Remotely controllable Michelson interferometer with digital twin (XR TwinLab).

XR TwinLab

Extended Reality (XR) web-based application to control real-world optical experimental setups in our labs.
Remotely controllable Michelson interferometer with digital twin (XR TwinLab).
Image: Jari Domke and Falko Sojka.
Laser mount with remote controlable actuators.
Laser mount with remote controlable actuators.
Image: Fabian Lukas

Remote labs are a trendsetting way of teaching, communicating, and experiencing science as well as enabling collaborative work. Unfortunately, the implementation of remote access involves a cost-intensive development or at least requires a certain technical skillset. To establish remote labs across disciplines, especially outside the field of IT and engineering, the technical access threshold must be low enough to support a self-contained implementation by researchers, assistants, and technical staff.

Hereby, we have developed the open-source toolbox XR TwinLab (XRTL) for the research field of photonics. XRTL provides a modular way of building a web-based application to control optical experimental setups with the integration of VR and AR endpoints.

Information

Try out the application yourself!

XRTL Michelson Interferometer Browser AppExternal link

XRTL Showcase at the ACP
XRTL Showcase at the ACP
Image: Fabian Lukas

Links

Find all the information about the development process and how to create your own XRTL:

Current XRTL projects

XRTL Logo
XRTL Logo
Image: Fabian Lukas

The digitalization Team of the ASP is currently working hand in hand with the Lichtwerkstadt to create several XRTL experiments, including:

  • XR TwinLab Showcase (operating)
  • XR TwinLab Michelson Interferometer (operating)
  • XR TwinLab Adaptive Optics (work-in-progress)
  • XR TwinLab Fundamentals (work-in-progress)
  • XR TwinLab Quantum Cryptography (planned)

User Interface

User interface of the XRTL experiment Adaptive optics with highlighted control elements and activated beam path overlay.
User interface of the XRTL experiment Adaptive optics with highlighted control elements and activated beam path overlay.
Screenshot: Fabian Lukas

The user interface features a detailed 3D model of the real-world experiment, which serves both as a visualisation and for controlling the individual components.

Video: Falko Sojka

This demonstration shows the typical use case of the XRTL web app. After logging in, users can arrange the control elements as they wish and observe the effects of their inputs on the experimental setup in real time.

Contact

Falko SOJKA
Falko SOJKA
Image: Private

Dr. Falko SOJKA 

Phone:         +49 3641 9-47578
Email:          falko.sojka@uni-jena.de

Digitalization of the MSc Photonics course and optics labs

Abbe Center of PhotonicsExternal link - Office 202