建议明确要优化提升传统产业。推动传统汽车产业向新能源智能网联汽车、石化产业向"减油增化提 质"、冶金建材产业向绿色化高端化转型，加快传统装备、医药、轻纺等产业创新发展。坚持以标准化 建设为引领，开展有组织新型技术改造行动，提标实施"智改数转"、设备更新和绿色改造，引导企业全 面技术升级和增资扩产。开展先进制造业集群梯次培育行动，推动重点行业落后产能有序退出和转型发 展，为先进产能腾出资源、市场空间和环境容量。 要培育壮大战略性新兴产业。着力打造新能源、新装备、新材料、新医药、新一代光电信息、低空经济 等新兴产业。推动新能源产业跨越式发展，做强绿电、绿氢、氢基化工和装备制造全产业链。提升新能 源就地消纳和外送能力，进一步扩大"绿电直连"规模。聚焦先进轨道交通装备等关键领域，积极承担国 家制造业重点产业链自主可控任务。加快打造千亿级碳纤维产业，大力发展化工新材料、新型能源材 料、生物基新材料。推动生物医药创新能力进入国家第一方阵，支持创新药高质量发展，促进医疗器械 产业高端化、国产化、国际化。深度参与国家半导体产业发展，重点突破工业母机、高端仪器等领域关 键核心技术，打造光电重大设备及关键部件研发制造基地，建设中 ...

格隆汇12月11日｜中共吉林省委关于制定吉林省国民经济和社会发展第十五个五年规划的建议发布。其 中提出，前瞻布局未来产业。抢占人工智能、氢能与新型储能、空天信息、生物制造、原子级制造等未 来产业发展新赛道。建设高性能算力集群，推进"人工智能+"行动，打造全链条具身智能与人形机器人 产业。加快氢能产业布局，构建"氢能+"产业生态。支持氢能城际列车等推广应用，着力打造氢能交通 走廊。大力发展高效率、低成本新型电池产品。研制新一代卫星产品，构建空天地一体化、通导遥深度 融合的信息基础设施和服务体系。加快发展生物工程制品，开发新型生物健康产品。集中攻克高精度设 备、先进材料和微纳制造工艺等关键技术，加速推进产业化。 ...

人民财讯12月11日电，中共吉林省委关于制定吉林省国民经济和社会发展第十五个五年规划的建议发 布。其中提出，前瞻布局未来产业。抢占人工智能、氢能与新型储能、空天信息、生物制造、原子级制 造等未来产业发展新赛道。建设高性能算力集群，推进"人工智能+"行动，打造全链条具身智能与人形 机器人产业。加快氢能产业布局，构建"氢能+"产业生态。支持氢能城际列车等推广应用，着力打造氢 能交通走廊。大力发展高效率、低成本新型电池产品。研制新一代卫星产品，构建空天地一体化、通导 遥深度融合的信息基础设施和服务体系。加快发展生物工程制品，开发新型生物健康产品。集中攻克高 精度设备、先进材料和微纳制造工艺等关键技术，加速推进产业化。 ...

（文章来源：第一财经） 中共吉林省委关于制定吉林省国民经济和社会发展第十五个五年规划的建议发布。前瞻布局未来产业。 抢占人工智能、氢能与新型储能、空天信息、生物制造、原子级制造等未来产业发展新赛道。建设高性 能算力集群，推进"人工智能+"行动，打造全链条具身智能与人形机器人产业。加快氢能产业布局，构 建"氢能+"产业生态。支持氢能城际列车等推广应用，着力打造氢能交通走廊。大力发展高效率、低成 本新型电池产品。研制新一代卫星产品，构建空天地一体化、通导遥深度融合的信息基础设施和服务体 系。加快发展生物工程制品，开发新型生物健康产品。集中攻克高精度设备、先进材料和微纳制造工艺 等关键技术，加速推进产业化。 ...

Core Points - The 2025 Atomic-Level Manufacturing Industry Development Forum will be held on December 19-20, 2025, in Shanghai, focusing on the theme "Synergistic Development of Science and Industry" [1] - The forum is organized by the Shanghai Industrial Technology Innovation Promotion Association and the Atomic-Level Manufacturing Innovation Development Alliance, with the Mechanical Industry Instrumentation Comprehensive Technology Economic Research Institute as the host [1] - The event will gather experts, scholars, and industry representatives from various sectors, including universities, research institutions, state-owned enterprises, innovative technology companies, financial investment institutions, and government [1] - The forum aims to present national strategies and regional development dynamics, share innovative development concepts from academicians and experts, and discuss future paths for synchronized development of science and industry [1] - It will showcase the technological foresight, industrial innovation, international strategy, and economic driving force of atomic-level manufacturing, while also promoting collaboration among government, industry, academia, research, and finance [1]

Group 1: Core Concept of Atomic-Level Manufacturing - Atomic-level manufacturing is described as the ultimate form of material manipulation, akin to "extreme Lego" or "atomic embroidery," allowing precise control over individual atoms to create new materials and devices [2][3] - The technology has evolved from merely observing atoms to manipulating them, with significant advancements in techniques that allow for the determination of atomic coordinates [3][4] Group 2: Industry Applications and Implications - In the integrated circuit industry, achieving single-atom features in chips could reduce size and power consumption to less than one-thousandth of current levels while increasing computational power by over a thousand times [3] - The development of atomic-level manufacturing is seen as a strategic priority for major countries, with initiatives like the National Natural Science Foundation of China launching special projects by 2025 [3][4] Group 3: Research and Technological Innovations - Researchers are exploring innovative methods, such as using DNA as a programming language to guide the precise construction of atomic-level structures [3][4] - The Nanjing Atomic Manufacturing Research Institute has established a 30-meter-long experimental facility capable of manipulating atomic clusters at unprecedented speeds, achieving over a trillion operations per second [4][5] Group 4: Future Prospects and Global Collaboration - The potential of atomic-level manufacturing is vast, with applications ranging from energy solutions, such as artificial leaves for clean energy production, to breakthroughs in quantum computing and medical technologies [13][14][15] - The realization of atomic-level manufacturing will require interdisciplinary collaboration and the development of a skilled workforce across various scientific fields [15]

将重塑材料、器件与信息体系的根基 原子级制造，就是以原子为原料，制造所需的材料和器件产品。"原子级制造是通过对原子的规模化精 准操控，实现原子尺度结构或原子精度加工。它的独特价值在于，'原子'成为可编程的制造单元。"会 议召集人之一、华南师范大学教授赵纪军表示，原子级制造是先进制造技术向极微观深入发展的必然趋 势，也是我国构筑未来产业竞争优势的重要战略选择。 也许有一天，人类可以精确地操控原子，让物质和材料合成摆脱对体系和配方的依赖，从而按照需求自 由定制。这项听上去有些科幻的技术，正一步步向现实迈进。 "原子级制造不仅是材料科学与制造工程的交汇点，更是人类认识和重构物质的全新方式。"11月11日至 14日，南京大学与施普林格·自然出版集团联合主办的"原子级制造：前沿与应用"国际会议在南京大学 举行。会议发起人之一、南京大学原子制造研究院院长宋凤麒教授介绍，如何将原子垒砌成"人工分 子"，继而制造出新材料、新结构、新产品，正在成为全球科学家改造物质世界的热门探索。 此次会议吸引了来自全球的500余位学者、专家及产业代表参加。多位与会学者表示，原子级制造作为 面向未来的重要战略技术，正在重塑材料科学、器件物理与 ...

Core Viewpoint - The article emphasizes the importance of integrating scientific exploration with industrial contributions in the development of atomic-level manufacturing technologies, as highlighted by the recent Xiangshan Science Conference [1]. Group 1: Technological Development - The NANO-X facility, developed by the Suzhou Institute of Nano-Tech and Nano-Bionics, serves as a model for "laying eggs along the way," focusing on both scientific research and industrial application [1]. - NANO-X has established five major platform modules for research and development of nanomaterials and devices in a vacuum environment, achieving efficient and stable operation [1]. Group 2: Research and Collaboration - The facility has conducted 780 collaborative projects and served over 280 users, accumulating more than 140,000 service hours, resulting in 381 published academic papers [2]. - A significant portion of the service users are enterprises, particularly startups, which utilize the platform to explore processes and verify material properties, thereby reducing R&D costs [2].

Core Viewpoint - The article discusses the significance of atomic-level manufacturing in advancing technology and enhancing national competitiveness, highlighting the establishment of the NANO-X facility as a pivotal step in this field [2][4]. Group 1: Overview of NANO-X - NANO-X is described as the world's largest, most efficient, and highly shared vacuum interconnection experimental facility, integrating over 50 large scientific research devices [1]. - The facility aims to explore cutting-edge technology in atomic-level manufacturing, which involves precise manipulation of atoms to create materials and devices with specific functions [3]. Group 2: Importance of Atomic-Level Manufacturing - Atomic-level manufacturing is seen as a transformative technology that can create unprecedented new states of matter, materials, and devices, applicable in critical fields such as integrated circuits, quantum computing, and artificial intelligence [4]. - The current research in this area has progressed from single-atom manipulation to the manipulation of hundreds of thousands of atoms, indicating significant advancements in the field [4]. Group 3: Challenges and Requirements - There are substantial gaps between scientific research in atomic manipulation and the manufacturing of atomic-level devices, necessitating comprehensive scientific infrastructure to address common scientific issues [5]. - The need for ultra-high vacuum environments is emphasized to eliminate external contamination that could adversely affect the performance of atomic-level materials and devices [5][6]. Group 4: Research Focus Areas - The NANO-X facility focuses on three key scientific issues: the creation of atomic-level materials, precise processing of atomic-level devices, and high-resolution dynamic characterization of manufacturing processes [6]. - The goal is to achieve accurate manufacturing, precision processing, and clear observation of atomic-level production [6]. Group 5: Role of Artificial Intelligence - AI is positioned as a crucial enabler in the creation of new materials and device simulations, with plans to establish a comprehensive open-source database for single-atom catalysts and intelligent models [7]. - The integration of AI with high-throughput computing and experimental results is expected to address core questions in new material creation, enhancing the efficiency and effectiveness of the research [7].

Core Insights - The "Atomic-Level Manufacturing: Frontiers and Applications" satellite conference, hosted by Nanjing University, commenced a four-day series of Nature Conferences focused on atomic-level manufacturing, featuring cutting-edge research from experts in the field [1] Group 1: Conference Themes - The conference included three parallel thematic sessions: atomic-level construction mechanisms and theoretical foundations, interdisciplinary empowerment and functional system design, and detection metrology and process standardization [3] - In the session on atomic-level construction mechanisms, notable presentations included a keynote by Professor Zhao Jijun from South China Normal University on "Atomic Element Calculation Design for Atomic-Level Manufacturing," and advancements in quantum device preparation by researchers from Shenzhen International Quantum Research Institute [3][5] - The interdisciplinary empowerment session highlighted new strategies in nanoscale manufacturing and atomic-level detection techniques, with contributions from professors at Harbin Institute of Technology and Nanjing University [5][6] Group 2: Roundtable Discussions - Three roundtable forums were held, focusing on atomic-level construction mechanisms, intelligent empowerment, and detection systems, with discussions led by various professors emphasizing the need for multi-field coupling and AI integration in atomic manufacturing [7][8] - The forums addressed challenges in scaling scanning probe technology and the importance of establishing cross-institutional data-sharing platforms to enhance research efficiency [7][8] - Experts agreed on the significance of the concept of "atomic-level manufacturing," which embodies both precision control from atoms to devices and a fundamental restructuring of performance and structural hierarchies [8]