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Alexander Lvovsky

Professor

Research theme

  • Quantum optics & ultra-cold matter

Sub department

  • Atomic and Laser Physics

Research groups

  • Quantum and optical technology
alex.lvovsky@physics.ox.ac.uk
Telephone: +44 (0)1865 272275
Clarendon Laboratory, room 512.40.26
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  • About
  • Publications

Passive optical superresolution at the quantum limit

Optica Optica Publishing Group (2026)

Authors:

Alexander Lvovsky, Michael Grace, Saikat Guha, Mankei Tsang, Gerardo Adesso, Nicolas Treps
More details from the publisher

Passive Imaging with Quantum Advantage

(2026)

Authors:

Li Gong, Aonan Zhang, Madhura Ghosh Dastidar, Alexander Duplinskii, AI Lvovsky
More details from the publisher
Details from ArXiV

Diffractive neural networks for mode-sorting with flexible detection regions

Optics & Laser Technology Elsevier 195 (2026) 114544

Authors:

Kaden Bearne, Alexander Duplinskiy, Matthew J Filipovich, AI Lvovsky

Abstract:

Mode-sorting is a procedure that decomposes a light field into a basis of transverse modes, directing each mode into a separate spatial location, allowing the constituent mode intensities to be measured simultaneously. We demonstrate a mode-sorter based on a diffractive optical neural network and show that it is advantageous to include the output detection regions in the trainable set of parameters of that network. This approach outperforms traditional mode-sorting methods, achieving lower crosstalk levels for the same efficiency. For example, in sorting 25 Hermite-Gaussian modes with a 3 plate sorter, at 12 % efficiency, the experimentally measured crosstalk decreases from 37.5 % for fixed detection to 8.7 % for flexible detection.
More details from the publisher
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Time Crystals as Passively Protected Oscillating Qubits

(2026)

Authors:

Mert Esencan, AI Lvovsky, Berislav Buča
More details from the publisher
Details from ArXiV

A nanoscopic light swing

Newton Elsevier 1:5 (2025) 100164

Abstract:

Large arrays of optical parametric oscillators can solve combinatorial optimization problems with potential quantum advantage but are challenging to realize. Gray et al. developed a photonic chip with this capability and elaborated a method to bring these oscillators into controllable interaction, opening new possibilities in quantum and classical optical computing.
More details from the publisher

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