近 日 ， 中 集 安 瑞 科 旗 下 石 家 庄 安 瑞 科 气 体 机 械 有 限 公 司 研 发 的 " 30MPa 氢 能 管 束 车 " ， 在 20 25 年 " 越 来 越 好 " 国 际 设 计 大 赛 中 成 功 斩 获"产品设计奖"，成为本次大赛中备受瞩目的绿色能源装备代表作。此次获奖不仅彰显了产品在设计与技术上的卓越表现，更凸显了其 在国际化评委背景下的广泛认可，更展现了中集安瑞科在推动绿色能源应用、创造美好生活方面的坚定承诺。 2025"越来越好"国际设计大赛由中央广播电视总台、广东省人民政府、广州市人民政府、深圳市人民政府共同指导，中央广播电视总 台广东总站与"越来越好"国际设计大赛组委会联合主办。自启动全球征集以来，大赛共收到来自69个国家和地区的15691份设计作品， 涵盖人工智能、高端制造、绿色能源、智慧生活等多个领域，并委派来自中国、美国、英国、加拿大、意大利、韩国、新加坡的数十位 权威专家开展专业评审。 本次大赛的评审团阵容兼具国际视野与中国智慧。 外方评审主席由世界设计组织主席托马斯·加维担任；中方评审主席由清华大学文科 资深教授、原清华大学美术学院院长鲁晓波担任 。中外 ...

近日，中集安瑞科旗下石家庄安瑞科气体机械有限公司研发的"30MPa氢能管束车"，在2025年「越来越好」国际设计大赛中成功 斩获"产品设计奖"，成为本次大赛中备受瞩目的绿色能源装备代表作。此次获奖不仅彰显了产品在设计与技术上的卓越表现，更 凸显了其在国际化评委背景下的广泛认可，更展现了中集安瑞科在推动绿色能源应用、创造美好生活方面的坚定承诺。 Better Design Award BDA Product Design Award 品设计奖 Thomas Garvey 托马斯·加维 Xiaobo Lu 鲁晓波 2025 Better Design Award - 作品名称 ENTRY NAME 30MPa氢能管束车 30MPa Hydrogen Tube Trailer 品牌方 BRAND NAME 中集安瑞科 设计方 DESIGNED BY 中集安瑞科 设计师 DESIGNER 2025"越来越好"国际设计大赛由中央广播电视总台、广东省人民政府、广州市人民政府、深圳市人民政府共同指导，中央广播电 视总台广东总站与"越来越好"国际设计大赛组委会联合主办。自启动全球征集以来，大赛共收到来自69个国家和地区的15 ...

Group 1 - The company, Zhongyou Capital, has confirmed its subsidiary, Kunlun Capital, is actively investing in the commercial aerospace sector, specifically in companies like Hongqing Technology and Aerospace Times Feipeng [2] - Kunlun Capital is implementing a "fund + direct investment" dual-drive strategy, focusing on investments in new energy, new materials, digital intelligence industries, and low-altitude economy [2]

Core Viewpoint - The successful implementation of Tianjin Bohai Petrochemical Co., Ltd.'s hydrogen storage and transportation demonstration project represents a significant advancement in the safe and economical storage and transportation of hydrogen energy [1] Group 1: Project Overview - The project utilizes self-developed technology to overcome technical challenges related to hydrogen storage catalysts, process optimization, and system integration [1] - The project employs safe organic liquid hydrogen storage technology, which allows hydrogen gas to be chemically fixed in organic liquids, creating a stable and safe liquid carrier at normal temperature and pressure [1] Group 2: Industry Impact - The project addresses key challenges in the hydrogen energy industry, particularly the high-risk barriers associated with the storage and transportation of hydrogen as a hazardous material [1] - By reducing the cost of hydrogen at the end-user level, the project facilitates the large-scale utilization of industrial by-product hydrogen and renewable energy hydrogen production [1] Group 3: Future Developments - The project aims to establish a closed-loop system for safe organic liquid hydrogen storage and usage, relying on self-developed hydrogen storage and release equipment and industrial by-product hydrogen resources [1]

Investment Rating - The report suggests a positive outlook on the hydrogen energy sector, indicating potential investment opportunities in hydrogen compression and pipeline supply equipment [9]. Core Insights - The hydrogen storage and transportation technology routes are diverse, but a large-scale, low-cost, and safe delivery system is not yet mature. Pipeline transportation is identified as one of the promising methods for development [4][11]. - By December 2025, the first long-distance pure hydrogen pipeline in China, spanning approximately 1,132 kilometers, is expected to be operational, with an initial hydrogen delivery capacity of 100,000 tons per year, potentially increasing to 500,000 tons per year [7]. - The economic feasibility of pure hydrogen pipelines is highlighted, with transportation costs estimated between 0.8 to 4.66 yuan/kg depending on the distance, making it a viable option for long-distance hydrogen delivery in China [11]. Summary by Sections Industry Overview - Hydrogen storage and transportation technologies are varied, with high-pressure gaseous storage being the most mature but limited by low transportation efficiency and high costs over long distances [11]. - Pipeline transportation, including pure hydrogen and hydrogen-blended natural gas pipelines, is viewed as the most economical long-term solution for large-scale hydrogen delivery [11]. Regulatory Developments - Significant progress in standards and policies for hydrogen pipeline transportation is expected by 2025, including the release of national standards for hydrogen pipelines and guidelines for hydrogen blending in natural gas pipelines [11]. - The National Energy Administration has initiated pilot projects for hydrogen pipeline applications, supporting the development of large-scale hydrogen transportation [11]. Project Updates - Key projects include the Sinopec pipeline project, which has passed safety assessments, and the commencement of the first kilometer-level pure hydrogen pipeline in China [11]. - The report emphasizes the importance of addressing safety risks associated with hydrogen embrittlement in pipeline materials [11].

Summary of Hydrogen Storage and Transportation Industry Conference Call Industry Overview - The hydrogen storage and transportation industry is a critical segment of the hydrogen energy value chain, involving the conversion of electrical energy into chemical energy in the form of hydrogen, which can then be transformed back into electrical energy or used as a chemical feedstock. The high cost of hydrogen storage and transportation limits its economic viability in certain regions, necessitating a focus on reducing transportation costs for industry growth [2][10]. Key Points and Arguments Transportation Methods - Hydrogen can be stored and transported in three main forms: gaseous, liquid, and solid. Gaseous storage is primarily used for short distances, while liquid storage is more suitable for long-distance transport, such as exports from Canada and Australia to Japan and South Korea. Solid storage includes physical adsorption and metal hydrides [4][5]. Gaseous Hydrogen Storage - Gaseous hydrogen storage is currently the primary method for short-term use. While pressurization can enhance transport efficiency, the energy density remains low. For instance, a 40-liter steel cylinder at 15 MPa can only store about 0.5 kg of hydrogen, which is less than 1% of the cylinder's weight. Economic viability diminishes when pressures exceed 70-80 MPa [6][3]. Liquid Hydrogen Storage - Liquid hydrogen is advantageous for long-distance transport due to its higher density, being 1.8 times denser than gaseous hydrogen at 70 MPa. A 68 cubic meter tank can carry 4.8 tons of liquid hydrogen, significantly outperforming gaseous storage. However, the liquefaction process is energy-intensive, requiring approximately 15 kWh per kg, translating to a cost of about 7.5 yuan per kg [7][9]. Pipeline Transportation - Pipeline transportation is the most economical method for medium to long distances. China has approximately 2,500 kilometers of hydrogen transport pipelines, with potential for blending hydrogen into natural gas pipelines. If 20% of the natural gas consumption is blended with hydrogen, it could absorb around 7 million tons of hydrogen annually [11][12]. Regulatory Developments - In August 2023, China released the "Guidelines for Building Industrial System Standards," which outlines the construction of standards across the entire hydrogen value chain, including safety and other sub-systems. This initiative aims to promote healthy and standardized industry development [8]. Challenges and Risks - Liquid hydrogen has a high loss rate of about 1-2% per day due to its low vaporization latent heat, making it unsuitable for indirect applications like vehicles. However, it is commonly used in specific scenarios such as rocket launches. The domestic liquid hydrogen industry has achieved significant localization, with relevant national standards established [9]. Vehicle Storage Bottles - High-pressure gaseous hydrogen storage is widely used in vehicles, with ongoing developments transitioning from 35 MPa to 70 MPa standards. The fourth-generation bottles, made with plastic liners and carbon fiber, are lighter and can withstand higher pressures. The fifth-generation bottles are still in research [13]. Green Hydrogen Distribution - Green hydrogen is primarily produced in China's northern regions and is mainly applied in industrial and transportation sectors, particularly in coastal areas. A key challenge is the mismatch between local applications and industrial capabilities. Short-term strategies involve using long tube trailers, while long-term solutions will focus on pipeline transport and liquid forms for energy exports [14]. Additional Important Insights - The economic viability of liquid versus gaseous hydrogen transportation varies significantly with distance. Liquid storage becomes economically advantageous only for distances exceeding 1,000 kilometers [10]. - The blending of hydrogen into natural gas pipelines requires careful consideration of material risks, such as cracking and corrosion, with specific blending ratios outlined by national standards [12].

Core Insights - Hydrogen storage and transportation is a critical segment of the hydrogen energy industry, impacting safety and economic viability [2] - The first cross-province green hydrogen pipeline has been approved this year, and significant advancements in hydrogen transportation technologies are being made [2] - A new ecosystem for safe and efficient hydrogen delivery is emerging, with key breakthroughs expected to address cost and safety bottlenecks [2] Event Details - The "2025 (Third) Hydrogen Storage and Transportation Key Technology Development Forum" will be held from December 16 to 18, 2025, in Jiangsu [3] - The forum is organized by DT New Energy and aims to discuss core topics such as high-pressure hydrogen storage, low-temperature liquid hydrogen technology, and pipeline transportation technology [2][3] Participation and Activities - The forum will invite academicians and industry experts to discuss challenges, opportunities, and trends in the hydrogen storage and transportation sector [7] - There will be a scheduled visit for participants on December 18, with limited slots available for each company [7] Technology and Innovation - The forum will feature a display of scientific achievements in the hydrogen storage and transportation field, encouraging technology transfer and commercialization [8] - A "supply-demand matching collection form" will be introduced to connect research institutions, enterprises, and service providers in the hydrogen energy sector [9]

Core Viewpoint - The article discusses the advancements and market position of Zhongcai Technology (Suzhou) Co., Ltd. in the hydrogen energy storage and transportation sector, highlighting its innovative products and significant market share in China [2][8]. Group 1: Hydrogen Storage and Transportation Challenges - Hydrogen storage and transportation face significant challenges, including high technical difficulty and cost-effectiveness issues. Main storage methods include high-pressure gas hydrogen, low-temperature liquid hydrogen, metal hydride, and organic liquid hydrogen [4]. - High-pressure gas hydrogen is currently the primary method in China due to its mature technology and lower costs, while low-temperature liquid hydrogen has high energy consumption and costs [4]. Group 2: Technological Innovations - Zhongcai Technology (Suzhou) focuses on hydrogen storage and transportation, with capabilities to produce 100,000 III-type hydrogen storage cylinders annually, covering sizes from 1.5L to 450L [4]. - The new 35MPa 450L III-type cylinder has improved operational efficiency for hydrogen-powered heavy trucks by reducing system weight while increasing volume [4][5]. Group 3: Market Performance - Zhongcai Technology (Suzhou) leads the domestic market in hydrogen cylinder production, with over 50% model installation rate as per the Ministry of Industry and Information Technology, maintaining its market leadership for two consecutive years [7]. - The company also promotes hydrogen storage and transportation equipment, including hydrogen storage containers for refueling stations and composite long-tube transport trailers, enhancing transportation efficiency [7]. Group 4: Company Overview and Future Plans - Established in 2004, Zhongcai Technology (Suzhou) is a national high-tech enterprise under China National Building Material Group, with a production capacity exceeding 1.2 million gas cylinders annually [8]. - The company aims to continue advancing hydrogen storage and transportation technology, expanding application scenarios to support the development of a clean, low-carbon, and safe hydrogen energy system [8].

Core Insights - The hydrogen pipeline network is the only technology capable of large-scale, long-distance economic transportation, effectively addressing the mismatch between green hydrogen production bases and consumption markets, and becoming a key infrastructure for the cross-regional optimization of renewable energy [1][10] - As of March 2025, the total length of hydrogen pipeline projects under construction and planning in China has exceeded 7,000 kilometers, including the world's first 10,000-ton pure hydrogen transportation demonstration project [1][10] - The industry is supported by a comprehensive policy framework aimed at accelerating the construction of hydrogen transportation infrastructure and promoting the large-scale development of the green hydrogen industry [6][24] Hydrogen Pipeline Engineering Overview - Hydrogen pipeline engineering refers to projects that transport hydrogen from production sites to consumption locations through dedicated pipelines, similar to natural gas transportation methods [2] - The technology involves compressing hydrogen gas to increase density and reduce volume for efficient transportation [2] Advantages of Hydrogen Pipeline Transportation - Hydrogen pipelines are more suitable for long-distance, large-scale hydrogen distribution, achieving stable transportation with lower energy consumption and higher efficiency compared to other methods [3] Current Development Status - The construction of hydrogen pipelines in China has accelerated significantly, with several demonstration projects validating the feasibility of long-distance and large-diameter hydrogen transportation [12][19] - The industry is transitioning from short-distance pipelines to long-distance, high-capacity networks, marking a shift towards a national hydrogen energy pipeline system [15][19] Policy Support - A series of national and local policies have been implemented to support the development of hydrogen pipeline projects, including financial subsidies and pilot projects [6][7] - The Energy Law, effective from January 1, 2025, establishes hydrogen energy as a strategic emerging industry and a core component of the future energy system [6][7] Industry Chain Structure - The hydrogen pipeline engineering industry chain consists of upstream core materials and equipment, midstream engineering construction, and downstream application services [8] - The industry is moving towards scale and commercialization, driven by policy support and technological innovation [8] Competitive Landscape - The hydrogen pipeline engineering sector is characterized by multi-entity participation and differentiated competition, with major players including state-owned enterprises, specialized pipeline construction companies, engineering design institutes, and emerging technology firms [19][21] Future Development Trends - The industry is expected to transition from technology validation to large-scale application, with policy support, technological breakthroughs, and market demand driving rapid growth [24] - Hydrogen blending technology is anticipated to become a mainstream transitional solution, utilizing existing natural gas pipelines to lower construction costs [26] - Future hydrogen pipelines will integrate with offshore wind power, photovoltaic hydrogen production, and industrial hydrogen use, forming a comprehensive hydrogen energy network [27]