Core Viewpoint - The Chinese government has launched a comprehensive solid waste management action plan aimed at promoting green transformation and addressing the challenges of solid waste disposal and recycling in various sectors. Group 1: Action Plan Overview - The action plan outlines the overall strategy, work objectives, key tasks, and support measures for solid waste management in the coming period, addressing prominent issues in solid waste governance [6][8] - It emphasizes a problem-oriented approach, integrating existing management methods across various fields to enhance comprehensive governance throughout the waste management process [6][8] Group 2: Key Principles and Goals - The principles of "reduction, resource utilization, and harmlessness" will guide solid waste management efforts, with a focus on improving resource utilization efficiency [7] - The plan aims to achieve a comprehensive utilization rate of industrial solid waste, which currently stands at 57% [10] Group 3: Specific Initiatives - The plan includes a three-year special rectification action against illegal dumping of solid waste, with a target to identify and rectify 27,000 issues by the end of 2025 [8] - The initiative to build "waste-free cities" will be expanded to around 200 cities, focusing on regions like the Beijing-Tianjin-Hebei area and the Yangtze River Delta [8] Group 4: Sector-Specific Strategies - In agriculture, the focus will be on improving the management of agricultural solid waste, including the promotion of biodegradable materials and better recycling of pesticide packaging [9] - For construction waste, the strategy includes enhancing source management, promoting green construction practices, and implementing comprehensive monitoring mechanisms [9] Group 5: Industrial Waste Management - The industrial sector will see efforts to reduce the generation of industrial solid waste through green design and manufacturing practices, alongside the promotion of advanced recycling technologies [10] - The government will work with relevant departments to ensure the effective implementation of the action plan and the achievement of its objectives [10]

Core Viewpoint - The green transformation of the manufacturing industry is essential for addressing environmental pressures and is a core pathway to high-quality development under the "dual carbon" goals. This transformation involves integrating low-carbon and circular concepts into all aspects of research, production, and operations, which has profound implications for promoting a green and low-carbon economy and society [2]. Group 1: Clean Production Technology Innovation - Promoting clean production technology innovation can help enterprises reduce pollution, cut carbon emissions, and improve resource utilization efficiency from the source. Management must integrate technological innovation with process management to enhance both environmental performance and operational efficiency [2]. - At the raw material level, enterprises should strategically replace high environmental impact materials and establish a green supplier evaluation system to reduce potential pollution and carbon emissions from the procurement source [3]. - In the production process, leveraging digitalization and intelligence can achieve precise control of energy and material consumption, enhancing transparency and stability in production processes [3]. Group 2: Energy Structure Optimization - Systematic optimization of the energy structure is crucial for improving overall energy efficiency. This involves strategic supply replacement and refined demand management to create a modern energy system that is clean, efficient, low-carbon, and resilient [4]. - On the supply side, enterprises should align energy procurement strategies with long-term carbon reduction goals, increasing the share of renewable energy in their consumption structure [4]. - In energy usage, enterprises need to focus on the resource utilization of waste energy, implementing energy recovery systems to enhance overall energy efficiency and reduce comprehensive energy consumption per product [4]. Group 3: Circular Economy Industrial Network - Building a circular economy industrial network is key to transitioning from a linear industrial civilization to a circular ecological paradigm. This involves reconfiguring the linear production model into a circular system to maximize resource efficiency and minimize carbon footprints [5]. - Enterprises should establish regional industrial symbiosis networks to match their by-products and waste with the resource needs of surrounding companies, significantly reducing material input and carbon emissions [6]. - The circular economy concept should extend to the entire product lifecycle, focusing on recycling, remanufacturing, and re-circulation, thereby creating a product circulation system along the value chain [6]. Group 4: Comprehensive Action Framework - The green transformation of manufacturing enterprises requires a comprehensive action framework that includes promoting clean production technology innovation, optimizing energy structures, and constructing circular economy industrial networks. This framework supports management transformation within enterprises [7].

Core Viewpoint - The company, Taishan Gypsum (Heze) Co., Ltd., is focusing on sustainable production by utilizing industrial by-products and advanced technology to enhance efficiency and product quality while maintaining a strong market presence in the gypsum board industry [1][2]. Group 1: Company Overview - Taishan Gypsum is a wholly-owned subsidiary of China National Building Material Group, established in 2017, covering an area of 137 acres with a total construction area of nearly 100,000 square meters [1]. - The company produces over 60 varieties of gypsum products, including paper-faced gypsum boards and light steel keels, with a market share exceeding 50% in the national gypsum board market [1]. Group 2: Production Capacity and Technology - The company has three modern production lines with an annual capacity of 35 million square meters for paper-faced gypsum boards, 8 million square meters for decorative gypsum boards, and 10,000 tons for light steel keels [1]. - Taishan Gypsum utilizes 100% desulfurized gypsum from local power plants as raw material, processing approximately 300,000 tons annually to produce 40 million square meters of gypsum boards [2]. Group 3: Environmental and Technological Initiatives - The company employs advanced technology for smart production, including real-time monitoring of the entire production process and a digital management system that ensures product traceability [2]. - Taishan Gypsum's approach demonstrates that economic benefits and environmental protection can coexist, contributing to the transformation and upgrading of the traditional building materials industry [2].

《商道创投网》创业家会员·单位简介 《商道创投网》创投生态圈·本轮投融观点是什么？ 九爪智能成立于2021年，位于广州市，是一家专注于AI视觉与多模态传感融合的智能分选技术企业。 公司通过自主研发软硬件一体化分选体系，将算法与复杂真实场景深度绑定，形成了在分选精度、稳定 性和人工替代能力上的显著优势。其核心团队成员多来自产业龙头，拥有深厚的机器视觉、物联网技术 积累以及丰富的环保装备和环卫运营经验。 商道创投网创始人王帥表示，九爪智能的本轮融资是智能分选技术在环保领域的重要进展。当前，国家 政策持续支持绿色低碳发展和循环经济建设，相关政府部门出台了一系列支持创业投资的文件，行业从 业者积极响应并加速技术落地。从创投机构角度看，九爪智能的技术实力和市场潜力得到了充分认可， 其团队背景也为项目发展提供了坚实保障。对于融资方而言，九爪智能的创业精神和在环保赛道的创新 实践值得肯定。未来，随着技术的不断成熟和市场拓展，九爪智能有望在循环经济领域发挥更大作用， 推动行业高质量发展。 《商道创投网》创业家会员·本轮融资用途是什么？ 九爪智能创始人李希卓表示，本轮融资将主要用于核心算法和设备的迭代升级，加速技术在更多真实场 ...

Group 1: Core Action Plan - The "Solid Waste Comprehensive Governance Action Plan" aims for significant improvements in solid waste management by 2030, including effective control of historical stockpiles and curbing illegal dumping, with a target of 4.5 billion tons of comprehensive utilization of major solid waste and 510 million tons of recycling of main renewable resources annually [1] - The plan emphasizes the importance of enhancing solid waste governance capabilities and levels significantly [1] Group 2: Agricultural Waste Management - The plan promotes scientific use of agricultural films, encouraging the adoption of thicker, high-strength, and fully biodegradable films, along with improved collection of pesticide packaging waste [2] - It aims to advance the resource utilization of livestock and poultry manure, promote straw return to fields, and develop ecological circular agriculture through policy incentives [2][3] - The focus is on overcoming technical bottlenecks in manure application and straw decomposition, while enhancing the integration of technology, products, and equipment [2] Group 3: Illegal Dumping and Enforcement - There will be a strict crackdown on illegal dumping, with enhanced environmental law enforcement from waste generation to disposal, and severe penalties for serious violations [6] - The plan includes regular monitoring of progress in waste management across regions and emphasizes the importance of local responsibility in managing illegal dumping [6] Group 4: Circular Economy Development - The initiative encourages the direct utilization of industrial, construction, and agricultural solid waste without altering their properties, focusing on efficient extraction and overall utilization of valuable components [6] - It promotes the recycling of various waste products through detailed disassembly and extraction of recyclable materials, while also encouraging the development of remanufacturing industries [7] Group 5: Construction Waste Management - The plan calls for promoting green construction practices, integrating waste reduction and management costs into project budgets, and implementing classification and management of construction waste [10] - It emphasizes the need for regulatory oversight of transportation and disposal of construction waste, including the installation of GPS systems on transport vehicles [10] Group 6: "Waste-Free City" Initiative - The plan sets a target for 60% of cities to achieve "waste-free" status by 2027, with full coverage by 2035, expanding the initiative to around 200 cities during the 14th Five-Year Plan [13] - It aims to integrate the "Waste-Free City" initiative with the Solid Waste Comprehensive Governance Action Plan to enhance urban waste management [13][14]

Core Insights - Haffner Energy and IGNIS's P2X platform have launched the AeroVerde project in Spain to produce bio-SAF and e-SAF, addressing the EU's renewable aviation fuel supply chain challenges [1] Group 1: Project Overview - The AeroVerde project utilizes a localized, circular economy model to tackle the current gaps in the European SAF industry [1] - Haffner Energy's patented technology converts local waste biomass in Spain into hydrogen-rich synthesis gas for bio-SAF production [1] - The process generates bio-based CO2, which is combined with green hydrogen produced from renewable energy by IGNIS P2X to create e-SAF [1] Group 2: Environmental Impact - The dual-pathway technology of "biomass + green electricity" aims to optimize resource utilization and significantly reduce lifecycle carbon emissions [1] Group 3: Market Implications - If successful, the project will provide the EU aviation industry with a localized decarbonization pathway that does not rely on imported raw materials [1] - The initiative is expected to intensify regional competition in the high-end chemicals and clean fuels sectors globally [1] - Europe is attempting to redefine the rules and structure of the green fuel supply chain through such projects [1]

Group 1 - The core message emphasizes the importance of integrating the spirit of the 20th National Congress into the operations of China Resources Recycling Group Co., Ltd. (China Zihuan) through various learning and implementation methods [1] - The company is actively promoting original innovation and key core technology breakthroughs, aligning with national strategies for technological and industrial innovation [1] - China Zihuan is developing a "platform-based" approach to integrate innovative resources, utilizing "digital intelligence" to overcome technical bottlenecks, and leading industry development through "standardization" [1] Group 2 - The "14th Five-Year Plan" suggests a proactive approach to carbon peak and dual control of carbon emissions, guiding the development of a circular economy [2] - China Zihuan is leveraging its role as a "national team" in the circular economy sector to drive green low-carbon circular economy demonstration bases and innovations [2] - The company aims to create a comprehensive "recycling - cascading utilization - regeneration" industrial chain, promoting industrial clustering and contributing to the high-quality development of the circular economy [2]

（来源：天津日报） 转自：天津日报 走进位于我市西青区的凯勒（天津）工业技术有限公司（以下简称"凯勒天津"），车间里机械臂精准运 转，激光切割的火花四溅，三坐标测量仪正一丝不苟地校验着每一处细微尺寸。这里生产的，是堪称工 业"心脏"的高精度称重与配料系统，它如同心脏为身体精准供血一般，为水泥、钢铁、化工、能源生产 时间回到2022年。彼时的凯勒集团作出了一个重大决定：将矿业板块剥离出售，凯勒中国全部称重业务 从天津旧址迁至新工厂。从接到通知到完成全部搬迁，团队只用了三个月时间。 "这不仅是一次搬家，更是一次重生。"凯勒中国总经理本杰明（Benjamin）回顾道。凯勒中国的总部设 在天津，同时在北京、上海、沈阳、香港设有分公司。搬迁前，凯勒天津已成立20年，主要从事外部采 购与组装，生产能力存在瓶颈。而搬迁后，团队立下目标：必须实现从原材料采购到核心加工，再到最 终组装的完整产业链自主。 一年半后，目标成为现实。如今，小到一块钢板的激光切割、折弯与焊接，大到煤粉计量与控制系统 （简称"煤粉称"）核心部件的精密加工，全部在天津工厂内完成。"我们甚至成了凯勒集团在全球范围 内，唯一能够自主生产'煤粉称'四大核心部件 ...

Core Viewpoint - Teijin aims to become a global leader in sustainable carbon fiber solutions, focusing on innovative materials and recycling technologies to meet the demands of various industries, including automotive and aerospace [2][4]. Group 1: Product Offerings - Teijin's carbon fiber division offers a range of products, including the Tenax™ series of high-performance carbon fibers, thermoplastic prepregs, and thermosetting prepregs, which are widely used in aerospace, automotive, sports, leisure, electronics, and industrial sectors [2]. - The core product line includes ISCC PLUS certified sustainable products made from bio-circular AN and recycled AN materials, achieving a carbon footprint reduction of 10%-20% [2]. - High-performance thermoplastic prepregs are designed with resins such as PC, PA, and PES, providing advantages like flame resistance, moisture resistance, and high rigidity [2]. Group 2: Sustainability Initiatives - Teijin is committed to advancing carbon fiber recycling technology, promoting a circular economy through the regeneration of short fibers [2]. - The company has received the EcoVadis silver award for its sustainable practices, emphasizing its dedication to green innovation across multiple fields [2]. Group 3: Company Background - Teijin was established in 1918 and is headquartered in Tokyo and Osaka, Japan, with a focus on composite materials, aramid fibers, carbon fibers, resins, and medical businesses [9]. - The company operates 150 subsidiaries globally and employs approximately 20,000 people, with a mission to pioneer solutions for a healthy planet [9]. - Teijin's operations in China began in the 1970s, with significant investments and a diversified business presence across the country, employing around 2,000 people [11].

Core Insights - The Jinchuan Nickel-Cobalt Concentration Plant has won the third prize in the 2025 China Circular Economy Association Science and Technology Award for its innovative project on the resource utilization of nickel-copper mining wastewater, marking its first significant recognition in the field of circular economy [1][11] - This award signifies the plant's authoritative recognition in sustainable development and its achievement of international leadership in the efficient recycling of mining wastewater [11] Group 1: Challenges Faced - Jinchang City, as an inland arid city, faces significant water resource supply and demand contradictions, which have become a bottleneck for the high-quality development of the concentration plant as production scales expand [3][13] - The wastewater from the tailings pond is complex and difficult to treat, historically relying on natural evaporation, leading to substantial water resource waste [3][13] Group 2: Technological Innovations - The project team developed a systematic and intelligent technology for the resource utilization of mining wastewater, focusing on the reuse of tailings pond wastewater and the recycling of water from the concentration plant [5][15] - During the 14th Five-Year Plan period, the plant's ore processing volume exceeded 10 million tons, while freshwater consumption decreased by 10% annually, achieving a water resource reuse rate of over 95% [5][15] Group 3: Key Breakthroughs - The project established a comprehensive wastewater recycling system that integrates production, transportation, supply, and distribution, utilizing a solar-powered intelligent water regulation device to achieve continuous and controllable wastewater output [16] - An independent water supply system was created to manage new water, urban reclaimed water, concentrate return water, and tailings return water, optimizing water usage across different processes [16] Group 4: Equipment and Technical Support - The project relies on "5G+" intelligent construction to develop key devices, forming a reliable technical support system [18] - Innovations include a de-foaming device for thickening machines, a noise reduction device for mixed filtrate, and an integrated filtration technology, resulting in a complete technical chain for efficient water recovery [19] Group 5: Economic, Social, and Ecological Benefits - Since the project's implementation, the annual water recovery has increased from zero to over one million tons, saving hundreds of thousands of yuan in production costs [21] - The annual savings in freshwater equate to the annual domestic water needs of approximately 10,000 people or the irrigation of about 3 million square meters of urban green space, alleviating water scarcity in Jinchang [21] - The project has successfully transformed approximately 4.3 million tons of wastewater into usable water annually, reducing wastewater discharge and evaporation losses, thus contributing to regional water ecological safety [21] Group 6: Future Contributions - The project has been recognized as a replicable and promotable solution for complex mining wastewater resource utilization and green low-carbon regeneration, contributing valuable insights for similar metal mining plants globally [23] - The Jinchuan Nickel-Cobalt Concentration Plant will continue to adhere to innovation-driven and green development strategies, embedding circular economy principles into every operational aspect [23]