Hydrogen Conditioning | Parker US
Parker Image

Following production, hydrogen must be conditioned for practicality of storage and distribution. This is achieved by hydrogen compression or liquefaction.

Parker Image

Hydrogen Compression

Hydrogen is typically produced at low pressures (20–40 bar) and must be compressed before transport. Most compressors used today for gaseous hydrogen compression are either positive displacement compressors or centrifugal compressors. Positive displacement compressors can be reciprocating or rotary.

Parker Image

Hydrogen Liquefaction

Hydrogen is commonly transported and delivered as a liquid when high-volume transport is needed in the absence of pipelines. Gaseous hydrogen is liquefied by cooling it to below −253°C (−423°F). Once hydrogen is liquefied it can be stored at the liquefaction plant in large, insulated tanks.

Fluid Conveyance for Compression, Liquefaction

The use of fluid conveyance technology in hydrogen compression, liquefaction

Fluid conveyance products play an important role in hydrogen compression and liquefaction applications. Parker's products are used to transport fluids such as hydrogen, which is a challenging fluid to transport due to its low density and high reactivity. In hydrogen compression and liquefaction applications, fluid conveyance products are used to transfer hydrogen gas from one location to another, control the flow of hydrogen gas, maintain system integrity and manage high-pressure conditions.

Featured fittings, connectors, regulators, valves, sensors and hose products

Fluid conveyance products are vital components of hydrogen compression and liquefaction systems, providing a way to transport and control hydrogen while maintaining system integrity and managing high-pressure conditions. Parker has several solutions to support the applications within this ecosystem.

Heat Exchange for Compression, Liquefaction

Parker’s Heatric Printed Circuit Heat Exchangers (PCHEs) are a compact, high-performance and bespoke solution optimised for Hydrogen processing and conditioning. Up to 85% smaller and lighter than traditional heat transfer technologies, with multi-stream capability, the Heatric PCHE minimises footprint and pipework complexity through compact engineering and design.

 

Heatric PCHEs are manufactured using a specialised solid-state joining process known as ‘diffusion-bonding’. This process creates a heat exchanger core with no joints, welds, or points of failure. The resulting unit combines exceptional strength and integrity with high efficiency and thermal performance - to enable modern energy applications.

WVM purification system

Learn how Parker is purposefully leading the way in hydrogen production.