Scalability and integration are key factors for the realisation of practical quantum technologies. The Integrated Quantum Photonics Program, led by Dr. Nora Tischler at Griffith University, will develop these concepts in quantum optics by realising the technological infrastructure for large scale integrated optical devices with a computational complexity to outperform current classical computers. This program will implemented integrated quantum photonics circuits and high efficiency single photon detectors to develop fast, reconfigurable waveguide networks, integrated sources of non-classical light such as single photons and cluster states and high efficiency waveguide detectors.
People
- Dr. Nora Tischler Program Manager Griffith University
- Dr. Robert Cernansky Research Fellow Griffith University
- Paul Fisher PhD Student Griffith University
- Mr. Benjamin Haylock Research Fellow Griffith University
- Daniel Peace PhD Student Griffith University
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Featured publications
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2022 Roadmap on integrated quantum photonics
Journal of Physics-Photonics, 4, 012501 (2022)
Single Photon Frequency Conversion for Frequency Multiplexed Quantum Networks in the Telecom Band
Physical Review Letters, 127, 023602 (2021)
Squeezing in Lithium Niobate Waveguides
AOS AUSTRALIAN CONFERENCE ON OPTICAL FIBRE TECHNOLOGY (ACOFT) AND AUSTRALIAN CONFERENCE ON OPTICS, LASERS, AND SPECTROSCOPY (ACOLS), 11200, UNSP 1120012 (2019)
Integrated Optical Device for Frequency Conversion Across the Full Telecom C-Band Spectrum
Physical Review Applied, 13, 024017 (2020)
Feasibility study of a coherent feedback squeezer
Physical Review A, 101, 033802 (2020)
Fast electro-optic switching for coherent laser ranging and velocimetry
Applied Physics Letters, 115, 181103 (2019)
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