software, enabling to train complex control policies or adaptable sampling-based MPC strategies. One use case of interest is, for example, the swift pick and place of heavy objects (>10kg) in clutter and in the presence of obstacles, with cycle times of 5 seconds.
Key Objectives and Challenges of this PhD Position Include:
- Develop simulation-based and pixel-to-action policies to quickly move objects in clutter, allowing to estimate/adapt to object properties on the fly while also continuously monitor task execution, swiftly replanning in case of inevitable occasional failures
- Collect experimental data and make it available according to FAIR principles and use it to validate physics engines (e.g., Isaac Sim, MuJoCo, Algoryx Dynamics) against real experiments, to explore the sim2real limits and use it to propose control strategies that respect and exploit the natural robot-environment contact dynamics for boosting task success rate
- Perform experimental work on the various robotic manipulation platforms available in the lab to assess progress with respect to the state of the art and showcase results to our research and industrial network
This project builds on previous work by Prof.
Alessandro Saccon and in particular that conducted in the recently concluded
H2020 I.AM project coordinated by the TU/e. The position is embedded in the Robotics section (RBT) within the Department of the Mechanical Engineering, with close connections with the Dynamics and Control (D&C) and Control Systems Technology (CST) sections in the same department.