Core Viewpoint - Shanghai Chlor-Alkali Chemical Co., Ltd. and Guangxi Huayi Chlor-Alkali Chemical Co., Ltd. have recently applied for a patent related to "Polymer Dispersing Stabilizers and Their Preparation Methods and Applications" which indicates advancements in polymer technology [1] Group 1: Patent Details - The patent application describes a polymer dispersing stabilizer that utilizes a residue of polyether polyol with a hydroxyl functionality of 4.10 and a number average molecular weight ranging from 1500 to 50000 g/mol [1] - This polymer dispersing stabilizer is capable of synthesizing polymers with unprecedented ultra-high solid content, low viscosity, and excellent storage performance [1] Group 2: Application and Benefits - The developed polymer dispersing stabilizer can be further used to produce polyurethane materials with significantly improved hardness, foam comprehensive performance, and foam resilience [1]

证券代码：600378 证券简称：昊华科技 公告编号：临 2025-073 昊华化工科技集团股份有限公司 2025 年前三季度主要经营数据公告 本公司董事会及全体董事保证本公告内容不存在任何虚假记载、误导性陈述或者重 大遗漏，并对其内容的真实性、准确性和完整性承担法律责任。 昊华化工科技集团股份有限公司（以下简称"公司"）根据《上海 证券交易所上市公司自律监管指引第 3 号——行业信息披露》及附件 《第十三号——化工》《上交所关于做好主板上市公司 2025 年第三 季度报告披露工作的重要提醒》要求，现将公司 2025 年前三季度主 要经营数据披露如下： 说明：含氟精细化学品中有部分自用，导致产量高于销量较多。 主要产品 2025年 1-9月产量 （吨） 2025年 1-9月销量 （吨） 2025 年 1-9 月销售 金额（万元） 氟碳化学品 92,085.87 90,768.81 403,221.87 含氟锂电材料 60,151.88 54,940.28 97,450.84 含氟聚合物 34,733.27 31,608.30 120,244.86 含氟精细化学品 39,660.54 16,047.24 63, ...

Core Viewpoint - The article highlights the successful IPO of DaoSheng TianHe Materials Technology Co., Ltd., which has become a global leader in wind turbine blade epoxy resin sales for three consecutive years, showcasing its strong market position and growth potential [2][7]. Company Overview - DaoSheng TianHe was strategically invested in by JinYu MaoWu in September 2017, with additional investments in December 2019, reflecting the recognition of the project's potential and the company's growth in various sectors [4]. - The company has developed a material matrix covering wind power, new energy vehicles, and energy storage, indicating its diversified business strategy [4][7]. Market Position - In 2022, DaoSheng TianHe surpassed the previously dominant US company Hexion in the wind power sector, achieving the highest global sales of wind turbine blade epoxy resin and third in structural adhesives [7]. - The company has established partnerships with leading firms such as BYD, GAC Group, and others, enhancing its market presence in the green energy sector [7]. Future Prospects - The upcoming fundraising will support the annual production of 56,000 tons of high-end adhesives and high-performance composite resin systems, solidifying the company's leading position in the industry [7]. - JinYu MaoWu, founded in 2004, has a fund management scale exceeding 23 billion, focusing on emerging industries and successfully facilitating the listing of 35 companies domestically and internationally [8].

Core Points - The "2025 China Chemical Park Development Conference" will be held from October 29 to 31, 2025, in Jiaxing, Zhejiang Province, focusing on the achievements of the "14th Five-Year Plan" and the outlook for the "15th Five-Year Plan" in the chemical park sector [1][2] - The conference will cover topics such as industrial innovation, green low-carbon development, digital empowerment, and high-quality development in chemical parks [1][2] Event Details - **Conference Date and Venue**: October 29-31, 2025, at Jinghui Hotel Jia Yan Center, Jiaxing [1] - **Registration**: October 29 all day and the morning of October 30 [1] Agenda Highlights - **Work Committee Meeting**: Annual meeting of the Chemical Park Work Committee on the afternoon of October 29, inviting leaders from key chemical parks [2] - **Main Conference**: - Opening speeches from leaders of Zhejiang Provincial Government, China Petroleum and Chemical Industry Federation, and Jiaxing City on the morning of October 30 [2] - Discussions on the "15th Five-Year Plan" for chemical parks and national competitiveness evaluation [2][3] - **Media Conference**: Afternoon of October 30, featuring speeches and technical releases on low-carbon and smart technologies [2] Specialized Sessions - **Safety and Emergency Management**: Focus on intelligent safety management platforms and pre-warning systems for chemical parks [5][6] - **Environmental Management**: Discussions on pollution control and resource recovery in chemical parks [6][12] - **Low Carbon and New Energy**: Analysis of policies and management strategies to enhance competitiveness in chemical parks [11][12] Case Studies - **China Chemical New Materials (Jiaxing) Park**: Established in 2001, it covers 8.9 square kilometers and has achieved an industrial output value of 86.95 billion yuan in 2024, with a 5.5% year-on-year growth [13] - **Zhejiang Dushan Port Economic Development Zone**: Focuses on high-end specialty chemicals and has attracted 22 foreign enterprises, with an industrial output value of 51.118 billion yuan in 2024 [14]

Core Viewpoint - The article emphasizes the significance of hard technology as a strategic pivot for driving a new wave of technological revolution and industrial transformation in China, highlighting its role in achieving high-quality development and overcoming growth bottlenecks [1]. Group 1: Hard Technology Industry Insights - The hard technology sector, including areas like semiconductor, drones, and new energy, has seen remarkable performance from Chinese tech companies, which leverage innovative technologies to break through and expand their market share [4]. - Companies are actively exploring growth paths and new market opportunities, transforming technological advantages into sustainable development momentum [4]. Group 2: Company Highlights - CloudWalk Technology, a company specializing in AI inference chips, successfully listed on the STAR Market in April 2023, focusing on edge computing and cloud model inference acceleration [5]. - CloudWalk's CEO highlighted the company's early entry into the AI inference chip market, emphasizing its technological layout and market advantages [5]. - The company has developed a new chip architecture to enhance cost-performance ratio, focusing on system-level optimization and industry collaboration [6]. Group 3: Market Expansion Strategies - Kaizhong Co., established in 2000, focuses on functional polyurethane materials and is developing new applications for its products in the new energy and consumer electronics sectors, with production lines already in operation [6]. - Kaizhong aims to expand its market presence globally, with plans to increase overseas revenue to approximately 50% by establishing subsidiaries in the US and Germany [12]. - Kaizhong's chairman noted significant investments in R&D to adapt to market changes and develop new material applications [6]. Group 4: AI and Future Trends - The year 2025 is anticipated to be a breakthrough year for AI applications, with predictions that 80% of global enterprises will operate on large models within 2-3 years [11]. - CloudWalk is building a multi-department structure to enhance the value of AI inference chips and large models across various sectors [11]. - Kaizhong is also expanding into the storage industry, planning to acquire Shenzhen Jintaike Semiconductor to optimize storage technology and improve cost-performance [12]. Group 5: Capital Market Support - The role of capital markets, particularly through index products like ETFs, is crucial in supporting the hard technology sector, facilitating investment and risk management [8]. - The China Securities Index Company is developing index investment tools focused on technological innovation and regional development to enhance market understanding [8].

Group 1: Core Insights - The article emphasizes the importance of hard technology as a strategic pivot for driving a new wave of technological revolution and industrial transformation in China [1][3] - The focus is on the transition from technological leadership to commercial implementation, highlighting the success of Chinese tech companies in sectors like semiconductors, drones, and new energy [3][4] - The event featured discussions on how hard technology companies are exploring growth paths and new market opportunities to enhance their market share and competitiveness [3][4] Group 2: Company Highlights - CloudWalk Technology, an AI inference chip company, successfully listed on the STAR Market in April 2023 and has developed AI chips for edge computing and cloud model inference [4] - The company aims to improve the cost-performance ratio of its chips through domestic processes and innovative architectures, focusing on application and technology synergy [4][5] - Kaizhong Co., established in 2000, specializes in functional polyurethane materials and is developing new applications for its products in the new energy sector [5][6] - Kaizhong is expanding its market reach globally, with plans for overseas production facilities to increase its international revenue share [9] - Kaipuyun, also founded in 2000, is transitioning from IT to AI, focusing on AI applications in various sectors, including government and energy [5][6] Group 3: Market Trends and Opportunities - The article predicts that 2025 will be a pivotal year for AI applications, with consumer electronics expected to be redefined by AI models within five years [8] - The integration of storage technology with AI inference is seen as crucial for enhancing cost-performance ratios and optimizing applications [9] - The capital market is evolving with index products supporting the growth of hard technology industries, providing diverse investment opportunities [6][7]

Core Viewpoint - The financial performance of Kaizhong Co., Ltd. (603037) for the first half of 2025 shows a slight increase in total revenue but a significant decline in net profit, indicating potential challenges in profitability and cash flow management [1]. Financial Performance Summary - Total revenue for the first half of 2025 reached 349 million yuan, a year-on-year increase of 0.89% [1]. - Net profit attributable to shareholders was 37.79 million yuan, down 15.2% year-on-year [1]. - In Q2 2025, total revenue was 190 million yuan, a decrease of 10.73% compared to the same quarter last year [1]. - Q2 net profit attributable to shareholders was 25.27 million yuan, down 22.33% year-on-year [1]. - The company's accounts receivable reached 335 million yuan, representing 370.63% of the latest annual net profit [1]. Key Financial Ratios - Gross margin was 32.6%, a decrease of 5.67% year-on-year [1]. - Net margin was 10.66%, down 17.36% year-on-year [1]. - Total selling, administrative, and financial expenses amounted to 42.15 million yuan, accounting for 12.07% of revenue, a decrease of 7.84% year-on-year [1]. - Earnings per share were 0.14 yuan, down 17.65% year-on-year [1]. - Operating cash flow per share was 0.3 yuan, an increase of 93.1% year-on-year [1]. Business Development and Strategic Initiatives - The company is actively pursuing the issuance of convertible bonds and is in the process of registering them [2]. - Kaizhong Co., Ltd. is expanding its electronic throttle business to well-known international electric vehicle brands and has a partnership with Xiaomi for line control braking systems [3]. - The company is focusing on enhancing product development and market expansion, particularly in the automotive sector, to align with the trends of electrification and intelligentization [4]. - The company has established overseas subsidiaries in Mexico, the U.S., Germany, and Morocco to enhance its global presence and service capabilities [4].

证券代码：600378 证券简称：昊华科技 公告编号：临 2025-062 说明：氟碳化学品受配额政策影响，市场供需情况改善，价格持续上涨；含氟锂 电材料受市场供需错配影响，价格走低；橡胶制品规格型号较多，价格变化大； 特种轮胎系产品销售结构变化，均价下降；催化剂价格变动主要系减少了低附加 值产品销售占比。 说明：受化工大宗原材料波动影响，部分主要原材料价格波动较大。 主要产品 2025 年 1-6 月平均售 价（元/吨） 2024 年 1-6 月平均售 价（元/吨） 变动比率（%） 氟碳化学品 43,765.74 30,220.44 44.82 含氟锂电材料 18,272.52 27,214.01 -32.86 含氟聚合物 38,362.24 39,697.62 -3.36 含氟精细化学品 41,193.44 45,415.26 -9.30 含氟气体 95,460.20 99,637.13 -4.19 橡胶制品（万件） 456,918.40 318,437.29 43.49 特种轮胎（条） 4,235.35 6,320.35 -32.99 特种涂料 52,387.80 46,429.52 12.83 聚氨酯 ...

Core Viewpoint - The article emphasizes the importance of chemical new materials as a core engine of strategic emerging industries, highlighting the need for a comprehensive understanding of the complex landscape of these materials to identify key materials and disruptive forces that drive industrial transformation [2][3]. Group 1: Overview of Chemical New Materials - The article introduces a comprehensive "Periodic Table of Chemical New Materials," categorizing them into 15 core categories, aiming to cover all significant materials that are currently in large-scale production, technologically mature, rapidly growing, and have clear industrialization paths [2][3]. - It aims to provide a clear classification framework that adheres to industry consensus and the intrinsic properties of materials, offering precise sub-category divisions and concise definitions [3]. Group 2: High-Performance Polymers and Composites - High-performance polymers are defined as synthetic polymer materials that exceed general plastics in heat resistance, mechanical strength, chemical resistance, dimensional stability, or special functions, often used as matrices or reinforcements in composite materials [5]. - The article lists various types of high-performance polymers, including specialty engineering plastics, high-performance thermosetting resins, and high-performance composites, detailing specific materials within each category [6][7]. Group 3: Functional High Polymer Materials - Functional high polymer materials are defined as polymers that provide special physical, chemical, or biological functions beyond basic mechanical properties [11]. - The article categorizes these materials into several types, including membrane separation materials, conductive polymers, optical materials, biomedical polymers, and stimuli-responsive polymers, detailing specific examples for each category [10][12][13]. Group 4: Organic Silicon and Fluorine Materials - Organic silicon materials are characterized by a main chain of silicon-oxygen bonds and organic groups, offering excellent high and low-temperature resistance, electrical insulation, and hydrophobic properties [14]. - Organic fluorine materials are defined as synthetic polymers containing fluorine atoms, known for their exceptional chemical inertness and temperature resistance [15][16]. Group 5: Specialty Rubber and Polyurethane Materials - Specialty rubber is defined as synthetic rubber with special properties such as oil resistance, high-temperature resistance, and flame retardancy, outperforming general rubber [18]. - Polyurethane materials are described as polymers formed from the reaction of polyisocyanates and polyols, with diverse forms and properties, including foams, elastomers, adhesives, and coatings [20][21]. Group 6: Advanced Electronic and Information Materials - Advanced electronic materials are critical for integrated circuits, display devices, storage devices, and optoelectronic devices, with categories including semiconductor manufacturing materials and packaging materials [29][30]. - The article details specific materials used in semiconductor manufacturing, such as silicon wafers, photoresists, and electronic specialty gases [30]. Group 7: New Energy Materials - New energy materials are essential for the development and utilization of solar, wind, and energy storage technologies, with categories including lithium-ion battery materials, fuel cell materials, and solar cell materials [33][34]. - The article provides a detailed breakdown of materials used in lithium-ion batteries, including cathode and anode materials, electrolytes, and separators [34]. Group 8: Environmental and Sustainable Materials - Environmental materials focus on reducing environmental impact, resource conservation, and recyclability, with categories including bio-based materials and biodegradable materials [37][38]. - The article lists various bio-based monomers and polymers, as well as biodegradable polymers, highlighting their significance in sustainable development [38]. Group 9: Specialty Additives and Coatings - Specialty additives are defined as fine chemicals that significantly improve processing or performance with minimal addition, including modifiers, flame retardants, and lubricants [40][41]. - Specialty coatings are designed to meet specific environmental protection or functional requirements, with categories including anti-corrosion coatings, high-temperature coatings, and functional coatings [43][44].

Core Viewpoint - The development of biodegradable polyurethane through enzyme methods presents a promising solution to the growing issue of polyurethane waste management, addressing the limitations of traditional recycling methods [1][4]. Group 1: Challenges in Biodegradation - Polyurethane's biodegradation is more complex than that of PET due to its multiple chemical bonds, including ester, carbamate, and ether linkages, which hinder the efficiency of biological degradation [2]. - The foamed nature of polyurethane and the presence of various additives complicate the depolymerization process, requiring higher temperatures (around 200°C) compared to the mild conditions typically used in enzyme methods [2]. Group 2: Research and Development - The research team has tested over a hundred enzyme types to identify wild polyurethane-degrading enzymes, revealing the molecular mechanisms behind their efficiency in degrading polyurethane plastics [3]. - Modified enzymes, or "artificial enzymes," have been developed that enhance the degradation efficiency of polyester-based polyurethanes by nearly 11 times compared to wild-type enzymes, significantly improving recycling rates [3]. Group 3: Advantages of Enzyme Method - The enzyme method allows for the "closed-loop regeneration" of materials, breaking down waste polyurethane into original monomers, which can produce high-quality recycled materials comparable to virgin materials [4]. - Unlike traditional mechanical and chemical recycling, which often results in lower-quality products, the enzyme method can yield materials suitable for high-end applications, such as transparent PET bottles [4]. Group 4: Future Directions - Despite the advantages, the application of enzyme methods for polyurethane degradation faces challenges, including a limited variety and quantity of degrading enzymes and some enzymes' suboptimal performance [4]. - The company aims to continue advancing the industrial application of enzyme preparations, focusing on reducing production costs and enhancing enzyme activity and stability to position enzyme methods as a key strategy in plastic pollution management [4].