Conference Introduction

Printed electronics technology, as a low-cost green manufacturing technique, has been widely applied in flexible displays, photovoltaics, sensors and other fields. Being a global leader in areas such as printed nano silver line conductive films, China is witnessing industrial transformation driven by printed additive manufacturing, smart packaging technologies, and so on. Over the past five years, the Ministry of Science and Technology has repeatedly launched projects to support research on technologies related to printed displays, printed sensors, and flexible thin-film photovoltaic cells, highlighting the strategic significance of the development of printed electronics technology. 14 sessions of printed electronics seminars have been held consecutively since 2010; and from 2017, the conference has officially become a part of the global conferencing system FlexTech led by the international semiconductor industry association SEMI, and has become a platform for communication among academia, industry, and research institutions known as Flex China, significantly promoting collaborative innovation in the field of flexible electronics. This year, Flex China will be held at Suzhou International Expo Center from October 22nd to 23rd. This event will continue to serve as a sub-conference of CHInano Conference & Expo as always, with the theme of Cutting-Edge Flexible and Printed Electronics Technologies for Energy, Bioinformation, and Artificial Intelligence. During the same period, Sino-Finnish Bilateral Forum on Flexible Printed Electronics will be held on October 24th, 2025 to promote cooperative innovation in the field of flexible electronics between China and Finland. A Nanotechnology Industry Forum will be held concurrently to facilitate interdisciplinary collaboration and we cordially invite academics and industry professionals to participate in the event.

Organization

Host

    • Suzhou lnstitute of Naiio-Tech and Nano-Bionics(SINANO), CAS

Organizer

    • Nanopolis Suzhou Co., Ltd.

Co-organizers

    • SEMI China
    • Flexible Electronic Industry Development Alliance, Feida
    • Jiangsu Jitri Nano Applied Technology Research Institute Co., Ltd.

Main topics

2025 Agenda Overview

Date: Oct. 22
Location: A106-107, Suzhou International Expo Center
Moderator:Professor Changqi Ma
Moderator:Professor Zhou Li
Date: Oct. 23
Location: A106, Suzhou International Expo Center
Moderator: Professor Paola Vivo
Theme:Flexible Display and Optoelectronic Materials
Moderator: Professor Ronald Österbacka
Theme:Perovskite solar cells
Moderator: Professor Qingdong Zheng
Theme:Organic Materials and Devices
Moderator: Professor Changzhi Li
Theme:Application of Emerging PVs
Date: Oct. 23
Location: A107, Suzhou International Expo Center
Moderator: Professor Caofeng Pan
Theme:Flexible Intelligent Sensors
Moderator: Professor Zhiyong Fan
Theme:Fabrication Technologies for Flexible Divces
Moderator: Professor Wenyong Lai
Theme:Various Flexible Electronics
Moderator: Professor Xuewen Wang
Theme: Applications of Flexible Electronics
Date: Oct. 24
Location: SINANO
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Ronald Österbacka
Professor of Åbo Akademi University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Bin Fan
Founder, Chairman of Kunshan GCL Optoelectronic Material Co., Ltd.
This report focuses on the perovskite industry, delving deeply into its latest development trends on a global scale, covering key dynamics such as market size expansion and technological breakthrough directions. Meanwhile, it provides a detailed analysis of the characteristics and advantages and disadvantages of different technological routes in the commercialization field. Additionally, it highlights the outstanding achievements of Kunshan GCL Optoelectronic Material Co., Ltd. in the perovskite photovoltaic field, including innovative breakthroughs in single-junction perovskite and perovskite-silicon tandem technologies, progress in improving the conversion efficiency and stability of the latest products, large-scale product technical solutions, and the construction and commissioning progress of GW-level tandem production lines.
Dr. Bin Fan studied at the École Polytechnique Fédérale de Lausanne in Switzerland from 2007 to 2010 and founded Xiamen Weihua Solar Energy Co., Ltd. in 2010. His research mainly focuses on the field of perovskite solar cells, conducting systematic studies on material design, device physics, and large-scale manufacturing technology, aiming to address the core challenges in this field, such as photoelectric conversion efficiency, long-term stability, and commercial application. He has focused on key issues such as the regulation of perovskite crystal growth kinetics, the optimization of interface energy level matching, the precise passivation of defect states, and the large-scale amplification process. In terms of material system innovation, he has constructed wide bandgap perovskite materials through multi-cation/halogen component engineering and optimized the carrier transport path by combining gradient doping technology, achieving a coordinated improvement in device open-circuit voltage and fill factor. In the field of large-scale manufacturing, he has broken through the limitations of traditional spin-coating processes and established a crystallization control technology based on vacuum flash evaporation, achieving a full-size efficiency of over 19% for 2-square-meter modules (corresponding to an effective area conversion efficiency of over 21%). Through a systematic layout of the deep integration of basic research and industrial transformation, a complete R&D system covering key links such as material synthesis, device simulation, and process optimization has been established. Relying on the multi-dimensional R&D platform independently built, a multi-scale R&D test line covering from 0.01 cm² micro-devices to approximately 28,000 cm² large-area modules has been successfully established, achieving a full process connection from basic research to trial production amplification. This gradient technology development model effectively breaks through the bottleneck of converting laboratory achievements into large-scale production, accelerating the transformation process of perovskite photovoltaic technology from laboratory research to industrial application.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Mikko Ritala
Doctor of University of Helsinki, Finland
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Zijian Zheng
Professor of The Hong Kong Polytechnic University
The development of highly flexible energy storage devices such as supercapacitors and batteries are essential to the realization of fully flexible and wearable electronics. However, due to the instrinic limitation of materials, all commercial supercapacitors and batteries are rigid. While some recent studies demonstrated a wide range of flexible supercapacitors and batteries, the gain of flexibility is often at the cost of significant loss of energy density. In this talk, we will discuss the recent development of textile composite electrodes (TCEs), which possess textile-like flexibility and provide high energy density at the same time. We will elaborate the concept of TCE, the materials preparation, their versatility in different energy storage system, and their engineering toward high-performance energy storage devices. Finally, we will also discuss how to evaluate flexibility and energy density.
Prof. Zijian Zheng is currently Chair Professor of Soft Materials and Devices at the Department of Applied Biology and Chemical Technology, Director of PolyU-Daya Bay Research Institute, Associate Director of Research Institute for Intelligent Wearable Systems at The Hong Kong Polytechnic University (PolyU). His research interests include surface and polymer science, nanofabrication, flexible and wearable electronics, energy conversion and storage. Prof. Zheng received his B. Eng. in Chemical Engineering at Tsinghua University in 2003, PhD in Chemistry at University of Cambridge in 2007, and postdoctoral training at Northwestern University in 2008-2009. He joined PolyU as Assistant Professor in 2009, and was promoted to tenured Associate Professor in 2013 and then Professor in 2017. He has published more than 250 papers in journals such as Science, Nature, Nat. Mater., Nat. Comm., Sci. Adv., Adv. Mater., etc. He also files more than 40 patents and is recipient of more than 20 academic awards. He serves as Editor-in-Chief of EcoMat (impact factor: 12.6), a flagship open-access journal in green energy and environment published by Wiley. He is Founding Member of The Young Academy of Sciences of Hong Kong (2018), Chang Jiang Chair Professor by the Ministry of Education of China (2020), Senior Research Fellow of the University Grant Commission of Hong Kong (2021), Fellow of International Association of Advanced Materials (FIAAM, 2021), Fellow of the Royal Society of Chemistry (FRSC, 2022), and Young Fellow of the Hong Kong Academy of Engineering Science (YFHKEng, 2024). He is awardee of the inaugural Hong Kong Engineering Science and Technology Award.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Li Zhou
Professor of Tsinghua University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Xin Chen
Professor of Suzhou Laboratory
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Junbin Yu
Professor of North University of China
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Ziyi Ge
Professor of Ningbo Institute of Materials Technology & Engineering, Chinese Academy of Sciences
The Title of Speech:Industrialization of High-Efficiency Flexible Perovskite Solar Cells
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Jianxin Tang
Professor of Soochow University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Nicklas Anttu
Doctor of Åbo Akademi University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Yakun Wang
Associate Professor of Soochow University
Display technology is one of strategic emerging industries, with a global market value exceeding $100 billion. Quantum dots, a next-generation luminescent material (and a recipient of the 2023 Nobel Prize in Chemistry), offer significant advantages in achieving high color purity, a wide color gamut, and low-cost, printable, and mass-producible production. However, achieving long-range order and high conductivity in quantum dot light-emitting devices through surface chemical treatment remains a significant challenge. This report will address this critical issue.
Wang Yakun is an Associate Professor at the Institute of Functional Nanomaterials and Soft Matter, Soochow University. He received funding from the National Youth Science Foundation (Class B) in 2025. His research focuses on the preparation and device applications of quantum dots and organic light-emitting materials. He has conducted fundamental research aimed at achieving breakthroughs in electroluminescence efficiency and stability, focusing on the exploration of novel light-emitting material systems, the regulation of charge transport and optical coupling interfaces, and the design of interfaces for high-efficiency electroluminescent devices. He has published 40 academic papers in journals such as Nature and Nat. Nanotechnol. as the first/corresponding author, with over 7,200 citations. His research has been selected as one of the Top Ten Advances in Chinese Optics and the Top Ten Socially Influential Events in Chinese Optics in 2024. He has received the Young Innovator Award for Organic Solids from the Chinese Chemical Society, the Jiangsu Provincial Youth Science and Technology Talent Support Project, and the Suzhou City Innovation Leader Award. He serves on the Young Editorial Board of Journals such as Journal of Semiconductors, Journal of Luminescence, Journal of Inorganic Materials, PhotoniX, and eScience.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Yanming Sun
Professor of Beihang University
In recent years, with the rapid development of non-fullerene small molecule acceptors, the efficiency of organic solar cells has been continuously improved. However, small molecule acceptors have disadvantages, such as easy crystallization, poor photothermal stability and stretchability. In contrast, polymer acceptors can compensate for these shortcomings of small molecule acceptors. The all-polymer solar cells prepared have excellent stability and mechanical flexibility, showing great potential in wearable and flexible stretchable devices. The all-polymer system, with its high solution viscosity and good leveling performance, is very suitable for the preparation of large-area printed devices. Therefore, all-polymer solar cells have more advantages in commercial applications. Although the all-polymer system has many advantages, the research on all-polymer solar cells is relatively limited and the performance is relatively low. This report will systematically introduce the recent research progress of our research group in the field of all-polymer solar cells, including the design of high-performance polymer receptor materials, morphology control of all-polymer systems, device stability research, and green large-area processing.
Yanming Sun received his B.S. degree from Shandong University and Ph.D. degree from the Institute of Chemistry, Chinese Academy of Sciences with Prof. Yunqi Liu. From 2007 to 2009, he worked at the University of Manchester as a research assistant. Then, he joined Prof. Alan J. Heeger’s group in the University of California at Santa Barbara as a postdoctoral researcher (2009–2013). In 2013, joined Beihang University as a professor. His research interests focus on organic functional materials and optoelectronic devices. He is awarded the 2018 National Science Fund for Distinguished Young Scholars. He is selected as the Highly Cited Researcher by Clarivate Analysis in the years of 2019 to 2024.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Paola Vivo
Doctor of Tampere Universities, Finland
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Jianyu Yuan
Professor of Soochow University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Jun Peng
Professor of Soochow University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Jianchang Wu
Professor of University of Science and Technology of China
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Haizheng Zhong
Professor of Beijing Institute of Technology
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Alexander Colasmann
Doctor of Karlsruher Institut für Technologie(KIT)
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Changzhi Li
Professor of Zhejiang University
The Title of Speech: Semitransparent Organic Photovoltics
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Jie Min
Professor of Wuhan University
At present, the coating speed of the reported roll-to-roll manufactured organic photovoltaic materials and devices is usually carried out at a linear speed of 0.3 to 1.5 meters per minute, which greatly increases the levelized energy cost. Based on this, the reporter's research group developed a layer-by-layer coating process and a door-acceptor blending coating process that can be coated at high speed, and explored the characteristics of the related processes. At the same time, they analyzed the high-speed coating capabilities of heterojunction active layer systems based on different types of small molecule acceptors, and revealed the causes of the differences in their high-speed coating capabilities. The reporter also explored the high-speed fabrication potential of rigid and flexible devices and initially addressed the high-speed coating capabilities of each functional layer.
Dr. Jie Min is a Professor at the Institute for Advanced Studies, Wuhan University. Dr. Min has dedicated his career to the reduction of the efficiency-stability-cost gap of organic photovoltaics and the emerging applications of building integrated photovoltaics. He has authored over 240 papers, with annual citation higher than 3600 and a H-index of 71. He has led over 10 consulting and research projects as leading PI, and obtained ¥10 million research funding in total. Dr. Min has authored eleven patents and several of them have been licensed. He is the co-founder of one start-up company. For more information, please see the lab website: http://jie min.whu.edu.cn/.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Jianqi Zhang
Professor of National Center for Nanoscience and Technology (NCNST)
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Qingdong Zheng
Professor of Nanjing University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Tao Wang
Professor of Wuhan University of Technology
The weak intermolecular interactions among organic semiconductors and the corresponding dis-ordered, short-range and loose-aggregation usually result in weak light absorption, poor charge transport and fast degradation of organic solar cells.The realization of long-range ordered and compact aggregation of organic semiconductors to boost the optoelectronic conversion has been one of the core scientific questions of organic optoelectronics. In our past work, we have created new diluted heterojunction systems that have high electrostatic force to enhance short-range ordered aggregation for improved light absorption. We advanced the multi-mechanism orthogonal fibrillization method to realize long-range fibrillar aggregation of organic semiconductors for enhanced charge transport, and also developed the accelerated structural relaxation strategy to realize compact long-range fibrillar aggregation for stabilized morphology. These efforts contributed to the achievements of the power conversion efficiency of organic photovoltaic devices surpassing 20% and the realization of highly stable devices.
Prof. Tao Wang received his B.S. in Polymer Materials and Engineering (2002) and M.Sc. in Materials Science (2005). He obtained his Ph.D. in Soft Condensed Matter Physics from the University of Surrey (UK) in Feb. 2009, under the supervision of Prof. Joe Keddie. Subsequently, he moved to the Department of Physics and Astronomy at the University of Sheffield (UK), where he worked with Prof. Richard Jones (FRS) and Prof. David Lidzey on organic solar cells. He became a professor in Wuhan University of Technology (China) in 2014. His current research interests are polymer electronics and polymer physics, he has published over 180 peer reviewed papers.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Lei Ding
CPO of Guangzhou Chasinglight Technology Co., Ltd.
With the rapid development of the Internet of Things (IoT) and portable electronics, there is an increasingly urgent demand for distributed, low-power energy sources. Organic photovoltaics (OPV) technology, leveraging its flexibility, lightweight nature, solution processability, and exceptional photoelectric conversion capability under low-light conditions, has emerged as an ideal solution for micro-light energy harvesting. By utilizing the efficient absorption of OPV material systems for non-direct sunlight and artificial ambient light (such as indoor LED and fluorescent lighting), scattered light energy ranging from microwatt to milliwatt levels is converted into electrical power. Through the optimization of donor-acceptor material blend film morphology, the development of novel low-work-function interlayers, and the design of device structures tailored for 600-1000 lux illumination, the power conversion efficiency (PCE) and output voltage of OPV under low-light environments (200-1000 lux) have been significantly enhanced. The resulting ultra-thin, flexible OPV modules can be seamlessly integrated into various sensor nodes, electronic labels, and wearable devices, enabling continuous, maintenance-free autonomous energy supply. This eliminates reliance on traditional batteries and provides critical technical support for building large-scale, self-powered IoT ecosystems.
Ding Lei, Ph.D., is a Professor, Chief Product Officer of Guangzhou Zhiguang Technology Co., Ltd., and Industrial Vice Dean of the Zhejiang University Science and Innovation Center. He is responsible for the mass production and product development of OPV at the company and has led the construction of the world's first OPV production line. He previously served as a member of the National Technical Committee for Standardization of Lighting Electronics and participated in the completion of the National 863 Program for OLED lighting and the National Key R&D Program. He has presided over one sub-project of the National Key R&D Program, one National Natural Science Foundation project, as well as projects funded by the Jiangsu Provincial Science Foundation and the Shaanxi Provincial Major Research Program, among others. He has published over thirty papers in international academic journals such as Chemical Engineering Journal, Materials Horizons, Advanced Functional Materials, Journal of Materials Chemistry C, and ACS Applied Materials & Interfaces. Additionally, he has applied for more than 20 patents, two of which have been successfully commercialized, and has contributed to the publication of two national standards and one group standard. His accolades include the Second Prize of the Ministry of Education Technology Invention Award, the Jiangsu Provincial Science and Technology Innovation Team Award, the Second Prize of China Industry-University-Research Cooperation Innovation Achievement Award, the Second Prize of Jiangsu Provincial Technology Invention Award, the Jiangsu Provincial "Double Innovation Plan" Double Innovation Doctorate Enterprise Postdoctoral Fellowship, the Jiangsu Provincial Six Talent Peaks Award, the Suzhou City Charming Science and Technology Team Award, and the Elite Science and Technology Talent Award of Huangpu District, Guangzhou.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Yong Cui
Professor of Institute of Chemistry, Chinese Academy of Sciences
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Lingpeng Yan
Associate Professor of Taiyuan University of Technology
Organic solar cells (OSCs) have become a research hotspot in today’s energy field attributing to their advantages such as light weight, flexibility, translucency, compatibility with roll-to-roll printing, and building integration, etc. With the successful development of high-performance small-molecule acceptor materials, significant progress has been made in the efficiency of organic thin-film photovoltaic cells, whose industrialization can be promised by further improvement device efficiency and stability and reduced material costs. Carbon-based interface materials play a crucial role in organic solar cells not only because they regulate the interfacial energy level structure and optimize charge injection and extraction to significantly improve photoelectric conversion efficiency, but also they enhance the cells’ long-term stability, especially in terms of moisture resistance, thermal stability, and photostability. In addition, the low cost of carbon-based interface materials is beneficial in reducing the overall device cost significantly. In recent years, we have developed a series of high-stability carbon-based interface materials, which are applied to the charge transport layers and active layers of organic solar cells respectively, achieving simultaneous improvement in device performance and stability. This report reviews our recent research progress in enhancing the photoelectric conversion efficiency and stability of organic solar cells using carbon-based interface materials.
Lingpeng Yan, Associate Research Fellow at College of Materials Science and Engineering, Taiyuan University of Technology, mainly engages in research on improving the stability of organic solar cells and developing interface materials and has conducted a series of studies with various national and provincial-level projects he leads, including the National Natural Science Foundation of China, China Foundation for Post-doctoral Science Research, and Shanxi Provincial Science and Technology Foundation. During this period, he has published more than 60 academic papers as the first author or corresponding author in internationally renowned journals such as Advanced Functional Materials, Advanced Science, Chemical Engineering Journal, and Carbon, etc. His papers have been cited 2,422 times, with an h-index of 21. He has also been granted 3 PCT patents and 5 national patents respectively.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Zhiyong Fan
Professor of The Hong Kong University of Science and Technology,HKUST
The Title of Speech:Bionic Photoelectric and Sensing Devices for Future Embodied Intelligence
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Caofeng Pan
Professor of Beihang University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Xuewen Wang
Professor of Northwestern Polytechnical University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Zhiyuan Liu
Professor of Shenzhen Institute of Advanced Technology, Chinese Academy of Sciences
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Chunlin Xu
Professor of Åbo Akademi University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Wenyong Lai
Professor of Nanjing University of Posts and Telecommunications
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Tapio Fabritius
Doctor of University of Oulu
The Title of Speech:Towards More Sustainable Li-ion Batteries by Printing
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Martti Toivakka
Doctor of Åbo Akademi University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Qifeng Lu
Associate Professor of Xi'an Jiaotong-Liverpool University
With the rapid development of human-computer interaction (HCI), there is an urgent need to construct flexible bionic perception systems with sensory and learning capabilities. However, endowing bionic perception systems with a high level of intelligence remains a key challenge in their current development. Inspired by biological perception systems, researchers have developed a bionic perception system capable of signal sensing, transmission, and processing as a proof of concept, which can effectively enhance information processing capabilities. Meanwhile, as signal acquisition units, sensors can also be used for biological signal monitoring. Therefore, starting from the construction of human-computer interaction systems, this report will elaborate on the research progress of flexible sensors in building bionic perception systems, human-computer interaction systems, and rehabilitation medicine fields, while combining the potential of bioelectric sensing in lumbar health monitoring and MRI/CT-compatible EEG acquisition.
Qifeng Lu currently serves as an Associate Professor and Director of Institute of Educational Research and Development at the School of Microelectronics, Xi'an Jiaotong-Liverpool University (XJTLU). He obtained his PhD degree from University of Liverpool in 2018, and conducted postdoctoral research at Suzhou Institute of Nano-Tech and Nano-Bionics, Chinese Academy of Sciences (SINANO, CAS) from 2018 to 2021. He is a Senior Member of the Institute of Electrical and Electronics Engineers (IEEE) and Chinese Society of Micro-Nano Technology (CSMNT), as well as a Mentor of the Xinhuo Program under Suzhou Association for Science and Technology. His main research interests focus on artificial synapse devices and flexible sensors. To date, he has published over 30 papers in domestic and international journals such as InfoMat, Nano Research, npj Flexible Electronics, Microsystems & Nanoengineering, and Soft Science, etc., several of which have been selected as cover articles. His H-index is 20. He once served as the leader of a sub-task under the National Key R&D Program, and is currently presiding over multiple scientific research projects at or above the provincial and ministerial levels, including National Natural Science Foundation of China (NSFC) and Natural Science Foundation of Jiangsu Province. He has won Microsystems & Nanoengineering Young Scientist Award in 2023, All-round Academic Excellent Award (Taicang Campus of XJTLU) for Academic Year 2022-2023 and Research Advancement Award (the School of Microelectronics, XJTLU) for Academic Year 2022-2023, the Third Prize of Outstanding Academic Papers in Natural Sciences of Suzhou for Academic Year 2021-2022, and the Key Talent in Science, Education and Research of Dushu Lake Higher Education Town (2022). His research achievements have been reported by media outlets such as Science China and China High-Tech, etc.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Ruiyuan Liu
Professor of Soochow University
Abstract of Speech:Multi-modal perception is the core of achieving human-like intelligence; however, existing tactile sensors are still constrained by issues such as signal instability, high power consumption, and array crosstalk in dynamic deformable environments. This study proposes a dynamic interface regulation strategy based on intrinsically flexible polymers, and constructs a high-precision, low-power, stretchable active-response multi-modal sensor array, providing a feasible path for next-generation intelligent wearable electronics and human-computer interaction systems.
Biography of the Speaker:Ruiyuan Liu, is a Distinguished Professor, Doctoral Supervisor, and Research Group Leader at School of Energy, Soochow University. He has successively pursued studies and conducted research at Soochow University, Georgia Institute of Technology (USA), Beijing Institute of Nanoenergy and Nanosystems, Chinese Academy of Sciences (BINN, CAS), Institute of Physical and Chemical Research (RIKEN, Japan), and the University of Tokyo (Japan). His main research directions focus on flexible energy conversion and sensor devices, as well as their applications in big health, and robotic electronic skin. He has published more than 50 academic papers in renowned journals in the materials and energy fields, such as Nature Reviews Materials, Nature Energy, Chemical Society Reviews, Progress in Materials Science, Nature Communications, Science Advances, and Advanced Materials. His work has been cited over 6,700 times, with an H-index of 32.
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Guanghu Li
Professor of Nankai University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Yixiang Shi
Associate Professor of Nanjing Forestry University
As a class of functional materials with "intelligent" behaviors, dynamic responsive smart materials can undergo specific structural isomerization changes in response to external environmental stimuli such as light, heat, electricity, and pH values, etc., thereby altering their physical and chemical properties. These materials exhibit extremely broad application prospects in fields such as sensors, optoelectronic devices, robots, and information storage. In this report, the presenter leverages the orthogonality between coordination bonds and other non-covalent interactions to develop a hierarchical self-assembly strategy for supramolecular frameworks, with coordination bonds as the core driving force. This strategy is applied to the precise construction of dynamic responsive smart material systems, and the presenter also explores the applications of these materials in areas such as energy conversion and supramolecular catalysis.
Yixiang Shi is an Associate Professor and Master's Supervisor at College of Science, Nanjing Forestry University. He obtained his PhD degree from College of Materials, Chemical Engineering and Science, Soochow University in 2019, under the supervision of Professor Jianping Lang. He then conducted postdoctoral research at Suzhou Institute of Nano-Tech and Nano-Bionics, Chinese Academy of Sciences (mentored by Researcher Ting Zhang) and Department of Chemistry, University of Hong Kong (mentored by Professor Yu Au-Yeung Ho). In July 2024, he started his work at College of Science, Nanjing Forestry University. Currently, his research mainly focuses on leveraging the orthogonality of coordination bonds and other non-covalent interactions to develop a hierarchical self-assembly strategy for supramolecular frameworks with coordination bonds as the core driving force. This strategy is applied to the precise construction of functional dynamic responsive smart material systems to explore their applications in fields such as stimuli-responsive smart materials and energy conversion. To date, he has published more than 20 relevant academic papers, among which 8 were published as the first author in chemistry journals including J. Am. Chem. Soc., Angew. Chem. Int. Ed., Chem. Commun., Chem.–Eur. J. (2 papers), Inorg. Chem., and Adv. Mater. Technol. Etc. He also holds 2 authorized invention patents. He was once selected into the Innovative and Entrepreneurial talent PhD Talent Program of Jiangsu Province (in 2020).
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Pengfei Song
Associate Professor of Xi'an Jiaotong-Liverpool University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Shuyuan Zhang
Associate Professor of Shaanxi University of Science & Technology
The Title of Speech:From Materials to Devices: UV-Curable Graphene Printing Technology for High-Performance Flexible Electronics
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Jiansheng Jie
Professor of Soochow University
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Zuoping Xiong
Technical Director of Suzhou Leanstar Electronic Technology Co., Ltd.
The Industrialization Technology of Flexible Sensors
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Lianhui Li
Associate Professor of Suzhou Institute of Nano-Tech and Nano-Bionics(SINANO), Chinese Academy of Sciences
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Hao Zhu
Associate Professor of Yancheng Institute of Technology
The 2025 Chinese Flexible and Printed Electronics Symposium
Speaker
Mingming Hao
Doctor of Suzhou Institute of Nano-Tech and Nano-Bionics, Chinese Academy of Sciences
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