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2025-2031全球与中国聚乙交酯(PGA)市场需求分析及发展前景预测报告
Sou Hu Cai Jing· 2025-08-14 16:03
5.7.5 Meta Biomed企业最新动态 5.8 丹化科技 5.8.1 丹化科技基本信息、聚乙交酯(PGA)生产基地、销售区域、竞争对手及市场地位 5.8.2 丹化科技 聚乙交酯(PGA)产品规格、参数及市场应用 5.8.3 丹化科技 聚乙交酯(PGA)销量、收入、价格及毛利率(2020-2025) 5.8.4 丹化科技公司简介及主要业务 5.8.5 丹化科技企业最新动态 5.9 惠州华阳医疗 5.9.1 惠州华阳医疗基本信息、聚乙交酯(PGA)生产基地、销售区域、竞争对手及市场地位 5.9.2 惠州华阳医疗 聚乙交酯(PGA)产品规格、参数及市场应用 5.9.3 惠州华阳医疗 聚乙交酯(PGA)销量、收入、价格及毛利率(2020-2025) 5.9.4 惠州华阳医疗公司简介及主要业务 5.9.5 惠州华阳医疗企业最新动态 5.10 上海浦景化工 5.10.1 上海浦景化工基本信息、聚乙交酯(PGA)生产基地、销售区域、竞争对手及市场地位 5.10.2 上海浦景化工 聚乙交酯(PGA)产品规格、参数及市场应用 5.10.3 上海浦景化工 聚乙交酯(PGA)销量、收入、价格及毛利率(2020-2025) ...
宜昌诚邦生物技术有限公司成立 注册资本2500万人民币
Sou Hu Cai Jing· 2025-08-12 04:17
Group 1 - Yichang Chengbang Biotechnology Co., Ltd. has recently been established with a registered capital of 25 million RMB [1] - The legal representative of the company is Xu Zhen [1] - The company's business scope includes research and development of biochemical products, sales of chemical products (excluding licensed chemical products), and manufacturing of basic chemical raw materials [1] Group 2 - The company is involved in various activities such as technology services, technical development, and import-export operations [1] - The company is permitted to operate projects that are not prohibited or restricted by laws and regulations [1]
华润双鹤“1,4-丁二胺”入选国家工信部生物制造标志性产品
Xin Hua Wang· 2025-08-12 00:40
Core Insights - The Ministry of Industry and Information Technology of China has released the first batch of iconic products in biomanufacturing, with "1,4-butanediamine" developed by China Resources Double Crane Synthetic Biology Research Institute and industrialized by Shenzhou Biotechnology being included in the list [1][5]. Group 1: Product Overview - "1,4-butanediamine" is recognized as an important chemical raw material with extensive applications in high-performance plastics (such as nylon 46), pharmaceuticals, and agricultural chemicals [5]. - The product has historically faced technical and supply challenges, with traditional chemical synthesis methods relying on petroleum-based raw materials and causing environmental pollution [5]. Group 2: Technological Advancements - China Resources Double Crane Synthetic Biology Research Institute has developed a new metabolic pathway for "1,4-butanediamine," establishing an efficient cell factory that enhances fermentation, catalysis, and separation extraction processes [5][6]. - The product has successfully completed pilot testing at Shenzhou Biotechnology's platform, achieving an annual production capacity of hundreds of tons [5]. Group 3: Industrial Collaboration and Achievements - China Resources Double Crane has collaborated with China Resources Chemical Materials to successfully complete small-scale industrialization of high-temperature nylon 46 using bio-based "1,4-butanediamine" as a raw material [6]. - The performance indicators of the polymerized high-temperature nylon 46 have reached advanced levels compared to similar foreign products [6]. Group 4: Strategic Importance - The inclusion of this product in the biomanufacturing iconic product list highlights the significant achievements of China Resources Double Crane in overcoming high technical barriers [6]. - This breakthrough is crucial for addressing national technological challenges and provides strong support for achieving self-sufficiency in strategic materials like high-temperature nylon 46 in China [6].
创新成果:生物基材料单体与材料生物制造平台 | 重庆大学
Core Viewpoint - The SynBioCon 2025 conference aims to facilitate the transformation of scientific achievements into industrial applications, focusing on synthetic biology and green manufacturing [2][17]. Group 1: Conference Overview - The fourth Synthetic Biology and Green Manufacturing Conference (SynBioCon 2025) will be held from August 20-22 in Ningbo, Zhejiang [2][17]. - The event is organized by DT New Materials and supported by various academic and industrial organizations, emphasizing the development of industry ecosystems and technology transfer [2][17]. - The conference will feature over 100 innovative synthetic biology manufacturing achievements, promoting efficient technology transfer within the industry [2]. Group 2: Featured Projects - A project from Chongqing University focuses on a bio-manufacturing platform for bio-based materials, addressing the shortage of key monomers like hexamethylenediamine, succinic acid, and butanediol in China [7][8]. - The project utilizes advanced metabolic engineering to create a bacterial cell factory capable of producing 1,4-succinic acid with a yield of approximately 145.9 g/L and a sugar-to-acid conversion rate of 0.97 g/g, showcasing world-leading production efficiency [8][9]. Group 3: Technical Advantages - The 1,4-succinic acid production process benefits from optimized bacterial strains, shorter reaction times, lower temperatures, and cost-effective technical routes, leading to higher yields and lower costs [9]. - The 1,4-butanediol production process leverages Pichia pastoris, which is genetically stable and efficient in expressing foreign proteins, with a cost-effective acidic fermentation process [10]. Group 4: Intellectual Property and Collaboration - The project holds patents for the recombinant plasmids and engineered strains used in the production of succinic acid and hexamethylenediamine, indicating a strong intellectual property position [11]. - Collaboration with companies such as Yantai Wanhua Chemical and Guangdong Kingfa Technology is established, inviting further partnerships for technology transfer [13].
全球首款100%生物基、非光气异氰酸酯中试投产
DT新材料· 2025-08-08 16:03
Core Viewpoint - Algenesis Labs has launched the world's first 100% plant-based isocyanate, Bio-Iso™, marking a revolutionary breakthrough in the polyurethane chemistry field, which aligns with global sustainability goals and meets increasing environmental regulations and consumer demand for safe, eco-friendly materials [2][4]. Production and Capacity Expansion - Algenesis Labs has commenced production at its pilot plant for Bio-Iso™ and is focused on expanding its production capacity in San Diego, California, while seeking strategic partners for global industrialization [4]. - The company has released a technical data package detailing the performance of Soleic® TPU materials made with Bio-Iso™ [4]. Environmental Impact - The introduction of Bio-Iso™ aims to break the cycle of environmental pollution and hazardous processes associated with traditional petroleum-based isocyanates, as it eliminates fossil carbon and phosgene from the supply chain [4][5]. Product Development - Algenesis Labs has developed bio-based polyols, bio-based polyurethane foams, and bio-based thermoplastic polyurethanes (TPU) from algae and non-food plants, marketed under the B2B brand Soleic® [5]. - The new Bio-Iso™ combined with bio-based polyols can produce 100% bio-based TPU, with several products already certified by the USDA as bio-based [6][10]. Product Certification and Applications - The Soleic® TPU products have varying levels of bio-based content, with TPU 1295A at 59%, TPU 1270A at 76%, TPU 1260D at 56%, and polyol LV-02 at 100% [6][10]. - Soleic™ bio-based polyols are utilized in soft polyurethane foam applications, initially used in flip-flops and later in Blueview shoes [7]. Strategic Partnerships - Algenesis is expanding its Soleic™ product line into breathable waterproof textiles and injection-molded products, having signed a collaboration agreement with Trelleborg for TPU coating on fabrics and partnered with RhinoShield for phone case production [9].
常州峻安生物科技有限公司成立 注册资本100万人民币
Sou Hu Cai Jing· 2025-08-06 23:11
天眼查App显示,近日,常州峻安生物科技有限公司成立,法定代表人为陈圣平,注册资本100万人民 币,经营范围为许可项目:食品添加剂生产;饲料添加剂生产;食品生产;食品销售;化妆品生产(依 法须经批准的项目,经相关部门批准后方可开展经营活动,具体经营项目以审批结果为准)一般项目: 生物化工产品技术研发;食品添加剂销售;饲料添加剂销售;化工产品销售(不含许可类化工产品); 技术服务、技术开发、技术咨询、技术交流、技术转让、技术推广;工业酶制剂研发;人工智能基础软 件开发;人工智能应用软件开发;货物进出口;技术进出口;细胞技术研发和应用;信息系统集成服 务;软件开发;发酵过程优化技术研发;化妆品批发(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)。 ...
钱江生化: 浙江钱江生物化学股份有限公司对外担保管理制度
Zheng Quan Zhi Xing· 2025-08-05 16:10
浙江钱江生物化学股份有限公司 对外担保管理制度 (2025年8月5日经公司十届董事会2025年第五次临时会议审议通过) 为进一步加强公司对外担保管理,规范公司担保行为,控制公司经营风险, 按照《公司法》、《证券法》、《民法典》、《公司章程》及中国证监会《上市 公司监管指引第 8 号——上市公司资金往来、对外担保的监管要求》和《上海 证券交易所股票上市规则》(以下简称"《上市规则》")及有关法律法规的规 定,特制定本制度。本制度所称对外担保,是指公司以第三人身份为他人提供保 证、抵押、质押或其他形式的担保,包括公司对控股子公司的担保。 本制度适用于公司及公司的全资子公司、控股子公司(以下合称"子公司")。 第一条 董事会全体董事应当审慎对待和严格控制对外担保产生的债务风险, 对违规或失当的对外担保产生的损失依法承担连带责任。 第二条 公司对外担保应当遵守以下规定: (一)担保决策程序 公司股东大会和董事会是决策机构,公司的一切对外担保行为,必须按程序 经股东大会或董事会批准。下述担保事项应当在董事会审议通过后提交股东大会 审议: (1)本公司及本公司控股子公司的对外担保总额,超过最近一期经审计净资 产的50%以 ...
江苏蓝丰生物化工股份有限公司关于投资者诉讼事项的进展公告
Core Viewpoint - Jiangsu Lanfeng Biological Chemical Co., Ltd. is currently involved in a legal dispute regarding securities false statements, with a total claim amount of RMB 19.18 million from 163 investors [2][3][4]. Group 1: Lawsuit Basic Information - The company has previously disclosed information regarding the investor lawsuit related to securities false statements [3]. - The final judgment and civil rulings from the Nanjing Intermediate People's Court have been received concerning the claims from 45 investors [3]. Group 2: Lawsuit Progress - The Nanjing Intermediate People's Court has issued an execution ruling to freeze RMB 19.18 million of the company's bank deposits due to non-compliance with a prior civil judgment [4]. - A total of 8 bank accounts of the company have been frozen, with only RMB 77,400 actually frozen [4]. - The company's overall business operations remain normal and unaffected by the bank account freeze [4]. Group 3: Company Response - The company plans to raise funds to comply with the court ruling and compensate the investors, aiming to lift the freezing measures promptly [5]. - The company will pursue accountability against its former directors and senior management as per the administrative penalty decision issued by the China Securities Regulatory Commission [5]. Group 4: Financial Impact - The total amount related to the investor lawsuit and associated costs is approximately RMB 19.18 million, which will be accounted for as liabilities and losses according to accounting standards [7]. - The company will continue to monitor the lawsuit's progress and fulfill its information disclosure obligations [7].
掘金生物基千亿市场:FDCA替代石油化工,这些公司已抢占赛道
材料汇· 2025-08-01 13:02
Group 1 - FDCA is a high-value bio-based compound with a wide range of applications, serving as a substitute for terephthalic acid and enabling the production of high-performance bio-based polymers [2][8] - The synthesis routes for FDCA are diverse, with the HMF route being the most promising and showing significant progress towards industrial production [17][18] - The global FDCA market is expected to grow at a compound annual growth rate (CAGR) of 8.9% from 2021 to 2028, potentially reaching $873.28 million by 2028 [4][51] Group 2 - Internationally, several companies have achieved FDCA production, with significant investments made since 2004, including major players like Coca-Cola, DuPont, and Avantium [3][35] - Domestic research on FDCA began around 2010 and has rapidly advanced, with notable breakthroughs in synthesis and polymerization processes [3][41] - The domestic industry is still in its early stages of commercialization, but there is a growing number of patents and publications, indicating a strong research foundation [3][41] Group 3 - PEF, derived from FDCA and ethylene glycol, exhibits superior properties compared to PET, including higher mechanical strength and better gas barrier performance, making it a promising alternative [5][10] - The application areas for PEF include food packaging, films, and fibers, with significant potential for replacing PET in various markets [5][10] - The production of PEF is expected to expand, driven by the increasing demand for sustainable materials and the growth of the bio-based product market [5][51] Group 4 - Companies like Avantium and Eastman are leading the way in FDCA production technology, with Avantium's YXY technology being a notable example [36][39] - Domestic companies such as Hefei Lif Biological and Zhongke Guosheng are making strides in FDCA production, with innovative processes and significant production capacity planned for the near future [44][45] - The collaboration between research institutions and companies is fostering innovation and accelerating the commercialization of FDCA and its derivatives in China [41][44]
浙江工业大学 郑裕国/柳志强 CEJ 工程化醛脱氢酶与碳通量重构助力大肠杆菌实现可持续无抗高产1,4-丁二醇合成
Core Viewpoint - The article discusses the sustainable production of 1,4-butanediol (BDO) through engineered Escherichia coli, highlighting the potential for antibiotic-free fermentation methods and the optimization of metabolic pathways to enhance yield and efficiency [2][4][20]. Summary by Sections Introduction - 1,4-butanediol (BDO) is a significant non-natural chemical widely used in biodegradable plastics, with a substantial market potential. Traditional production relies on petrochemical methods, while biotechnological approaches face challenges such as low enzyme activity and high production costs [2][4]. Research Content - The study systematically optimized the E. coli chassis by integrating multiple copies of BDO synthesis genes, knocking out byproduct pathways, and engineering key enzymes to enhance metabolic flux. The introduction of a microaerobic fermentation strategy allowed for high BDO yields without antibiotics or inducers [4][5]. Metabolic Engineering Strategies - The research involved various strategies to improve BDO production, including: - Introducing external enzymes and optimizing gene expression to enhance BDO synthesis [7][11]. - Modifying the TCA cycle and enhancing ATP levels to redirect carbon flux towards BDO production [15][18]. - Utilizing the hok/sok system to maintain plasmid stability, achieving a low plasmid loss rate of 5.5% [18][19]. Production Results - In shake flask experiments, BDO production reached 7.88 g/L, the highest reported yield under similar conditions. In a 5-liter bioreactor, BDO production achieved 34.63 g/L with a glucose yield of 0.35 g/g and a production rate of 0.48 g/L/h [20][21]. Conclusion - The study demonstrates a comprehensive metabolic engineering approach for the sustainable industrial production of BDO from glucose, showcasing the potential for antibiotic-free processes and the need for further optimization to address byproduct accumulation [20][22].