Invited speakers | Conference Program | Instructions for authors
Invited speakers
 | Keynote: Integrated and nonlinear quantum optics Professor Roberto Morandotti, INRS |
| Roberto Morandotti, Professor at INRS-EMT since 2008, has a broad knowledge in the field of photonics, ranging from the fabrication of integrated devices to the use of state-of-the-art optical characterization techniques in the Infrared and Terahertz frequency domains. During the last years, he has established a novel and very successful line of research in nonlinear optics and integrated photonics. Read more |
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 | Visible light integrated photonics Professor Joyce Poon, University of Toronto |
| Joyce Poon is a Professor of Electrical and Computer Engineering at the University of Toronto, Director of the Max Planck Institute for Microstructure Physics, and Honorary Professor of Electrical Engineering and Computer Science at the Technical University of Berlin. She and her team specialize in integrated photonic devices and circuits for communications and neurotechnology. She received the PhD and M.S. in Electrical Engineering from the California Institute of Technology in 2007 and 2003 respectively, and the BASc in Engineering Science (physics option) from the University of Toronto in 2002. Read more... |
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 | Progress in electronic-photonic integrated circuits and systems: platforms, devices and applications Professor Miloš Popović, Boston University |
| His research areas are: Theory, design and experimental demonstration of integrated photonic and optoelectronic devices; silicon photonics CMOS electronics-photonics integration; integrated electronic-photonic systems-on-chip, Nonlinear integrated photonics, Quantum integrated photonic circuits and Phononic, acousto-optic, optomechanical and light-force based nanoscale devices. Read more |
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 | Waveguide amplifiers in Si3N4 by ion implantation of erbium Dr. Yang Liu, EPFL |
| Yang Liu joined the Laboratory of Photonics and Quantum Measurements (LPQM) in EPFL as a postdoctoral researcher in December 2020, holding a Marie Skłodowska-Curie Individual Fellowship. He worked in the nonlinear photonics group lead by Benjamin Eggleton at CUDOS, and received his Ph.D in physics from University of Sydney, Australia in mid 2019. Read more | |
 | Integrated programmable photonics Dr. Daniel Pérez López, Universidad Politécnica de Valencia |
| I hold a BSc, MSc and PhD degrees In Telecommunications Engineering from the Universitat Politècnica de València and I’m full-time working in the Photonics Research Labs. My research embraces integrated photonics, focusing on programmable photonic processors. I have been involved in several research projects and published around 20 contributions in international referred journals and conferences. Read more | |
 | Integration of quantum light sources, circuits and superconducting detectors on nanophotonic chips Professor Carsten Schuck, Munster University |
| The vision of our research is centered around a versatile quantum technology platform on silicon chips that allows for realizing applications in quantum communication, quantum information processing and quantum sensing. We pursue this goal by leveraging modern nanofabrication capabilities for integrating quantum emitters and superconducting nanowire single photon detectors (SNSPD) with reconfigurable nanophotonic circuits. Read more |
Conference Program
You can download the complete program here.
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| 11:30 | 14:00 | Registration and Pick up bikes | |
| 14:00 | 14:30 | Opening ceremony | |
| 14:30 | 15:30 | Progress in electronic-photonic integrated circuits and systems: platforms, devices and applications Professor Miloš Popović, Boston University |
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| 15:30 | 16:00 | ||
| 16:00 | 17:00 | TOP SCORING SESSION | |
| Platforms Micro-transfer-printed O-band GaAs QD-on-Si DFB Laser on an advanced silicon photonics platform. Jing Zhang. |
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| Devices Ultrafast frequency-agile narrow-linewidth lasers using lithium niobate integrated photonics. Viacheslav Snigirev |
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| Physical Insights Spectrally Programmable Individual Color Centers in Silicon Waveguides. Carlos Erando Herranz |
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| Applications Fully Integrated Quasi-Coherent Receiver Based on Co-hosted InP PIC and a SiGe ASIC. Francisco Rodrigues |
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| 17:15 | 18:30 | Opening of the exhibition session | |
| 18:30 | 19:30 | Panel discussion | |
| 19:30 | Reception | ||
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| 09:30 | 10:30 | Integrated photonic technologies and platforms | Devices and Integrated Circuits |
| Th1.1 Invited Waveguide amplifiers in Si3N4 platform. Liu Yang | Th2.1 First experimental demonstration of a Generalized Mach-Zehnder Interferometer on Si3N4. Stefanos Kovaios. |
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| Th1.2 Optical gain via multi-layer monolithic integration of Si3N4 with Al2O3:Er3+ waveguide amplifiers. Carlos Osornio. | Th2.2 Reverse Synthesis for the Configuration of Coupled Ring Resonators. Xiangfeng Chen. |
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| Th1.3 Broadband and large mode-area on-chip amplifier. Mahmoud Gaafar. | Th2.3. Demonstration of nano-pixel 9:1 asymmetric power splitter. Haisong Jiang |
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| Th2.4 Demonstrating Bidirectional Coupling Using a Monolithically Integrated Tunable Comb Source. John McCarthy | |||
| 10:30 | 11:30 | ||
| 11:30 | 12:30 | Integrated photonic technologies and platforms | Devices and Integrated Circuits |
| Th1.4 Invited. Integration of quantum light sources, circuits and superconducting detectors on nanophotonic chips. Carsten Schuck. | Th2.5. Subwavelength metamaterial grating couplers on silicon nitride platform. Daniel Benedikovic. | ||
| Th1.5. Fiber-coupled plug-and-play heralded single photon source based on Ti:LiNbO3 and polymer technology. Christian Kießler. | Th2.6. Integrated four channel wavelength multiplexer in Thin Film Lithium Niobate for CWDM 400G/800G short reach communications. Giuseppe Cusmai. | ||
| Th1.6. Programmable photorefractive optical synapses in integrated photonics for neuromorphic computing. Elger A. Vlieg. | Th2.7. Thermo-optically Tunable DBR Resonator with Ultra-broad Rejection Band for Silicon Photonic Applications. Pratyasha Priyadarshini | ||
| Th2.8. Ultra-high resolution on-chip reconstructive spectrometer. Chunhui Yao | |||
| 12:30 | 13:30 | ||
| 13:30 | 14:15 | Women in Photonics | |
| 14:15 | 15:15 | Integrated photonic technologies and platforms | Applications of PICs |
| Th1.7. Invited. Glass integrated photonics. Jean-Emmanuel Broquin. | Th2.9 Soliton generation in a gallium phosphide photonic crystal cavity. Alysa Davydova. | ||
| Th1.8. Damage Resistant Diced Waveguides in Ti-Indiffused Lithium Niobate for Second Harmonic Generation. Michelle Kirsch. | Th2.10. Demonstration of low RMS differential phase noise across C-band for integrated, amplifying optical phased arrays. Shiva Vikram Bhagavatula | ||
| Th1.9. Monolithic CMOS sample & hold circuit for sequential control of volatile actuators in Silicon Photonics. Francesco Zanetto. | Th2.11 Sub-kHz linewidth, high power, frequency agile photonic integrated E-DBR laser. Anat Siddharth | ||
| Th2.12 Unconventional Optical Phased Array Antennas Integrated in a Programmable Photonic Integrated Circuit. Nicola Anselmi. | |||
| 15:15 | 16:30 | ||
| 16:30 | 17:45 | Devices and Integrated Circuits | Applications of PICs |
| Th1.10. Suspended Gallium Arsenide Electro-Optic Racetrack Ring Modulator. Haoyang Li. | Th2.13. Invited. Astrocomb miniaturization. Ewelina Obzrud | ||
| Th1.11. Thermal Stabilization of Micro-ring Modulator using a Monolithically Integrated Analog Feedback Circuit. Vaibhav Ruparelia. | Th2.14. A Photonic Integrated High-power Soliton Microcomb Generator. Xinru Li. | ||
| Th1.12. Phase modulation in a Compact 8-channel Loop-back AWG based Integrated Comb Processor. Louw Roel van der Zon. | Th2.15. Thermally controlled frequency comb generation in hybrid silicon quantum dot lasers. Thibaut Renaud. | ||
| Th1.13. 1 GHz integrated electro-optical modulator in the 5.5-9 µm wavelength range. Thi Hao Nhi Nguyen | Th2.16. Electro-Optic Packaging of Silicon Photonics-Based RF Multiplier for Clock Signal Generation in the Millimeter-Wave Band. Claudio Porzi | ||
| Th1.14 Intra-Cavity Coherently Combining of DBR Lasers on an InP Generic Foundry Platform. Rakesh Ranjan Kumar. | |||
| 19:00 | |||
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| 08:45 | 09:30 | Keynote 2 Integrated Photonics for Quantum and Artificial Neural Networks-based Signal Processing, Roberto Morandotti |
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| 09:30 | 10:30 | Devices and Integrated Circuits | Novel physical insights and materials |
| F1.1 Invited. 20-mode Quantum Photonic Processor as an industrial product. Michiel de Goede. | F2.1 Magneto-optical properties of e-beam evaporated EuS films for room temperature applications. Frank Somhorst | ||
| F1.2. Fully On-chip Laser-integrated Entangled Photon Pair Source. Michael Kues. | F2.2. Supersymmetric Compactification and Higher-Dimensional Rearrangement of Photonic Lattices. Tom Wolterink | ||
| F1.3. Frequency agile SiN-MEMS photonic integrated external cavity laser. Andrea Bancora. Grigory Lihachev. | F2.3. Investigations on Brillouin and Kerr properties of a low-index silicon oxynitride platform. Kaixuan Ye | ||
| F2.4. Enhanced Frequency Noise Discrimination Using Cavity-coupled Mach-Zehnder Interferometer. Mohamad Hossein Idjadi | |||
| 10:30 | 11:30 | ||
| 11:30 | 12:30 | Devices and Integrated Circuits | Integrated photonic technologies and platforms |
| F1.4. Invited. Integrated programmable photonics. Daniel Pérez López. | F2.5. Development of an integrated optical sensor on chalcogenide glasses and on porous silicon for the mid-infrared spectroscopy. Sofiane Meziani. | ||
| F1.5. Photonic memory based on VO2/Si technology. Jorge Parra. | F2.6. Integrated White-Light Interferometry for rapid dispersion and index measurements of InP waveguides. Amer Bassal. | ||
| F1.6. A memristor-controlled multilevel non-volatile phase shifter for photonic integrated circuits. Felix Hermann. | F2.7. High-power CW >100 mW SOAs for active-passive integration. Andrzej Jankowski. | ||
| F1.7. 1x4 Vertical Power Splitter/Combiner: A Basic Building Block for Complex 3D Waveguide Routing Networks. Madeleine Weigel. | F2.8. Temperature stabilization techniques for High Stability LO Generation using a Hybrid Integrated Dual InP-Si3N4 Laser Source. Alberto Zarzuelo. | ||
| F2.9 Characterisation and mitigation of surface related optical loss in suspended GaAs photonic integrated circuits. Robert Thomas. | |||
| 12:30 | 14:15 | ||
| 14:15 | 15:15 | Devices and Integrated Circuits | Applications of PICs |
| F1.8. C-Band Apodized Chirped Gratings in Aluminum Oxide Strip Waveguides. Milan Sinobad. | F2.10 Integrated Photonic Processor Enabling Dynamic Mitigation of Turbulence-Induced Scintillation in an Optical Free Space Link. Andres Martinez | ||
| F1.9 Lasing in a Neodymium-doped Aluminium Oxide Taiji Resonator. Dahnée Wojcik. | F2.11 Miniature and non-contact photoacoustic system using silicon photonics-based Laser Doppler Vibrometer and compact excitation source. Emiel Dieussaert | ||
| F1.10. Accurate, high-speed tuning of an ultra-narrow linewidth external cavity laser. Wilson Tsong | F2.12 Integrated Microwave Photonic Receiver for Radar Applications. Federico Camponeschi | ||
| F1.11 A hybrid photonic integrated signal source with >1.5 THz continuous tunability and <0.25 GHz accuracy for mmW/THz applications. Tianwen Qian | F2.13 Automatic mitigation of tilt and phase-front distortions in multichannel chip-to-chip free-space optical links. SeyedMohammad SeyedinNavadeh | ||
| 15:15 | 16:30 | ||
| 16:30 | 17:00 | Closing ceremony | |
| 17:00 | Return bikes/ Labs and company visits (optional) | ||
Instructions for authors
Oral Sessions
The presentation times for oral sessions are as follows:
- contributed talks 15 minutes
- invited talks 30 minutes
Please consider that each presentation should include 3 minutes for Q&A.
Presenters and chairs should meet 20 minutes before the beginning of their session in the room indicated in the programme.
Presentation should be prepared in MS PowerPoint or in PDF format and uploaded directly in the assigned conference room before the beginning of the session.
A 16:9 FullHD video projector and a PC are available in conference rooms as well as a remote controller with laser pointer. We suggest preparing presentation in 16:9 format, however 4:3 would be also acceptable. Videos included in the presentation are recommended to be in WMV and AVI formats.
Poster Sessions
Poster boards are in vertical/portrait format and their size is A0 (W: 841 mm x H: 1189 mm).
Every poster-holder will display the paper number. All materials necessary for fastening the posters are provided by the organizers and are available in the poster area. Presenters are asked to set up their poster during the coffee break preceding the poster session.
Presenters should display paper titles, lists of authors and author affiliations on their posters.
Presenters are required to be available for discussion during the scheduled poster session. After the end of the session, presenters are asked to remove their own poster. The organizing committee does not take responsibility for posters left unattended after the end of the session.