Final meeting DTU

Talks:

Thursday 16th of December

15:00 Rinaldo Trotta, Sapienza University of Rome (Italy) – On the role of multiphoton-emission in the generation of entangled photons from quantum dots

15:30 Tobias Huber, University Würzburg (Germany) – Advances in deterministic positioning techniques of single quantum dots in nanophotonic devices

16:00 Niels Gregersen, DTU (Denmark) – Modeling of hourglass and bullseye structures

16:30 Armando Rastelli, Johannes Kepler University Linz (Austria) – Polarization entangled photons from GaAs quantum dots at temperatures between 5 and 60 K

Friday 17th of December

09:30 Christian Schneider, Oldenburg University (Germany) – Excitonic quantum states in two dimensional materials

10:00 Ana Predojević, Stockholm University (Sweden) – High extraction efficiency source of photon pairs based on a quantum dot embedded in a broadband micropillar cavity

Olomouc takes part in two outreach events

In October we welcomed the participants of Den otevřených dveří – event intended for prospective students of STEM subjects. Few weeks later we took part in Přírodovědný jarmark an event open general audience, where one could chose from a range of activities including attending thematic talks, lab tours, or getting involved in simple scientific experiments.  

Hyper-entanglement from ultra-bright photon pair sources

We will fabricate and exploit an entirely novel photonic device platform for the generation of highly indistinguishable and entangled photon pairs with near-unity extraction efficiency.

The envisioned implementation consists of a quantum dot embedded in engineered photonic environment. We predict that this device will generate very high rate of polarization entangled photons pairs and, in combination with time-bin entanglement, hyper-entangled quantum states.

Last but not the least, we will investigate the performance of this device in both free space and fibre based quantum networks, getting therefore closer to the establishment of an operating quantum system for real-life quantum communication.