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市场调查报告书
商品编码
1359022
2030 年氢气罐材料市场预测 -材料类型、罐类型、尺寸、最终用户和地区进行的全球分析Hydrogen Tank Material Market Forecasts to 2030 - Global Analysis By Material Type, Tank Type, Size, End User and By Geography |
根据Stratistics MRC的数据,2023年全球氢罐材料市场规模为9.53亿美元,预计2030年将达到35.567亿美元,预测期内年复合成长率为20.7%。
氢气因其无限供应、无温室气体排放和高能源效率而被公认为未来能源领域的最佳选择。材料科学和技术的进步使得生产更轻、更有效率、储氢能力更强的储槽成为可能。由于这一趋势推动的行业投资和合作伙伴关係,新的储罐材料正在商业化,氢经济持续成长。此外,基础设施发展对于氢作为能源的广泛普及至关重要。
根据为燃料电池和氢能联合计划制定的欧洲氢能路线图,到 2030 年,FCEV 将占据欧洲每 22 辆小客车的1 辆、每12 辆轻型商用车中的1 辆、45,000 辆卡车和巴士以及每12 辆轻型商用车中的1 辆。570 加氢站,可能占用3,700个加氢站。
氢作为能源的适应性补充了间歇性可再生能源,并能够应对航空和重工业等行业脱碳的挑战。此外,研发工作的重点是燃料电池和电解槽等氢技术的开发,增加了对可靠氢储存方案的需求。
碳纤维增强复合材料等先进材料的製造成本相对较高,是氢罐材料市场的主要障碍之一。此外,由于製造这些材料所需的精密和专业设备,氢罐製造商会产生额外的成本。必须降低这些成本才能使氢技术具有成本竞争力。
由于材料科学的进步,氢罐材料市场面临巨大的机会。研究人员不断开发创新材料,以提供更强、更轻和更持久的储氢解决方案。然而,影响其采用的要素之一,尤其是在运输业,是使氢罐变得更轻、更安全的潜力。这种材料的例子包括碳纤维增强复合材料。
氢罐的耐用性和效率受到氢气可以渗透某些材料导致脆化和劣化的限制。然而,该领域的研究和开发仍在继续,以发现和设计能够承受长期暴露于氢气的同时保持结构完整性和安全性的材料。
氢罐材料市场受到COVID-19大流行的严重影响。最初的大流行导致了製造延误、供应链中断和临时专案中断,但也引起了人们对弹性和永续能源解决方案重要性的关注。随着各国和各部门在危机后评估其能源策略,将其视为经济復苏和绿色转型的潜在驱动力,氢能产业再次受到关注。此外,地方政府的奖励策略和復苏计划为氢相关项目分配了资金,为市场扩张创造了机会,特别是在可再生能源整合、交通和工业脱碳领域。
在氢罐材料中,碳纤维预计将占据最大的市场份额。碳纤维增强复合材料结合了高强度、轻重量和优异的抗氢脆性,使其成为製造坚固、轻质储存槽的首选材料。碳纤维增强氢气罐能够安全储存和运输氢气,同时为加速氢技术的采用做出重大贡献,特别是在运输业。这将有助于氢经济的扩张。
氢罐材料市场预计将以汽车领域中最高的年复合成长率成长。这主要是由于氢燃料电池汽车(FCV)作为一种环保且无排放气体的交通途径的需求不断增加。氢罐在燃料电池电动车(FCV)中发挥关键作用,与纯电动汽车相比,氢罐可提供更长的续航里程和更快的供给时间。此外,随着世界各国政府注重减少温室气体排放和促进氢气基础设施建设,以及汽车行业加大普及氢技术的配合措施,我们正在寻求满足FCV市场不断增长的需求,对先进氢罐材料的需求,例如由于碳纤维增强复合材料预计将大幅增加。
亚太地区占据氢罐材料最大的市场占有率。造成这项优势的要素有很多,包括政府大力推动氢能采用的倡议,特别是在日本和韩国等国家。为了推进氢燃料电池汽车(FCV)技术,这些国家正在对氢基础设施进行大量投资,并与汽车建立合作关係。此外,中国雄心勃勃的在交通和工业用途中使用氢的计划也在该地区的市场占有率中发挥重要作用。
北美氢罐材料的年复合成长率最高。许多要素促成了这一增长,包括对氢基础设施的投资增加、对氢基交通的大力支持以及对脱碳配合措施的兴趣增加。此外,热衷于在工业用途和可再生能源整合等各个行业利用氢气的北美地区,进一步推动了氢罐材料市场的成长,在氢技术的采用方面充满活力和快速发展。区域,其中
According to Stratistics MRC, the Global Hydrogen Tank Material Market is accounted for $953.0 million in 2023 and is expected to reach $3556.7 million by 2030 growing at a CAGR of 20.7% during the forecast period. Due to the limitless supply, absence of greenhouse gas emissions, and high energy efficiency, hydrogen has been identified as the best option for the future energy sector. The creation of lighter, more efficient tanks with greater hydrogen storage capacity is made possible by advances in materials science and technology. As a result of industry investments and partnerships spurred by this trend, new tank materials are now being commercialized, and the hydrogen economy is growing. Moreover, infrastructure development is crucial in helping to support the widespread adoption of hydrogen as an energy source.
According to the Hydrogen Roadmap Europe prepared for the Fuel Cells and Hydrogen Joint Undertaking, by 2030, FCEVs could account for 1 in 22 passenger vehicles, 1 in 12 light commercial vehicles, 45,000 trucks and buses, 570 trains, and 3,700 hydrogen fuelling stations in Europe.
Hydrogen's adaptability as an energy source which enables it to supplement intermittent renewable energy sources and decarbonizes challenging-to-abate industries like aviation and heavy industry, is a factor in its rising popularity. Moreover, the development of hydrogen technologies, such as fuel cells and electrolyzers, is the main focus of research and development, which in turn fuels the demand for reliable hydrogen storage options.
The relatively high manufacturing costs associated with cutting-edge materials like carbon fiber-reinforced composites are one of the main barriers in the hydrogen tank material market. Additionally, manufacturers of hydrogen tanks incur additional costs as a result of the precise and specialized equipment needed for the production of these materials. Making hydrogen technology more cost-competitive requires a reduction in these expenses.
The market for hydrogen tank materials is presented with a sizable opportunity due to ongoing advances in material science. Innovative materials that promise to be stronger, lighter and more long-lasting hydrogen storage solutions are being developed by researchers nonstop. However, one of the factors influencing their adoption, particularly in the transportation industry, is their potential to reduce the weight and enhance the safety of hydrogen tanks. Examples of these materials include carbon fiber-reinforced composites.
The durability and efficiency of hydrogen tanks can be impacted by the ability of hydrogen to permeate some materials, which can result in embrittlement and degradation. However, in order to find and engineer materials that can withstand prolonged exposure to hydrogen while maintaining structural integrity and safety, research and development efforts in this area are ongoing.
The market for hydrogen tank materials was significantly impacted by the COVID-19 pandemic. While the initial outbreak caused delays in manufacturing, supply chain disruptions, and temporary project suspensions, it also brought attention to the significance of resilient and sustainable energy solutions. The hydrogen industry has attracted new attention as nations and sectors evaluate their energy strategies in the wake of the crisis as a potential engine for economic recovery and the green transition. Moreover, funding for hydrogen-related projects was allocated by regional government's stimulus and recovery plans, providing chances for the market to expand, particularly in areas like renewable energy integration, transportation, and industrial decarbonisation.
In terms of hydrogen tank materials, the carbon fiber segment is anticipated to have the largest share in the market. Since they combine high strength, low weight, and excellent resistance to hydrogen embrittlement, carbon fiber-reinforced composites are the material of choice for producing strong, lightweight hydrogen storage tanks. However, they make it possible to store and deliver hydrogen safely, carbon fiber-reinforced hydrogen tanks also significantly contribute to encouraging the adoption of hydrogen technology, particularly in the transportation industry. This helps the hydrogen economy expand.
The hydrogen tank material market has been projected to grow at the highest CAGR in the automotive sector. This is primarily caused by the growing demand for hydrogen fuel cell vehicles (FCVs) as an eco-friendly and emission-free mode of transportation. In order to provide longer ranges and quicker refueling times than battery electric vehicles, hydrogen tanks play a crucial role in fuel cell vehicles (FCVs). Moreover, governments all over the world are placing a strong emphasis on reducing greenhouse gas emissions and promoting hydrogen infrastructure, and the automotive industry's growing commitment to hydrogen technology is likely to fuel a significant increase in demand for advanced hydrogen tank materials, like carbon fiber-reinforced composites, in order to meet the needs of a growing FCV market.
Asia-Pacific holds the largest market share for hydrogen tank materials. Several factors, including strong government initiatives promoting hydrogen adoption, particularly in nations like Japan and South Korea, are responsible for this dominance. To advance hydrogen fuel cell vehicle (FCV) technology, these countries have made significant investments in hydrogen infrastructure and are cultivating partnerships with automakers. Additionally, China's ambitious plans for using hydrogen in transportation and industrial applications also play a significant role in the market share of the region.
North America has the market's highest CAGR for hydrogen tank materials. A number of factors, such as increased investments in hydrogen infrastructure, strong support for hydrogen-based transportation options, and a growing focus on decarbonization initiatives, all contribute to this growth. Furthermore, North America's dedication to using hydrogen in a variety of industries, including industrial applications and the integration of renewable energy, further drives its growth in the hydrogen tank material market, making it a dynamic and quickly developing region for the adoption of hydrogen technology.
Some of the key players in Hydrogen Tank Material Market include: Hexagon Composites ASA, Composites Advanced Technologies, LLC, Metal Mate Co., Ltd., Praxair Technology, Inc., Everest Kanto Cylinder Ltd., Avanco Group, Pragma Industries, Linde plc, Mitsubishi Chemical Corporation, Luxfer Group, Beijing Tianhai Industry Co. Ltd., Faber Industrie S.P.A., Toyota Motor Corporation, UMOE Advanced Composites, BNH Gas Tanks Llp, Plastic Omnium, Quantum Fuel Systems LLC , Worthington Industries, Inc., Doosan Mobility Innovation and HBank Technologies Inc.
In August 2023, Apollo have acquired a majority interest in Composite Advanced Technologies, Inc, a leading provider of compressed natural gas ("CNG"), renewable natural gas ("RNG") and hydrogen transportation and storage solutions in the United States.
In August 2023, MarketAxess Holdings has entered into an agreement to acquire Pragma, a quantitative trading technology provider specialising in algorithmic and analytical services in equities, FX and fixed income. The acquisition is expected to close in Q4 2023.
In July 2023, Hexagon Purus, a world leading manufacturer of zero emission mobility and infrastructure solutions, has secured a five-year framework agreement for the delivery of hydrogen distribution systems to a leading global energy company. Hexagon Purus' hydrogen distribution systems including its type 4 hydrogen cylinders will be used to deliver hydrogen to a network of hydrogen refueling stations in Europe.