01 Hydrogen Infrastructure Expansion Is Increasing Demand for Compression Systems Compressors are essential for increasing hydrogen pressure before storage and dispensing, particularly in mobility and industrial applications. Rising hydrogen demand and expanding low-emissions hydrogen production are creating additional requirements for supporting compression technologies. In October 2025, the International Energy Agency reported that global hydrogen demand had approached 100 million tonnes in 2024, while installed global electrolysis capacity had more than doubled during 2024, supporting continued development of hydrogen infrastructure.
02 Advanced Compression Technologies Are Gaining Importance The market is also seeing growing interest in compression technologies that can improve efficiency, reliability, and operating costs. Demand is particularly relevant for high-pressure applications such as hydrogen refueling stations and large-scale storage systems. Manufacturers and researchers are exploring improved compressor architectures and materials to address the demanding operating conditions associated with hydrogen compression. In January 2026, the U.S. Department of Energy continued advancing hydrogen-program research and development focused on improving hydrogen infrastructure technologies and supporting commercial-scale hydrogen deployment.
01 Increasing Hydrogen Purity Requirements Are Supporting Specialized Compression Demand Hydrogen used in fuel cells, electronics, chemical processing, and other sensitive applications often requires stringent purity levels. Compression equipment must therefore minimize contamination and maintain gas quality throughout compression, storage, and delivery.
01 High Equipment Costs and Energy Consumption Can Limit Deployment High equipment costs, energy consumption, and the technical complexity of hydrogen compression remain important restraints. Hydrogen's low molecular weight creates challenges for leakage prevention and efficient compression, while compression can contribute significantly to hydrogen delivery costs. These factors can increase operating expenses and make large-scale deployment more difficult where infrastructure remains underdeveloped.
01 Emerging Compression Architectures Can Improve Hydrogen Handling Efficiency Developments in ionic, electrochemical, metal-hydride, and other non-conventional compression technologies are creating opportunities to address limitations associated with conventional mechanical compressors. These architectures can potentially reduce moving parts, improve efficiency, and provide more flexible integration with hydrogen production and dispensing systems.
01 Ensuring Safe and Reliable Operation Under High Hydrogen Pressures Remains Difficult Hydrogen can leak through very small gaps, while high-pressure operation places demanding requirements on seals, materials, valves, and other components. Infrastructure uncertainty can also delay investment in new compression projects.
July 2026 Burckhardt Compression was selected by Hydrogen Solutions AS (HYDS) to supply high-pressure hydrogen compression systems for hydrogen production projects across the Nordics, supporting trailer filling pressures of up to 515 bar.
March 2026 Kawasaki Heavy Industries started demonstration of the world's first centrifugal hydrogen compressor for hydrogen liquefaction plants, advancing large-scale hydrogen infrastructure technology.
March 2026 Kawasaki Heavy Industries signed an MoU with Alderley Saudi Arabia to establish a service partnership for centrifugal hydrogen compressors, covering local packaging, sales, and maintenance in Saudi Arabia.
October 2025 Burckhardt Compression secured an order from Gasunie for its UP! Detect digital monitoring solution for the H2CAST Etzel hydrogen storage project in Germany, enhancing monitoring capabilities for hydrogen compression systems.