Core Insights - Yunnan Province has issued an action plan to accelerate the construction of a modern industrial system, focusing on the biopharmaceutical industry as a key strategic emerging industry, aiming for an industry revenue of 350 billion yuan by 2027 [1] Group 1: Industry Growth and Revenue - During the 14th Five-Year Plan, Yunnan's biopharmaceutical industry has seen steady revenue growth, increasing from 275.1 billion yuan in 2021 to 323.2 billion yuan in 2024, with an average annual growth rate exceeding 6.5% [1] - The industry has established a complete industrial chain for natural medicines and a biopharmaceutical research and production system focused on vaccines [1] Group 2: Technological Advancements and Innovations - Significant technological breakthroughs include the successful development and mass production of genetically edited donor pigs for organ transplantation, and the approval of two Class I new drugs for clinical trials [2] - Research on dengue virus isolation has been recognized as one of the "Top Ten Advances in Life Sciences in China" for 2024, and ultrasound-guided interventional therapy has been designated as a global promotion project by the United Nations [2] Group 3: Future Development Strategies - The 15th Five-Year Plan will focus on advancing core technologies in biopharmaceuticals, including new vaccines, antibody drugs, and gene therapy, while accelerating new product development [2] - Yunnan aims to integrate healthcare with biopharmaceuticals, exploring active components from highland plants and animals to develop new raw materials and products [2] - The province is also planning to promote the industrialization of biomanufacturing, cell therapy, and xenogeneic organ transplantation, expanding the application of biotechnology across various fields [2]

1月16日，修订后的《国家重大科研基础设施和大型科研仪器开放共享评价考核实施细则》（以下简称《实施细则》）在科技部官网公布，自 2026年2月1日起正式施行。 | 中华人民共和国科学技术部 | Ministry of Science and Technology of the People's Republic of China | | | | | 全站 ▼ 请输入关键字 | | O | | --- | --- | --- | --- | --- | --- | --- | --- | --- | | 首页 组织机构 | | 信息公开 | 科技政策 | 政务服务 | | 党建工作 | 公众参与 | 专题 | | 当前位置：政府公开目录 > 主题分类 > 法定主动公开内容 > 法规政策 > 规范性文件 > 2026年 | | | | | | | | | | 标 题: 科技部办公厅关于印发《国家重大科研基础设施和大型科研仪器开放共享评价考核实施细则》的通知 | | | | | | | | | | 索 引 号: 306-2026-001 | | | | 发文机构: | 科技部办公厅 | | | | | 2026年0 ...

Core Viewpoint - The Ministry of Industry and Information Technology has issued a revised management method for the cultivation of high-quality small and medium-sized enterprises (SMEs), which now includes technology-based SMEs in its scope, aiming to enhance the quality and support for these enterprises [1][2]. Group 1: Cultivation System - The revised method expands the cultivation scope to include technology-based SMEs alongside innovative SMEs, collectively referred to as technology and innovation-based SMEs [1]. - A total of 17,600 specialized and innovative "little giant" enterprises have been cultivated since the start of the 14th Five-Year Plan, leading to the development of over 140,000 specialized and innovative SMEs and more than 600,000 technology and innovation-based SMEs [1]. Group 2: Discovery Mechanism - The new method introduces a proactive discovery mechanism to identify potential high-quality SMEs through data related to supply chains, equity investments, intellectual property, technology awards, and talent cultivation [2]. - The recognition standards for SMEs will not be lowered, but the thresholds for revenue, R&D investment, and intellectual property will be raised to ensure quality [2]. Group 3: Support Policies - The method emphasizes the need for local SME authorities to effectively utilize financial, technological, and talent support policies, tailoring services based on the characteristics and positioning of different enterprises [2]. - The aim is to implement policies that allow for immediate benefits to enterprises without the need for application, ensuring quick access to support [2].

Core Viewpoint - The first new display module production line on the Qinghai-Tibet Plateau has been established and put into operation in Xining, showcasing advanced technology and promising market potential [1] Group 1: Company Overview - The project is operated by Qinghai Dongyao Zhixian Technology Co., Ltd., which is responsible for the construction and operation of the production line [1] - The production line utilizes advanced solid crystal technology to achieve micro-level LED chip packaging [1] Group 2: Technology and Product Features - The display module circuit design employs the latest energy-saving common cathode driving technology, resulting in significantly lower power consumption compared to OLED and LCD screens [1] - The products feature high brightness, long lifespan, high contrast, low power consumption, energy efficiency, and an ultra-wide viewing angle of over 175 degrees, making them suitable for various applications in commercial and medical fields [1] Group 3: Market Potential - As development costs decrease and industries such as digital economy, artificial intelligence, and new energy vehicles flourish, the products are expected to find broader applications across more sectors, indicating a promising market outlook [1]

Group 1 - The Hangzhou Bay Cross-Sea Railway Bridge, the longest cross-sea railway bridge in the world, has reached a significant milestone with the successful topping of the main tower No. 8, which stands at 200 meters high [1] - The bridge is a key project of the Tongzhou-Ningbo High-Speed Railway, spanning 29.2 kilometers and featuring a dual-line ballastless track design for speeds of up to 350 km/h [1] - The bridge consists of three navigation bridges and a total of 26 kilometers of sea and shallow water approach bridges, with the northern navigation bridge being the largest span ballastless cable-stayed bridge under construction globally, measuring 932.7 meters in length and a main span of 450 meters [1] Group 2 - The main pier of the northern navigation bridge utilizes 52 piles with a diameter of 2.5 meters and a maximum depth of 150 meters, designed to penetrate complex seabed layers and ensure structural safety [2] - Innovative construction techniques, such as the "large double-wall steel caisson with full load and high-precision synchronous control," have been employed to create a stable working platform at sea [2] - The main tower is composed of multiple sections with high precision requirements, and the anchorage area for the stay cables employs a combination of steel anchor beams and steel brackets, requiring precise integration at significant heights [2]

Core Insights - The research team at Shanghai Jiao Tong University has made significant advancements in new energy storage technology by developing a high-voltage, anode-free sodium-sulfur battery system, which addresses the limitations of traditional sodium-sulfur batteries in discharge voltage and safety [1][2]. Group 1: Technological Advancements - The new sodium-sulfur battery system achieves a discharge voltage of 3.6 volts, a substantial increase from the typical voltage of less than 1.6 volts seen in conventional batteries [1]. - The innovative approach eliminates the need for metallic sodium in battery production, significantly enhancing safety [1][2]. Group 2: Research and Development - The research introduces a catalytic activation strategy that facilitates the transition of sulfur from a low oxidation state to a high oxidation state, overcoming challenges associated with high-voltage conversion [2]. - This breakthrough not only enhances the performance of alkali metal-sulfur batteries but also provides a theoretical basis and technical support for developing low-cost, sustainable, and high-performance energy storage systems [2]. Group 3: Market Implications - The advancements in sodium-sulfur battery technology are expected to play a crucial role in large-scale energy storage, low-altitude economy, and artificial intelligence sectors, addressing significant market demands [2].

Core Viewpoint - Shanxi Province is implementing a comprehensive energy transformation plan, leveraging technology to transition from a coal-dominated economy to a diversified energy system, aligning with national energy revolution goals [1][2][3]. Group 1: Energy Transition and Innovation - The Shanxi government has issued an implementation opinion to accelerate energy technology innovation, providing a "Shanxi plan" for national energy transformation [1]. - Shanxi has become the first national pilot for comprehensive energy reform, focusing on energy technology innovation and system reform [1][2]. - As of now, Shanxi has established 369 intelligent coal mines and 75 green mining demonstration mines, with advanced coal production capacity accounting for 84% [2]. Group 2: New Energy Development - The province is constructing a new energy system, promoting the integration of traditional and renewable energy sources, and developing bases for clean energy and unconventional natural gas [2][3]. - The new energy base project in Jinbei will have a total construction scale of 10 million kilowatts, capable of delivering 27 billion kilowatt-hours of clean electricity annually to the Beijing-Tianjin-Hebei region [3]. Group 3: Modern Coal Chemical Industry - Shanxi is enhancing the coal chemical industry, with advanced coking capacity reaching 96.6%, and is focusing on high-value utilization of coal as a chemical raw material [4][5]. - The province is developing multiple energy technology innovation platforms and creating various coal chemical industry chains to transition coal from a single fuel to high-end chemical raw materials [4][5]. Group 4: Digital Transformation and Computing Power - Shanxi is leveraging its coal and green energy advantages to build a computing power ecosystem, integrating computing power with various industries [6]. - The province's computing power center revenue grew by 69.5% in the first half of 2025, with significant increases in the manufacturing and information technology sectors [6]. Group 5: Policy and Strategic Direction - The provincial government is committed to deepening the energy revolution and developing new productive forces in line with national directives [7].

Core Viewpoint - The successful development and deployment of the world's first high-altitude container bundling robot by Taiyuan Heavy Machinery Group marks a significant advancement in the integration of artificial intelligence with high-altitude work platforms, ushering in a new era of intelligent port operations [1][2]. Group 1: Product Development and Features - The high-altitude container bundling robot has passed acceptance testing at Ningbo Zhoushan Port and is now in production, showcasing the company's ability to innovate in high-end equipment technology [1]. - The robot integrates a high-altitude work platform, robotic arm system, and visual recognition capabilities, enabling a transition from manual to intelligent operations [1]. - The research team overcame several key technical challenges, enhancing the machine's environmental tolerance and addressing precision issues related to arm flexibility through real-time visual feedback and adaptive force control systems [1]. Group 2: Operational Efficiency and Safety - The primary goals of the robot's development were to ensure safety, improve efficiency, and reduce costs, particularly during the typhoon season when traditional methods are time-consuming and hazardous [2]. - The robot has demonstrated over a 100% increase in operational efficiency, significantly reducing the time required for bundling from 6-8 hours to a much shorter duration [2]. - The device has proven effective during the typhoon season, maintaining high efficiency in adverse weather conditions and also serving dual purposes for port construction and maintenance [2]. Group 3: Future Directions and Impact - The deployment of the high-altitude bundling robot exemplifies Taiyuan Heavy Machinery Group's commitment to innovation-driven development and the enhancement of new productive forces [2]. - The company plans to continue advancing its transformation towards intelligent and green technologies, contributing to the high-quality development of China's manufacturing industry and the establishment of a modern industrial system [2].

为验证新材料的长期稳定性，团队构建了自动化测试系统，在40天内对材料连续实施1000次"破坏—修 复"循环。每次实验均人为制造50毫米长的分层裂纹，随后触发加热自愈机制，并检测修复后的承载能 力。结果显示，该材料在经历千次循环后仍保持优异性能，抗断裂能力显著优于传统复合材料，且韧性 衰减极为缓慢，创下自愈次数的新纪录。 团队表示，在实际应用中，材料仅在遭遇冰雹、鸟撞等突发损伤或定期维护时才启动修复程序。据此推 算，此类部件理论上可持续使用达125年以上，甚至在500年内仅需修复4次即可维持功能稳定。 这项技术将大幅降低工业设备的维修成本与能源消耗，减少废弃部件带来的环境污染，对难以返修的航 天器具有革命性意义。 （文章来源：科技日报） 美国北卡罗来纳州立大学科学家研发出一种新型自愈复合材料，可实现上千次自我修复，预计能使飞机 机翼、风力涡轮叶片和航天器结构部件的寿命延长至数百年，远超现有材料几十年的设计周期。相关成 果发表于新一期《美国国家科学院院刊》。 目前广泛使用的纤维增强聚合物（FRP）复合材料，因其轻质高强特性，被广泛应用于飞机、汽车、风 力发电机和航天器中。但这类材料长期面临"层间分层"难题，即内部 ...

Core Viewpoint - The research team from Xi'an Jiaotong University has successfully addressed the key issue of zinc ion transport and electrochemical reaction mismatch in alkaline zinc-based flow batteries, providing an innovative solution for developing high-stability and long-lifetime zinc-based flow battery energy storage technology [1][2]. Group 1: Research Findings - The alkaline zinc-based flow battery is highlighted for its advantages of high safety, high voltage, and low cost, making it a research hotspot for long-duration energy storage technology in new power systems [1]. - The previous research primarily focused on single-dimensional electrolyte additive design, which struggled to collaboratively resolve the mismatch between ion transport and reaction kinetics [1]. - The innovative concept of "organic molecular differential lock" was proposed, utilizing L-serine as a multifunctional electrolyte additive to achieve precise control over the electrolyte phase and electrode interface [1]. Group 2: Performance Improvement - The alkaline zinc-iron flow battery employing this strategy can operate stably for over 230 hours at a current density of 50 mA/cm², significantly enhancing cycling stability [2]. - The research reveals the multiple action mechanisms of the Ser additive, providing new ideas and theoretical basis for performance optimization and engineering applications of zinc-based flow batteries [2].