Prof. Dr. Nicolas Joly

  • Professor
  • Room: A 2.214
  • Tel.: +49 9131 7133 215
  • Email
  • Quantum optics: generation of non-classical light
  • Non-linear optics: generation of new frequencies and of low-noise supercontinuum
  • Applied science: developing fibre tools for real-time monitoring of chemical reactions and sensing with particle trapped inside hollow-core fibre

2007

Grating-free Raman laser using highly nonlinear photonic crystal fiber

S. Randoux, N. Y. Joly, G. Mélin, A. Fleureau, L. Galkovsky, S. Lempereur, P. Suret

Optics Express 15 16035-16043 (2007) | Journal | PDF

We demonstrate a Raman laser made from a grating-free highly-nonlinear photonic crystal fiber. The laser threshold power is lower than 600 mW and laser power characteristics recorded in experiments are accurately described from the usual simplest model dealing only with stationary evolutions of total optical powers [J. Opt. Soc. Am. 69, 803–807 (1979)]. In our theoretical treatment, reflectivity coefficients are fixed parameters, in strong contrast with procedures usually implemented to describe Raman fiber lasers made with fiber Bragg gratings. Experimental investigations of the spectral properties of our grating-free Raman fiber laser evidence that the shape of the Stokes power spectrum remains remarkably Gaussian whatever the incident pump power. Increasing the incident pump power induces a drift of the Stokes wavelength together with a broadening of the Stokes optical spectrum. Investigations on the role of light polarization on laser characteristics show that our grating-free Raman fiber laser behaves as a Raman laser made with a standard polarization maintaining fiber.

Bound soliton pairs in photonic crystal fiber

A. Podlipensky, P. Szarniak, N. Y. Joly, C. G. Poulton, P. St. J. Russell

OPTICS EXPRESS 15 (4) 1653-1662 (2007) | Journal

We demonstrate experimentally the formation and stable propagation of bound soliton pairs in a highly nonlinear photonic crystal fiber. The bound pairs occur at a particular power as the consequence of high-order soliton fission. They propagate over long distances with constant inter-soliton frequency and time separation. During propagation, the soliton self-frequency shift causes the central frequency of the pairs to move towards longer wavelength. The formation and characteristics of the bound soliton pairs are confirmed numerically. We believe this to be the first experimental observation of such bound soliton pairs. (c) 2007 Optical Society of America.

Scientific career

  • Since 2021: Head of the microstructured optical fibres independent research group at the Max-Planck Institute for the Science of Light in Erlangen, Germany
  • Since 2009: Associate professor at the Univ. of Erlangen-Nuremberg in Germany
  • 2005 – 2008: Maître de conférences at the Univ. of Lille in France

Education background

  • 2012: Habilitation at the Ecole Normale Supérieure of Cachan (France)
    Title: Supercontinuum generation using pulses propagating in photonic crystal fibres
    Defended in July. 10th 2012. Thesis adviser: Prof. Dr. Joseph Zyss.
  • 2002-2005: Post-doctoral fellow at the University of Bath (UK) in the group of Prof. Philip Russell
  • 1999-2002: PhD with honors (“Félicitations du jury”) at the laboratory of Physics of Lasers, Atoms, and Molecules (PhLAM) at the University of Lille (France)
    Title: Instabilities in pulsed mode-locked lasers: techniques for observation and control
    Defended on Sept. 23rd 2002. Thesis adviser: Prof. Dr. Serge Bielawski.

Awards & appointments

  • Since 2023: Advisor of the Erlangen Optica Student Chapter
  • Since 2021: Scientific coordinator of the Internation Max Planck School for the Physics of Light (IMPRS-PL)
  • Since 2020: Senior member of Optical Society of America (OSA)
  • Since 2019: Fellow of the Max Planck School of Photonics (MPSP) and member of the selection committee
  • Since 2016: Fellow of the Max Planck Center for Extreme and Quantum Photonics, Ottawa, Canada
  • 1999: MENRT scholarship from the French ministry of Research to perform his doctoral degree at the University of Lille from 1999 to 2002
  • 1998: Awarded a CIME scholarship from AUF (Agence universitaire de la Francophonie) to perform his Master study at Laval University (Québec) in 1998

Professional activities

  • 2024: Member of the Technical Program Committee for the SPIE Photonics Europe in Strasbourg
  • Since 2022: Associate Editor of Opt. Express
  • 2017: General chair of the 1st Sino-German symposium on fiber photonics for light-matter interaction in Shanghai, China
  • 2017 – 2018: Member of the Technical Program Committee for SPIE UV and higher energy photonic
  • 2013 – 2017: Member of Technical Program Committee for CLEO US (OSA)
  • 2015: co-Chair of the 2nd Siegman International School of Laser (OSA)
  • Since 2015: Member of the Technical Program Committee for WSOF (OSA) in Hong-Kong (2015), Limasol in Cypris (2017), Adelaide in Australia (2022), and in Prague in Czech Republic (2025)
  • Since 20214: Member of the Student Commission of the internation Master of Advanced Optics and Technologies (MAOT)
  • 2013: Topical session at PIERS (Progress in Electromagnetics Research Symposium) in Stockholm
  • 2011: International conference on Nonlinear optics and complexity in photonic crystal fibers and nanostructures in Erice, in Sicily
  • 2011: 14th International SAOT workshop on Fiber laser, sensors and materials at Reicheschwand, Germany
  • Since 2009: External expert for the evaluation of proposals from ANR (National agency of research in France), the Polish Society of Science, DFG (National agency of research in Germany) and ERC (European Research Council)
  • Since 2009: Supervisor of 13 PhD students, 2 post-docs, 14 MSc students

Ongoing projects

  • DFG project JO 1090/8-3 – OrbitFlySens [FAU]
    Orbiting flying particle sensor (with Bernhard Schmauß, FAU) – 2025-2028
  • BayFrance FK-34-2024 [FAU]
    Real-time detection of Terahertz signals using ultrashort lasers
    Mobility allowance – collaboration with University of Lille - 2025
  • BayFrance FK-35-2024 [FAU]
    Exploring chiral fibers for new-type of polarization-resolved endoscopy
    Mobility allowance – collaboration with University of Marseille – 2025
  • DFG project JO 1090/3-2 – Photon Triplets [FAU]
    Generation of photon triplets via three-photon parametric down-conversion (with Maria Chekhova) – 2024-2027
  • QuNet beta [MPL]
    2021-2026
  • Max-Planck-School of Photonics (MPSP) [FAU]
    2019-2025

Finished projects

  • SFB – QuCoLiMa [FAU]
    Levitated ferrimagnetic particles in hollow-core photonic crystal fibres -2021-2025
  • DFG project JO 1090/6-1 -Twin Beams [FAU]
    Fiber source of entangled photons with giant tunable frequency separation (with Maria Chekhova) - 2021-2024
  • DFG project JO 1090/4-1 – Rydbergatoms in photonic crystal fibres [FAU]
    (with Robert Löw, University of Stuttgart) - 2019-2023
  • BayFrance FK-29-2018 [FAU]
    Frequency conversion of single-photon quantum sources using gas-filled hollow-core photonic crystal fibres
    Mobility allowance – collaboration with LKB, Ens Paris, France - 2018
  • DFG project JO 1090/3-1 – Photon Triplets [FAU]
    Generation of photon triplets via three-photon parametric down-conversion (with Maria Chekhova) – 2017-2020
  • BayFrance FK-38-2013 [FAU]
    Dynamical instabilities in photonic crystal fiber ring cavities synchronously pumped by femtosecond pulses
    Mobility allowance – collaboration with University of Lille, France - 2013-2014

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