Teaching Quantum Optics and Quantum Cryptography with Augmented Reality Enhanced Experiments

Abazi, Adrian; Schlummer, Paul; Lauströer, Jonas; Stuhrmann, Jochen; Borkamp, Rasmus; Pernice, Wolfram; Schulz-Schaeffer, Reinhard; Heusler, Stefan; Laumann, Daniel; Schuck, Carsten

Forschungsartikel in Sammelband (Konferenz) | Peer reviewed

Zusammenfassung

Recently, the Nobel Prize in physics was awarded for experiments with entangled photons, pioneering quantum technologies. To meet the growing demand of this field by furthering scientific comprehension of quantum physics and quenching misconception, especially about entanglement, new teaching approaches are required. Addressing this, we present a mixed reality quantum learning environment, by integrating commercially available AR-Headsets with a quantum optics setup for photon-pair generation and bell measurements. Students measure Bells inequality and conduct a version of the Ekert 91 quantum key distribution protocol. Simultaneously, visualizations of the underlying models and measurement results are rendered as holograms on appropriate locations of the optics setup. Dedicated actions, such as choosing a measurement basis, are reflected in the visualizations in real time. The learning environment has been implemented and is tested in undergraduate lab-courses. The components and software of the environment have been chosen to ease modifications and transfer.

Schlüsselwörterquantum technologies; quantum physics;photon-pair generation; bell measurements; Ekert 91 quantum key distribution protocol

Autor*innen der Universität Münster

Schuck, Carsten
Professur für Experimentelle Physik (Prof. Schuck)
Schlummer, Paul
Institut für Didaktik der Physik
Heusler, Stefan
Professur für Didaktik der Physik (Prof. Heusler)
Pernice, Wolfram
Professur für Experimentalphysik mit der Ausrichtung Physik responsiver Nanosysteme (Prof. Pernice)
Laumann, Daniel
Institut für Didaktik der Physik
Abazi, Shqiprim Adrian
Professur für Experimentelle Physik (Prof. Schuck)

Details zur Publikation

Herausgeber*innenDPG
BuchtitelQ 23 Optomechanics I & Optovibronics
Seitenbereich1-1
ArtikelnummerQ 23.7
VerlagDeutsche Physikalische Gesellschaft
VeranstaltungHannover
StatusVeröffentlicht
Veröffentlichungsjahr2023
Konferenzname𝗗𝗣𝗚 𝗦𝗽𝗿𝗶𝗻𝗴𝗺𝗲𝗲𝘁𝗶𝗻𝗴 𝟮𝟬𝟮𝟯, Hannover, Deutschland
Link zum Volltexthttps://www.dpg-verhandlungen.de/year/2023/conference/samop/part/q/session/23/contribution/7