2026年亚洲光电子会议（Photonics Asia 2026）于10月24-26日在江苏南通国际会议中心举办。本次大会由国际光学与光子学学会（SPIE）和中国光学学会（COS）联合主办。会议共设立17个专题，涵盖光学及光学工程领域近100个研究方向。
这次大会是光学领域的一次盛会，欢迎您参加本次会议！
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| Plenary Speakers | |
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Yunquan Liu Peking Univ. (China) Plenary Presentation Ultrafast Physics with Structured Light |
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Vladislav V. Yakovlev Texas A&M Univ. (United States) Plenary Presentation Brillouin microscopy: charting the mechanical landscape of life from subcellular organelles to deep tissues-a perspective on progress, challenges, and next-generation frontiers |
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Yidong Huang Tsinghua Univ. (China) Plenary Presentation Manipulation of Generalized Energy-bands for New Functional Optoelectronic Devices |
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Keisuke Goda The Univ. of Tokyo (Japan), SiRIUS Institute of Medical Research, Tohoku Univ. (Japan), and Univ. of California, Los Angeles (United States) Plenary Presentation Platform technologies for AI for science: intelligent imaging across biological scales |
| GENERAL CHAIRS | |
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Qihuang Gong COS Former President Peking University (China) |
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Julie Bentley SPIE President The Institute of Optics, Univ. of Rochester (United States) |
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GENERAL CO-CHAIRS |
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Conference PA101 Advanced Lasers, High-Power Lasers, and Applications XVII Chair(s): Shibin Jiang; Zhaoyang Li Conference PA102 Semiconductor Lasers and Applications XVI Chair(s): Wei Li; Sha Zhu; Werner H. Hofmann; Ting Wang Conference PA103 Advanced Laser Processing and Manufacturing X Chair(s): Minghui Hong; Ting Huang; Yuji Sano; Jianhua Yao; Min Zheng Conference PA104 Photonics for Energy VI Chair(s): Jianpu Wang; Rui Zhu; Samuel D. Stranks; Nana Wang Conference PA105 Optoelectronic Devices and Integration XV Chair(s): Xuping Zhang; Baojun Li; Changyuan Yu; Xinliang Zhang Conference PA106 Optical Design and Testing XVI Chair(s): Yongtian Wang; Tina E. Kidger; Rengmao Wu Conference PA107 Advanced Optical Imaging Technologies IX Chair(s): He Sun; P. Scott Carney; Shian Zhang Conference PA108 Optoelectronic Imaging and Multimedia Technology XIII Chair(s): Jinli Suo; Zhenrong Zheng Conference PA109 Holography, Diffractive Optics, and Applications XVI Chair(s): Changhe Zhou; Ting-Chung Poon; Liangcai Cao; Hiroshi Yoshikawa Conference PA110 Optical Metrology and Inspection for Industrial Applications XIII Chair(s): Sen Han; Gerd Ehret; Benyong Chen Conference PA111 Optics in Health Care and Biomedical Optics XVI Chair(s): Qingming Luo; Xingde Li; Ying Gu; Dan Zhu Conference PA112 Advanced Sensor Systems and Applications XVI Chair(s): Xinyu Fan; Chang-Seok Kim; Jianzhong Zhang; Minghong Yang Conference PA113 Nano-optoelectronics and Micro/Nano-photonics XII Chair(s): Zhiping Zhou; Kazumi Wada; Shaoliang Yu Conference PA114 Plasmonics X Chair(s): Hong Wei; Takuo Tanaka Conference PA115 Quantum and Nonlinear Optics XIII Chair(s): Qiongyi He; Chunhua Dong Conference PA116 Infrared, Millimeter-Wave, and Terahertz Technologies XIII Chair(s): Cunlin Zhang; Xi-Cheng Zhang; Masahiko Tani Conference PA117 Artificial Intelligence in Photonics II Chair(s): Liangcai Cao; Partha P. Banerjee; Lilin Yi; Bo Gu |
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Qihuang Gong COS Former President Peking University (China) |
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Julie Bentley SPIE President The Institute of Optics, Univ. of Rochester (United States) |
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TBD
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Yunquan Liu Peking Univ. (China) |
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Title: Ultrafast Physics with Structured Light Abstract: Laser-driven electron motions allow the investigation of fundamental physical phenomena with unprecedented resolution in time, space and energy. The first step in most interactions between light and matter is the ultrafast response of electrons to impinging light, in which the electron dynamics is sensitive to the signatures of the driving light. As light can be tailored to carry custom angular momentum by imprinting it with characteristic structures of intensity, polarization or phase, the resulting structured light offers new opportunities to tailor and control the optical response of materials, far beyond the ability of conventional linearly or circularly polarized light. In this talk, we discuss recent progress at the intersection of the structured light and ultrafast physics communities alongside the underlying physics. Beyond these interesting fundamental considerations, we highlight the broad applications of structured light for investigating and controlling the dynamics of bound and free electrons, as well as extreme ultraviolet radiation, including in strong-field ionization, high harmonic generation and free-electron optical modulation. High-order harmonic generation is one of most important phenomena in ultrafast community. In optics, light can be tailored to carry custom angular momentum by imprinting it with characteristic structures of intensity, polarization or phase. And thus, the resulting structured light offers fascinating opportunities for structing high-order harmonic radiation because it introduces new tuning knobs for optical fields, far beyond the ability of conventional linearly or circularly polarized light. In this presentation, we discuss the physics and the recent progress at the intersection of ultrafast science with structured light. These capabilities provide new opportunities for probing ultrafast electron dynamics, studying topological and chiral phenomena in matter, and advancing next-generation coherent light sources. The control over harmonic structure highlights the potential of structured HHG for applications in quantum optics, nanoscale imaging, and ultrafast science. Reference: Fang, Y. et a. Phys. Rev. A 103, 033116 (2021); Fang, Y., et al. Nature Photonics, 15(2), 115-120 (2021); Fang, Y., et al. Light: Science & Applications, 11(1), 34(2022); Fang, Y., et al. Physical Review Letters, 127(27), 273901 (2021); Lyu, Z., et al. Physical Review Letters, 133(13), 133801(2024); Fang, Y., et al. Physical Review Letters, 130(25), 253201(2023); Fang Y. et al., Advanced Photonics Nexus, 2(4):046009-046009(2023); Lyu Z. et al., Ultrafast Science 5: Article0104(2025); Li J. et al., ACS Photonics 13, 1, 303–310(2026); Fang Y. et al., Nature Reviews Physics 7,713–727(2025); Gao J. at al., arXiv:2508.1477; Lyu, Z. et al., Ultrafast Science, 6,0175(2026). Bio: Yunquan Liu received his Ph.D. degree from Institute of Physics, Chinese Academy of Sciences in 2006. He conducted postdoctoral research at the Max Planck Institute for Nuclear Physics from 2006 to 2008, and joined Peking University in 2009. He has been supported by the National Science Fund for Distinguished Young Scholars (2012–2015), appointed as a Changjiang Distinguished Professor by the Ministry of Education (2015–2019), and selected for the Young and Middle-aged Scientific and Technological Innovation Talent Program and the second batch of the "Ten Thousand Talents Plan". He has received awards such as the Wang Xuan Young Scholar Award, the Rao Yutai Prize in Fundamental Optics, the Wang Daheng Prize in Optics for Young and Middle-aged Scientists, the Rao Yutai Physics Prize, and the Ye Qisun Exemplary Award. He is now Peking University Boya Distinguished Professor and the director of State Key Laboratory of artificial microstructure and mesoscopic physics. His research primarily focuses on ultrafast optics and ultrafast physics. He has published over 200 peer-reviewed papers in the fields of atomic, molecular and optical physics. |
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Vladislav V. Yakovlev Texas A&M Univ. (United States) |
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Title: Brillouin microscopy: charting the mechanical landscape of life from subcellular organelles to deep tissues-a perspective on progress, challenges, and next-generation frontiers Abstract: Brillouin microscopy has re-emerged as a powerful non-contact optical modality for probing local viscoelastic properties of biological materials via inelastic light scattering from acoustic phonons. By analyzing the Brillouin frequency shift and linewidth, which are directly correlated with longitudinal modulus and viscosity, this technique enables label-free, diffraction-limited 3D mechanical mapping with minimal photodamage, offering distinct advantages over traditional elastography methods. This presentation reviews the field's current state, from biophysical principles to diverse biomedical applications. I summarize instrumentation guidelines and best practices from the recent international Consensus Statement to ensure standardization. I highlight paradigm-shifting advances, including quantum-enhanced Brillouin microscopy, which surpasses the classical shot-noise limit using entangled photons for faster acquisition and reduced phototoxicity. Looking forward, I outline technical frontiers for clinical translation, discussing ultrafast spectral acquisition for capturing rapid subcellular responses and deep-tissue imaging innovations for fibrotic and in-vivo models. Bio: Vladislav Yakovlev is an internationally recognized leader in ultrafast optics, quantum photonics, and biomedical optical imaging. Over the past two decades, Professor Yakovlev has established a globally influential research program that integrates nonlinear optics, spectroscopy, quantum sensing, and biomedical imaging. He has led more than 40 major research projects funded by leading U.S. agencies, including the National Science Foundation, National Institutes of Health, Defense Advanced Research Projects Agency, Air Force Office of Scientific Research, Office of Naval Research, and National Aeronautics and Space Administration, with a cumulative research budget exceeding 12 million USD. Professor Yakovlev's work has produced fundamental advances across multiple fields, including ultrafast laser science, quantum optical sensing and imaging, nonlinear spectroscopy, biomechanical imaging, and translational biomedical optics. 1987: BS/MS Physics and Radiophysics, Moscow State University, USSR 1990: PhD Physics and Quantum Electronics, Moscow State University, USSR 1990-1991: Research Scientist, International Laser Center, Moscow State University, USSR 1992: Research Engineer, Novatec Laser Systems, Inc. San Diego, California, USA 1992-1998: Assistant Research Scientist, University of California, San Diego, USA 1998-2011: Assistant, Associate, Full Professor, University of Wisconsin, Milwaukee, USA 2011-2026: Full Professor, Texas A&M University Fellow of SPIE, Optica, American Physical Society, American Institute for Medical and Biological Engineering. Major Awards: Nature Light: Science & Applications, Best reviewer award (2024), SPIE Harold E. Edgerton Award in High-Speed Optics (2021), William E. Lamb Medal for Laser Physics and Quantum Optics (2015) Editorial Work: Advanced Photonics, PhotoniX |
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Yidong Huang Tsinghua Univ. (China) |
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Title: Manipulation of Generalized Energy-bands for New Functional Optoelectronic Devices Abstract: The operating principle of photonic devices is based on the interaction between light and matter, which can be summarized as the process of energy exchange and momentum transfer between photons and the microscopic particles/quantum particles within the matter. Matter is composed of electrons and atomic nuclei, and electrons are the main microscopic particles that form photonic devices through interaction with photons, while the atomic nucleus vibration described by phonons is the main quasiparticle in photonic devices. Therefore, the relation between the energy and momentum of photons, electrons, and phonons, will directly determine the interaction process, thereby determine the functions of photonic devices. In analogy to the energy-bands of electrons, the energy-momentum relations (dispersion relations) of photons and phonons can be called "generalized energy bands". This talk summarizes our research work on nanophotonics from the perspective of general energy-bands manipulation. Here the general energy-bands of photon and phonon were manipulated by different nanostructures for realizing novel optoelectronic characteristics on chip, including the free electron radiation, real-time ultraspectral imaging, and phonon exceptional points. Bio: Yidong Huang is the professor of Department of Electronic Engineering, Tsinghua University, and international member of the US National Academy of Engineering. She previously served as vice chairman of Academic Committee of Tsinghua University, vice chairman (2007-2012) and chairman (2013-2019) of the Department of Electronic Engineering, and dean of the Tsinghua-Tianjin Institute of Electronic Information Technology. She received the B.S. and Ph.D. degrees in optoelectronics from Tsinghua University, Beijing, China, in 1988 and 1994, respectively. From 1991 to 1993, she was with Arai Laboratories, Tokyo Institute of Technology, Japan, on leave from the Tsinghua University. From 1994-2003, she worked at the Photonic and Wireless Devices Research Laboratories, NEC Corporation, and then joined Tsinghua University. She is engaged in research on semiconductor laser diodes and nano-structure optoelectronics, received “Merit Award” and “Contribution Award” from NEC Corporation in 1997 and 2003, respectively, and be appointed by the Changjiang Distinguished Professor and the National Talents Engineering in 2005 and 2007, respectively. She authored/co-authored more than 400 journal and conference papers and applied more than 200 patents. She is the founder of H-chip Tech Co., Ltd, Seetrum Tech Co., Ltd, and Lightfunction Tech Co. Ltd. Prof. Huang is a fellow of Optica (formerly known as OSA), vice president of the International Commission for Optics, deputy member of Director Board of Chinese Optical Society, vice president of Chinese Electronic Education Association, and associate editor of ACS Photonics. |
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Keisuke Goda The Univ. of Tokyo (Japan), SiRIUS Institute of Medical Research, Tohoku Univ. (Japan), and Univ. of California, Los Angeles (United States) |
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Title: Platform technologies for AI for science: intelligent imaging across biological scales Abstract: AI is transforming science, but its impact depends on experimental platforms that generate high-quality, high-dimensional, and actionable data. In this talk, I will present our efforts to develop intelligent optical imaging systems as platform technologies for AI for science (Nitta et al., Cell 2018; Nitta et al., Nature 2026; Wang et al., Nature Biomedical Engineering 2026, in press). I will discuss how these systems can act as experimental foundation models: general-purpose data-generating infrastructures that learn rich biological representations and support diverse AI tasks, including classification, prediction, perturbation design, and autonomous discovery. I will introduce flow zoometry, a whole-animal analogue of flow cytometry for high-throughput 3D phenotyping, and whole-slide edge tomography, an autonomous digital cytopathology platform. Together, these technologies illustrate how imaging systems can become AI-ready discovery engines that observe, select, perturb, and learn from biological systems across scales. Bio: Keisuke Goda is currently a professor in the Department of Chemistry at the University of Tokyo, a distinguished professor in the SiRIUS Institute of Medical Research and Graduate School of Medicine at Tohoku University, and an adjunct professor in the Department of Bioengineering at UCLA. He earned a B.A. degree summa cum laude in physics from UC Berkeley and a Ph.D. in physics from MIT. He has authored over 300 journal papers, filed over 30 patents, produced over 30 faculty members, launched 4 startups, and received over 40 awards and honors. |
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Conferences
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Conference PA101 Advanced Lasers, High-Power Lasers, and Applications XVII Chair(s): Shibin Jiang; Zhaoyang Li Conference PA102 Semiconductor Lasers and Applications XVI Chair(s): Wei Li; Sha Zhu; Werner H. Hofmann; Ting Wang Conference PA103 Advanced Laser Processing and Manufacturing X Chair(s): Minghui Hong; Ting Huang; Yuji Sano; Jianhua Yao; Min Zheng Conference PA104 Photonics for Energy VI Chair(s): Jianpu Wang; Rui Zhu; Samuel D. Stranks; Nana Wang Conference PA105 Optoelectronic Devices and Integration XV Chair(s): Xuping Zhang; Baojun Li; Changyuan Yu; Xinliang Zhang Conference PA106 Optical Design and Testing XVI Chair(s): Yongtian Wang; Tina E. Kidger; Rengmao Wu Conference PA107 Advanced Optical Imaging Technologies IX Chair(s): He Sun; P. Scott Carney; Shian Zhang Conference PA108 Optoelectronic Imaging and Multimedia Technology XIII Chair(s): Jinli Suo; Zhenrong Zheng Conference PA109 Holography, Diffractive Optics, and Applications XVI Chair(s): Changhe Zhou; Ting-Chung Poon; Liangcai Cao; Hiroshi Yoshikawa Conference PA110 Optical Metrology and Inspection for Industrial Applications XIII Chair(s): Sen Han; Gerd Ehret; Benyong Chen Conference PA111 Optics in Health Care and Biomedical Optics XVI Chair(s): Qingming Luo; Xingde Li; Ying Gu; Dan Zhu Conference PA112 Advanced Sensor Systems and Applications XVI Chair(s): Xinyu Fan; Chang-Seok Kim; Jianzhong Zhang; Minghong Yang Conference PA113 Nano-optoelectronics and Micro/Nano-photonics XII Chair(s): Zhiping Zhou; Kazumi Wada; Shaoliang Yu Conference PA114 Plasmonics X Chair(s): Hong Wei; Takuo Tanaka Conference PA115 Quantum and Nonlinear Optics XIII Chair(s): Qiongyi He; Chunhua Dong Conference PA116 Infrared, Millimeter-Wave, and Terahertz Technologies XIII Chair(s): Cunlin Zhang; Xi-Cheng Zhang; Masahiko Tani Conference PA117 Artificial Intelligence in Photonics II Chair(s): Liangcai Cao; Partha P. Banerjee; Lilin Yi; Bo Gu |
TBD
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