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Max Planck ETH Center for Learning Systems

AcronymMPG ETH CLS
Homepagehttp://learning-systems.org/
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TypeAlliance
Current organizationMax Planck ETH Center for Learning Systems
Members
  • Autonomous Motion Department
  • Agile & Dexterous Robotics Lab
  • Group D'Andrea
  • Automatic Control Laboratory
  • Multiscale Robotics Lab
  • Autonomous Systems Lab
  • Applied Mechanobiology - Prof. Viola Vogel
  • Sensory-Motor Systems Lab
  • Vision for Robotics Lab
  • Robotic Systems Lab
  • Photogrammetry and Remote Sensing (Prof. Schindler)
  • Machine Learning and Computational Biology Lab
  • Information Science and Engineering
  • Seminar for Statistics
  • Data Analytics
  • Learning and Adaptive Systems
  • Computational Biology Group
  • Algorithms, Data Structures, and Applications
  • Group Zeilinger
  • Computer Vision and Geometry Group
  • Computer Vision Laboratory
  • Rehabilitation Engineering Lab
  • Institute of Neuroinformatics
  • Advanced Interactive Technologies
  • Interactive Geometry Lab
  • Translational Neuromodeling (TNU)
  • Institute of Neuroinformatics
  • Empirical Inference Department
  • Probabilistic Numerics Group
  • Perceiving Systems Department
  • Micro, Nano, and Molecular Systems (Peer Fischer)
  • Physical Intelligence (Metin Sitti)
  • Biomedical Informatics Group


Open Opportunities

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Advancement of Magnetically Shape-Morphed Microrobots for Biomedical Applications

  • ETH Zurich
  • Multiscale Robotics Lab

This project aims to explore the dynamic capabilities of microrobots to undergo a shape-change through dipole-dipole interactions in magnetic fields. The project encompasses three main phases: simulation, fabrication, and application, with a specific focus on biomedical scenarios.

  • Engineering and Technology
  • Master Thesis, Semester Project

Robustify Feedback Optimization through Regularization

  • ETH Zurich
  • Automatic Control Laboratory

Optimal steady-state operations are crucial for engineering systems. A promising paradigm called feedback optimization (FO) features autonomous optimality seeking with a minimal requirement on model information, i.e., the input-output sensitivity. In applications, however, uncertainties (e.g., random failures and parameter shifts) may cause a model mismatch, thus resulting in closed-loop sub-optimality. To address this critical issue, we will explore robustifying FO against structured model mismatch through regularization. To this end, we will formulate a min-max closed-loop optimization problem and solve the reformulated regularized problem in an online fashion. We will characterize the optimality and stability of the closed-loop behavior. Furthermore, we will numerically validate the effectiveness of the proposed algorithm.

  • Dynamical Systems, Electrical Engineering, Systems Theory and Control, Systems Theory and Control
  • Bachelor Thesis, Master Thesis, Semester Project

Deep Policy Adaptation for Dexterous Rope Manipulation

  • ETH Zurich
  • Robotic Systems Lab

The innumerable uses of rope, including climbing, sailing, circus acts, and wrangling livestock, suggest that it could be used as an universal robotic manipulator. When combined with a mobile base, e.g. a cowboy on a horse, rope manipulation can be an effective tool for all manner of robot-environment interaction challenges. In this project, we seek to realize a control framework for ANYmal such that it can use a rope launcher to manipulate various objects.

  • Intelligent Robotics, Robotics and Mechatronics, Systems Theory and Control
  • Master Thesis, Semester Project

How does an injured ANYmal walk?

  • ETH Zurich
  • Robotic Systems Lab

When quadrupedal animals injure their limbs, they adapt their gait to compensate for the injury. Conversely, when a quadruped robot’s leg breaks, its functionality is severely curbed, and in many cases, entirely compromised. This project will investigate the interplay of disabled/dismembered quadrupedal robot legs, locomotion performance, and control strategy, with the goal of converging on effective policies that abstract across different kinds of “injuries.”

  • Intelligent Robotics, Robotics and Mechatronics, Systems Theory and Control
  • Master Thesis

Depth Completion Using Advanced Anisotropic Diffusion Techniques

  • ETH Zurich
  • Photogrammetry and Remote Sensing (Prof. Schindler)

In this project, we aim to develop a depth completion framework based on the anisotropic diffusion prior.

  • Computer Vision, Engineering/Technology Instrumentation, Geomatic Engineering, Pattern Recognition
  • Master Thesis

Continuous Skill Learning with Generative Latent Dynamics

  • ETH Zurich
  • ETH Competence Center - ETH AI Center Other organizations: Robotic Systems Lab

In recent years, advancements in reinforcement learning have achieved remarkable success in teaching robots discrete motor skills. However, this process often involves intricate reward structuring and extensive hyperparameter adjustments for each new skill, making it a time-consuming and complex endeavor. This project proposes the development of a skill generator operating within a continuous latent space. This innovative approach contrasts with the discrete skill learning methods currently prevalent in the field. By leveraging a continuous latent space, the skill generator aims to produce a diverse range of skills without the need for individualized reward designs and hyperparameter configurations for each skill. This method not only simplifies the skill generation process but also promises to enhance the adaptability and efficiency of skill learning in robotics.

  • Engineering and Technology, Information, Computing and Communication Sciences
  • Master Thesis

Instrumented campus board: Stand-alone performance analysis tool for climbers

  • ETH Zurich
  • Sensory-Motor Systems Lab

A campus board was instrumented to measure forces applied to the rungs. Now, the entire setup should be transferred to climbing gyms.

  • Biomedical Engineering, Interdisciplinary Engineering, Mechanical and Industrial Engineering
  • Bachelor Thesis, Semester Project

Learning Object Affordances from Large-Scale Human Interactions with Diffusion Models

  • ETH Zurich
  • ETH Competence Center - ETH AI Center Other organizations: Robotic Systems Lab

This project explores unsupervised learning using extensive videos from the internat that capture human interactions with objects. By harnessing advanced generative AI models, the focus is on understanding object affordances, such as identifying interaction points and predicting post-grasp trajectories.

  • Computer Vision, Intelligent Robotics
  • ETH Zurich (ETHZ), Master Thesis, Semester Project

Learning Object Manipulation from Demonstrations using Vision and Haptic Feedback

  • ETH Zurich
  • Robotic Systems Lab

We aim to develop a method to incorporate fine-grained tactile and visual feedback into our haptic teleoperation setup and investigate their effectiveness with state-of-the-art imitation learning methods.

  • Intelligent Robotics
  • Master Thesis, Semester Project

Minimal: Learning-based design optimization for robots over challenging terrain

  • ETH Zurich
  • Robotic Systems Lab

Minimal is a mostly 3D-printed, highly reconfigurable robot. Using state-of-the-art reinforcement learning, we will explore novel and highly advanced hardware design possibilities that will be coupled with design optimization through learning. This will enable the next generation of robots to be a lot faster, stronger and agile.

  • Engineering and Technology
  • Master Thesis, Semester Project
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