本报讯(记者李雯珊)8月25日，深圳市创益通（300991）技术股份有限公司(以下简称"创益通")发布公告 称，基于业务发展需要，公司拟以自有资金对全资子公司乐山天穹动力科技有限公司(以下简称"乐山天 穹")增资7000万元。同时乐山天穹以增资入股方式引入2名同属于无人机产业链中的新战略投资者，即 光启技术（002625）股份有限公司(以下简称"光启技术")和科比特创新科技股份有限公司(以下简称"科 比特")，双方分别以自有资金认缴新增注册资本800万元和1200万元。 此次引人注目的是，其中一方的战略投资人为光启技术。作为超材料行业龙头企业，一直致力于超材料 发展，并通过超材料的七大能力平台赋能无人机领域的发展。在今年1月份，光启技术携手5家企业入驻 四川省乐山市，旨在为乐山市打造无人机全产业链，其引入的五家企业也覆盖了下游专门从事工业无人 机制造企业，到上游模拟芯片和AI智能企业，以及无人机发射平台企业和航空智能检验检测企业的全 链条。 此次光启技术、科比特、创益通的三方注资，正是光启技术推动"链式协同"的关键落子——通过超材料 能力平台优化天穹的机身结构与材料性能，科比特以工业级场景需求加强产品设计，创 ...

此次出资的两家企业均为低空无人机产业链的上下游企业。光启技术作为我国超材料行业龙头企业，在 航空航天领域深耕十余年，也是该领域的核心系统级供应商，其超材料复杂功能结构件广泛应用在我国 尖端装备领域；科比特是工业无人机领域国家级专精特新"小巨人"企业，也是无人机行业国家标准和国 际标准制定单位。企业有院士工作站、国家部委重点实验室、哈工大联合实验室、省级工程中心等研究 机构，引领空天地一体化移动智慧城市系统技术。 乐山天穹在行业中具有强大的知名度，其依托于哈工大、武大等顶尖院校专家团队，在自适应控制、飞 行控制及计算机视觉等关键技术领域深耕近20年。其无人机不仅在第九届世界无人机大会"十大低空整 机制造企业"榜单，成为榜单中唯一以AI技术为核心的整机制造商，更是在"2025丝绸之路万里行"活动 中，用科技点亮中亚丝路夜空，用技术唤醒千年的丝路文化，向世界展示中国无人机技术的领先实力。 同时，天穹动力无人机团队还将前往乌兹别克斯坦、塔吉克斯坦、阿联酋、沙特等中亚、中东10多个丝 绸之路沿线国家继续开展表演。近日，乐山天穹第10000架无人机正式下线更引发外界关注，彰显了公 司在无人机制造领域的雄厚实力，也为我国低 ...

天眼查App显示，近日，江阴市迈莱新材料有限公司成立，法定代表人为杨晓兰，注册资本85万人民 币，经营范围为一般项目：高性能密封材料销售；新材料技术推广服务；超材料销售；橡胶制品销售； 化工产品销售（不含许可类化工产品）；塑料制品销售；海绵制品销售；合成材料销售；石棉制品销 售；模具销售；建筑防水卷材产品销售；电线、电缆经营；金属工具销售；日用杂品销售；建筑材料销 售；保温材料销售；防腐材料销售；建筑装饰材料销售；工艺美术品及收藏品零售（象牙及其制品除 外）；包装材料及制品销售；五金产品零售；金属结构销售；机械零件、零部件销售；涂料销售（不含 危险化学品）；电子产品销售；光伏设备及元器件销售；社会经济咨询服务；信息咨询服务（不含许可 类信息咨询服务）；针纺织品销售；五金产品批发；产业用纺织制成品销售；国内贸易代理（除依法须 经批准的项目外，凭营业执照依法自主开展经营活动）。 ...

隐身材料：先进战机核心技术，新兴材料潜力巨大 20250818 摘要 隐身技术依赖于探测手段的发展，主要包括可见光、雷达和红外探测， 其中雷达隐身技术是研究重点，主流方法为无源隐身，通过控制电磁波 和降低回波强度实现，RCS 是衡量隐身效果的关键指标。 雷达隐身技术主要通过减少电磁波发射和降低回波强度实现，包括使用 吸波材料和结构隐身材料。结构隐身材料利用先进复合材料制作具备隐 身功能的部件，如机翼和进气道等。 红外隐身主要针对 1-2.5 微米、3-5 微米和 8-14 微米波段进行处理，通 过涂覆低红外发射率涂层降低高温部位的红外辐射，实现隐身效果。 频率选择表面技术应用于飞机和战舰，允许特定频率电磁波通过，阻挡 其他频率，实现功能保障与隐身效果兼顾，如 F22 战斗机和拉菲特级护 卫舰的雷达罩。 超材料通过亚波长单元结构排列展现超常物理特性，可使电磁波绕过物 体实现隐身，为军事科技提供新的方向，实现更高效的隐藏。 Q&A 隐身材料在航空装备中的应用前景如何？ 随着航空装备的更新换代，隐身材料在整个航空产业链中的渗透力将显著提升。 下一代航空装备对战机隐形特性的要求越来越高，这使得隐身材料的性能指标 和应 ...

Group 1 - A new company, Linyi Shengjing International Trade Co., Ltd., has been established with a registered capital of 600,000 RMB [1] - The legal representative of the company is Liu Na [1] - The business scope includes general projects such as import and export of goods, sales of super materials, lightweight building materials, new metal functional materials, artificial boards, daily wooden products, special labor protection products, plastic products, furniture accessories, wood and bamboo processing machinery, packaging materials and products, and retail of hardware products [1]

Core Viewpoint - The company is committed to increasing its R&D investment in the field of metamaterials and aims to explore new market applications to contribute to industry progress and social development [1] Group 1: Development and Production Capacity - The company has established five major R&D and production bases across the country, transitioning metamaterial technology from the laboratory to large-scale production over 15 years [1][2] - The company has expanded its workforce to over 4,000 employees and has restructured its management system through digitalization and AI technology, significantly reducing management costs [2] - The company has achieved full production capacity at its existing bases and is set to launch new production at its bases in Hunan and Tianjin, which will alleviate current delivery pressures and enhance production efficiency [2] Group 2: Core Competitiveness - The company's core competitiveness is summarized in three aspects: the introduction of the Metamaterials 4.0 technology group, significant cost control through digital transformation, and a manufacturing system that ensures efficiency and stability in large-scale production [2] - The company has integrated approximately 2,000 upstream and downstream enterprises to form a complete ecosystem covering R&D, production, and application of metamaterials [3] Group 3: Industry Ecosystem - The company is focused on building an industrial ecosystem for metamaterials, emphasizing the need for collaboration among multiple enterprises to strengthen the industry [3] - The strategic framework of the company enables vertical integration of technological innovation and horizontal industrial collaboration, creating a complete closed-loop ecosystem for breakthrough developments in the metamaterials field [3] Group 4: Application Expansion - The company is expanding the application range of metamaterials, with current projects in smart automotive technology and robotics, addressing technical challenges and improving accuracy and stability [4][5] - Future developments will include the integration of sensing and semiconductor technologies, leading to fundamental changes in industrial models [4] Group 5: Future Research Directions - The company is planning to establish a new research institute focused on exploring material design at the molecular structure level to support disruptive innovations in metamaterials [5]

Group 1: Carbon Fiber - Carbon fiber is a crucial material in modern warfare, enhancing the performance of military equipment due to its high strength, low density, and excellent thermal and electrical properties [4][6][10] - The development of carbon fiber began in the 1860s, and it is recognized for its superior characteristics, making it a strategic material for military applications [6][7] - The complexity of manufacturing carbon fiber has led to significant advancements in military technology, with countries investing heavily in its development to improve weapon systems [8][9] Group 2: Advanced Materials - The modern information warfare emphasizes the importance of high-performance materials, with carbon fiber and composites being essential for achieving stealth, low energy consumption, and high maneuverability in military equipment [10] - Countries are focusing on developing higher strength and modulus carbon fibers, along with advanced resins and manufacturing technologies, to enhance their military capabilities [10] Group 3: Metamaterials - Metamaterials are engineered to have properties not found in naturally occurring materials, offering revolutionary applications in military technology, particularly in stealth and radar evasion [14][18] - The development of metamaterials has led to significant advancements in stealth technology, enabling military assets to avoid detection by various means [18][19] Group 4: Graphene - Graphene is recognized as a leading material in military technology due to its exceptional strength, flexibility, and conductivity, with applications in microelectronics and advanced protective materials [28][30] - The U.S. and other developed nations are investing heavily in graphene research to enhance military capabilities, including the development of faster and more efficient computing systems [30][31] Group 5: Armor Materials - The demand for advanced armor materials has increased due to the evolving nature of warfare, with a focus on improving the protective capabilities of military vehicles [36][37] - Various materials such as ballistic glass, steel, ceramics, and high-strength fibers are being utilized to enhance the armor protection of military equipment [38][41][42] Group 6: Stealth Coatings - Stealth coatings are critical for reducing the detectability of military assets, with various types designed to minimize radar, infrared, and visual signatures [46][49] - The development of multi-functional stealth materials is a key focus, aiming to provide comprehensive protection against multiple detection methods [58][59] Group 7: 3D Printing in Defense - 3D printing technology is becoming increasingly important in the defense sector, allowing for the rapid production of complex components and reducing costs [66][67] - The U.S. military is integrating 3D printing into its operations to enhance the maintenance and performance of aircraft and other military equipment [71][74]

Group 1 - The article emphasizes the dual drivers of carbon neutrality and the Fourth Industrial Revolution as catalysts for a materials revolution [7][72] - Global policies are accelerating the low-carbon and high-end transformation of the new materials industry, exemplified by the EU's Carbon Border Adjustment Mechanism and China's 14th Five-Year Plan for new materials [9][10][72] - Technological convergence across disciplines is leading to unprecedented breakthroughs in new materials development, such as AI and quantum computing applications [11][14][15] Group 2 - Six core tracks of new materials are identified: solid-state battery materials, superconducting materials, bio-based biodegradable materials, wide bandgap semiconductor materials, smart responsive materials, and metamaterials [18][24][28][31][35][39] - Solid-state batteries are highlighted as a key technology for electric vehicles, with significant advancements in electrolyte materials expected by 2025 [18][19][20] - Superconducting materials are crucial for energy networks and quantum computing, with notable advancements in high-temperature superconducting wires [24][26] Group 3 - The strategic focus for 2025 includes materials nearing commercialization, such as solid electrolytes and perovskite solar materials, which are expected to drive industry growth [42][45] - Technologies that may lead to industry chain restructuring include molecular self-assembly materials and hydrogen embrittlement-resistant alloys [46][48] - Geopolitically sensitive materials like extreme ultraviolet photoresists and high-purity quartz sand are becoming focal points for national security and economic stability [49][50][52] Group 4 - Companies are advised to build ecosystems, exemplified by CATL's closed-loop system for materials, cells, and recycling, enhancing competitiveness and sustainability [55][59] - Dow Chemical's use of digital twin technology in materials development significantly improves R&D efficiency and market responsiveness [60][62] - The China Graphene Alliance's role in international standard-setting enhances China's global competitiveness in the graphene sector [64][66] Group 5 - The conclusion posits that the materials revolution will reshape human civilization, driving cleaner energy, smarter transportation, and advanced medical solutions [69][75] - The article underscores the importance of new materials in achieving sustainability and technological advancement, suggesting a bright future for the industry [72][75]

Group 1: Carbon Fiber - Carbon fiber is a crucial material in modern warfare, enhancing the performance of military equipment due to its high strength, low density, and excellent thermal and electrical properties [4][6][10] - The development of carbon fiber began in the 1860s, and it is often referred to as "black gold" due to its high practical value and manufacturing complexity [6][7] - The use of carbon fiber composite materials has significantly improved the performance of advanced military aircraft like the F-35, where it constitutes up to 35% of the aircraft's structure [9][10] Group 2: Metamaterials - Metamaterials are engineered to have properties not found in naturally occurring materials, offering revolutionary applications in military technology, particularly in stealth and radar evasion [14][18] - Recent advancements in metamaterials have led to significant developments in stealth technology, enabling military assets to avoid detection by radar and other sensors [18][19] - The research and application of metamaterials are expected to transform future combat scenarios by enhancing the capabilities of various military platforms [24][25] Group 3: Graphene - Graphene is recognized as the strongest and thinnest known material, with exceptional electrical and thermal conductivity, making it highly valuable in military applications [28][30] - The U.S. and other developed nations are investing heavily in graphene research for its potential use in advanced military technologies, including high-performance sensors and lightweight armor [31][32] - Graphene's unique properties could lead to significant improvements in military computing and sensor technologies, enhancing operational capabilities [30][33] Group 4: Armor Protection Materials - The demand for advanced armor protection materials has increased due to the evolving nature of modern warfare, necessitating improvements in military vehicle protection [36][37] - Various materials, including ballistic glass, steel, ceramics, and high-strength fibers, are utilized in military armor systems to enhance protection against modern threats [38][41] - The development of composite armor systems that integrate multiple materials is becoming a standard practice to achieve optimal protection while minimizing weight [41][42] Group 5: Stealth Coatings - Stealth coatings are critical for reducing the detectability of military assets by controlling their observable characteristics across various detection methods [47][49] - These coatings can be classified into several types, including radar-absorbing, infrared, and visible light stealth coatings, each designed to mitigate specific detection risks [51][52] - The ongoing development of multi-functional stealth materials is essential for enhancing the survivability of military platforms in increasingly complex combat environments [58][63] Group 6: 3D Printing in Defense - 3D printing technology is emerging as a transformative force in the defense sector, enabling rapid prototyping and production of complex military components [66][67] - The U.S. military is integrating 3D printing into its supply chain to improve maintenance and operational efficiency for aircraft and other military equipment [71][74] - This technology allows for the production of parts on-demand, reducing lead times and costs associated with traditional manufacturing methods [67][71]

Core Insights - The integration of artificial intelligence (AI) in the design of metamaterials represents a significant technological transformation, allowing for faster and more efficient design processes compared to traditional methods [1][3][4] Group 1: AI in Metamaterial Design - AI can reduce the time required for metamaterial design from a year to just a few days, enabling quicker iterations and improved performance [1][3] - Traditional design relied heavily on the experience of designers, but AI-generated structures often outperform those based on historical design cases [3][4] - Companies like Guangqi Technology have been investing in AI for years, with significant financial commitments, such as 100 million yuan on a material database from 2011 to 2015 [3][4] Group 2: Applications and Market Landscape - Metamaterials can exhibit properties not found in natural materials, with applications in defense, acoustics, and thermal management [1][6] - The acoustic metamaterials sector has seen design times decrease from months to about a week, showcasing the efficiency gains from AI [6] - Guangqi Technology reported revenues of 1.558 billion yuan in the previous year, indicating a strong market presence in aerospace applications [7] - The radiation cooling sector is emerging with several new companies, projecting a revenue increase to 100 million yuan this year, reflecting growth in this niche market [7]