LOHC Dehydrogenation Plant Market By System Type (Catalytic Dehydrogenation Systems, Integrated Hydrogen-Release Systems, Modular Dehydrogenation Units); By Application (Industrial Hydrogen Supply, Energy Storage and Transport, Hydrogen Refuelling Infrastructure); By End User (Energy Companies, Industrial Gas Providers, Chemical and Refining Industries, Port and Terminal Operators, Research and Demonstration Organizations); By Geography, Segment Revenue Estimation, Forecast, 2026–2032

LOHC Dehydrogenation Plant Market: Industrial Hydrogen Corridors Are Moving Release Systems Beyond Demonstration Scale

Industrial Hydrogen Imports Are Creating a Distinct Dehydrogenation Infrastructure Market

The Global LOHC Dehydrogenation Plant Market was valued at USD 0.22 billion in 2025 and is projected to reach USD 1.24 billion by 2032, expanding at a CAGR of 28.0% during 2026–2032, according to internal projections by Strategic Market Research.

An LOHC dehydrogenation plant releases hydrogen from a liquid organic carrier using heat and catalysts, then recycles the carrier for reuse. The carrier is stable and liquid under normal conditions, allowing transport via existing fuel infrastructure instead of high-pressure or cryogenic systems. This improves safety and enables flexible hydrogen delivery. Demand is rising due to decarbonization goals, growing industrial energy needs, and the need for scalable hydrogen supply chains compatible with existing logistics networks.

 

Catalytic Dehydrogenation Systems Retain the Largest Revenue Position

Catalytic dehydrogenation systems dominated the market with 48.0% share (USD 105.6 million in 2025), making them the leading technology segment. Their importance comes from their direct role in hydrogen release efficiency, affecting output rate, purity, energy use, and catalyst lifespan.

Chiyoda’s SPERA Hydrogen system demonstrates this technology in practice, using methylcyclohexane (MCH) as a carrier. In its Brunei–Japan pilot, about 210 tonnes of hydrogen were transported in 2020 and successfully released in Japan for power generation, proving cross-border LOHC feasibility at demonstration scale.

However, high heat demand and catalyst cost remain key challenges. DOE-backed research highlights the need for cheaper, more durable catalysts that can operate at lower temperatures and avoid reliance on expensive platinum-group metals.

 

Integrated Hydrogen-Release Systems Are Becoming the Main Commercialization Route

Integrated hydrogen-release systems accounted for 31.0% of 2025 revenue (USD 68.2 million). These systems combine the dehydrogenation reactor with key supporting units such as storage, heat management, hydrogen purification, compression, and carrier recycling. Their growth reflects a shift in demand toward fully integrated hydrogen delivery solutions, rather than standalone reactors.

A key example is the ENEOS–Honeywell partnership, where ENEOS began basic engineering in May 2025 for a commercial MCH-based hydrogen supply chain in Japan. The project integrates production, transport, storage, and hydrogen release, with the dehydrogenation unit planned for installation within an existing refinery to leverage available infrastructure and utilities. This reflects a broader industry trend toward refinery-integrated hydrogen systems.

 

Industrial Hydrogen Supply Leads, While Storage and Transport Build the Project Pipeline

Industrial hydrogen supply was the largest application, accounting for 39.0% of the market (USD 85.8 million in 2025). Demand is mainly driven by refineries and chemical plants, which use large, steady hydrogen volumes and can integrate LOHC systems with existing heat and process infrastructure, improving overall efficiency.

Energy storage and transport made up 34.0% (USD 74.8 million), supported by LOHC’s ability to use existing oil and chemical logistics. Chiyoda’s MCH system and Hydrogenious’ benzyltoluene platform both enable hydrogen transport in liquid form under ambient conditions, reducing the need for new high-pressure or cryogenic infrastructure.

Hydrogen refuelling infrastructure accounted for 27.0% (USD 59.4 million). Growth is slower here due to the need for compact, highly pure hydrogen output and strict fuel-quality compliance under ISO 14687:2025, which requires additional purification after dehydrogenation.

Large-scale future potential is highlighted by the H2A-RP project in the Port of Amsterdam, led by Hydrogenious and Evos, targeting up to 36,000 tonnes of annual hydrogen handling capacity. The project is still pre-investment with a final decision expected by 2030, but it shows how LOHC hubs could integrate storage, release, and industrial distribution in major ports.

 

Modular Units Address Distributed Demand but Face Higher Unit Costs

Modular dehydrogenation units generated USD 46.2 million in 2025, accounting for 21.0% of the market. Their role is growing in early-stage LOHC deployment, especially where hydrogen demand is too small for large central release plants or where pipeline infrastructure is limited.

A key example is Hydrogenious’ One Reactor system, which can release up to ~300 kg of hydrogen per day, bridging the gap between pilot systems and full-scale industrial plants. This makes it suitable for smaller, distributed applications rather than large import hubs.

These modular systems are mainly used in mobility hubs, backup power, remote industrial sites, and research facilities. While they are easier to deploy due to factory-built design, costs per kilogram remain higher because they still require catalysts, heating, and purification systems even at low utilization.

Research and demonstration projects accounted for USD 35.2 million (16.0%) in 2025, supported by ongoing DOE and HyMARC work focused on improving catalyst durability, reaction efficiency, and reducing overall storage costs. PNNL research continues to refine dehydrogenation performance and system economics, showing the technology is still evolving alongside early commercialization.

On the demand side, energy companies led with 32.0% (USD 70.4 million), followed by industrial gas providers at 28.0% (USD 61.6 million). Chemical and refining industries contributed 24.0% (USD 52.8 million), benefiting from existing hydrogen use and infrastructure integration.

 

Europe Leads Current Deployment, While Asia-Pacific Builds Commercial Import Chains

Europe led the market with 34.0% share (USD 74.8 million in 2025), driven by strong policy support, hydrogen import planning, and port-based infrastructure development. The EU’s Hy2Infra programme includes 33 projects and targets around 6,000 tonnes of LOHC hydrogen handling capacity, strengthening Europe’s role as the main deployment hub.

Germany is a key contributor, with projects like Green Hydrogen @ Blue Danube and Project Hector, which is approved and planned to store about 1,800 tonnes of hydrogen annually, with operations expected by 2027.

Asia-Pacific followed with 30.0% (USD 66.0 million), led by Japan. The country is advancing LOHC adoption through NEDO’s Green Innovation Fund and ENEOS’ collaboration with Honeywell to develop refinery-integrated hydrogen supply chains.

North America held 23.0% (USD 50.6 million), mainly focused on R&D and technology development through DOE programmes, rather than large commercial LOHC release plants.

The Middle East & Africa accounted for 8.0% (USD 17.6 million) and Latin America 5.0% (USD 11.0 million). These regions are still emerging, with projects like the LOHC Bridge initiative (2026) exploring hydrogen trade routes from North Africa to Europe, but most activity remains at feasibility stage rather than operational deployment.

 

Company Strategies and Commercial Activity in the LOHC Dehydrogenation Plant Market

The LOHC dehydrogenation plant market spans the full hydrogen value chain, including catalysts, process licensing, storage terminals, heat integration, purification systems, engineering services, and hydrogen offtake. As a result, companies compete through integrated solutions rather than standalone equipment. Hydrogenious and Chiyoda focus on end-to-end LOHC platforms, Honeywell leverages refinery process expertise for MCH systems, ENEOS is building a full hydrogen supply chain, and terminal operators like Evos enable carrier handling and hydrogen distribution.

Hydrogenious LOHC Technologies

“Europe Bets on Liquid Hydrogen Highways as Hydrogenious Moves Toward First Industrial-Scale LOHC Release Hubs”

Hydrogenious LOHC Technologies is one of the most commercially advanced developers of benzyltoluene-based hydrogen storage and release systems, using technology that binds hydrogen to thermal oil and releases it through catalytic dehydrogenation at the destination. Its Green Hydrogen @ Blue Danube project in Bavaria is planned to release up to five tonnes of renewable hydrogen per day (around 1,800 tonnes annually), with Hydrogenious awarding the front-end engineering design and EPCM contract in October 2025, FEED completion targeted for the second half of 2026, and commercial operation expected by mid-2028 subject to final investment decision. The company is also advancing the H2A-RP project in Amsterdam, designed to enable import and release of approximately 36,000 tonnes of green hydrogen annually through integrated LOHC unloading, storage, dehydrogenation and industrial distribution, giving it one of the strongest publicly disclosed project pipelines in the market, although most large-scale facilities remain in engineering or pre-investment stages rather than full commercial operation.

 

Chiyoda Corporation

“From Brunei to Singapore: Chiyoda Expands SPERA Hydrogen Beyond Demonstration Toward Distributed Fueling Networks”

Chiyoda Corporation competes through its SPERA Hydrogen platform, which uses methylcyclohexane as the hydrogen carrier and a proprietary dehydrogenation catalyst developed by the company, and it demonstrated an international supply chain between Brunei and Japan in 2020 by transporting about 210 tonnes of hydrogen in MCH form, releasing it in Japan for gas-turbine power generation, thereby validating the full chain from hydrogen production and carrier conversion to marine transport, dehydrogenation and end use, although not as a continuously operating commercial import system, and it has since expanded into smaller distributed applications by launching in early 2024 an MCH dehydrogenation refuelling-station demonstration in Singapore for heavy-duty fuel-cell vehicles at the Pasir Panjang Terminal using a compact release package that reflects its shift from centralized hydrogen-import infrastructure toward decentralized mobility-focused deployment.

 

Honeywell UOP and ENEOS

“Refinery-Scale Hydrogen Revolution: Honeywell and ENEOS Target First Integrated Commercial LOHC Supply Chain in Japan”

Honeywell UOP and ENEOS are jointly developing a commercial-scale hydrogen supply chain based on MCH, with ENEOS initiating basic engineering in May 2025 using Honeywell’s dehydrogenation process to enable a full system covering hydrogen production, storage, transport, distribution, and recovery of carrier materials for reuse. In this collaboration, Honeywell provides process technology, catalysts, and refinery engineering expertise, while ENEOS contributes its energy infrastructure, operational assets, and industrial hydrogen demand base in Japan. The partnership is strategically significant because ENEOS plans to integrate dehydrogenation units within its existing refinery network, leveraging tanks, utilities, process heat, skilled personnel, and hydrogen distribution systems, which can significantly reduce the need for greenfield infrastructure development. As a result, Honeywell’s competitive advantage lies in process licensing, proprietary equipment, catalyst technology, engineering services, and potential refinery conversion solutions rather than direct ownership of the end-to-end hydrogen supply chain.

 

Evos, Port of Amsterdam and North Atlantic

“Ports Become Hydrogen Gateways: Evos and North Atlantic Advance Transatlantic LOHC Import Corridor to Europe”

Evos is participating in the market as a terminal and liquid-storage infrastructure operator rather than as a dehydrogenation-technology developer, with its Amsterdam terminal being evaluated as a receiving and storage hub for hydrogen transported in LOHC form. Earlier plans developed with Hydrogenious and the Port of Amsterdam included a potential dehydrogenation facility with a conceptual release capacity of 100 to 500 tonnes of hydrogen per day, along with associated carrier storage and handling infrastructure, though this remains a long-term project concept rather than commissioned capacity. In June 2026, Evos and North Atlantic signed a memorandum of understanding to develop an LOHC import route from Canada to Europe, where renewable hydrogen would be shipped in carrier form, stored at the Evos terminal, released at a nearby dehydrogenation facility, and distributed via pipeline to end users, highlighting how terminal operators can generate value through unloading, storage, handling, and integration with hydrogen release and distribution systems.

 

H2-Enterprises

“Modular Hydrogen Disruption: H2-Enterprises Pushes Distributed LOHC Systems and 1 GW Hydrogen Hub Vision in Egypt”

H2-Enterprises is developing proprietary LOHC storage and hydrogen-release systems, including modular eRELEASE-RACK units designed to convert hydrogen stored in LOHC into electricity or usable hydrogen at the destination, while positioning itself as a technology developer, system integrator, project developer, and prospective plant operator that combines hydrogen production from waste or other feedstocks with LOHC loading, transportation, and dehydrogenation. The company has also disclosed preliminary approval for a proposed 1 GW LOHC hydrogen hub at East Port Said in Egypt, which remains a development proposal rather than an operating facility, and its commercial significance lies in its attempt to integrate hydrogen production, carrier loading, export infrastructure, and destination-side release within a single end-to-end project model.

 

LOHC Dehydrogenation Plant Market Report Coverage Table

Report Attribute	Details
Forecast Period	2026 – 2032
Market Size Value in 2025	USD 0.22 Billion
Revenue Forecast in 2032	USD 1.24 Billion
Overall Growth Rate	CAGR of 28.0% (2026 – 2032)
Base Year for Estimation	2025
Historical Data	2019 – 2024
Unit	USD Million, CAGR (2026 – 2032)
Segmentation	By System Type, By Application, By End User, By Geography
By System Type	Catalytic Dehydrogenation Systems, Integrated Hydrogen-Release Systems, Modular Dehydrogenation Units
By Application	Industrial Hydrogen Supply, Energy Storage and Transport, Hydrogen Refuelling Infrastructure
By End User	Energy Companies, Industrial Gas Providers, Chemical and Refining Industries, Port and Terminal Operators, Research and Demonstration Organizations
By Region	North America, Europe, Asia-Pacific, Latin America, Middle East and Africa
Country Scope	U.S., Canada, UK, Germany, Netherlands, France, Japan, China, South Korea, India, Singapore, Brunei, Saudi Arabia, UAE, Egypt, South Africa, Brazil, Mexico
Market Drivers	Industrial hydrogen import corridors and cross-border supply-chain development; compatibility with existing fuel, chemical, and terminal infrastructure; rising demand for lower-carbon hydrogen in refining and chemical production; expansion of refinery-integrated and port-based hydrogen-release facilities; growing need for modular hydrogen supply in distributed industrial and mobility applications
Customization Option	Available upon request