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Conference Introduction

Under the strategic framework of the 15th Five-Year Plan, this conference focuses on innovation and breakthroughs in nanomaterials. By promoting the development of frontier materials and key core technologies, the conference aims to build a high-level platform integrating industry, academia, research, investment, and applications, bringing together global experts and industry leaders to explore new opportunities and technological pathways.

Nanomaterials are a key frontier in advanced materials and play a vital role in upgrading industries such as advanced manufacturing, new energy, biomedicine, and next-generation information technology. China has developed strong capabilities in areas including graphene, carbon nanotubes, quantum dots, silver nanowires, and nanocatalytic materials, while challenges remain in scalable manufacturing, high-end applications, and technology commercialization.

With the theme “A New Journey of the 15th Five-Year Plan: Nanotechnology Enabling Future Industries,” the conference will focus on strategic emerging fields, promote innovation collaboration, and accelerate the high-quality development of the nanomaterials industry.

Conference Organizers

Conference Organizers

Hosts

    • Suzhou Advanced Nanomaterials Association
    • Suzhou Nano-Micro Technology Co., Ltd.
    • Nanopolis Suzhou Co., Ltd.
    • Jiangsu Nano Meida Optoelectronics Technology Co., Ltd.

Co-organizers

    • Federation of Overseas Chinese Nanopolis
    • Western Returned Scholars Association Nanopolis
    • BANK OF JIANGSU，Suzhou Industrial Park Sub-Branch

Supporting Agencies

    • Collaborative Innovation Network for the Nano-New Materials Industry in National High-Tech Zones
    • Advanced Nano Materials Professional Committee of the Yangtze River Delta National High-Tech Zone Alliance
2026 Agenda Overview

2026 Agenda Overview

Date: Oct. 22，AM
Location: A208, Suzhou International Expo Center
Moderator: Jiangfeng Fan，President of Jiangsu NanoMeida Optoelectronics Technology Co.,Ltd
Date: Oct. 22，PM
Location: A208, Suzhou International Expo Center
Moderator: Biwang Jiang，President of Suzhou Nanomicro Technology Co., Ltd.
Date: Oct. 23
Location: A208, Suzhou International Expo Center
Moderator: Jiangfeng Fan，President of Jiangsu NanoMeida Optoelectronics Technology Co.,Ltd
The 4rd Advanced Nano-Material Technology and Industry Forum
Biwang Jiang
（ President of Suzhou Nanomicro Technology Co., Ltd.）
Abstract of Speech：High-performance microsphere materials are crucial for fields such as biomedicine and liquid crystal displays. However, they have long been monopolized by a handful of foreign companies and are listed as one of China's "chokepoint" technologies. After over a decade of research by the team, the global challenge of precise microsphere preparation has been overcome. A monodisperse microsphere preparation technology platform has been established, enabling precise control over microspheres' size and structure. Since the founding of Nano-Micro in 2007, the team has successfully advanced the industrialization of this technology. Its products, covering chromatographic packing materials and photoelectric microspheres, not only fill the domestic gap but also are exported to Europe, America, Japan, and South Korea, reaching the international advanced level in performance. Only by closely integrating technological breakthroughs with industrial chain support and market demand can genuine international competitiveness be formed.
Biography of the Speaker：Biwang Jiang, Ph.D.of State University of New York, Postdoctor at the University of California, Berkeley, Chairman and Chief Scientist of Suzhou Nanomicro Technology Co., Ltd. Jiang has been successively selected into national major talents and innovation and entrepreneurship talents of the Ministry of Science and Technology,etc. and an honorary citizen of Suzhou City. After returning to China, he founded the Nanomicro Materials Research Center of Shenzhen Graduate School of Peking University and served as the professor and director of the center. Currently, the center has been rated as the key laboratory of Shenzhen and the key laboratory of nano-micron materials of Guangdong Province. In October 2007, Jiang set up Suzhou Nanomicro Technology (SH: 688690)which integrates interdisciplinary technologies. In the practice of more than ten years of continuous R&D and innovation, Suzhou Nanomicro Technology has a lot of independent core technology, such as substrate particle, surface bonding chemistry, industrial scale production. During the entrepreneurship, Jiang embraced an age of opportunities and challenges.
The 4rd Advanced Nano-Material Technology and Industry Forum
Jiangfeng Fan
（ President of Jiangsu NanoMeida Optoelectronics Technology Co., Ltd.）
Nano Media has been committed to developing nano silver wire transparent conductive film materials into a multimodal flexible tactile sensing platform. Building on its earlier breakthroughs in nano silver wire weatherability and yellow-light (yellow lithography) process technology, the company innovatively developed the OFS single-layer touch-display technology in 2025, making it the optimal solution for future flexible foldable screens. Nano Media Optoelectronics has further elevated the OFS technology to three-dimensional X-, Y-, and Z-axis sensing, laying a solid foundation for its application in electronic skin and dexterous robotic hands.
Fan Jiangfeng, graduated from the Department of Polymers, School of Chemistry, Peking University in 2005. He has worked in enterprises and institutions such as the National Nanoscience Center and Guona Technology Co.LTD. Dr. Fan found Beijing Highnano Technology Co. LTD with Dr. Liu in 2015, and then established the group company Jiangsu Nanomade Optoelectronic Co.LTD in 2020. Nanomade Optoelectronic Co.LTD is mainly engaged in the R&D and industrialization of nano-silver wire materials and devices, and is committed to becoming a optoelectronic nano-material enterprise with technological genes. Nanomade Optoelectronic Co.LTD has overcome the reliability problem of nano-silver wire, and has realized the large-scale shipment of nano-silver wire in the field of small and medium-sized touch screen, which is applied in the fields of notebook, PAD, industrial control, education blackboard, transparent heating, electromagnetic shielding, etc. Dr. Fan Jiangfeng has many years of basic research, industry-university-research and entrepreneurship experience, and has been committed to the road exploration of transforming scientific research results into market products, and has achieved certain results.
The 4rd Advanced Nano-Material Technology and Industry Forum
Zhenzhong Yang
（ Professor of Tsinghua University）
Rational design and scale-synthesis of Janus particles with ingredients and performances distinctly compartmentalized are significant for practical applications. We have proposed gel-assisted template synthesis to effectively synthesize structured microspheres spanning core/shell and hollow spheres and capsules. We have developed series methods to synthesize Janus particles of snowman-shaped and hollow and derivative Janus nanosheets. Phase change material microcapsule and Janus nanosheets are large-scale produced, which are important in energy conservation and deep treatment of emulsified systems and high performance materials. Recently, we have proposed electrostatics-mediated synthetic methods to large-scale synthesize uniform polymer single-chain nanoparticles and rings in concentrated solutions.
1986-1991, B.S., Department of Chemical Engineering, Tsinghua University 1991-1994, M.S., Department of Chemistry, Jilin University 1994-1997, Ph.D., Institute of Chemistry, Chinese Academy of Sciences (ICCAS) 1997-1998, Postdoctoral Associate, Polymer Central Laboratory, BASF A.G. at Ludwigshafen (Germany) 1998-1999, Assistant Professor, ICCAS 1999-2003, Associate Professor, ICCAS 2003-2018, Professor, ICCAS 2008-2012, Deputy Director, ICCAS 2009-2013, Secretary General, Chinese Chemical Society 2013-2018, Director, Polymer Physics and Chemistry Laboratory 2018-present, Professor, Department of Chemical Engineering, Tsinghua University His research focuses on organic-inorganic composites spanning functional microspheres (including core-shell, hollow, and microcapsule structures), Janus materials, and polymer single‑chain based composite nanostructures. He is engaged in precision and scalable synthetic methodologies, property characterizations, and engineering applications of the materials. He has published 300 journal papers in Science, Phys. Rev. Lett., J. Am. Chem. Soc., Angew. Chem. Int. Ed., Adv. Mater., Macromolecules, CCS Chem., Prog. Polym. Sci., and Prog. Mater. Sci.. 20 patents are transferred for applications in temperature control, energy conservation, environmental protection, and green production. He was awarded National Science Funding for Distinguished Young Scholars (2003), Chief Scientist of Major Project by MOST (2011), National Natural Science Award (Class 2, 2013), Chief Scientist of Green Bio-manufacturing Project by MOST (2021), and Major Project by National Science Foundation (2023).
The 4rd Advanced Nano-Material Technology and Industry Forum
Yanli Ji
（ Professor of Zhejiang University of Technology）
To address the critical bottleneck of trade-off between permeability and selectivity, and poor long-term stability that severely limit the scalable fabrication and application of polymeric membranes, we proposes a novel research strategy to construct nano-subnano dual-scale channel membranes via confined reactions induced by polymer nanoparticles as templates. Through multi-level design of polymeric nano-building blocks, functional group modification, and interfacial reaction enhancement effects, the channel microstructure and pore wall properties of the membranes are finely regulated. This promotes rapid fluid transport and strengthens highly efficient and selective separation of substances, thus breaking through the permeability-selectivity trade-off limitation of membranes. Elucidate the high-efficiency separation mechanism of polymeric channel membranes. Furthermore, a roll-to-roll continuous production process for polymeric channel membranes is established, which promotes the industrialization of high-performance separation membranes.
Ji Yanli, Professor and Doctoral Supervisor, Zhejiang University of Technology. She received her Ph.D. in Chemical Engineering from Zhejiang University. She has worked as a postdoctoral researcher and visiting scholar at Zhejiang University, the Membrane Research and Development Center of Chung Yuan Christian University (Taiwan, China), and KU Leuven, Belgium. Her research interests cover the design and fabrication of novel polymeric nanomaterials, construction of polymeric channel separation membranes and investigation of mass‑transport mechanisms, as well as membrane‑based water treatment and some special separation applications. She has led and completed more than ten research projects, including the National Key R&D Program of China, General Program‌, Regional Joint Key Program and Youth Science Fund of the National Natural Science Foundation of China, and entrusted projects from enterprises and institutions. She has published 68 SCI papers in journals such as Nat. Water, Adv. Mater., Chem. Eng. J. and J. Membr. Sci., with 4238 citations and an H‑index of 39. She holds over 30 authorized Chinese invention patents and has co‑authored two monographs on membrane materials and separation membranes. She was awarded the First Prize of Science and Technology Progress Award of the China Petroleum and Chemical Industry Federation (2024) and the First Prize of Basic Research Achievement Award of the Chemical Industry and Engineering Society of China (2025).
The 4rd Advanced Nano-Material Technology and Industry Forum
Xinjiang Chen
（ General Manager of Suzhou Hanano Materials Technology Co., Ltd.）
Single-walled carbon nanotubes (SWCNTs) exhibit exceptional electrical, thermal and mechanical properties, endowing them with great academic and industrial value for applications in semiconductor devices, high-energy lithium batteries, and composite materials. Nevertheless, mainstream synthesis techniques such as plasma methods suffer from high production costs and abundant impurities including few-walled nanotubes in the products, which severely hinder their large-scale commercial deployment. This presentation will focus on a breakthrough low-cost scalable synthesis technology. By integrating proprietary iron catalyst technology with conventional floating catalyst chemical vapor deposition (FCCVD), we precisely confine the catalyst particle size within the range of 5–10 nm. This enables efficient, scalable production of low-cost, ultra-long and ultra-pure SWCNTs, offering a brand-new solution to advance high-performance industrial applications of SWCNTs.
Chen Xinjiang, male, born in September 1979. Doctor of Science from Hokkaido University, Japan, and associate researcher at RIKEN, Japan. He is currently the chairman of Hanna New Material Technology Co., Ltd., the founder of Nabo nano floor heating brand, and the deputy director of the Electric Heating Committee of the Ministry of Housing and Urban-Rural Development. He has successively won the title of Suzhou Industrial Park Leader, Suzhou Leader, Jiangsu Province “Double Entrepreneurship” and National Major Talent Project expert. Focusing on the R&D and industrialization of nanocarbon and nanosilicon materials, he presides over scientific and technological projects such as the "National Natural Science Foundation", "National Innovation Fund", "Jiangsu Province Major Scientific Research Achievements Transformation Project", "Suzhou Key Industrialization Fund", etc. It has applied for more than 60 national patents, 2 U.S. patents, 2 European patents, formulated 2 national standards, and formulated 1 provincial-level local standard. The project products include new energy vehicle battery pack heating sheets, interior heating and other accessories, as well as lithium battery core materials such as carbon coating slurry, high barrier coatings, and silicon alloy anodes. Among them, the heating sheets have been used in more than 70,000 new energy vehicles. In addition, the developed NABO nano floor heating has a national energy consumption of 10-15w/m2. Compared with gas wall-mounted boilers, it can effectively reduce carbon emissions by more than 30% (when 70% of the electricity source is thermal power) and 94% (when the electricity source is 95%). % is renewable energy electricity hour), which has been used in many real estate projects in northwest, east and central China such as Vanke, China Railway Construction, China Overseas Chinese Town, OCT, Gemdale, Yuexiu, Midea, Shanghai Real Estate, Jiahua Real Estate and so on. This product is of great significance to national strategies such as energy structure, energy conservation and emission reduction, and "carbon peaking and carbon neutrality".
The 4rd Advanced Nano-Material Technology and Industry Forum
Zhuan Yi
（ Associate Professor of Zhejiang University of Technology）
Membrane separation is a key technology that enables rapid development in fields like biomedicine and nano-manufacturing. However, traditional membranes with wide pore size distributions show poor selectivity and limited separation accuracy. Isoporous membranes with uniform and well-ordered pore structures overcome these limitations and are ideally suited for the high-precision separation needs for above fields. In this talk, I'll first introduce the structural features, performance advantages, and typical preparation methods of next-generation isoporous membranes. Then I'll share some of our team's recent work on tailoring pore sizes, developing solvent-resistant membranes, and finding cost-effective ways to scale up production of this new generation membranes. Finally, the presentation concludes with a perspective on the construction of "isoporous membrane+" multifunctional platforms and the expansion of their application horizons.
Yi Zhuan, Ph.D., Associate Professor. His research primarily focuses on novel separation membranes and related separation processes, with particular interest in the development of next-generation isoporous membranes and their applications in precision separation. Education and Career Background 2012: Ph.D. in Polymer Science, Zhejiang University 2012–2014: Postdoctoral Research Fellow, Department of Chemical and Biological Engineering, Zhejiang University December 2014: Joined the Membrane Separation and Water Treatment Center, Zhejiang University of Technology, as a faculty member November 2018 – November 2019: Visiting Scholar at Yale University / University of Pennsylvania 2024–present: College of Chemical Engineering, Zhejiang University of Technology Research Grants To date, he has served as Principal Investigator for 5 provincial and national research projects, including Programs of the National Natural Science Foundation of China (NSFC) and projects funded by the Zhejiang Provincial Natural Science Foundation. He has also participated in several major research initiatives, including the National Key R&D Program and key science and technology projects of Zhejiang Province. Publications and Patents He has authored over 50 peer-reviewed papers in internationally renowned journals such as the Journal of Membrane Science, Progress in Polymer Science and so on, and holds nearly 20 authorized Chinese invention patents. Awards and Honors First Prize of Science and Technology Progress Award, Chemical Industry and Engineering Society of China (Ranked 5/13) Second Prize of Outstanding Scientific Research Achievement Award (Natural Science), Ministry of Education (Ranked 6/10)  Supervision and Mentorship He has been recognized multiple times as the advisor of outstanding master's and doctoral theses at both provincial and university levels. Editorial and Review Activities He serves as a peer reviewer for many domestic and international journals, including the Journal of Membrane Science, Macromolecules, Small and so on.
The 4rd Advanced Nano-Material Technology and Industry Forum
Delong Zhang
（ General Manager, EP Materials Technology（Jiangsu) Co., Ltd.）
Currently, there are two categories of oxygen-adsorption materials: reversible physical adsorbents and irreversible chemical adsorbents. The former offer limited oxygen selectivity, while the latter require high-temperature reduction with hydrogen for deoxygenation, making them inefficient. This project develops a third category of oxygen-absorbing material—a reversible chemical oxygen-absorbing material that mimics hemoglobin—which combines the high selectivity of chemical adsorption with the high efficiency of physical desorption. It can be used to efficiently produce high-purity nitrogen, high-purity oxygen, and to recover gases. The material is fabricated by assembling hemoglobin-functional small molecules into porous supramolecular structures via molecular self-assembly technology, ensuring reversible oxygen-absorption capability and channels that allow oxygen molecules to enter and exit rapidly.
In 1979, he entered Peking University to pursue bachelor's, master's, and doctoral degrees in rare-earth coordination chemistry. In 1989, while pursuing his PhD at the University of Kansas in the United States, he conducted research on hemoglobin mimics. After completing more than a year of postdoctoral research in computational chemistry at the Pacific Northwest National Laboratory, he joined Praxair, the largest industrial gas company in the United States. After ten years there, he returned to China in 2005 and founded VIGOR Technology (Suzhou) Co., Ltd., focusing on the R&D and industrialization of inert-atmosphere equipment, gas purifiers, and gas-adsorption materials.
The 4rd Advanced Nano-Material Technology and Industry Forum
Tianbin Ren
（ Chairman of Jiangsu Jitri Institute of Functional Materials Co., Ltd.）
The transformation of new material achievements generally faces the "valley of death". Proof-of-concept serves as a critical link connecting laboratory R&D and industrialization. It verifies process feasibility, cost limits and IP risks at low cost to reduce pilot-scale investment risks. Combined with practices of new material commercialization, this talk discusses AI-enabled proof-of-concept and protection of core know-how, offering ideas for the industry-university-research-investment collaboration of nanomaterials
Professor/Ph.D. supervisor of Tongji University, director of the Institute of Functional Materials of the Yangtze River Delta National Technology Innovation Center, founder of Weipu Technology Group, Pulitong New Materials and other enterprises, attaches great importance to promoting the transformation of scientific and technological innovation and talent training in the field of new materials and medical technology, and his research fields include functional interface materials, bio-nanomaterials and immune regulation, etc., as the project leader and main undertaker, he has completed more than 40 vertical and horizontal scientific research projects, published more than 120 academic papers, and authorized more than 50 invention patents.
The 4rd Advanced Nano-Material Technology and Industry Forum
Zhikuan Chen
（ Chairman of Ningbo Lumilan Advanced Material Co., Ltd.）
Owing to its advantages of self-emission, high contrast, fast response, wide color gamut, superior color rendition, large viewing angle, flexibility and bendability, low power consumption, and simple structure, OLED has become the third-generation mainstream display technology and is now widely used across smartphones, televisions, automotive displays, wearable electronics, and IT applications. This talk will introduce the fundamental principles of OLED display technology, its technological evolution, the current state of China's OLED display industry, and China's innovative developments in OLED display imaging technology. The talk will also present Ningbo Lumilan New Materials Co., Ltd., a leading domestic enterprise in OLED emitting materials, and the interim achievements it has made, guided by the strategic need for the localization of OLED emitting materials, in developing red-emitting material systems and materials for other functional layers.
After completing his bachelor's, master's, and doctoral studies at Peking University, Dr. Chen Zhikuan joined the Department of Chemistry at the National University of Singapore (NUS) as a postdoctoral fellow in 1995. In 1998, he joined the Institute of Materials Research and Engineering (IMRE) in Singapore to conduct research on organic electronics as Senior Research Fellow and Department Head. During the same period, he also served as an Adjunct Professor at the School of Materials Science and Engineering at Nanyang Technological University (NTU) and the Department of Chemistry of NUS, as well as Chief Technology Consultant for several companies in Singapore. Upon his return to China in 2013, Professor Chen was appointed Distinguished Professor of Jiangsu Province at Nanjing Tech University and served as Dean of the Institute of Emerging Industry Development. In 2019, he joined the Faculty of Science and Engineering at the University of Nottingham Ningbo China (UNNC) as a Chair Professor with main research focus on organic optoelectronic materials and devices. He has published over 160 SCI-indexed papers, filed more than 300 domestic and international patents, and obtained authorization for over 100 of them. In 2021, Dr. Chen was awarded the title of Leader of Innovation and Entrepreneurship Team of Zhejiang Province; in 2022, he won the Top 10 Entrepreneurs of Ningbo City; and in 2024, he was accredited as a National-Level Leading Talent. Currently, Dr. Chen serves as a Member of the Technical Committee of the SID Beijing Student Chapter, Director of the Zhejiang Engineering Research Center for OLED Materials and Devices, Executive Deputy Director of the Key Laboratory of Flexible Electronics of Zhejiang Province, and Chairman of Ningbo Flexible Electronics Society. He founded Ningbo Lumilan Advanced Materials Co., Ltd. in 2017 and serves as its Chairman. The company focuses on the R&D and production of OLED materials, with its core product technology, i.e., red-light host materials, taking the leading position across the globe, which has been adopted in mass production by major domestic display panel enterprises. The company was awarded the titles of "National Specialized, Refined, Differentiated, and Innovative Little Giant Enterprise" in 2022 and "National Key Specialized, Refined, Differentiated, and Innovative Little Giant Enterprise" in 2025 respectively.
The 4rd Advanced Nano-Material Technology and Industry Forum
Qingyong Tian
（ General Manager of Kunshan GCL Optoelectronic Material Co., Ltd.）
Mr Tian Qingyong, General Manager of Kunshan GCL Photoelectronic Materials Co., Ltd., is one of the pioneers and core promoters of China perovskite photovoltaic industrialization. He has led the team to break through a series of industrial technical bottlenecks from device optimization, 100 MW pilot line to GW mass production line since he joined the commercial research and development of perovskite in 2010, and has repeatedly set a new world record for large-size perovskite single junction and tandem modules. Under his leadership, GCL holds the record of the largest and most efficient commercial scale perovskite module in the world, the steady-state efficiency of 1.71 m2 perovskite/crystalline silicon tandem module reaches 26.36%, and the efficiency of 2 m2 tandem module will be further improved to more than 28% in 2026.
This report introduces the multilayer thin film structure used in commercial perovskite modules, including transparent electrode, perovskite absorption layer, electron/hole transport buffer layer and back electrode. Each film layer is prepared by solution method, vapor deposition and other processes, and the key indexes include film thickness, compactness and large area uniformity evaluation. With the maturity of technology, perovskite photovoltaic has obvious advantages in low cost and light weight, and the industrialization process is accelerating, which is expected to bring breakthrough changes to the field of clean energy.
The 4rd Advanced Nano-Material Technology and Industry Forum
Qiuliang Xia
（ Chairman of SICREAT(Suzhou) Semitech Co., Ltd. ）
Integrated circuits serve as the cornerstone of the digital economy and the artificial intelligence era, and advanced semiconductor materials are critical to the independent and controllable industrial chain. Faced with the situation where ultra-large-size silicon materials for etching processes in advanced manufacturing nodes are subject to external restrictions, SICREAT (Suzhou) Semitech Co., Ltd. has been deeply engaged in this industry for more than a decade. The company has taken the lead in breaking through core technologies including the non-destructive growth technology of ultra-large-size silicon ingots with MCZ superconducting magnetic field and ultra-precision micro-nano machining technology for large-size monocrystalline silicon components. It has built China's only full industrial chain for ultra-large-size monocrystalline silicon materials. SICREAT will strengthen and supplement the industrial chain, concentrate efforts on tackling key challenges, and contribute to the independent control and high-end upgrading of China's semiconductor industry.
Mr. Qiuliang Xia, Chairman and General Manager of SICREAT (Suzhou) Semitech Co., Ltd., is a leading expert in the field of advanced semiconductor materials. With his career started at world-class semiconductor enterprises including Samsung and Fairchild and holding an EMBA from China Europe International Business School (CEIBS), he has solid industrial and technical expertise as well as senior management training. He gained first-hand experience at the frontier of the global semiconductor industry in his early career and witnessed the technological shift of high-end manufacturing toward China, and has thereby built profound technical insights and industrial vision within the core R&D systems of top international semiconductor firms. In 2013, driven by the ambition of independent innovation, Mr. Xia founded SICREAT and committed himself to breaking the overseas monopoly of large-size silicon materials and core components. His work focuses on the R&D and industrialization of domestic large-size high-end silicon materials and core components. He was awarded the title of “Suzhou Industrial Park Science and Technology Leading Talent” in 2015, selected for the “Jinji Lake Partner Enterprise” list in 2021, and included in the “Suzhou Industrial Park Enterprise Elite Talent Support Program” in 2025. As a technical and strategic leader, Mr. Xia has been dedicated to aligning his work with major national science and technology strategies. He serves as the chief person-in-charge of joint R&D projects at the Gusu Laboratory of Materials Science (Suzhou National Laboratory), leading efforts to overcome core technical barriers for large-size silicon carbide components for 7-2 nm advanced manufacturing nodes. Meanwhile, he acts as Deputy Director of the User Committee for the “Ultra-smooth Non-destructive Detector” project under the 13th Five-Year National Key R&D Program of the Ministry of Science and Technology of China. At the municipal level, he leads the project “Key Technology R&D of Large-size High-quality Silicon Components for Etchers” under Suzhou Basic Research Program (Frontier Technology Research), and the project “R&D and Mass Production of Ultra-large-size Advanced Silicon Materials for Integrated Circuits” under the Special Program for Suzhou Advanced Materials Industrial Integration Cluster. From fundamental research to industrial translation, from municipal initiatives to national key research missions, Mr. Xia continues to inject robust momentum into the independent and controllable development of China's semiconductor industrial chain with his outstanding technological foresight and systematic coordination capabilities.
The 4rd Advanced Nano-Material Technology and Industry Forum
Wusong Li
（ Chairman of Shenzhen Yuanjingang New Materials Co., Ltd.）
Dendrimers belong to the fourth generation of polymer materials. Compared with conventional small molecules and linear polymers, their highly branched three-dimensional architecture and abundant surface functional groups enable superior protective strength, wear resistance, corrosion resistance and adhesion when applied in the coatings industry. Shenzhen Yuanjingang perfectly integrates the core dendrimer technology with polyurea technology to develop high-performance special protective materials, empowering the new energy and artificial intelligence industries.
Li Wusong, Ph.D. from the Department of Polymer Science at Peking University, is the founder of the industrialization of dendritic polymers in China. In 2011, Weihai CY Dendrimer Technology Co.,Ltd. was founded, breaking the European and American monopoly in the dendritic polymer industry, creating the first dendritic polymer production line in Asia, realizing the industrialization of dendritic polymers in China, and changing the long-term dependence on imports and the dependence of core technologies on others in China. As of now, we have 46 invention patents and have undertaken over ten national, provincial, and municipal scientific research projects. He has successively won the 11th China Youth Entrepreneurship Award issued by the Central Committee of the Communist Youth League and the Ministry of Human Resources and Social Security, the Provincial Mount Taishan Industrial Leading Talent Plan issued by the Organization Department of Shandong Province twice, the provincial young and middle-aged experts with outstanding contributions issued by the Department of Human Resources and Social Security of Shandong Province, as well as the Shandong Youth May 4th Medal, Shandong Youth Entrepreneurship Award, Shandong Outstanding Scientific and Technological Worker, Weihai Top Ten Outstanding Youth and other honorary titles. In 2017, the 10th International Dendritic Polymer Summit was successfully held in Weihai City, China for the first time, and together with authoritative scholars at home and abroad, the only international dendritic and hyperbranched polymer application innovation center in the industry was established.
The 4rd Advanced Nano-Material Technology and Industry Forum
Xiansong Shi
（ Professor of Southeast University）
Membrane separation is a key technology for driving the pharmaceutical industry toward greener and lower-carbon processes, with membrane materials innovation at the core of its development. For pharmaceutical separation membranes, our research proposes on-demand pore-size design and ordered structural regulation to enhance the compatibility between membranes and drug molecules and improve separation precision; constructs fully covalent-bond-reinforced, three-dimensionally interconnected hydrophobic sub-nanometer transport channels to achieve high organic-solvent permeability and drug selectivity; develops polycrystalline separation membranes and elucidates the structure-property relationship between crystallinity and separation performance; and establishes nanosheet fabrication strategies based on electric-field assistance, interfacial confinement, solvent induction, and additive regulation, advancing the controllable fabrication of large-area separation membranes and providing a foundation for the application of high-performance pharmaceutical separation membranes.
Xiansong is a Youth Chief Professor and PhD Supervisor at Southeast University. His research focuses on the design and applications of separation membranes based on porous crystalline frameworks. He has published more than 30 papers as a first or corresponding author in journals including Nature, Nature Chemical Engineering, and Nature Water. He currently leads several projects funded by the National Natural Science Foundation of China (NSFC). He also serves on the Early-Career Editorial Boards of journals including Nano-Micro Letters (IF = 36.3) and SusMat (IF = 21.3), and is a recipient of the ScienceFather Young Scientist Award.
The 4rd Advanced Nano-Material Technology and Industry Forum
Yue Wu
（ Deputy General Manager of Suzhou Gaosemi Co., Ltd.）
Gallium oxide (), an emerging ultra-wide bandgap semiconductor, holds immense promise for next-generation power electronics due to its exceptionally high critical breakdown field and cost-reduction potential via melt-growth technologies. However, bridging the gap from laboratory metrics to commercial industrialization involves severe engineering bottlenecks. This presentation outlines the roadmap for the commercialization of gallium oxide. We first examine the evolution of power electronics, highlighting the necessity of vertical architectures for high-voltage, high-current applications. Grounded in core material physics, we systematically evaluate how substrate and epitaxial crystal orientations govern defect evolution, growth kinetics, and surface morphology, detailing the engineering trade-offs that drive device design choices. Finally, the talk addresses real-world reliability challenges in high-voltage operational regimes and discusses viable pathways toward robust, scalable power device manufacturing.
With 16 years of hands-on experience in the compound semiconductor industry, he began his career at Sanan Optoelectronics, mastering advanced epitaxy processes and manufacturing equipment. He subsequently served in key technical and executive management roles across pioneering LED and SiC startups, successfully overseeing the construction, tooling, and ramp-up of comprehensive "epitaxy-to-front-end Fab" production lines. As an early adopter and persistent pioneer in gallium oxide () industrialization, he is dedicated to driving bulk growth, wafer processing, and vertical power device manufacturing from pilot scale to volume commercialization.
The 4rd Advanced Nano-Material Technology and Industry Forum
Zuqi Hu
（ General manager of Suzhou Newmat NanoTechnology Co., Ltd.）
High-purity beryllium and high-performance beryllium alloys are indispensable key materials for strategic fields such as nuclear industry and aerospace. At present, there are still shortcomings in domestic beryllium material preparation technologies, and the performance of beryllium alloy components can hardly meet the rigorous service requirements under extreme conditions. ZKTD Advanced Materials Technology (Suzhou) Co., Ltd focuses on advanced beryllium-based material processing technologies, with key R&D directions as follows: ①Mass production technology of high-purity beryllium, which can purify crude beryllium of 95%~98.5% to 99.5%~99.99%; ②Design and near-net-shape forming process of low-cost, high-strength and high-toughness Be-Al alloys; ③Beryllium-copper master alloys and high-strength, high-conductivity beryllium-copper alloys; ④Custom beryllium alloys with special functions including Be-Ti, Be-W and Be-Ni alloys.
The speaker received his Ph.D. from the State Key Laboratory of Materials Processing and Die & Mould Technology, Huazhong University of Science and Technology in 2014. From 2018 to 2020, he worked for the University of California, Los Angeles (UCLA), as a J1 research scholar (postdoc). He previously worked as a Senior Engineer and Specially Appointed Associate Research Professor at the Institute of Materials, China Academy of Engineering Physics. His research focused on high-toughness aluminum alloys, TiC nanoparticle reinforced aluminum matrix composites, nuclear materials, and manufacturing technologies for beryllium-aluminum alloys. The high-performance components developed by his team have been successfully put into service. He has led more than ten major research projects, including challenging scientific research programs, innovation & development funds of the China Academy of Engineering Physics, with total approved research funding of approximately 200 million RMB. He has published over 20 academic papers, filed 4 patents. Since April 2026, he has served as CTO at ZKTD Advanced Materials Technology (Suzhou) Co., Ltd. He is in charge of the R&D of 1) Purification technology for nuclear-grade pure beryllium. 2) Forming technologies for high-performance beryllium alloys.
The 4rd Advanced Nano-Material Technology and Industry Forum
Piao Ma
（ CTO of Suzhou MatSource Technology Co., Ltd.）
AI-empowered materials R&D is emerging as a rapidly growing frontier field. However, the depth and breadth of the "intelligence" fundamentally depend on high-quality, traceable experimental data and physics-model constraints; otherwise, it is prone to producing "AI hallucinations" that violate physical laws. Over many years, our team has built a million-scale database of real materials, integrating physicochemical theoretical model constraints, large language models, and high-throughput experimental technologies to construct a closed-loop materials R&D paradigm spanning the full workflow of "AI design - intelligent synthesis - automated testing - data feedback." We are steadily advancing in fields such as solid-state batteries and hydrogen-energy electrocatalysis, accelerating the industrial application of the "AI + Materials" approach. This talk will begin with the overall background of AI-empowered materials R&D, systematically introduce the core technological capabilities required for AI + Materials research, and, drawing on typical industrial application cases from our company's new-materials development in the energy catalysis field, share our practical pathways and reflections on AI-empowered new-materials R&D.
B.S. from the University of Science and Technology of China (USTC), where he received the Guo Moruo Scholarship, and Ph.D. from The University of Texas at Austin. Former Head of Core Algorithms at Huawei and recipient of the Huawei Quality Star Award. Co-founded CaMatLink in 2025 and led the development of the world’s first AI Agent-driven intelligent platform for high-throughput solid-state synthesis, addressing key bottlenecks in efficient R&D and closed-loop iteration of solid-state battery materials. Eight patent applications have been filed.
The 4rd Advanced Nano-Material Technology and Industry Forum
Yong Zhu
（ Director, Functional Polymers R&D of Hong Kong Applied Science and Technology Research Institute）
Established by the HKSAR Government in 2000, ASTRI is dedicated to advancing technology-based industries through applied research. Its Functional Polymer Materials team focuses on advanced manufacturing and emerging materials, with core expertise in functional polymer synthesis, processing, and functional additives. Key RD direction includes fluorine-free polymer processing aids, self-cooling fibers, photo-responsive epoxy catalysts, and heat-resistant core-shell nanoparticles for epoxy toughening. Through customized R&D and industry collaboration, the team accelerates the adoption of these technologies in advanced manufacturing.
Dr. Yong Zhu Director, Functional Polymers R&D Dr. Yong Zhu is the Director of the Functional Polymers Department at the Hong Kong Applied Science and Technology Research Institute (ASTRI). His research focuses on advanced polymer materials, where he leads interdisciplinary collaborations to develop innovative technologies. His notable achievements include the development of binders for lithium-ion battery cathodes and anodes, polymer materials for electrolytes, electronic materials, and superhard coating materials. Prior to joining ASTRI, Dr. Zhu served as Associate Director of R&D in the Environmental Technologies Division at the Hong Kong Nano and Advanced Materials Institute (NAMI). His research activities covered the development of environmentally friendly superabsorbent polymers, bio-based elastomers, and mechanical and chemical recycling technologies for polyesters and polyurethanes. With more than 20 years of experience in polymer materials research and development, Dr. Zhu has extensive expertise in shape-memory polymers, elastomers, epoxy additives, and organic-inorganic hybrid materials. His innovations have been applied across a wide range of industries, including toys, packaging, electronic devices, and consumer electronics. Before joining NAMI, he worked at DuPont and served as a postdoctoral researcher at The Hong Kong Polytechnic University. Dr. Zhu has published more than 40 papers in internationally recognized scientific journals and has been granted over 30 patents. Under his leadership, his team has received numerous prestigious international awards, including the R&D 100 Awards, the Edison Awards, and the Geneva International Exhibition of Inventions Awards. Dr. Zhu obtained his Ph.D. in Polymer Materials Science from The Hong Kong Polytechnic University.
The 4rd Advanced Nano-Material Technology and Industry Forum
Minghui Yang
（ R&D Engineer of Lanzhou Lanshi Zhongke Nano Technology Co., Ltd.）
The multiphase interfacial reaction technology employs the bubble liquid film as a micro reaction space, enabling continuous precipitation and self-assembly crystallization at the gas-liquid interface under ambient temperature and pressure, which is fundamentally different from conventional batch reactors. The continuous multiphase interfacial reactor built on this platform delivers ten-thousand-ton-scale continuous output of nanopowders from a single unit, and has been engineering-validated on nano zinc oxide, nano lanthanum carbonate and lithium iron phosphate precursors. Particle morphology and size can be precisely tuned through the confined field, rotation speed, flow rate and surfactant dosage, effectively addressing such common challenges as broad size distribution, agglomeration and poor batch-to-batch consistency. With no high-temperature or high-pressure requirement, the route offers marked advantages in energy consumption, footprint and investment per unit of capacity. This report introduces the mechanism, equipment configuration and industrial practice of this platform pathway, and discusses its application prospects in rubber, feed, desulfurization and catalysis.
Mr. YANG Minghui holds a master's degree and serves as Deputy Manager of the Product Development Department and Technical Lead at Lanzhou LSZK Nanotechnology Co., Ltd. He has long been engaged in research and engineering application of the confined controllable preparation of nanopowder materials. Based on the multiphase interfacial reaction (bubble liquid film) platform, he took part in the development and scale-up of the ammonia-process nano zinc oxide route, raising product purity from 95% to 99%, and participated in the whole process of nano lanthanum carbonate from laboratory validation to industrial production with stable continuous operation and batch supply. He contributed to the Advanced Nanopowder Confined Controllable Preparation System project, completing process calculation and the preparation of commissioning schemes. In 2026 he applied, as principal investigator, for the Gansu Provincial Young Scientific and Technological Talent Program, and joined as a core member a provincial key R&D program in collaboration with Northwest Normal University. He also participated in building the department's R&D management system and planning the nano zinc oxide product matrix, promoting the translation of technical achievements into market applications.
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