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Autonomous Systems Lab

AcronymASL
Homepagehttp://www.asl.ethz.ch/
CountrySwitzerland
ZIP, City 
Address
Phone
TypeAcademy
Top-level organizationETH Zurich
Parent organizationInstitute of Robotics and Intelligent Systems D-MAVT
Current organizationAutonomous Systems Lab
Memberships
  • Max Planck ETH Center for Learning Systems
Partners
  • Robotic Systems Lab


Open Opportunities

Physical HRI with a Tethered Quadruped

  • ETH Zurich
  • Autonomous Systems Lab Other organizations: Robotic Systems Lab

This project aims to develop a system for guiding visually-impaired humans through physical interaction with a robot. Inspired by guide dogs, the human is physically connected to a quadruped robot (ANYmal) through a tether or rigid link. The robot is able to pull the human toward a desired position (or along a path) only using forces as an indirect communication-channel.

  • Robotics and Mechatronics
  • Master Thesis

Graph Clustering for Open World Scene Understanding

  • ETH Zurich
  • Autonomous Systems Lab

The overarching goal of this project is to enable robots to continually and autonomously learn from their environment by adapting to novel environments and learn to identify new object categories. The established approach of supervised learning on large datasets always has problems with domain and sim-to-real gaps. This line of work therefore represents a shift towards learning during the robot’s mission, naturally removing any domain gaps but also reducing the amount of supervision that can be applied.

  • Intelligent Robotics
  • Master Thesis, Semester Project

Continual Learning for Novel Semantic Discovery

  • ETH Zurich
  • Autonomous Systems Lab

The overarching goal of this project is to enable robots that can continually and autonomously learn from their environment by adapting to novel environments and learn to identify new object categories. The established approach of supervised learning on large datasets always has problems with domain and sim-to-real gaps. This line of work therefore represents a shift towards learning during the robot’s mission, naturally removing any domain gaps but also reducing the amount of supervision that can be applied.

  • Intelligent Robotics
  • Master Thesis

Model Adaptation for Predictive Control in Aerial Manipulation

  • ETH Zurich
  • Autonomous Systems Lab

In this thesis we aim to improve a control framework to enable aerial physical manipulation of objects with onboard perception. To this end, we combine a sampling-based MPC approach with onboard sensing (e.g., RGBD camera) on a drone in order to update the internal controller model according to the perceived information.

  • Aerospace Electrical Systems, Flight Control Systems
  • Master Thesis
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