作为本标准的主要参与起草单位之一，中国电子云深度参与了标准的研制过程，其在该领域的实践经验 与技术理解为标准的科学性与实操性提供了支持。据其介绍，标准核心内容包括四方面。 一是确立治理原则。明确了标准化、透明性、合规性、安全性等八大原则，并强调实验可追溯性。二是 覆盖全流程阶段。构建了从顶层设计、组织保障、工程建设到运营优化的四阶段治理体系。三是聚焦多 模态数据。针对实验表征、模拟仿真、工艺制造、应用性能等多类型数据，制定了统一的采集、存储与 共享标准，并致力于建立跨模态数据关联标准，打破数据孤岛。四是强化质量与安全。明确了具体的数 据质量指标，并建立了数据分类分级、分级加密、分区域访问控制等安全机制，辅以差分隐私、同态加 密等技术保障隐私。 中化新网讯 近日，由深圳市新材料行业协会牵头，中国电子云等27家企业及科研机构共同起草的团体 标准《面向新材料领域的人工智能数据治理指南》正式发布并实施。作为国内该领域首个专项标准，其 旨在解决行业数据治理痛点，为产业智能化转型提供规范化指引。 该标准适用于合金、新能源材料、半导体、生物制药等多个细分领域，覆盖研发至产业应用全链条。其 实施预期将为企业提供标准化操作手册 ...

Core Viewpoint - The project of 1.5 million tons/year acetic acid at the Juzhengyuan (Jieyang) New Materials Base has officially entered the trial production phase, marking it as one of the largest single-unit acetic acid production facilities globally, which will significantly impact China's acetic acid industry chain and promote the formation of a new materials industry cluster in the region [1][4]. Technical Aspects - The project utilizes methanol and carbon monoxide as raw materials, employing a rhodium-based catalyst for low-pressure carbonylation to produce acetic acid, achieving high conversion rates, good selectivity, and mild reaction conditions, which effectively enhance thermal efficiency and reduce energy consumption [1][3]. - The main technical indicators of the project meet international advanced levels, with core metrics such as single-unit scale, energy consumption control, and environmental emissions comparable to leading international technologies [3]. Industry Impact - The project will further increase China's annual acetic acid production capacity, solidifying the country's leading position in the global acetic acid industry, and filling the production gap in South China, which previously relied on external supplies [2][4]. - Acetic acid serves as a "universal intermediate" in the chemical industry, widely used in the production of PTA, vinyl acetate, and acetate esters, thus the project is expected to stimulate downstream industries like vinyl acetate and butanol, enhancing the vitality of the new materials industry chain in Jieyang [5]. Regional Development - The project is expected to change the consumption-only status of South China in the acetic acid market, achieving a balanced capacity layout that meets the growing demand for high-end chemical raw materials in the Greater Bay Area, thereby reducing procurement and logistics costs for downstream enterprises [4]. - Future plans include forming a complete industrial chain from basic raw materials to high-end new materials, contributing to the establishment of a regional new materials industry cluster in Jieyang [4]. Talent and Innovation - The project has attracted a high-quality professional talent pool and technical teams, promoting regional technological innovation capabilities and talent development, while collaborations with universities and research institutions will enhance the integration of industry, academia, and research [5]. - As a key project under Guangdong's "Hundred Million Project," it employs domestic technology to achieve self-sufficiency in key chemical raw materials, reducing reliance on external supplies and enhancing the autonomy of China's chemical industry chain [5]. Project Management - The construction faced multiple challenges, including tight schedules, adverse weather, limited space, and complex technologies, which were successfully overcome through innovative processes, optimized construction organization, and strengthened process control [6]. - The project team aims to ensure stable and efficient operation of the facility, contributing to the high-quality development of the regional economy [6].

Core Viewpoint - A Chinese research team has achieved a breakthrough in the efficient separation of lithium, sodium, and potassium ions from lithium-rich brine, which is crucial for lithium extraction and has significant economic implications [1] Group 1: Technological Advancements - The research team developed a green and efficient lithium extraction technology by designing a new type of lithium-selective extractant, addressing traditional extraction system challenges related to environmental protection, safety, and cost control [1] - The new technology can increase the overall lithium ion recovery rate in lithium carbonate production by 15% to 20% and reduce costs by 30%, with water and energy consumption below industry standards by over 30% [1] Group 2: Industry Impact - The world's first industrial demonstration line for extracting lithium from brine, capable of producing battery-grade lithium carbonate at a scale of 10,000 tons, has been established, achieving a lithium recovery rate of over 98% [1] - The new extraction line is expected to generate an additional output value of over 600 million yuan, providing critical technical support for the high-quality development of China's salt lake lithium industry [1] - Experts have evaluated the technology as reaching an international leading level, with its industrial application likely to support efficient recovery and high-value utilization of salt lake lithium resources [1]

中化新网讯 近日，宁德时代与思源电气签署为期三年的储能合作备忘录，目标合作电量50吉瓦时。双 方将基于各自传统优势领域，推广储能市场化双采模式，共同提升产业链协同效率，助力储能行业高质 量发展。 图为签约现场。(企业供图) 据了解，思源电气专注于电力领域的技术研发、设备制造及工程服务，积极推动能源行业的数字化转 型。此次宁德时代与思源电气签署合作备忘录，是双方继2022年建立合作以来的一次战略性深化与全新 探索，进一步强化了双方在储能产业链中的协同深度。 未来三年，双方将围绕储能系统、输配电等配套设备，实现产业链上下游的双向协同。在此基础上，双 方还将加强技术交流与项目合作，持续优化整体解决方案能力，提升项目交付效率与可靠性，加速储能 系统在新型电力网络中的规模化应用。 ...

Core Viewpoint - The hydrogen energy industry is seen as a key solution to energy issues, particularly in the context of expanding renewable energy capacity and addressing the challenges of wind and solar energy consumption [1]. Group 1: Green Hydrogen Development - Traditional hydrogen production mainly relies on fossil fuel reforming and industrial by-product gases, but there is significant demand for green hydrogen to replace gray hydrogen under carbon peak scenarios [2]. - By 2060, it is predicted that 30% of China's end-use thermal demand will come from non-fossil fuels, primarily through green electricity conversion, with a potential demand for 200 million tons of green hydrogen requiring approximately 10 trillion kilowatt-hours of green electricity [2]. - Water electrolysis is recognized as a crucial green hydrogen production technology, with advancements in equipment leading to cost reductions and broader applications [2]. Group 2: Hydrogen Storage Technologies - Efficient, safe, and low-cost hydrogen storage technologies are essential for energy peak shaving and valley filling [4]. - Current hydrogen storage methods include high-pressure, liquid, and solid-state storage, with liquid hydrogen being highlighted for its high storage efficiency and suitability for large-scale applications [4]. - Solid-state hydrogen storage, utilizing materials like carbon nanomaterials and metal hydrides, offers advantages such as higher storage density and longer cycle life compared to other methods [4]. Group 3: Hydrogen Transportation - Hydrogen transportation is critical for the industrial promotion of hydrogen energy, with pipeline transport being suitable for stable, continuous hydrogen demand in industrial clusters [5]. - Challenges in China's hydrogen pipeline transport include differences in hydrogen blending technology and a lack of unified national standards, which hinder industrialization [5]. - Non-metallic composite flexible pipelines are proposed as alternatives to metal pipelines, offering better corrosion resistance and lower costs [6]. Group 4: Market Opportunities in Hydrogen Energy - The hydrogen energy industry is entering a window of opportunity, with applications expanding in transportation, industry, and other energy sectors [7]. - Hydrogen energy has significant potential in the transportation sector, including hydrogen-powered heavy trucks and rail systems, which can replace diesel engines [7]. - In the industrial sector, hydrogen can replace coal in steel production, addressing carbon emissions at the source and enabling the production of high-quality steel [7].

Core Viewpoint - The Zhejiang Free Trade Zone Zhoushan Area has issued its first pilot license for methanol bunkering for international navigation vessels, marking a significant step in expanding clean fuel options in the maritime industry [1] Group 1: License and Company Details - The license was approved by the Zhoushan Management Committee for China National Petroleum Corporation Fuel Oil Co., Ltd., valid for three years [1] - The company, established in 2019 as a bonded marine fuel bunkering enterprise, completed approximately 2.4 million tons of bonded marine fuel bunkering in Zhoushan last year, reflecting a growth of about 10% compared to the previous year [1] Group 2: Expansion into Clean Fuels - The company is actively expanding into the clean fuel market, having recently launched a dual-fuel supply barge for methanol and fuel oil, expected to be operational by the end of February this year [1] - There are ongoing collaborations with shipping companies and shipbuilding enterprises in Zhoushan to facilitate the first methanol bunkering transaction [1] Group 3: Strategic Direction for Green Fuels - Zhoushan is not only enhancing its bonded fuel oil bunkering but is also accelerating the development of green fuel bunkering, expanding the types of fuels to include methanol, natural gas, and liquid ammonia [1] - The next steps involve a "one application per category" approach to steadily advance the green fuel bunkering pilot program, aiming to enhance Zhoushan's influence as a clean marine fuel bunkering hub globally [1]

中化新网讯 近日，由中国能建华电华源公司牵头，中国航发成发科能、中国能建华东院、天津大学、 东南大学等联合参与研发的世界首套兆瓦级全液态二氧化碳(CO₂)储能机组顺利发电投运，标志着全液 态二氧化碳储能技术在规模化验证与工程应用方面取得阶段性突破。 二氧化碳储能是一种以二氧化碳为工质的闭式压缩气体长时物理储能技术，具有效率高、寿命长、安全 性好、选址灵活和环境适应性强等优势，可与新能源发电、电网调峰调频及工业能源系统实现深度耦 合。传统的压缩二氧化碳储能系统采用低压气态和高压液态形式存储二氧化碳，整体储能密度低，储气 库占地面积大。全液态二氧化碳储能系统则全部采用液态形式存储，在保证往返效率的前提下，整体储 能密度提升约120倍，对应的介质储存单元占地面积仅为传统方案的1%左右。 作为中国能建"揭榜挂帅"重点研发项目科技成果，项目团队攻克了低温低压二氧化碳梯级动态节流冷量 回收技术，研制了-50℃高导热复合固态冰蓄冷装置，二氧化碳液化冷量回收率超过95%;开发了自适应 宽工况跨临界压缩、膨胀系统，实现二氧化碳跨临界过程的高稳定能态转换与能质流动，支撑储释能精 准调控;研发了熔融温度80℃、分解温度620℃以上 ...

Core Viewpoint - The achievements of Donghua Engineering Technology Co., Ltd. in the fields of industrial wastewater treatment, new materials, and resource utilization highlight the company's technological strength in promoting industrial green transformation and efficient resource use [1][2]. Group 1: Awards and Recognitions - Donghua Engineering won multiple awards at the Anhui Provincial Employee Technology Innovation Competition, including the "Gold Achievement" award for the project on "Key Technologies and Applications for Coordinated Treatment and High-Value Resource Utilization of Industrial Wastewater" and the "Gold Project" award for the "Development Project of High-Conductivity Graphene-Aluminum Composite Materials" [1]. - The company also received first-class recognition from the China Energy Chemical Geological Trade Union for its technologies on "Zero Discharge and Resource Utilization of Coal Chemical Wastewater" and "Lithium Extraction Technology from Salt Lakes" [1]. Group 2: Technological Innovations - The industrial wastewater treatment technology developed by the company integrates "multi-pollutant coordinated removal + multi-path high-value resource utilization + whole-process cost reduction and efficiency enhancement," marking an upgrade from end-of-pipe treatment to whole-process control [2]. - The graphene-aluminum composite material project utilizes Donghua's continuous gas-phase synthesis technology to create a new composite material with high conductivity, high modulus, high strength, and lightweight characteristics, overcoming traditional aluminum alloy performance limitations [2]. - The zero discharge and resource utilization technology for coal chemical wastewater establishes a comprehensive intelligent control technology system, providing a replicable and promotable demonstration solution for the industry [2]. - The lithium extraction technology from salt lakes addresses the technical bottlenecks in developing low-grade, high magnesium-to-lithium ratio brine in China, innovating process pathways and developing specialized reactors to form a highly adaptable lithium extraction technology system [2]. Group 3: Future Directions - The company is committed to increasing R&D investment in new materials, new energy, and new environmental protection fields, focusing on key technical challenges in the industry [2]. - By leveraging the "T+EPC" model, the company aims to promote more innovative achievements that contribute to industrial green transformation [2].

Core Viewpoint - ShenGu Group has successfully obtained the Carbon Management System Certification, marking a significant advancement in its carbon emission management practices [1] Group 1: Company Achievements - ShenGu Group is recognized as a leading enterprise in China's high-end equipment manufacturing sector [1] - The company views green transformation as a key driver for high-quality development [1] Group 2: Carbon Management System - ShenGu Group has established a comprehensive carbon management system that covers all business processes, from top-level design to grassroots execution [1] - The system includes carbon asset management and production process optimization, creating a systematic and standardized approach to carbon management [1] Group 3: Technological Innovations - The company has implemented a carbon emission monitoring network and improved its data accounting system [1] - Innovations in energy-saving and carbon reduction technologies have enhanced energy utilization efficiency and strengthened the company's ability to manage carbon risks [1]

Core Insights - The General Manager Reward Fund established by Xinjiang Zhongtai has become a significant engine for stimulating the internal motivation of the enterprise, with a cumulative cash payout exceeding 2 million yuan by 2025, covering 51 specific projects [1] - The fund aims to provide immediate monetary rewards to encourage innovation and performance across ten areas, including safety production, cost control, and technological innovation [1] Group 1: Fund Impact and Structure - The fund has led to a substantial increase in management innovation, with nearly half of the rewards allocated to management-specific initiatives [2] - The optimization project for cold-rolled steel plate procurement has resulted in 13 price adjustments in 2025, saving over 3 million yuan in procurement costs [2] - The supply chain reform for limestone procurement has decreased the average price by 9.2% compared to the previous year, enhancing quality control through competitive supplier negotiations [3] Group 2: Cost Reduction and Efficiency - Cost reduction and efficiency rewards have become a primary focus, with over 1 million yuan distributed across 9 batches for 35 specific projects in 2025 [4] - The application of negative pressure flash evaporation technology is expected to save over 700,000 cubic meters of natural gas annually, generating direct revenue exceeding 1 million yuan [4] - The "Innovation and Efficiency Competition" platform has seen participation grow to 2,349 projects in 2025, nearly 1.8 times the first edition, with significant contributions from grassroots innovation [4] Group 3: Value Creation and Mechanism Improvement - Award-winning innovative solutions are being replicated across various subsidiaries, enhancing operational efficiency and reducing safety risks [5] - The company revised the fund usage regulations in 2025, establishing a comprehensive evaluation system focused on effectiveness, innovation, and demonstration [5] - The number of project applications for rewards increased by 74% in 2025, with the total reward amount growing by over 20% compared to the previous year [5] Group 4: Overall Organizational Impact - The General Manager Reward Fund has evolved into a powerful support system that fosters organizational management and unleashes employee potential, creating a healthy ecosystem of shared value and outcomes between the enterprise and its employees [6]