在2025生物制造大会上，工业和信息化部还公布了《高性能生物反应器创新任务入围揭榜单位名 单》《生物制造中试能力建设平台名单（第一批）》《生物制造标志性产品名单（第一批）》三项名 单。 工业和信息化部消费品工业司司长何亚琼介绍，三项名单精准构建"创新攻关—转化支撑—成果落 地"完整产业生态链，创新任务揭榜挂帅入围单位将成为产业升级"先锋队"，中试平台承担成果转化"加 速器"作用，标志性产品则为产业高质量发展树立"风向标"。下一步将持续优化政策环境、加大支持力 度、完善创新生态，为生物制造产业发展提供坚实保障。 "十五五"时期，我国生物制造进入关键发展期。据了解，工信部将编制发布"十五五"生物制造发展 规划，明确标志性产品和人工智能典型应用案例，培育生物制造中试平台，开展高性能生物反应器揭榜 挂帅，筹建生物制造标准化工作组，培育生物制造复合型人才等工作，努力推进生物制造迈向新发展阶 段。 日前举行的2025生物制造大会介绍，近年来，我国生物制造产业规模持续壮大。目前，全国生物制 造产业总规模达到1.1万亿元，生物发酵产品产量占全球70%以上，其中食品及添加剂、生物制药两个 细分领域年产值均超4000亿元。创新实 ...

日前举行的2025生物制造大会介绍，近年来，我国生物制造产业规模持续壮大。目前，全国生物制造产 业总规模达到1.1万亿元，生物发酵产品产量占全球70%以上，其中食品及添加剂、生物制药两个细分 领域年产值均超4000亿元。创新实力也不断增强，我国生物制造领域论文发文量、专利申请量全球占比 均超20%，建成了一批国家重点实验室和产业创新平台。 生物制造是未来物质生产重要形式，国际社会普遍认为生物制造有望成为第四次工业革命的核心驱动力 之一。大力发展生物制造，对培育新质生产力、推进新型工业化具有重要意义。 赛迪研究院消费品工业研究所所长李博洋介绍，"十四五"期间，我国生物基材料、生物基化学品、食品 及添加剂等细分领域规模持续增长，生物发酵产值较"十三五"末增长约20%，一些大宗产品产量居世界 首位；透明质酸、聚乳酸、人工合成淀粉等部分新兴领域实现与发达国家并跑或领跑。2015年以来，全 球合成生物制造投融资保持约30%年复合增长率，2025年预计可达250亿美元左右，我国投融资规模增 长至近300亿元/年。 李博洋建议，通过构建和完善产业创新体系、现代产业体系、管理服务体系三大体系，加快推动生物制 造高质量发展。 ...

集群效应初步显现，因地制宜特色发展。加快产业耦合、技术结合、场景融合，例如，深圳合成生物集 群培育全国三成新设立合成生物企业，建成重大科技基础设施；绥哈大齐生物制造集群利用生物质资 源，构建氨基酸、燃料乙醇等优势领域，年产值600多亿元；海南、青岛发展海洋生物制造，构建微生 物资源库，推动海洋生物医药等"小切口"大发展。 日前举行的2025生物制造大会介绍，近年来，我国生物制造产业规模持续壮大。目前，全国生物制造产 业总规模达到1.1万亿元，生物发酵产品产量占全球70%以上，其中食品及添加剂、生物制药两个细分 领域年产值均超4000亿元。创新实力也不断增强，我国生物制造领域论文发文量、专利申请量全球占比 均超20%，建成了一批国家重点实验室和产业创新平台。 生物制造是未来物质生产重要形式，国际社会普遍认为生物制造有望成为第四次工业革命的核心驱动力 之一。大力发展生物制造，对培育新质生产力、推进新型工业化具有重要意义。 赛迪研究院消费品工业研究所所长李博洋介绍，"十四五"期间，我国生物基材料、生物基化学品、食品 及添加剂等细分领域规模持续增长，生物发酵产值较"十三五"末增长约20%，一些大宗产品产量居世界 首位 ...

Core Insights - The development of artificial starch synthesis represents a significant milestone in synthetic biology, allowing for starch production in a bioreactor that is equivalent to the yield from 5 acres of corn cultivation [1] - The energy conversion efficiency of artificial starch synthesis has improved by 3.5 times compared to corn, with an 8.5 times increase in synthesis speed and a 136 times increase in yield from the initial version [1] - The integration of artificial intelligence technology has accelerated the rational design process in synthetic biology, expanding its applications to complex molecules such as sucrose, hexose, and biodegradable materials [2] Group 1 - The artificial synthesis of starch can be achieved through a non-natural carbon fixation pathway designed by the research team, which includes 11 reaction steps [1] - The latest version of the artificial starch synthesis pathway has been optimized, indicating a shift towards industrial-scale production of starch, moving away from traditional agricultural methods [1] - The advancements in synthetic biology are providing new solutions for various industries, including food, energy, and pharmaceuticals [2]

Core Insights - The breakthrough in artificial starch synthesis through synthetic biology allows for starch production without reliance on agricultural resources such as land and freshwater, potentially reshaping the landscape of biological manufacturing and agricultural production [1][3]. Group 1: Synthetic Biology Overview - Synthetic biology, originating from the term coined by French chemist Stéphane Leduc in 1911, is an interdisciplinary field that combines biology, genomics, engineering, and informatics to design biological systems and even create new life [3]. - The artificial synthesis of starch represents a milestone in synthetic biology, moving from natural photosynthesis processes to engineered methods that utilize carbon dioxide, water, and hydrogen as raw materials [3][4]. Group 2: Technological Advancements - The research team led by Ma Yanhe successfully identified the optimal pathway from 6,568 biochemical reactions, addressing challenges in thermodynamic matching and metabolic flow balance to synthesize starch [4]. - The latest version of the artificial starch synthesis pathway has improved energy conversion efficiency by 3.5 times and reduced synthesis time from 2-3 months to just a few days, indicating a significant advancement in industrial starch production capabilities [6]. Group 3: Market Potential - The global synthetic biology market has grown from $5.3 billion in 2018 to over $17 billion in 2023, with an average annual growth rate of 27%, and is projected to reach nearly $50 billion by 2028 [8]. - The integration of artificial intelligence in synthetic biology is enhancing the rational design process, expanding applications to complex molecules such as sucrose, hexose, and biodegradable materials, providing new solutions for the food, energy, and pharmaceutical industries [6]. Group 4: Event and Collaboration - The "Good Hope Science Salon" event, co-hosted by various organizations, aims to create a platform for impactful interdisciplinary collaboration and exchange in the field of synthetic biology [10]. - Over 100 experts, scholars, and industry leaders participated in discussions about technological advancements and commercialization prospects in synthetic biology [6].