秦雪丽烟台报道 实习生谢雨伽 近年来,烟台市发展改革委始终锚定"率先走在全省前列"目标,将重点项目建设作为推动经济社会发展的 主抓手,对全市重点项目实施"清单化管理、责任化落实",压实责任、压茬推进项目建设各项任务,全市项 目建设呈现"进度超前、量质齐升"良好态势。 项目建设持续保持全省领先。近年来,全市加快布局实施新能源、新材料、生物医药、高端装备等产业 项目,省重大项目数量、省级重点项目体量连续四年居全省首位,2025年全市139个省级重点建设类项目全 部实现开复工、完成投资1214.5亿元,200个市级重点建设类项目全部开复工、完成投资1030亿元,均超额 完成年度目标任务,有效发挥了产业项目对经济增长的支撑作用。 要素保障更加精准有力。坚持"要素跟着项目走",充分发挥重点项目要素保障服务专员机制效能,精准保 障土地、资金、能耗等要素资源,推动重点项目早落地、早投产、早达效。用地方面,2025年全市共解决 重点项目建设用地1.9万余亩,实现项目用地"应保尽保",有力保障了招远核电、龙烟铁路市域化改造工 程、烟台南站及动车所等项目用地需求。资金方面,争取地方政府专项债、超长期特别国债、政策性金 融工具等各 ...

齐鲁晚报.齐鲁壹点秦雪丽实习生谢雨伽 1月26日，烟台市人民政府新闻办公室举行发布会。会上，发布了烟台市2025年经济社会运行情况，烟 台市发展改革委总经济师张宝回答媒体关注的问题。据介绍，烟台市今年入选省级重点项目152个，总 投资首次突破万亿元大关。 近年来，烟台市发展改革委始终锚定"率先走在全省前列"目标，将重点项目建设作为推动经济社会发展 的主抓手，对全市重点项目实施"清单化管理、责任化落实"，压实责任、压茬推进项目建设各项任务， 全市项目建设呈现"进度超前、量质齐升"良好态势。 项目建设持续保持全省领先。近年来，全市加快布局实施新能源、新材料、生物医药、高端装备等产业 项目，省重大项目数量、省级重点项目体量连续四年居全省首位，2025年全市139个省级重点建设类项 目全部实现开复工、完成投资1214.5亿元，200个市级重点建设类项目全部开复工、完成投资1030亿 元，均超额完成年度目标任务，有效发挥了产业项目对经济增长的支撑作用。 要素保障更加精准有力。坚持"要素跟着项目走"，充分发挥重点项目要素保障服务专员机制效能，精准 保障土地、资金、能耗等要素资源，推动重点项目早落地、早投产、早达效。用地方 ...

登录新浪财经APP 搜索【信披】查看更多考评等级 证券代码：002846 证券简称：英联股份 公告编号：2026-005 广东英联包装股份有限公司 特别提示： 1、近日，江苏英联复合集流体有限公司（简称"江苏英联"）与爱尔集化学技术开发有限公司（简 称"LG化学"）签署了《"英联-LG化学"联合实验室战略协议》，加强在复合集流体用高分子创新材料、 锂电创新材料等领域的深度合作。 江苏英联是专注于新能源汽车动力锂电池复合铝箔、复合铜箔的研发、生产和销售的高科技企业；LG 化学是一家多元化的全球领先科学企业，是LG集团旗下子公司，其业务涵盖石油化学、尖端材料、生 命科学三大领域，是2025年《财富》世界500强企业。 鉴于江苏英联与LG化学已有长期良好的合作关系，为充分发挥各自优势，双方达成进一步深化合作的 意向，由江苏英联与LG化学联合成立"英联-LG化学联合实验室"（简称"联合实验室"），双方将正式携 手开发新一代复合集流体用高分子创新材料，加速布局全球锂电创新材料市场。 2、本次协议的签署预计对公司本年度的经营业绩不会产生重大影响，但会对公司未来的经营发展起到 积极作用。 一、复合集流体项目的进展暨合作概述 ...

Core Insights - A recent collaboration between Chinese and Dutch scientists has successfully synthesized a dynamic polymer with a distinct double-helix structure, inspired by the Shanghai Tower, marking a significant advancement in biomimetic smart materials [2][10] - The polymer exhibits dynamic behavior similar to natural proteins, allowing it to expand and contract with temperature changes, fully unwind under specific conditions, and degrade into absorbable small molecules, presenting new avenues for material development [2][4] Research Background - The research was conducted by the Nobel Prize-winning team at East China University of Science and Technology, inspired by the architectural design of the Shanghai Tower, which is the tallest building in China and the third tallest in the world [2] - The team aimed to create artificial polymers with similar geometric features and dynamic functions as biological helical polymers, which play critical roles in information storage and structural support in living organisms [2][3] Methodology - The researchers began with basic small molecules, using natural, biocompatible "molecular building blocks" like amino acids and disulfide bonds, connected through dynamic reversible chemical bonds to form stable helical structures [3] - Initial designs relied on weak interactions, leading to structural collapse under heat or environmental changes, but breakthroughs were achieved by combining dynamic covalent bonds with rigid amino acid backbones, resulting in a flexible yet stable helical structure [3][4] Applications - The new polymer demonstrates potential in biocompatible materials, suitable for next-generation wearable or implantable medical devices, capable of adapting to complex mechanical environments within the body and safely metabolizing after use [4] - Its excellent mechanical flexibility, biocompatibility, and complete degradability position it as an ideal candidate for applications in flexible neural interfaces, targeted drug delivery systems, and tissue engineering scaffolds [4] Broader Implications - The research highlights the importance of bridging physical laws and biological phenomena, showcasing how simple molecular components can lead to complex structures and functionalities, a principle that has driven significant scientific advancements [5][6] - The ongoing development of molecular machines and nanotechnology, as evidenced by previous Nobel Prize-winning work, underscores the potential for these innovations to revolutionize various fields, including medicine and environmental science [6][9]

Core Insights - A recent collaboration between Chinese and Dutch scientists has successfully synthesized a dynamic polymer with a distinct double-helix structure, inspired by the Shanghai Tower, marking a significant advancement in biomimetic smart materials [1][2]. Research and Development - The research team, based at East China University of Science and Technology, was inspired by the unique aerodynamic stability of the Shanghai Tower, which is the tallest building in China and the third tallest in the world [1]. - The team aimed to create artificial polymers with similar geometric features and dynamic functions as natural helical polymers, which play critical roles in biological systems [1][2]. - Initial designs relied on weak interactions like hydrogen bonds, leading to structural collapse under heat or environmental changes. The breakthrough came from combining dynamic covalent bonds, particularly reversible disulfide bonds, with rigid amino acid backbones, resulting in a stable helical structure [2]. Applications and Potential - The synthesized polymer exhibits excellent mechanical flexibility, biocompatibility, and complete degradability, making it a promising candidate for next-generation wearable or implantable medical devices [2]. - Potential applications include flexible neural interfaces, targeted drug delivery systems, and tissue engineering scaffolds, which can adapt to complex mechanical environments within the body and safely metabolize after fulfilling their purpose [2]. Nanotechnology and Molecular Engineering - The research highlights the importance of bridging physical laws and biological phenomena, showcasing how simple molecular building blocks can lead to complex structures and functionalities [3]. - The concept of "molecular machines" has evolved, with previous advancements in molecular motors and vehicles, which can perform tasks at the nanoscale, indicating a growing field of molecular engineering [4][5]. Future Prospects - The ongoing development of nanorobots aimed at targeted cancer cell destruction represents a significant leap in molecular medicine, although challenges remain in enhancing specificity and penetration capabilities [6]. - The integration of artificial intelligence in molecular design and automated synthesis platforms is expected to accelerate the transition of these technologies into scalable applications across various sectors, including sustainable energy, smart wearables, precision medicine, and environmental management [6].

Core Viewpoint - Aekyung Chemical has completed the research and development of hard carbon anode materials and plans to expand its production line at the Jeonju factory to meet the growing demand in the sodium-ion battery market [1] Industry Summary - Hard carbon is a material used for anodes in sodium-ion batteries, primarily applied in electric vehicles and energy storage systems [1] - The market for hard carbon anode materials is expected to grow at an annual rate of over 30%, driven by the expanding applications of lithium-ion and sodium-ion batteries [1] - The demand for hard carbon is anticipated to increase further due to material diversification and cost competitiveness of sodium-ion batteries [1] Company Summary - Aekyung Chemical aims to accelerate product testing with domestic and international clients to capture market leadership [1] - The company plans to implement a phased approach to expand production capacity and factory operations [1]

Core Insights - The establishment of the Cooling Science Studio in Shanghai marks a significant step for Dow in the thermal management materials sector, aiming to foster innovation in cooling technologies through collaboration with partners in the value chain [2][3]. Group 1: Laboratory Functions and Objectives - The Cooling Science Studio is designed for collaborative innovation, integrating three functional areas to provide comprehensive technical support and one-stop services throughout the product development lifecycle [5]. - It offers systematic evaluation and testing capabilities across key components in sectors such as consumer electronics, communications, and renewable energy, providing reliable data support for clients [5]. - The lab showcases diverse application capabilities and cross-industry demonstrations, allowing clients to assess various application processes to identify the most suitable solutions [5]. Group 2: Industry Context and Challenges - The rapid advancement of AI technology is reshaping various industries, creating significant opportunities while simultaneously posing severe challenges in thermal management due to exponential growth in computing power demands [3]. - There is an urgent need for innovative cooling technologies and thermal management materials that effectively manage thermal loads while ensuring long-term reliability and sustainability [3]. Group 3: Upcoming Events - The 6th Thermal Management Industry Conference and Exposition will focus on six major application themes, including data centers, new energy vehicles, humanoid robots, consumer electronics, eVTOL/unmanned aerial vehicles, and energy storage [7].

Group 1 - The core point of the article is that Yake Technology (SZ 002409) held its 16th meeting of the 6th Board of Directors on October 29, 2025, to review proposals regarding the formulation and revision of certain governance systems [1] - For the first half of 2025, Yake Technology's revenue composition was as follows: electronic materials accounted for 59.95%, chemical materials for 30.27%, equipment leasing for 7.91%, and others for 1.88% [1]

Core Insights - The 2025 Nobel Prize in Chemistry was awarded to researchers S. Kitagawa, Richard Robson, and Omar Yaghi for their contributions to the field of Metal-Organic Frameworks (MOFs), marking a significant milestone in over 30 years of research and development in this area [1][2][11] - The advancements in MOF research have transitioned from structural design to industrial applications, with artificial intelligence (AI) now playing a crucial role in reshaping the field [1][12] Group 1: Historical Development of MOFs - Richard Robson proposed the concept of three-dimensional coordination polymers in 1989, which laid the groundwork for the development of MOFs [3] - Over the next 15 years, Omar Yaghi and S. Kitagawa made significant breakthroughs in structural construction and functional regulation, establishing MOFs as a new class of porous materials [3][4] - The introduction of flexible frameworks and tunable pores by S. Kitagawa transformed MOFs from rigid materials to dynamic structures, enhancing their applicability [4] Group 2: Industrial Applications and Innovations - MOFs have shown potential in various applications, including gas storage, carbon capture, and biomedical fields, with commercial structures like the Zr-based UiO series being developed for high thermal stability [8][10] - The CALF-20 MOF, developed by the University of Calgary, has been utilized for carbon capture in cement production, demonstrating the material's effectiveness in challenging environments [10][11] Group 3: AI Integration in MOF Research - The integration of AI in MOF research has led to significant advancements, with a notable increase in publications on the topic since 2016, indicating a growing interest in the intersection of AI and MOFs [12][14] - Recent developments include the MOFFlow model, designed specifically for predicting MOF structures, and the MOFGen system, which utilizes various AI techniques for generating and validating MOF structures [21][24][26] - The modular and parameterizable nature of MOFs makes them ideal candidates for AI-driven research, allowing for a more systematic approach to material discovery and design [16][18]

Core Viewpoint - Wanrun Co., Ltd. announced that its subsidiary, Yantai Jiumu Chemical Co., Ltd. (Jiumu Chemical), has received the acceptance notice from the Beijing Stock Exchange for its application to publicly issue shares and list on the exchange [1][3]. Company Overview - Wanrun Co., Ltd. holds 85 million shares of Jiumu Chemical, representing a 45.33% stake, making it the controlling shareholder [3]. - Jiumu Chemical, established in 2005, specializes in the research, production, and sales of OLED front-end materials and is recognized as a national key specialized and innovative "little giant" enterprise [4]. - Wanrun Co., Ltd. operates in four main sectors: environmental materials, electronic information materials, new energy materials, and life sciences and pharmaceuticals [4]. Financial Performance - Jiumu Chemical's revenue from 2022 to Q1 2025 was 706 million yuan, 878 million yuan, 962 million yuan, and 208 million yuan, respectively, with net profits of 197 million yuan, 203 million yuan, 246 million yuan, and 46 million yuan [5]. - The company has increased its R&D investment from 58.78 million yuan in 2022 to 83.03 million yuan in 2024, with R&D expenses accounting for 8.33%, 7.47%, and 8.63% of revenue in the respective years [5]. Market Position and Industry Outlook - Jiumu Chemical is expected to capture approximately 23% of the global OLED front-end materials market in 2024 [4]. - The demand for OLED front-end materials is anticipated to grow due to the increasing market penetration of OLED panels in consumer electronics such as smartphones and smart home products [4]. - Jiumu Chemical's overseas sales accounted for 92.69% of its main business revenue in 2024, with key markets including South Korea, Germany, and Japan [5]. Customer Concentration Risk - The company has a high customer concentration risk, with sales to its top five customers accounting for 72.93%, 71.40%, and 77.45% of its revenue from 2022 to 2024 [5].