Core Insights - The 2025 Hydrogen Energy Specialized and Innovative Entrepreneurship Competition was held in Ordos, showcasing advancements in hydrogen energy technology and fostering industry collaboration [1][2] - The competition introduced two new tracks: innovation entrepreneurship and technology breakthroughs, aiming to create a closed-loop for industry cultivation that integrates the innovation chain with the industrial chain [1] - The event highlighted the importance of hydrogen production technology, which is currently a focal point for the hydrogen energy industry and capital markets [1] Industry Development - Ordos is positioning itself as a pilot demonstration zone for hydrogen energy in China and globally, aiming to provide development experience for the global hydrogen energy sector [2] - The hydrogen energy industry development index in China has shown a stable upward trend, with an increase of 4% to 6.5%, although annual growth rates have fluctuated [2] - Infrastructure construction for hydrogen energy is expected to accelerate in 2024, with steady growth in application promotion, laying a solid foundation for industry development [2] - By 2025, infrastructure and industry foundations are projected to support growth across various dimensions, with an expected increase of 5.3% [2] Competition Highlights - The competition featured 10 teams presenting their projects related to the entire hydrogen energy value chain, including core materials, components, and testing [1] - The event provided a platform for technology-driven hard-tech startups to showcase their value, connect with markets, and seek funding, contributing to the development of the hydrogen energy industry [2] - A signing ceremony for the "Ordos UNDP Green Hydrogen Sustainable Development Demonstration Cooperation Intent Statement" took place during the event, indicating ongoing commitments to hydrogen energy initiatives [2]

Core Viewpoint - The polyester film industry is facing challenges in achieving sufficient stiffness, which limits its applications in new displays, electric vehicles, and photovoltaic solar energy [1] Group 1: Technological Breakthroughs - Hefei Lekai Technology Industry Co., Ltd. has made significant advancements in high-end optical polyester films by addressing stiffness issues through molecular design [1][2] - The research team focused on three promising modified monomers: bio-based 2,5-furandicarboxylic acid (FDCA), rigid biphenyl-4,4'-dicarboxylic acid (BPDA), and rigid/polar 4,4'-dicarboxyphenyl sulfone (DPS) to enhance the molecular structure of traditional polyethylene terephthalate (PET) [2] - The team developed a core formula after extensive experimentation with various molar ratios, emphasizing the importance of precise molecular design to achieve the desired stiffness and flexibility [2][3] Group 2: Production Process - The production process involved co-extrusion and biaxial stretching, where the precise layering of different melt compositions directly impacts the final film's stiffness and performance [3] - The team faced challenges in maintaining strict temperature and pressure controls during the esterification and polycondensation reactions, as even minor deviations could significantly affect the polymer's properties [3][4] - After overcoming numerous setbacks in formula design and process adjustments, the first successful roll of optical polyester film was produced, showcasing excellent rigidity [4] Group 3: Market Impact and Applications - The new technology has broken the monopoly of Japanese and Korean companies in the high-end polyester film market, significantly improving stiffness beyond industry standards [5] - The patented technology has been successfully applied to various series of optical polyester films, providing essential material support for domestic new displays, photovoltaic solar energy, and electric vehicle industries [5][6] - By the end of 2024, the cumulative production of products utilizing this technology is expected to reach nearly 150,000 tons, with a projected market demand of 60,000 to 80,000 tons per year [6]

Core Viewpoint - The successful operation of three boilers at Lu'an Chemical Tianji Group for over 200 days marks a record in the company's production history, contributing significantly to stable production and meeting product demand [1] Group 1: Operational Achievements - As of August 12, the three boilers have been in operation for over 200 days, setting a new record for boiler operation in the company's production history [1] - The continuous operation of the boilers has played a crucial role in the production process, enhancing efficiency in power generation, reducing oil consumption, and lowering coal consumption per ton of steam [1] Group 2: Technical Improvements - The company has implemented a series of technical upgrades to ensure the stable operation of the boilers, including combustion optimization for Boiler B and replacement of high-pressure steam pipelines [1] - Optimization modifications have been made to the combustion systems of Boilers A and C, along with improvements to the low-temperature air preheater of Boiler C [1] - The company has also completed maintenance on three desulfurization towers and made modifications to reduce ammonia escape in the denitrification system of Boiler B [1]

Core Insights - Qihang Tengda has successfully initiated the startup process of its propylene oxide facility after a year-long technical transformation project, achieving a successful one-time startup [1] - The technical team optimized core process flows and adjusted key parameters to reduce energy consumption while ensuring long-term efficient and stable operation of the facility [1] - The company collaborated with domestic technical partners to achieve localization of key equipment and spare parts, breaking foreign technology monopolies and significantly improving equipment reliability and self-sufficiency [1] Industry Developments - The successful implementation of domestic catalysts, solvents, and additives has greatly reduced dependence on foreign materials in the core chemical materials sector [1] - Upgrades in the selection of major consumables, such as filter cartridges, have enhanced filtration efficiency and lifespan, mitigating the risk of unplanned shutdowns [1]

中化新网讯日前，重庆经济和信息化委员会公布《2025年重庆市创新型中小企业申报和复核通过名 单》。830家企业申报通过，1724家企业复核通过，涉及多家石化、化工、新材料企业。 据了解，此次未参加复核的2022年创新型中小企业，属于有效期内专精特新中小企业且满足评价认定基 本条件的，其创新型中小企业有效期与专精特新中小企业有效期保持一致，其余未参加的企业和未通过 此次复核的企业，即日取消其创新型中小企业称号。 据记者梳理，在申报通过的830家企业中，涉及石化、化工、新材料的企业有中石化重庆页岩气有限公 司、重庆宜亚新材料科技有限公司、重庆华希活性炭有限公司、重庆富地化工有限公司、重庆江南化工 （002226）科技有限责任公司等。在复核通过的1724家企业中，涉及石化、化工、新材料的企业有中化 重庆涪陵化工有限公司、重庆腾泽化学有限公司、中化学华陆新材料有限公司、立邦涂料(重庆)化工有 限公司、重庆卡贝乐化工有限责任公司等。 ...

Core Viewpoint - Toray Industries has developed a highly efficient ultrafiltration membrane that maintains high permeability while reducing the load on subsequent reverse osmosis membranes, leading to stable long-term production of high-quality reclaimed water [1] Group 1: Technology and Innovation - The new ultrafiltration membrane technology can lower water treatment costs and reduce carbon dioxide emissions from the replacement and disposal of reverse osmosis membranes by over 30% [1] - Traditional ultrafiltration membranes struggle to remove common biopolymers in wastewater, necessitating frequent chemical cleaning of reverse osmosis membranes, which increases both water production costs and carbon emissions [1] - Toray's membrane structure was carefully evaluated based on observations from large synchrotron radiation facilities and simulation technology, allowing for precise control of polymer materials and manufacturing processes [1] Group 2: Performance and Applications - The newly developed ultrafiltration membrane achieves superior removal performance and high permeability, with test results showing that it can reduce the permeation of pollutants to less than one-third of Toray's existing products [1] - This technology is applicable in the treatment of domestic wastewater as well as the reclamation of industrial wastewater in sectors such as chemicals, steel, and textiles, reducing the need for chemical cleaning and operational issues associated with reverse osmosis membranes, thereby extending their lifespan [1]

Core Viewpoint - The National Energy Group's Beijing Low Carbon Clean Energy Research Institute has two projects selected as typical cases for Sino-European energy cooperation, highlighting advancements in low-carbon technologies and international collaboration [1] Group 1: Project Details - The first project involves high carbon efficiency synthesis gas direct production of linear α-olefins catalytic technology, developed at the NICE-TU/e C1 Catalysis Joint Laboratory, a collaboration with Eindhoven University of Technology. This technology enables one-step synthesis of linear α-olefins, promoting the high-end, diversified, and low-carbon development of the coal chemical industry. A pilot test has been completed at the Baotou Chemical Plant, with a 10,000-ton industrial demonstration expected by 2026 [1] - The second project focuses on the development of an artificial intelligence-based multi-conversion platform for electricity and the electro-catalytic conversion of carbon dioxide into green fuels and chemicals. This project is a collaboration between the Low Carbon Institute's European Research Institute and the Leibniz Institute for Catalysis in Germany, overcoming key technical bottlenecks in the selective electro-catalytic conversion of carbon dioxide [1] Group 2: Selection Process and Significance - The selection of these typical cases was guided by the National Energy Administration and organized by the Sino-European Energy Technology Innovation Cooperation Office and the China-EU Chamber of Commerce, covering key areas such as hydrogen energy, smart energy, and new energy storage [1] - The Low Carbon Institute's innovative technology research and international cooperation experience have positioned it as one of the first selected units, reflecting its capabilities in advancing low-carbon energy solutions [1]

Core Viewpoint - Oilfield companies are facing increasing pressure to transition towards renewable energy sources due to stricter carbon constraints and the need for sustainable development, especially in aging oilfields that struggle with resource replacement and rising extraction costs [1] Group 1: Energy Transition Strategies - The "14th Five-Year Plan" has seen oilfield companies actively promoting renewable energy development and exploring the integration of renewable energy with oil and gas production, showing initial results in scale and effectiveness [1] - The upcoming "15th Five-Year Plan" will require oilfield companies to focus on achieving large-scale and efficient development while deepening the integration of renewable energy with oil and gas production [1] Group 2: Research and Development Initiatives - Companies should enhance research on green energy alternatives, particularly in electrification of energy use, exploring methods such as electric heating in oilfields and utilizing green electricity for oil production and transportation [2] - There is a focus on green heat alternatives, including the use of green electricity for heating in various production scenarios, and the potential for repurposing abandoned wells for geothermal energy [2] Group 3: Market Expansion and Collaboration - Companies are encouraged to expand their market presence by supplying green energy to surrounding mining areas and exploring green electricity trading opportunities [3] - Collaborations with large domestic energy companies are essential for developing external renewable energy markets, while also seeking local government support for land and tax policies [3] Group 4: New Business Development - Companies should explore emerging business opportunities such as energy storage solutions to address the intermittency of renewable energy generation and investigate hydrogen applications in drilling and underground operations [4] - Engaging in green certificate trading and carbon quota pledging can help convert ecological value into economic benefits [4]

Core Viewpoint - The recent issuance of the "Opinions on Deepening the Implementation of 'Artificial Intelligence+' Action" by the State Council marks a transition of "Artificial Intelligence+" from concept to large-scale application, providing strategic guidance for the oil and chemical industry to embrace the intelligent era [1] Group 1: Industry Application of AI - The application of AI in the chemical industry has progressed from initial exploration to large-scale implementation, significantly shortening the R&D cycle for new materials through molecular simulation and high-throughput computing [1] - Intelligent optimization control systems and digital twin technology are becoming widespread in production processes, effectively enhancing production efficiency and energy utilization [1] - AI-driven intelligent monitoring and risk warning systems have become standard in safety and environmental protection, greatly reducing accident rates [1] Group 2: Challenges in AI Adoption - The chemical industry faces challenges such as data silos, insufficient computing power, and a shortage of interdisciplinary talent, necessitating breakthroughs through policy guidance and technological collaboration [1] - The slow advancement of "Artificial Intelligence+" in the chemical sector is attributed to the industry's unique requirements for stability and safety, which traditional AI models struggle to meet [2] - Data heterogeneity and the prevalence of data silos among different systems like DCS and MES hinder effective AI integration [2] Group 3: Recommendations for AI Integration - Experts suggest accelerating the construction of a diverse adaptive technology system, integrating mechanism-driven and data-driven approaches, and establishing a safe and trustworthy AI framework [3] - A "three-step" strategy is recommended, focusing on demonstration and phased implementation, system integration, and ecosystem building to achieve a leap from automation to intelligence [3] - The chemical industry should concentrate on five key application scenarios: "AI+ R&D," "AI+ Production," "AI+ Safety and Environmental Protection," "AI+ Supply Chain," and "AI+ Services," while establishing a four-dimensional support system [3] Group 4: Company Initiatives - The Henan Xinlianxin Group aims to accelerate its intelligent transformation by integrating "Artificial Intelligence+ Manufacturing" into its industrial production processes [4] - The company plans to utilize new-generation AI technologies, such as big data intelligence and digital twin factories, to enhance safety production and transition from passive responses to proactive warnings [4]

Group 1 - The company, Anhui Wanrui Cold Electric Technology Co., Ltd., has developed a low-temperature refining and neon removal device that has achieved a helium purity of 99.99997% (6N9 level) from natural gas, marking a significant breakthrough in the field of low-abundance natural gas helium extraction in China [1][2] - Helium is a strategic resource essential for semiconductor manufacturing, large scientific installations, advanced medical applications, and aerospace, often referred to as the "industrial blood" [1] - China has long relied on imports for high-purity helium, posing serious challenges to resource security, necessitating efficient extraction methods to support national defense and high-tech development [2] Group 2 - The project team, led by Rong Chengxu, developed an internationally leading combined helium extraction process after six years of research, which includes "pre-dehydrogenation + multi-stage membrane + pressure swing adsorption + low-temperature refining" [2] - The innovative technology effectively addresses the challenges of low helium resource quality and complex impurities in China's natural gas, filling a technological gap in the field and providing strong support for national resource security [2] - The device features a dual-tower structure, operates over 8000 hours annually, reduces volume by 40%, increases gas processing efficiency by 50%, and significantly enhances safety performance [2] Group 3 - Over the past 20 years, the company has focused on rare gas extraction and separation technology, achieving full domestic production of equipment and processes, with an annual helium production capacity of 4 million cubic meters [3] - The company aims to continue advancing low-temperature vacuum and gas separation technologies, contributing to the enhancement of national strategic scientific capabilities and the development of strategic emerging industries [3]