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市场调查报告书
商品编码
2007887
全球氢气管道市场预测至2034年—按管道类型、基础设施、氢气类型、压力等级、材质、网路类型、应用、最终用户和地区分類的全球分析Hydrogen Pipelines Market Forecasts to 2034 - Global Analysis By Pipeline Type, Infrastructure, Hydrogen Type, Pressure Level, Material, Network Type, Application, End User, and By Geography |
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根据 Stratistics MRC 的数据,预计到 2026 年,全球氢气管道市场规模将达到 19 亿美元,并在预测期内以 25.9% 的复合年增长率增长,到 2034 年将达到 120 亿美元。
氢气管道将气态氢从生产设施输送至工业终端用户、加氢站和仓储设施。这项专用基础设施对于氢能经济的扩张至关重要,能够实现经济高效、大容量的长距离运输。市场涵盖了旨在满足不同氢气纯度和压力水平需求的管道网络,从而支持重工业、发电和交通运输领域的脱碳进程。
政府法规和净零排放目标
随着世界各国积极推动脱碳进程,对石化燃料替代能源的需求正加速推动氢能运输基础设施的投资。欧盟、美国和亚洲的政策框架正在为氢能管道网路提供资金和监管支持。这些措施旨在将氢能确立为清洁能源系统的基础,并为计划开发商提供清晰的长期需求前景。公共和私人资本的共同註入正以前所未有的规模推动管道项目向前发展。
材料脆化和高昂的资本成本
传统钢製管道在氢气环境下会变得脆弱,需要使用昂贵的特殊材料和涂层才能确保安全运作。将现有天然气管道改造为氢气管道需要进行大规模维修,而新建氢气专用管道的建造成本远高于同等规模的天然气管道。这些技术挑战和资金需求阻碍了基础设施投资,尤其是在需求预测不明朗的地区。此外,投资回收期长带来的财务风险也进一步限制了市场成长。
现有天然气基础设施的改造利用
庞大的天然气管道网路为加速氢气市场发展提供了绝佳机会,可透过现有资产的改用来实现。与新建设计划相比,改用现有资产可降低资本投入、缩短建造週期并减少环境影响。欧洲和北美成功的试点计画证明了混合和专用氢气运输的技术可行性。这种方法允许分阶段扩展氢气基础设施,同时充分利用现有的土地权益和营运经验。
技术上的不确定性和多种运输方式的竞争
新型氢载体(例如氨、液态有机氢载体和液态氢)的出现可能会降低管道在长距离运输中的重要性。快速发展的生产技术可能会改变氢气的供应基地,并导致管道资产閒置。在市场发展初期,公路和铁路运输等其他运输方式提供了更大的柔软性。这些不确定性会使长期基础设施规划复杂化,并延迟对管道网路扩建至关重要的投资决策。
疫情初期,供应链延误和劳动力短缺导致氢气管道计划受阻,迫使原定的基础设施投资计画延长。然而,随后主要经济体实施的经济刺激措施,为包括氢气运输在内的清洁能源基础设施投入了前所未有的资金。这些復苏计画加快了计划进度,并扩大了资金筹措管道。这次危机凸显了人们对能源安全的担忧,进一步增强了各国政府建设国内氢气供应链及专用管线基础设施的动力。
在预测期内,灰色氢能细分市场预计将成为规模最大的市场。
在预测期内,灰氢将占据市场的大部分份额,同时也将是管道运输量最大的部分。现有的灰氢网路主要服务于炼油、氨生产和甲醇生产等产业丛集。这些已建成的基础设施走廊为管道扩建提供了营运经验和经济依据。随着碳定价机制的演变,灰氢运输可能会转向蓝氢,但管道利用率预计仍将保持在高位。
预计高压电领域在预测期内将呈现最高的复合年增长率。
预计高压管道领域在预测期内将实现最快成长。高压管道可提高输送效率,并为燃料电池汽车的加氢站网路提供支援。超过100巴的工作压力能够输送更高能量密度的氢气,进而降低消费点的压缩成本。燃料电池汽车的日益普及以及氢气掺混天然气管网的推进,正在推动对高压基础设施的需求。材料和焊接技术的进步正在拓展高压管道的可用工作压力范围,从而促进该领域的加速成长。
在预测期内,欧洲地区预计将占据最大的市场份额。这主要得益于欧盟雄心勃勃的氢能战略以及连接工业丛集的跨国管道计画。 「欧洲氢能骨干网」计划计画在2040年建成超过4万公里的专用氢气管道,并为此投入大量公共资金和协调监管。凭藉成熟的工业气体基础设施和强大的政策承诺,欧洲已成为氢气管道网路的主要区域市场。
在预测期内,亚太地区预计将呈现最高的复合年增长率,这主要得益于中国、日本和韩国氢能产业的积极扩张。这些国家正在製定国家氢能发展蓝图,其中包括大规模管道基础设施建设目标,以支持工业脱碳和燃料电池的部署。快速的产业化进程、政府主导的示范计划以及对氢能枢纽的战略投资,全部区域管道网路的快速发展创造了有利条件。
According to Stratistics MRC, the Global Hydrogen Pipelines Market is accounted for $1.9 billion in 2026 and is expected to reach $12.0 billion by 2034 growing at a CAGR of 25.9% during the forecast period. Hydrogen pipelines transport gaseous hydrogen from production facilities to industrial end-users, fueling stations, and storage sites. This dedicated infrastructure is critical for scaling the hydrogen economy, enabling cost-effective bulk transport over long distances. The market encompasses pipeline networks designed for various hydrogen purities and pressure levels, supporting decarbonization efforts across heavy industry, power generation, and mobility sectors.
Government mandates and net-zero emission targets
Aggressive decarbonization commitments worldwide are accelerating investment in hydrogen transport infrastructure as nations seek alternatives to fossil fuels. Policy frameworks in the European Union, United States, and Asia provide funding and regulatory support for hydrogen pipeline networks. These initiatives aim to establish hydrogen as a cornerstone of clean energy systems, creating long-term demand visibility for pipeline developers. Alignment between public funding and private capital deployment is driving project pipelines forward at unprecedented scale.
Material embrittlement and high capital costs
Hydrogen exposure causes embrittlement in conventional steel pipelines, requiring costly specialty materials or coatings to ensure safe operation. Retrofitting existing natural gas pipelines demands extensive modifications, while new dedicated hydrogen pipelines face construction costs significantly higher than natural gas equivalents. These technical challenges and capital requirements deter infrastructure investment, particularly in regions without clear demand certainty. The financial risk associated with long payback periods further constrains market growth.
Repurposing existing natural gas infrastructure
Extensive natural gas pipeline networks present a substantial opportunity for accelerated hydrogen market development through repurposing. Converting existing assets reduces capital requirements, construction timelines, and environmental impacts compared to new-build projects. Successful pilot conversions in Europe and North America demonstrate technical feasibility for blending and dedicated hydrogen transport. This approach enables incremental hydrogen infrastructure build-out while leveraging established rights-of-way and operational expertise.
Technological uncertainty and competing transport modes
Emerging hydrogen carriers such as ammonia, liquid organic hydrogen carriers, and liquid hydrogen may reduce pipeline relevance for long-distance transport. Rapidly evolving production technologies could shift hydrogen supply locations, stranding pipeline assets. Competing transport modes including trucking and rail offer greater flexibility for early-stage markets. This uncertainty complicates long-term infrastructure planning and may delay investment decisions critical to pipeline network expansion.
The pandemic initially disrupted hydrogen pipeline projects through supply chain delays and labor constraints, postponing planned infrastructure investments. However, subsequent stimulus packages in major economies allocated unprecedented funding for clean energy infrastructure, including hydrogen transport. These recovery programs accelerated project timelines and expanded funding availability. The crisis underscored energy security concerns, further motivating governments to develop domestic hydrogen supply chains with dedicated pipeline infrastructure.
The Gray Hydrogen segment is expected to be the largest during the forecast period
Gray Hydrogen accounts for the dominant share of the market during the forecast period and represents the largest pipeline transport volume. Existing gray hydrogen networks primarily serve industrial clusters in refining, ammonia production, and methanol manufacturing. These established infrastructure corridors provide operational experience and economic justification for pipeline expansion. As carbon pricing mechanisms evolve, gray hydrogen volumes may transition to blue hydrogen, maintaining pipeline utilization.
The High Pressure segment is expected to have the highest CAGR during the forecast period
The High Pressure segment is projected to register the fastest growth over the forecast period. High-pressure pipelines enable greater transport efficiency and support hydrogen fueling station networks for fuel cell vehicles. Operating pressures above 100 bar allow higher energy density delivery, reducing compression costs at end-use points. Growing fuel cell vehicle adoption and hydrogen blending in natural gas grids drive demand for high-pressure infrastructure. Technological improvements in materials and welding techniques are expanding feasible operating pressures, supporting this segment's accelerated growth trajectory.
During the forecast period, the Europe region is expected to hold the largest market share, driven by ambitious EU hydrogen strategies and cross-border pipeline initiatives connecting industrial clusters. The European Hydrogen Backbone project envisions over 40,000 kilometers of dedicated hydrogen pipelines by 2040, supported by substantial public funding and regulatory harmonization. Mature industrial gas infrastructure and strong policy commitments position Europe as the leading regional market for hydrogen pipeline networks.
Over the forecast period, the Asia Pacific region is anticipated to exhibit the highest CAGR, led by aggressive hydrogen expansion in China, Japan, and South Korea. These nations have established national hydrogen roadmaps with significant pipeline infrastructure targets to support industrial decarbonization and fuel cell deployment. Rapid industrialization, government-backed demonstration projects, and strategic investments in hydrogen hubs create favorable conditions for accelerated pipeline network growth throughout the region.
Key players in the market
Some of the key players in Hydrogen Pipelines Market include Air Liquide, Linde, Air Products and Chemicals, Enbridge, TC Energy, Kinder Morgan, Snam, Fluxys, GRTgaz, National Grid, Gaz-System, Open Grid Europe, Enagas, Equinor, and Shell.
In March 2026, Air Liquide announced an acceleration of its global hydrogen deployment strategy, shifting focus from hydrogen as a byproduct to a core growth pillar. The company is leveraging its existing industrial gas infrastructure and pipeline systems in major industrial zones to meet surging demand in refining, steelmaking, and heavy-duty transport.
In March 2026, Snam announced a plan to invest €200 million by 2030 specifically for the Italian Hydrogen Backbone. This investment is part of a larger €14 billion 2026-2030 strategic plan.
In June 2025, Air Products signed a 15-year agreement with TotalEnergies to supply 70,000 tons of green hydrogen annually to Northern European refineries starting in 2030, which will rely on the development of the European Hydrogen Backbone.
Note: Tables for North America, Europe, APAC, South America, and Rest of the World (RoW) Regions are also represented in the same manner as above.