论坛背景 " 第四届先进凝胶材料及产业应用论坛 "将于 2025年10月22-23日 在 苏州 举办，论坛以 " 创新驱动，产业融合 "为主题，旨在搭建"政产学研用资"六位 一体的交流合作平台。论坛将聚焦 凝胶材料关键科学问题、瓶颈技术及工程应用实践，寻求跨领域、跨学科、跨地域、跨国界的交流合作 ，共同推动凝 胶材料产业的创新发展。同时也为优秀青年学者提供成果展示舞台，推动跨学科合作与创新。 组织机构 主办单位 中国科学院苏州纳米技术与纳米仿生研究所 江苏省先进凝胶材料工程研究中心 DT新材料 苏州纳米科 技发展有限公司 承办单位 南京德泰中研信息科技有限公司 名誉主席 李清文 ，中国科学院苏州纳米技术与仿生研究所研究员 执行主席 张学同 ，中国科学院苏州纳米技术与仿生研究所研究员 严 锋 ，苏州大学教授 合作媒体 高分子科学前沿、探索未来科学、科匠文化、 Carbontech、洞见热管理、活动家、高分子凝胶与网络…… | 13:40-13:50 | 先进凝胶论坛 - 开幕式 | | --- | --- | | 13:50-14:20 | 题目得定 | | | 前书宏,南方科技大学教授、中国科学院院士 | | ...

"十四五"期间，我国复合材料产业正向绿色、低碳、可持续方向转型，国家政策持续支持竹、秸秆、绿色树脂等可再生原料与复合技术研发。目前， 绿色复合材料产业仍面临原料来源不稳定、工艺不成熟、成本高、回收难等挑战。在此背景下，绿色复合材料产业该如何发力，怎样加速下游 领域的应 用推广？ DT新材料携手三位行业重量级专家，将于 11月 30 日 在 浙江· 杭州 召开 第四届绿色复合材料论坛（简称 GCMF 2025） ， 宁波诺丁汉大学益小苏 教授 担任大会主席， 中国科学院宁波材料所刘小青研究员 与 浙江大学张兴宏教授 担任执行主席。 论坛以 "绿色复合，创新未来"为主题，聚焦树脂与纤维、 复合技术、下游应用三大主题 ，搭建产学研用交流平台，推动绿色复合材料的技术突破与产 业融合。 益小苏 宁波诺丁汉大学教授 长三角碳纤维及复合材料技术创新中心执行主任 原中国航空工业集团公司复合材料技术首席专家， 长期从事于复合材料技术研究与航空复材应用，关注生物与天然高分子材料(热塑性淀粉，植物纤维利用 等)，绿色蜂窝和夹层，生物源树脂和复合材料等方向 ，推动可持续发展材料技术的应用。 刘小青 中国科学院宁波材料技术与工程研究所 ...

"车企+电池厂"的合资绑定，早已不是新鲜事， 例如宁德时代于2017-2023年间相继与上汽集团、吉利汽车、广汽集团、一汽集团及长安汽车等多家 头部车企成立合资公司；比亚迪与一汽成立了一汽弗迪；中创新航与零跑汽车成立中凌新能源；亿纬锂能与福田汽车合资等等。 未来，或将有更多动力电池企业与车企成立合资企业，包括与国际车企合资。 版权说明 ：本文素材和图片来自网络公开信息，本平台发布仅为了传达一种不同观点，不代表对该观点赞 同或支持。如果有任何问题，或进交流群，请联系 15355132586 （微信号：dtmaterial）。 【DT新材料】 获悉，企查查信息显示，10月13日， 山东理想汽车电池有限公司 （简称"理想电池"）正式成立，法定代表人刘立国，注册资本3亿元 人民币，经营范围包含电池制造；电池销售；新兴能源技术研发；电动汽车充电基础设施运营；输配电及控制设备制造；智能输配电及控制设备销售； 集中式快速充电站；新材料技术研发等。 由欣旺达动力与北京理想汽车共同持有，各持股50%。 9月19日，上海市场监督管理局已有公示：欣旺达动力与理想汽车将以50%：50%的出资比例成立合资公司，该合资公司已于上海市场监 ...

Core Viewpoint - Zhuhai has issued the "Zhuhai City Action Plan for Promoting the Development of Solid-State Battery Industry (2025-2030)", aiming to seize strategic opportunities in the solid-state battery industry [2] Development Goals - By 2027, Zhuhai plans to establish pilot platforms for the solid-state battery industry, set up five engineering research centers and key laboratories, and attract a number of promising solid-state battery companies. By 2030, the industry chain's key materials, core technologies, and equipment technology levels are expected to improve significantly, forming an initial scale of the solid-state battery industry [2] Key Development Directions - The focus areas include solid-state battery cell manufacturing, production equipment, and materials [3] - In solid-state battery cell manufacturing, the emphasis is on high-end consumer electronics, advancing the industrialization of semi-solid batteries, and the R&D of all-solid batteries. The goal is to enhance energy density, cycle life, and safety while overcoming technical bottlenecks [3] - For solid-state battery production equipment, the focus is on developing low-energy, low-cost, and high-performance equipment, including next-generation battery production devices [4] Solid Electrolyte and Materials - The plan includes developing various technical routes for solid electrolytes, such as oxides, sulfides, and polymers, and improving the mass production technology of ultra-thin solid electrolyte films [5] - In terms of anode and cathode materials, the focus is on lithium-rich manganese-based cathodes, high-nickel ternary cathodes, silicon-carbon anodes, and lithium metal anodes, supporting the development of new electrode materials with higher compatibility [6] Existing Companies and Production Capacity - Zhuhai currently hosts companies like Zhuhai Guanyu, Xinjie Energy, and Haisida. Zhuhai Guanyu has achieved large-scale production of semi-solid batteries, while Xinjie Energy has established a pilot production line for solid-state batteries with an energy density of ≥450Wh/kg, with an annual capacity of 200MWh. Haisida's semi-solid energy storage battery production line commenced operation in March this year, with an annual capacity of 6GWh [6]

Core Insights - The rise of additive manufacturing (3D printing) in advanced thermal management is driven by the increasing thermal flow density in core chips and system modules due to advancements in AI, HPC, electric vehicles, aerospace, and high-power lasers [2] - Traditional cooling solutions are becoming inadequate, necessitating the development of high-performance liquid cooling plates and microchannel heat exchangers [2][5] Group 1: Technological Advantages and Value Chain - Additive manufacturing enables the creation of complex internal geometries that significantly enhance heat transfer efficiency, overcoming limitations of traditional manufacturing methods [5][6] - The shift from "linear cooling" to "contour cooling" allows for more efficient heat dissipation, reducing cooling time and improving product quality [6][7] - The design freedom offered by 3D printing optimizes the entire production process, leading to reduced internal stress and warping risks, thus improving yield rates [7] Group 2: Quantified Value - Performance improvements include a tenfold reduction in pressure drop for cooling systems, leading to lower energy consumption and reduced need for large pumps [8] - Studies indicate that heat sinks produced via direct metal laser sintering (DMLS) can achieve performance enhancements of 20% to 50% compared to traditional machining [8] - Despite high initial investment costs for metal 3D printing equipment, long-term lifecycle cost advantages become evident in mass production due to higher material utilization rates and reduced cooling medium requirements [8] Group 3: Core Technology Overview - Various mainstream technologies in additive manufacturing for thermal management components cater to different application scenarios and precision requirements [9] Group 4: Company Profiles - Xihe Additive (China) specializes in green laser metal additive manufacturing, providing high-performance 3D printing services for various metals [10] - Platinum is a global leader in metal additive manufacturing, with innovative liquid cooling plates that significantly enhance heat exchange efficiency [13] - Eos Group's subsidiary in Asia focuses on industrial-grade 3D printing, offering solutions that improve heat transfer efficiency through complex internal flow structures [15] - Alloy Enterprises utilizes a unique stack forging process to manufacture direct liquid cooling components, achieving significant thermal performance breakthroughs [24] - 3D Systems provides high-precision 3D printing solutions widely used in liquid cooling designs, demonstrating substantial reductions in thermal resistance [26] Group 5: Future Outlook - The application of additive manufacturing in liquid cooling is expanding from prototype manufacturing to broader industrial applications, showcasing diverse development trends among companies [35] - The upcoming Sixth Thermal Management Industry Conference will feature key players in liquid cooling and related components, highlighting the industry's commitment to advancing 3D printing technology in thermal management [36]

Group 1 - NYCOA, a leading engineering nylon resin manufacturer, announced the commissioning of a third special nylon reactor at its Manchester, New Hampshire facility, which is expected to double the production capacity of long-chain nylon and copolymers [2] - This expansion is a significant milestone in NYCOA's multi-phase development strategy, aimed at enhancing material development and manufacturing technology since its establishment in 1957 [2] - The new capacity will complement the continuous production expansion of nylon 6 at the Manchester facility, ensuring supply for various markets including transportation, industrial, and sports goods [2] Group 2 - NYCOA plans to expand its specialty nylon product line with new offerings such as NXTamid T™ nylon 612 and nylon 610, and NY-Clear™ amorphous nylon 6i/6t for food packaging and automotive industries [3] - The NXTamid L™ product is designed to meet or exceed the performance of nylon 12 and nylon 11 across various applications, providing extensive customization options [3] - The NY-Flex® series, a polyether block amide (PEBA) copolymer, has critical applications in footwear, medical devices, and sports equipment, further enhancing the long-chain nylon product system [3]

Core Viewpoint - The company, Feirongda, is expected to achieve significant revenue and profit growth in the first three quarters of 2025, driven by expanding market presence and operational efficiency improvements [2][3]. Financial Performance - Estimated revenue for the first three quarters of 2025 is approximately 4.617 billion yuan, representing a year-on-year increase of about 29.95% [2]. - The net profit attributable to shareholders is projected to be between 275 million and 300 million yuan, reflecting a year-on-year growth of 110.80% to 129.96% [2]. - The net profit after deducting non-recurring gains and losses is expected to be between 238 million and 263 million yuan, showing a growth of 101.76% to 122.95% compared to the previous year [2]. - For the third quarter alone, the estimated revenue is around 1.734 billion yuan, with net profit expected to be between 108.91 million and 133.91 million yuan, indicating a growth of 100.00% to 145.91% year-on-year [2]. Market Expansion and Product Development - The company is actively exploring emerging market sectors and enhancing its supply chain capabilities, leading to stable revenue growth in the first three quarters of 2025 [2]. - There is a notable increase in demand for electromagnetic shielding and thermal management materials in the consumer electronics market, contributing to the company's market share growth [3]. - The company is advancing its product and process development, optimizing product structure, and improving profitability in the consumer electronics sector [3]. - The "Smart Hand" business is progressing, with products undergoing testing and certification, laying the groundwork for future expansion [3]. Sector-Specific Developments - The telecommunications sector is performing well, with stable revenue growth and ongoing collaborations in AI server cooling solutions [3]. - The company is experiencing positive growth in the new energy vehicle sector, with ongoing project orders contributing to increasing sales revenue [3]. - The utilization rate of production capacity is improving, and the scale effects of the industry are becoming more apparent due to stable project deliveries in the new energy sector [3]. Impact of Incentives and Non-Recurring Gains - The implementation of the company's equity incentive plan has resulted in share-based payment expenses of approximately 23 million yuan, impacting net profit [3]. - Non-recurring gains are expected to affect net profit by about 37 million yuan, primarily from government subsidies and the consolidation of Jiangsu Zhongyu [3].

Core Viewpoint - The 9th International Carbon Materials Conference and Exhibition (Carbontech2025) will be held from December 9-11, 2025, in Shanghai, focusing on the global carbon materials industry and inviting industry leaders to participate [2][6]. Group 1: Event Overview - The event will feature two main exhibition halls, covering over 20,000 square meters, with more than 800 exhibitors and is expected to attract over 50,000 professional visitors, including 1,000 industry CEOs and 2,000 end-users [6][25]. - The conference will include an opening ceremony, three major thematic conferences, and over 10 special activities, addressing key industry topics such as green material preparation, process automation, and product innovation [25][27]. Group 2: Thematic Focus - The conference will focus on two main themes: Semiconductor and Energy & High-end Equipment, showcasing cutting-edge technologies and applications in carbon materials, including special graphite, porous carbon, graphene, and carbon fiber [20][21]. - The thematic conferences will cover topics such as diamond applications, carbon fiber industry trends, and innovations in new energy carbon materials and batteries [27][28][29]. Group 3: Supporting Organizations - The event is organized by DT New Materials, with support from various institutions including the Chinese Academy of Engineering and several universities and industry associations [4][5]. - Numerous media partners will also be involved, enhancing the event's visibility and outreach within the industry [4]. Group 4: Exhibitor Participation - The list of exhibitors is continuously updated, showcasing a diverse range of companies involved in carbon materials and related technologies [8][9]. - The exhibitors will represent various sectors, including advanced battery materials, semiconductor technologies, and carbon-based products [20][21]. Group 5: Research and Innovation - Carbontech2025 will feature dedicated areas for product displays, new product launches, and research成果展示, promoting collaboration between academia and industry [32][34][35]. - The event aims to facilitate deep cooperation across the carbon materials supply chain, driving sustainable development in the industry [33].

Group 1 - The core viewpoint of the article highlights the recent turmoil within Sinochem International, including the acquisition of its subsidiary by DuPont and the bankruptcy restructuring of its lithium battery materials subsidiary due to ongoing losses and inability to pay debts [3][4]. - Sinochem International's subsidiary, Ningxia Sinochem Lithium Battery Materials Co., has been approved for bankruptcy restructuring by the board, as it has been operating at a loss and is unable to meet its financial obligations [4][5]. - The company plans to introduce strategic investors during the restructuring process to improve its financial structure and aims to restore its operational viability [4][5]. Group 2 - The lithium battery industry is experiencing significant changes, with a rapid decline in the market share of ternary lithium batteries and a corresponding increase in demand for lithium iron phosphate materials [5][6]. - In 2024, the revenue of Chinese ternary material companies dropped by 49% year-on-year, with four out of six companies reporting losses, indicating a challenging market environment [5]. - Despite the downturn, there was a 11% year-on-year increase in the shipment volume of ternary materials in the first quarter of 2025, driven by increased overseas demand [5][6]. Group 3 - Emerging applications such as robotics, low-altitude economy, and solid-state batteries are becoming new growth points for ternary materials, with leading companies maintaining a focus on high-nickel routes [7]. - CATL announced plans to launch a new high-nickel ternary battery by 2026, aiming to regain technological and market advantages in the ternary battery sector [7][8].

Core Insights - The article summarizes recent advancements in hydrogel research published in various prestigious journals, highlighting innovative applications and properties of hydrogels in diverse fields such as biomedical engineering, materials science, and environmental technology [2][3][4][5][6][7][8][9][10][11][12][13][14][15][16][17][18][19][20]. Group 1: Hydrogel Innovations - A hydrogel with excellent adhesion properties was developed, demonstrating strong bonding to various substrates and stability in freshwater and seawater environments, confirmed by biocompatibility tests in mice [2]. - A dual-network hydrogel was created that maintains flexibility across extreme temperatures from -115°C to 143°C, significantly expanding the functional range of hydrogels [2]. - Chiral peptide hydrogels were synthesized for use in cancer immunotherapy, showing the ability to induce distinct anti-tumor immune responses by modulating the local immune microenvironment [3]. - A novel nanofiber interwoven gel membrane was developed, exhibiting exceptional CO₂ permeability (2110 GPU) and high selectivity, outperforming traditional gel membranes [3]. Group 2: Advanced Hydrogel Applications - A dynamic phase-adaptive hydrogel platform was introduced, effectively repairing chronic wounds infected by drug-resistant bacteria while significantly reducing scar formation [5]. - A high-performance eutectic gel was created with superior mechanical properties, including a Young's modulus of 103.1 MPa and toughness of 86.8 MJ/m³, while maintaining flexibility at -80°C [5]. - A peptide-based nanorod strategy was employed to enhance the mechanical properties of hydrogels, retaining good biocompatibility and photopolymerizability, which is promising for bone and cartilage repair [5]. - A thermoelectric dressing was developed from sodium alginate hydrogels, utilizing micro-temperature differences to accelerate cell migration and angiogenesis without external power [5]. Group 3: Emerging Hydrogel Technologies - Light-responsive protein hydrogels were created, allowing for reversible light-controlled gelation and the design of light-controlled ligand-receptor pairs, providing new tools for optogenetics and responsive biomaterials [6]. - A hydrogel with a honeycomb-like hierarchical pore structure was designed, achieving a density as low as 800 kg/m³ and a strength increase of 2.4 times compared to existing materials, while reducing overall emissions by 49% [8]. - A biodegradable, temperature-sensitive hydrogel was developed to prevent postoperative cardiac adhesions, demonstrating superior effectiveness compared to commercial products [10]. - A smart siRNA hydrogel system was created, significantly accelerating the healing process of chronic diabetic wounds by dual regulation of ROS levels and MMP-9 expression [18]. Group 4: Upcoming Events - The "Fourth Advanced Hydrogel Materials and Industrial Applications Forum" will be held from October 21-23, 2025, in Suzhou, focusing on innovation-driven industrial integration and providing a platform for collaboration among government, industry, academia, and research [20].