MiReQu  | MIXED REALITY LEARNING ENVIRONMENT TO PROMOTE PROFESSIONAL COMPETENCE DEVELOPMENT IN QUANT TECHNOLOGIES |  AN INTERAKTIVE EXPERIMENT  |  HAW HAMBURG AND WWU MÜNSTER

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| Mixed reality learning environment to promote professional competence development in quant technologies | Subproject: Design concept and design development of modular, interactive mixed reality teaching environments for 2D and 3D output devices to support real experiments in quantum optics. | DIGITAL INTERAKTIVE EXPERIMENTS | developed by the science illustration of HAW HAMBURG,  the didactics of physics and the experimental physics of the WWU MÜNSTER 

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MiReQu

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Experiments on polarized light

Diagrams show the effect of the components on the laser beam and visually prepare the measurement data. The application is divided into didactically sequential chapters. Each partial experiment can also be performed indepen-dently of the others.

In the four chapters, a polarization profile is first characterized, Malus' law is verified, a half-wave plate is examined, and the behavior of a beam splitter is tested. Currently, this teaching application is offered in the basic practical course of the physics program at the WWU in Münster.

The entanglement of quanta is demonstrated in this experiment via a probability calculation.  John Steward Bell developed in 1964 the "Bell's Inequality", by whose violation the entanglement of two photons and the non-local causality of this entanglement can be proved. Stuart Freedman and John Clauser, confirmed Bell's theorem experimentally in 1972.

Experiments

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Polarisation

Impressum

Literature

Entanglement

The experiments on "polarized light" enable virtual, interactive experimentation on a model that corresponds to a real experimental setup at the WWU Münster.  Qualities of light that are invisible in reality are dynamically calculated for the Web3D representation. 

Experiments for the detection of quantum entanglement

In the Web3D application, measurement data from the identical setup of the experiment at the WWU in Münster are computed. Interactive visualizations and information enhance the experiment.  Parametric fluorescence (Spontaneous Parametric Down-Conversion) generates a few entangled photons, which are captured and measured in the experiment.

A stationary version of the application is coupled with the experiment on site: data and settings of the real experiment are immediately transferred to the Web3D application. An augmented reality version projects all visual extensions, measurement slides and descriptions onto the real experiment using AR glasses.

Experiments

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Polarisation

Entanglement

Impressum

Literature

Entangelment

Prof. Dr. rer. nat. Wolfram Pernice, Ordinarius Kirchhoff Institute for Physics University Heidelberg Prof. Dr. rer. nat. Carsten Schuck; Prof. Dr. rer. nat. Stefan Heusler, University of Münster, Institute for Didactics of Physics Prof. Dipl.-Des. Reinhard Schulz-Schaeffer, University of Applied Sciences Department Design, Science Illustration Paul Schlummer; Dr. Daniel Laumann; Prof. Dr. Stefan Heusler M.Sc.Adrian Abazi; Prof. Dr. Carsten Schuck; Prof. Dr. Wolfram Pernice M.A. Jonas Lauströer; Dipl.-Des. Jochen Stuhrmann; Reinhard Schulz-Schaeffer Jonas Lauströer; Reinhard Schulz-Schaeffer Adraian Abazi; Carsten Schuck Jonas Lauströer; Reinhard Schulz-Schaeffer Jonas Lauströer Jonas Lauströer; Adrian Abazi The application was created in Blender3D/Armory3D and Tumult Hype.

Polarisation

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Impressum: Editors: Didactic concept: Physical conzeption: Design conzeption: Science Illustration / UI-Design: Physical setups: Dramaturgy: 3D-Szenography, 3D-models, Animation: Media programming: Software: Licence:

Experimente

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