关键词| 非粮生物质进展 | 聚维元创、非粮生物基丁二酸 #聚维元创 已报名参选2026(第四届)DT新叶奖评选 ！ 「DT新叶奖」是专注于生物基领域创新的全球化、综合性奖项，致力于挖掘、展示、表彰生 物基行业的好产品、好企业，被誉为生物基行业的"奥斯卡"。「 2026(第四届)DT新叶奖 」 将于第11届生物基大会暨展览正式揭晓，并举行颁奖典礼。 聚维元创携 生物基丁二胺 、 全生物基包材及底座 、 秸秆源葡萄糖 三大产品，竞选第四届 新叶奖 " 创新材料奖 "、" 创新应用奖 "与" 最具商业价值奖 " 【 生物基能源与材料 】 获 悉，近日， 苏州聚维元创生物科技有限公司 宣布，其非粮生物基丁二酸产品成功通过ISCC PLUS认证，成为 全球首家 专注于非粮生物基丁二酸等生物基产品制造并获得该认证的企业 。 来源：聚维元创 ISCC（国际可持续与碳认证）是全球公认的可持续与碳足迹认证体系，源于欧盟为推行"可再生能源指令"而设立，是绿色供应链的关键准入标准。聚 维元创此次通过认证，意味着其建立了覆盖"原料收集-加工转化-产品输出"的全链条追溯体系，打通了从农业废弃物到高端化学品的高效、透明、可 持续的产业 ...

摘要：清泉股份拟募资4.92亿元，非粮生物基产品贡献近四成营收，公司综合毛利率达30.22% 不久前，一诺生物冲刺北交所，近一个月已有第二家非粮生物基企业冲刺IPO。 | 已受理 | 已问询 | 上市委会议 | 提交注册 | 注册结果 | | --- | --- | --- | --- | --- | | 2025-12-29 | | | | | | 公司全称 | 江苏清泉化学股份有限公司 | 公司简称 | 清泉股份 | | --- | --- | --- | --- | | 受理日期 | 2025-12-29 | 更新日期 | 2025-12-29 | | 审核状态 | 已受理 | 预计融资金额(亿元) | 4.923 | | 保荐机构 | 国信证券股份有限公司 | 保荐代表人 | 罗傅琪,汤海琴 | | 会计师事务所 | 天健会计师事务所 (特殊普通合伙) | 签字会计师 | 梁志勇,周柯峰 | | 律师事务所 | 北京德恒律师事务所 | 签字律师 | 吴迪,尹传志 | | 评估机构 | 坤元资产评估有限公司 | 签字评估师 | 程机号@DRR物题相源与材料 | 来源：深交所官网 招股书显示，清泉股份是一 ...

在原材料端，清泉股份是国内较早开展非粮生物基原材料糠醛综合利用开发的企业之一，打破传统精细化学品生产企业以石油基产品为原料的瓶颈限制。糠 醛是由玉米芯等非粮生物质水解得到的可再生的、绿色的非粮生物基材料，公司以糠醛为起始原料，通过核心技术产业化应用逐步向产业链下游延伸，现已 形成公司独特的非粮生物基产品矩阵。2022年至2025年上半年，清泉股份非粮生物基系列产品占公司主营业务收入比例分别为44.77%、39.65%、38.64%、 37.13%。 在技术端，清泉股份是国内精细化工领域较早规模化产业应用中高压催化加氢技术的企业之一，被江苏省科技厅认定为"中高压催化加氢工程技术研究中 心"。经中国轻工业联合会组织召开的技术鉴定会并经由中科院院士和行业专家鉴定，公司在"环状特种单体的选择性催化加氢制备与高效聚合技术开发及产 业化"领域的总体技术达到国际先进水平，其中"六元芳香环加氢催化剂及工艺"处于国际领先水平。 清泉股份积极推动核心技术的产业化应用，产品在全球市场中参与直接竞争，获得张掖大弓、格瑞达集团、飞扬骏研、IMCD集团、华谊集团、Kyowa集 团、中宁化集团、凯莱英、中国石化等国内外知名客户认可，在细分 ...

12月25日，生物制造企业一诺生物发布公告称，山东证监局于2025年12月25日受理其北交所上市辅导备案，辅导机构为国投证券。 而就在三天前的12月22日，一诺生物（证券代码：875019）才在全国中小企业股份转让系统（新三板）基础层正式挂牌。 这家近期在资本市场高度活跃的企业，曾入选中信部非粮生物基材料产业创新发展典型案例，是一家"将非粮生物质废弃物变废为宝"的生物制造企业。 从玉米芯到生物基材料 手握单项冠军 一诺生物成立于2015年，是一家专注于生物基呋喃系列及生物基多元醇系列等产品研发、生产与销售的生物制造企业。 技术上该公司主要以非粮生物质中的玉米芯为起点，通过糠醛提取、催化合成等技术，实现高附加值产品的转化，可实现98%原料转化率（行业平均 85%），每吨玉米芯产出价值提升300%。 旗下主要产品是糠醇和2-甲基四氢呋喃（2-MeTHF）。其中糖醇是国家级制造业单项冠军产品，是合成树脂、涂料、医药中间体的关键成分，也是生物燃 料和可降解塑料的潜在原料。 该公司的2-甲基四氢呋喃（2-MeTHF）则入选山东省制造业单项冠军，这是一种重要的环保溶剂以及化学中间体，广泛应用于医药、电子化学品、涂料等 领 ...

农田里的秸秆可以做成新能源汽车电池的核心零部件，不能吃的玉米芯可以产出高性能纺织品，棉 花可以合成液晶显示器偏光片的重要原料.... 中美都在加速布局的非粮生物基材料产业，其实源于20世纪70年代末的一场石油危机。 当时，世界第二大石油出口国伊朗因政局动荡，连续60天停止对外输出石油，导致全球油价从每桶 13美元暴涨至34美元。一夜之间，美国诸多工厂因缺油停产，制造业哀嚎一片。 这场危机也让全球各国意识到过度依赖石油能源的致命缺陷，纷纷开始寻找化石资源的替代品。 所谓化石资源，广泛地应用于老百姓的日常生活。无论是开车用的汽油，还是做饭用的天然气，乃 至穿的化纤衣服、购物用的塑料袋，它们的原材料都是几亿年间形成的化石。 这些科幻小说般的"炼金"场景，今天你在工信部发布的文件中就能见到。 12月8日，工信部发布《非粮生物基材料产业创新发展典型案例入围名单》（后简称《名单》），全 国12个省市35个项目入选。山东、安徽两省位居前二，共上榜15项。 湖北也有1项技术入围——由武汉睿嘉康生物科技有限公司掌握的非粮生物基材料高产稳产工业菌株 制备技术，它可以让秸秆、玉米芯变成乙醇，成为汽车燃料。 尽管非粮生物基材料，听起 ...

Core Insights - The article discusses the recent advancements in non-grain bio-based materials and technologies, highlighting key innovations and applications in the industry [5][6]. Group 1: Key Technological Innovations - A total of 25 key technological innovations have been recognized, involving companies such as Shandong Elpai Powder, Ruijia Kang Biological, and Anhui Fengyuan Biological, among others [8]. - Notable innovations include the development of high-performance silicon-carbon anode materials from agricultural waste, which enhance battery capacity and lifespan [9]. - The creation of high-yield industrial strains for non-model organisms has been achieved, facilitating the production of bio-based materials from diverse non-grain biomass [10]. Group 2: Application Scenarios - Eight companies have been recognized for their application scenarios, including Shanghai Kaisa Biological and Weifang Xinlong Biological, focusing on the use of non-grain bio-based materials in various industries [35]. - Innovations in non-grain bio-based polyamide composites have led to a 20% weight reduction in refrigerated containers, demonstrating significant cost savings [35]. - The development of biodegradable PLA water bottles has been highlighted, showcasing the potential for environmentally friendly packaging solutions [38]. Group 3: Characteristic Clusters - Two development zones have been identified as characteristic clusters for non-grain bio-based materials, namely the Guizhen Economic Development Zone and the Nanle County Advanced Manufacturing Development Zone [43]. - These clusters focus on the comprehensive utilization of biomass resources, developing technologies for cellulose conversion and fermentation processes [44].

Core Viewpoint - The article emphasizes the importance of industrial biotechnology in supporting China's sustainable development and innovation in the bio-economy, focusing on key technologies and research areas that can replace fossil resources with renewable carbon resources and enhance industrial processes through modern biotechnology [5][20]. Group 1: Research Focus - The research institute focuses on three strategic themes: replacing fossil resources with renewable carbon resources, using clean biological processing instead of traditional chemical methods, and enhancing industrial levels through modern biotechnology [5]. - Key research areas include industrial protein science and biocatalysis engineering, synthetic biology and microbial manufacturing engineering, and biological systems and bioprocess engineering [5]. Group 2: Team Introduction - Zhang Yiheng, a prominent researcher and doctoral supervisor, leads the Low Carbon Synthesis Engineering Biology National Key Laboratory and has made significant contributions to the field, including the establishment of the in vitro BioTransformation (ivBT) engineering technology system [6]. - Zhang Yuzhen, another researcher, has developed microfluidic technologies for quantitative studies of microbial populations and is working on high-throughput identification techniques for important industrial enzymes [7][8]. Group 3: Recruitment Information - The institute is seeking to hire 2-3 postdoctoral research assistants and 1-2 assistant researchers, with a focus on candidates holding doctoral degrees in microbiology, molecular biology, or enzyme engineering [9][10]. - Competitive salaries and benefits are offered, including social insurance, housing funds, and opportunities for professional development and overseas visits [11][12]. Group 4: Career Development - Postdoctoral researchers can apply for permanent positions with competitive salaries and development opportunities, including potential advancement to senior technical roles based on their research achievements [13][14]. Group 5: Upcoming Events - The article mentions an upcoming forum on non-grain biomass high-value utilization, scheduled for January 27-29, 2025, in Hangzhou, focusing on clean pretreatment of biomass and commercialization of bio-based materials and fuels [20].

Core Viewpoint - The article discusses recent advancements in starch modification through the research conducted by the Tianjin Institute of Industrial Biotechnology, focusing on the enzyme Amylomaltase (AM) and its potential applications in addressing food security and carbon neutrality [5][6]. Group 1: Research Findings - The research team utilized large-scale molecular simulations and quantum mechanics/molecular mechanics (QM/MM) calculations to reveal the complete catalytic cycle of AM, identifying the rate-limiting steps in cycloamyloses (CA) synthesis [6][7]. - The study demonstrated that by strategically adjusting the polysaccharide chain transfer steps, several active mutant variants were obtained, enhancing enzyme performance primarily through reduced substrate transfer affinity [6][7]. - Mass spectrometry confirmed the generation of cycloamyloses with degrees of polymerization ranging from 22 to 61, validating theoretical predictions [6][7]. Group 2: Industrial Implications - The research provides a systematic molecular-level understanding of the biosynthesis process of CA, offering a clear engineering blueprint for the AM family, which could lead to more efficient and specific glycosyltransferases [6][7]. - The findings are significant for the industrial application of starch modification, contributing to the development of biobased materials and energy systems utilizing non-grain resources [9][11]. Group 3: Support and Collaboration - The research was supported by the Chinese Academy of Sciences' strategic pilot technology projects and the Tianjin Synthetic Biology Technology Innovation Capability Enhancement Action [7]. - Collaborations included contributions from various institutions, highlighting the interdisciplinary nature of the research [7].

Core Viewpoint - The seminar on efficient utilization of non-grain biomass resources was held in Harbin, focusing on the innovative development of the entire industrial chain of non-grain bio-based materials, emphasizing key technological innovations, application scenario expansion, and the cultivation of characteristic bases [1] Group 1: Industry Insights - Heilongjiang Province has abundant biomass resources, with crop straw production estimated at approximately 90 million tons and livestock manure generation around 110 million tons [1] - Notable examples of innovation in the non-grain bio-based materials industry include Heilongjiang Bioneng Green Energy Technology Group Co., Ltd., which produces green methanol from agricultural waste to generate biogas, and Daqing Shengquan Green Technology Co., Ltd., which develops and applies biochar products using biological solvent methods [1] Group 2: Event Objectives - The event aimed to gather the latest achievements and perspectives in the non-grain bio-based materials industry, outlining a blueprint for a comprehensive, multi-field, and deep-level technological and industrial cooperation system [1] - It provided a platform for face-to-face exchanges between Heilongjiang bio-based material companies and leading enterprises from outside the province, enhancing the coupling of bio-chemicals with traditional chemicals and the integration of industry and agriculture [1] - The goal is to effectively improve the collaborative innovation, scale production, and market penetration capabilities of the bio-based materials industry, accelerating its innovative development [1]

Core Insights - Bioethanol is a renewable energy produced from biomass, playing a significant role in transportation and industry due to its environmental benefits, diverse raw materials, policy support, and continuous technological innovation [1][3][7] - The industry is transitioning from food-based to non-food raw materials, focusing on carbon neutrality and high-end applications, supported by a series of national policies [1][7][19] Industry Overview - Bioethanol is produced through fermentation and distillation, primarily used as a gasoline additive or alternative fuel [2][3] - The core advantages of bioethanol include its environmental benefits, diverse raw materials, policy support, and ongoing technological innovations [3][5] Policy Analysis - The Chinese government has introduced several policies to support the bioethanol industry, emphasizing its role in energy transition and carbon reduction [7][9] - Key policies include the "14th Five-Year Plan for Bioeconomic Development" and the "14th Five-Year Plan for Renewable Energy Development," which provide strong support for high-quality development in the bioethanol sector [7][9] Industry Chain - The bioethanol industry chain in China includes upstream raw materials (corn, cassava, straw), midstream production processes, and downstream applications [10][12] - Fuel ethanol accounts for over 70% of downstream demand, primarily used in transportation, while industrial and medical ethanol also contribute to the market [10][12] Current Development Status - China is the fifth-largest bioethanol producer globally, with a projected production of 10.41 million tons in 2024 [17] - The industry faces challenges from the promotion of E10 gasoline and the increasing market share of coal-based ethanol, which may limit growth in traditional bioethanol production [17][19] Competitive Landscape - The bioethanol industry in China is characterized by an "oligopoly with coexistence of small and medium enterprises" [19] - Leading companies include Guotou Bio, COFCO Technology, and Hongzhan Distillery, with Guotou Bio holding approximately 29% market share [19] Development Trends - The industry is moving towards non-food raw materials, high-end applications, and integrated layouts, with cellulose ethanol technology breakthroughs driving down costs [21][23] - The demand for aviation biofuels and bio-based materials is expected to grow significantly, with annual growth rates exceeding 30% in high-end markets [21][23]