activity
20232025
most citedPhoto-dynamics of quantum emitters in aluminum nitride

8 citations · 33 across the 6 of their papers we have counts for

collaborators

6 papers

quant-ph2025★ 1 cited

Tunable multi-photon correlations from a coherently driven quantum dot

Thomas K. Bracht, Rachel N. Clark, Petros Androvitsaneas +7

Mixing the fields generated by different light sources has emerged as a powerful approach for engineering non-Gaussian quantum states. Understanding and controlling the resulting p…

quant-ph2024★ 3 cited

Measuring photon correlation using imperfect detectors

Rachel N. Clark, Sam G. Bishop, Joseph K. Cannon +4

Single-photon detectors are ``blind" after the detection of a photon, and thereafter display a characteristic recovery in efficiency, during which the number of undetected photons…

cond-mat.mes-hall2024★ 7 cited

Probing Purcell enhancement and photon collection efficiency of InAs quantum dots at nodes of the cavity electric field

Matthew Jordan, Petros Androvitsaneas, Rachel N Clark +4

The interaction of excitonic transitions with confined photonic modes enables tests of quantum physics and design of efficient optoelectronic devices. Here we study how key metrics…

physics.optics2023★ 8 cited

Photo-dynamics of quantum emitters in aluminum nitride

Yanzhao Guo, John P. Hadden, Rachel N. Clark +2

Aluminum nitride is a technologically important wide bandgap semiconductor which has been shown to host bright quantum emitters. In this paper, we probe the photodynamics of quantu…

physics.optics2023★ 6 cited

Evanescent-field assisted photon collection from quantum emitters under a solid immersion lens

S G Bishop, J K Cannon, H B Yagci +4

Solid-state quantum light sources are being intensively investigated for applications in quantum technology. A key challenge is to extract light from host materials with high refra…

physics.app-ph2023★ 8 cited

Direct-write projection lithography of quantum dot micropillar single photon sources

Petros Androvitsaneas, Rachel N. Clark, Matthew Jordan +8

We have developed a process to mass-produce quantum dot micropillar cavities using direct-write lithography. This technique allows us to achieve high volume patterning of high aspe…