3D Printed Optical Waveguide Structures with Microdiamonds containing NV Centers

Peters, Marina; Abazi, Adrian; Wendland, Daniel; Buskasper, Tim; Lindloge, Lara; Gregor, Markus; Schuck, Carsten

Poster | Peer reviewed

Zusammenfassung

Quantum technology holds great potential for novel communication, computation and sensing concepts, however, current approaches do not easily scale to large system size. Integrated photonics offers possibilities to address such scaling challenges by leveraging modern nanofabrication processes for implementing complex nanophotonic circuitry. Here we show how nitrogen vacancy centers in diamond, as a prototypical quantum system, can be embedded into optical waveguides that allow for optical excitation and fluorescence collection. We achieve this by employing a lithographic positioning technique for microdiamonds on a silicon chip, which are subsequently integrated into polymer waveguides, produced in 3D direct laser writing. Our method allows for producing hundreds of devices with waveguide-integrated quantum systems on a chip, which can be addressed and read out via optical fiber arrays.

Details zur Publikation

ArtikelnummerQ 59.62
StatusVeröffentlicht
Veröffentlichungsjahr2023
KonferenzDPG Springmeeting 2023, Hannover, Deutschland
Link zum Volltexthttps://www.dpg-verhandlungen.de/year/2023/conference/samop/part/q/session/59/contribution/62
StichwörterIntegrated photonics; complex nanophotonic circuitry; nitrogen vacancy centers in diamond; prototypical quantum system;optical excitation; fluorescence collection;3D direct laser writing; waveguide-integrated quantum systems;

Autor*innen der Universität Münster

Abazi, Shqiprim Adrian
Professur für Experimentelle Physik (Prof. Schuck)
Schuck, Carsten
Professur für Experimentelle Physik (Prof. Schuck)
Münster Nanofabrication Facility, MNF (MNF)
Wendland, Daniel
Professur für Experimentalphysik mit der Ausrichtung Physik responsiver Nanosysteme (Prof. Pernice)