Workshops

Biomedical-lmaging-Spectroscopy


lntro.: lmaging and spectroscopy are important tools for biomedical diagnosis. With the common goals to see clearly, reach deeper, with higher speed and more sensitive specificity, researchers with photonics background work closely with scientist/medical doctors with clinical background. This workshop aims to bring together researchers to create synergy in this important multi-disciplinary research area. Latest technology development in the area of optical imaging, optical spectroscopy and spectro-imaging for biomedical applications will be covered in this workshop. The potential and challenges of these diagnosis tools in clinical settings will be discussed as well.


Presider:

Yinmei Feng, Capital Medical University

Lingjie Kong, Tsinghua University

 

Speakers:

Derrick Yong, Traversing the Translational Biospectroscopy Spectrum: from Lab to Clinic, Asia and Beyond

Oliver Heckl, Single-cavity Dual-comb for Spectroscopy and Ranging Applications

Tian Zhen, THz Photoacoustics and Optical Photoacoustic Remote Sensing for Potential Biomedical Applications

Guanghui Wang, Optical Spectrum Detection Techniques in Microfluidic System for Biological Applications

Fucai Zhang, Recent Progress of Wavefront Modulation Based Coherent Diffraction Imaging Methods

Hui Li, Optical Clearing and Aberration Correction Empower Two-photon Microscopy for Instant Deep-Tissue Histological Mapping

Lei Xi, Photoacoustic Microscopy of Brain Functions

Liwei Liu, Nonlinear Optical Microscopy and Its Applications

Qiuqiang Zhan, Break the Unbroken Limits Toward Super-resolution Microscopy Using Photon Upconversion

Xiaojun Yu, Speckle Reductions in Optical Coherence Tomography



 

Active Devices on Thin-film Lithium Niobate Platform


lntro.: Active devices in thin-film lithium niobate enable on-chip light generation, amplification and nonlinear processing, which are essential for a fully integrated photonic circuit. In this workshop, we report and discuss the latest research progress on active devices on rare earth ion doped, hybrid and/or nonlinear thin-film lithium niobate platforms.


Chairs:

Kan Wu, Shanghai Jiao Tong University;

Di Zhu, IMRE, A*STAR Singapore;

Zhiwei Fang, East China Normal University

 

Speakers:

Qiang Lin, Development of Active Photonics Functionalities on The Thin-Film Lithium Niobate Platform

Linbo Shao, Integrated Acousto-optics Using Lithium Niobate Platform

Mengjie Yu, Ultrafast Pulse Sources on LN

Aaron Danner, Thermo-optics in Thin Film Lithium Niobate

Xiankai Sun, Etchless Lithium Niobate Integrated Photonic Circuits and Devices

Jinxong Xia, Photonic Devices on Thin-Film Lithium Niobate for Nonlinear

Zhenda Xie, A Scheme for Deterministic N-photon State Generation Using Lithium Niobate on Insulator Device

Yuanlin Zheng, Second-order Nonlinearities on The Lithium Niobate-On-Insulator Platform

Rachel Grange, Thermo- and Electro-optic Modulators from Visible to Near Infrared

Hui Hu, Single-crystal Lithium Niobate Thin Film Materials and Technologies

Feng Chen, Self-powered Lithium Niobate Thin-Film Photodetectors

Huihui Hu, Microstructured Litihium Niobate for Beam Steering and Electric Filed Sensing

 

Abstract: Large-photon-number quantum state is a fundamental but non-resolved request for practical quantum information applications. Here we propose an N-photon state generation scheme that is feasible and scalable, using lithium niobate on insulator circuits. Such scheme is based on the integration of a common building block called photonnumber doubling unit (PDU), for deterministic single-photon parametric down-conversion and up-conversion. The PDU relies on 10^7-optical-quality-factor resonator and mW-level on-chip power, which is within the current fabrication and experiment limits. N-photon state generation schemes, with cluster and GHZ state as examples, are shown for difererent quantum tasks.


Speakers:

Xinlun Cai, Ill-V and Thin-film Lithium Niobate Hybrid integrated Devices

Bing Xiong, Wide Bandwidth Capactively-loaded thin film LN Modulators

Liu Liu, Thin Film Lithium Niobate based Modulators and Its Hybrid Integration with Silicon Photonics

Yonghui Tian, lntegrated Photonics Based on Sillicon Nitride and Lithium Niobate Hybrid Platform

Fang Bo, Broadband and Cascaded Second-order Nonlinear Optical Effects in Periodically-Poled Lithium Niobate Waveguides

Yuping Chen, Monolithic Integration of Laser and Amplifier on Er-doped LNOI Platform

Jintian Lin, Single-frequency Narrow-linewidth Tunable Microlaser and Microwave Source Generated on Single Active Lithium Niobate Microcavities

Minglu Cai, Erbium Doped Lithium Niobate Devices



 

What is the Role of Optical Technologies in Building 6G Networks?


Intro.: As 5G mobile network has been commercialized and widely deployed, the research community has shifted the focus to the development of the 6G network. The key performance indicators of 6G are expected to improve by a factor of 10-100 relative to 5G, including capacityspeed and coverage. ln addition, new abilities such as sensing and positioning will be embedded in6G. To fulfll these requirements, disruptive innovations will be needed, and optical technologies are expected to play a key role. This workshop will discuss the role of optical technologies in building 6Gnetworks. Enabling technologies and potential applications will be discussed in this workshop including optical transmission and networking for 6G fronthaul/midhaul/backhaul, RoF, Photonicassisted MMW and THz, FSO, VLC, MWP as well as optical switching, computing and sensing.

 

Presider:

Qunbi Zhuge, Shanghai Jiao Tong University

Junwen Zhang, Peng Cheng Lab, China

Paolo Monti, Chalmers University of Technology


Speakers:

Weisheng Hu, 6G(f, m): a big communication entangled with fiber and mobile

Jianyang Shi, Visible Light Communication Toward 6G

Xiang Liu, F5G-Advanced,evolving towards F6G

Jiao Zhang, THz-wireless and Fiber Seamless Integration Networks for 6G

Xueyang Li, Advanced direct detection schemes for 6G X-haul

Dan Kilper, Smart Optical Networks for A Low Latency Edge

Anna Tzanakaki, Combining Edge and Central Cloud Processing: An Enabler for 6G Services

Reza Neiabati, 6G and Quantum Internet Synergies

Liam P. Barry, Analogue Radio-over-fibre Technology for 6G Networking

Zou Jim, Converged optical edge connecting future mobile networks

 



Fiber Optic Distributed Acoustic Sensors (DAS) and Applications


lntro.: Distributed acoustic sensing (DAS) is a technology that records sound and vibration signa lalong an optical fiber. lts advantages of high sensitivity, long distance, high resolution, continuous and real-time measurements promote the wide applications. The workshop will present the latest research progress on principles, methods, and applications of fiber optics DAS.


Chairs & Presiders:

Qizhen Sun, Huazhong University of Science and Technology

Gilberto Brambilla, University of Southampton

Yunyue Elita Li, Purdue University


Speakers:

Gang Yu, DAS-VSP Technique and Its Applications for Oil and Gas Exploration and Production

Zuyuan He, Advanced Optical Fiber Distributed Acoustic Sensors

Yunyue Li & Yanlong Niu, Lab-scale Small-strain Stiffness Measurement Based on Distributed Acoustic Sensing

Zinan Wang, QDAS Bandwidth Enlargement Utilizing Orthogonal Codes on the Same Carrier

Gang Fang, Monitoring Tunneling Construction Using Distributed Acoustic Sensing

Hao Li, Backscattering enhanced optical fiber (BEOF) DAS and Its Applications

Avinoam Zadodk, Sensing of Media Outside the Cladding of Standard Fibers

Dimin Yu, Production Profiling with DAS and DTS in Karamay

Ali Masoudi, Signal Fading in Distributed Acoustic Sensors: Analysis and Mitigation Strategies

Sheng Liang, Al for lntelligent Sensing: Al Based Event Classification for FiberOptic Distributed Vibration Sensor

Xin Gong, Industrial Review: Fiber Bragg Grating Manufacturing? Yes, the old dog has new tricks



 

What Will Photonic Computing be Like in the Future?


lntro.: The topic of photonic computing is both old and new. There is a recent surge in the study of photonic computing from both academic and industrial community. What will photonic computing be like in the future? lt is a hot topic of debate. This workshop aims to bring together researchers from diverse backgrounds to create synergy in this emerging research area.


Presider: 

Huang Chaoran, Lin Xing


Speakers:

Aydogan Ozcan, Diffractive Optical Networks & Computational lmaging without A Computer

Volker J. Sorger, Photonic Chips for Machine Intelligence

Thomas Ferreira De Lima, Neuromorphic Photonics for Real-time Processing

Xian Xiao, Large-scale and Energy-Efficient Tensorized Optical Neural Networks

Hongwei Chen, Optical Pre-Sensor Computing for High-Level Machine Vision

Daniel Brunner, Towards Scalable Photonic Neural Networks with (3+1) D Integrated Optics

Zihan Geng, Photonic Computing for High-Speed Optical Communication

Changhe Zhou, Dammann Optical Computer

Zengguang Cheng, Phase Change Photonics for Memory and Computing Applications

Xingyuan (Mike)Xu, Optical Neuromorphic Convolutional Neural Networks



 

What Is the Role of Optical Sensors in Building Smart Environments?


Intro.: The development of optical sensors has been a major driving force behind smarter cities and industries, as well as better protection of our natural environment. This workshop invites researchers to contribute novel ideas and discussions that can stimulate the field and bridge the gap between fundamental research and real-world solutions.

 

Presider:

George Y. Chen, Shenzhen University


Speakers:

Jun He, Femtosecond laser direct-written fiber Bragg gratings for smart structures in extreme environments

Liang Wang, Achieving integrated denoising and information extraction using a single CNN for simultaneous temperature and strain measurement in BOTDA sensing system

Mengmeng Chen, Distributed Optical fiber sensors based on Rayleigh Backscattering

Zhangqi Song, Optical fiber shape sensing for submarine landslide monitoring

 



Advanced Optical Fiber Technologies for Underwater Applications


Intro.: Submarine fiber-optic cables now carry >95% of all transoceanic telecommunications traffic in an economic, fast and secure way. Fiber-optic cables also play a very important role in underwater sensing or monitoring. To develop advanced optical fiber technologies for underwater applications has been attracted extensive and intensive research interest This workshop will give some representative optical fiber technology and application cases, involving in novel optical fibers and cables, high-speed high-capacity submarine fiber-optic communication in C+L and visible bands and fiber-optic sensing or monitoring.


Chairs:

Liangming (Ansion) Xiong, State Key Laboratory of Optical Fiber and Cable Manufacture Technology, YOFC

Junjie Li, China Telecom Research Institute

Liyang Shao, Southern University of Science and Technology


Speakers:

Xiaoming Chen, Test Method for GSNR of Submarine Open Cable System

Lipeng Feng, The Technologies and Challenges of Large-capacity Long-distance Submarine Fiber-optic Communication

Xin Zhao, Technical Standards and Development Trend of Submarine Cable Communication

Jianping Li, Open Submarine Cable Communication Technology and Application

Xuping Zhang, On-line Distributed Monitoring for the Offshore Wind Turbine and Submarine Power Transmission Cable

Zhengyong Liu, Multi-parameter Optical Fiber Sensing System and Its Application in Marine Information Monitoring

Yang Lu, Orientation Evaluation of Acoustic Signals Using Distributed Acoustic Sensing on An Optical FibeTelecom Cable

Lin Ma, Jiehui Liu, Transmission Distance Adaptable Underwater Visible Light Communication

Jun Luo, New Optical Fibers for Submarine Cable Application

JiEn Song, Integrated Development of Marine Communication and Sensing



 

Photonics Global Student Conference


Presiders:

Wei Zhang

Wang Zihao,

Xingwei Chen

 

Speakers:

Sarun Sumriddetchkajorn, DIY Optical Spectrometers: From Lab to Market

John Dudley, Machine Learning for New Insights into Ultrafast Nonlinear Fibre Optics

Like Li, Highly Sensitive Optical Fiber Seawater Salinity Sensor

Ruifeng Li, Research on all-fiber laser-self-mixing Doppler Velocity Measurement System

Jie Yang, Singular Electromagnetics: A symmetry Point of View

Sheng-ke Zhu, Towards Integrated Mode-division Demultiplexing Spectrometer by Deep Learning

Guanqing Zhou, Spontaneous Carrier Generation and Low Recombination in High-Efficiency Non-fullerene Solar Cells

Shuaihao Ji, Research on Ho3+-doped ZBLAN visible Fiber Lasers

Qing Wang, Noninvasive Vital Signs Assessment for Perioperative Infants with the Optical Fiber Sensor Based on Deep Learning

Yefen Wei, Multi-function Sensors Based on Three-Core Fiber

Pei Zhang, Pigmented Structural Color Actuators Fueled by Near-Infrared Light

Weihao Lin, Research on Temperature Sensing Characteristics of Micro-Nano Fiber lnterferometer based on Different Configurations in Fiber Laser

Redha lbrahim, Orbital Angular Momentum Spectrum Decomposition for lmage Rotation



 

ACP 2022 Rump Session: Promises and Opportunities of VCSELS


lntro.: VCSELs are the light source of choice for a wide range of applications because of cost-effective manufacturing and testing, and user-friendly optical beams for system designs. They are widely deployed in short-reach data center interconnects, 3D sensing and LIDAR applications. Recent exciting progress include very high speed VCSELs at 106 Gbps per lane (via 53 GbaudPAM4) arrays are under pilot runs. Novel design approaches allow decreased device heating and increased saturation currents. They are excellent choices for green photonics with<100 fj="">


Presider:

Connie Chang-Hasnain, Berxel Photonics


Speakers:

Li(Andy)Zhu,Artificial Intelligence of Things: The Next Phase of 3D Sensing

Si-Cong Tian, Single-Mode, High-Speed Multi-Aperture VCSELS

Hongyan Fu, VCSELs for Optical Wireless Communications

Fumio Koyama, VCSEL Photonics for CPO Transceivers and LIDAR Applications

Anjin Liu, Vertical-Cavity Surface-Emitting Laser with Post-Supported High-Contrast Grating


HOST
南方科技大学

南方科技大学

CO-HOST
FCMT

FCMT

Huawei

Huawei

凌云光

凌云光

Light

Light