Skip to content
  • de
  • en
  • Chair of Astronautics
  • TUM School of Engineering and Design
  • Technical University of Munich
Technical University of Munich
  • Home
  • Archived Research
    • Robotic Operations
      • RacoonLab
      • Geriatronics
      • CopKa
        • Satellite communication
        • Teleoperation
        • Operational concept
      • SAINT
      • Completed Projects
        • LISA
        • FORROST
        • Space Mechanism
        • LINKA
        • Third Eye
    • Exploration Technologies
      • AllBert EinStein
      • ALPHA
      • BLTAS
      • Lunar Volatiles Scout
      • PROSPECT & PROSPECT Science Team
      • TherMoS
      • Micrometeoroids II
      • Micrometeoroids I
      • Development of particle launchers
      • V-Hab
      • LiSTOT
      • Completed Projects
        • MARVIN
        • LUISE & LUISE-2
        • LUISE-2
    • Satellite Technology
      • CubeSats
        • First-MOVE
        • MOVE-II
        • MOVE-III
      • Spacecraft Mechanisms
      • Satellite Communications and Operations
        • MFG
      • Concluded Projects
  • Publications
    • Dissertations
    • Student Theses
    • Publications
  • Alumni
  • Fascination of astronautics
    • Informationen zur ESA Astronautenauswahl 2021
    • Wie wird man Astronaut?
    • ESA Astronaut Selection Campaign 2008
    • Aus dem D-2 Tagebuch von Ulrich Walter
    • Milestones of Astronautics
    • Prof. Harry Oskar Ruppe
    • Stars and Cosmos
  1. Home
  2. Archived Research
  3. Robotic Operations
  4. CopKa
  5. Teleoperation

Robust and safe teleoperation

Contact: Nicolas Zunhammer, Maximilian Prexl

In addition to a functioning communication architecture, it is essential in the CopKa project that the dispatcher can easily control the UAV during deployment. For this purpose, the dispatcher must be able to operate the aircraft intuitively and without lengthy training and be able to process information quickly. It is necessary to investigate the interaction between the capabilities of the UAV, the latency of the communication link and the HMI in the control center. To this end, new operating peripherals such as a commercially available VR system (HTC Vive) and the use of two monitors with a space mouse for simpler operation were investigated in several studies.

Scene from the accident scenario in the user study for investigating VR and 3D reconstruction for intuitive control of a UAV

In addition to the new peripherals, new methods are also used to facilitate teleoperation. These include real-time 3D reconstruction to increase the dispatcher's situational awareness. The resulting 3D reconstruction can then be used to pre-calculate the trajectory of the UAV to prevent early collisions by the operator. The work focuses on the research of suitable reconstruction algorithms in real time and the development of a robust and efficient predictive conflict handling in order to intercept collisions or unauthorized movements.

To top

Chair of Astrodynamics

Prof. Dr. Marcello Romano

New site address: 
Willy-Messerschmitt-Str. 11,
82024 Taufkirchen 
Germany

Old site address: 
Boltzmannstr. 15, 
85748 Garching, Germany

marcello.romano(at)tum.de

  • Privacy
  • Imprint
  • Accessibility