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Fixed Shore Hydrogen Bunkering Installation

Permanent quayside infrastructure, directly connected to hydrogen production or storage — the highest-throughput, highest-capital-cost of the four bunkering methods.

A fixed installation pipes or hoses hydrogen directly from an on-site or nearby production/storage facility to the vessel’s manifold, without a truck, ship, or swapped container as an intermediate step. That directness is what makes it the fastest of the four methods — and also the most expensive to build, since it only pays off where hydrogen demand is concentrated and predictable: a ferry on a fixed route, an in-port fleet, or a single anchor vessel calling the same berth on a schedule.

How It Works

The installation sits between hydrogen production (or bulk storage delivered by tanker) and the vessel:

1. Production or storage — an electrolyser on-site, or bulk CH2/LH2 storage tanks fed by pipeline or periodic tanker delivery.
2. Transfer infrastructure — for CH2, high-pressure piping and a compressor stage to match vessel tank pressure (350–700 bar); for LH2, vacuum-insulated cryogenic piping and a loading arm system rated for −253°C.
3. Vessel connection — a fixed or semi-fixed bunkering stanchion on the quay, with hoses or an articulated loading arm connecting to the vessel’s manifold.

Because the hydrogen source is fixed and known, these installations can also integrate boil-off gas recovery and automated safety interlocks more thoroughly than mobile methods — there’s a permanent connection to design around rather than a different truck or barge every time.

Real Examples

Installation	Location	Status	Notes
Klaipėda hydrogen station	Klaipėda, Lithuania	Operational (early 2026)	The Baltic states’ first green hydrogen production and bunkering station, ~127 tonnes/year capacity, feeding the port’s own vessel, Rasa
Langstranda (GreenH/Luxcara)	Bodø, Norway	Under development, targeting 2026 start	20 MW electrolyser (phase 1), up to 3,100 t/year green H2, delivered by dedicated pipeline direct to vessels — Norway’s first complete hydrogen-as-maritime-fuel value chain, backed by NOK 129 million from Enova
Kobe LH2 Terminal (“Hy touch Kobe”)	Kobe, Japan	Operational	The world’s first liquefied hydrogen receiving terminal, built by Kawasaki Heavy Industries: 2,250 m³ LH2 storage tank plus a dedicated loading arm system for ship-to-shore transfer, built to receive Suiso Frontier — the world’s first LH2 carrier

Klaipėda is the clearest small-scale template: a single port, a single dedicated vessel, and a bunkering station sized to match. Bodø is the more ambitious case — a purpose-built value chain (production → pipeline → vessel) designed from the start to serve a scheduled ferry route (Torghatten Nord’s Vestfjorden connection) rather than a one-off demonstrator, with no truck delivery step at all once phase 1 is complete. Kobe is a different category entirely: it isn’t bunkering a hydrogen-fuelled ship, it’s the receiving end for an LH2 carrier — the terminal’s loading arm transfers cargo, not fuel, which is a useful reminder that “fixed shore installation” covers both fuel bunkering and cargo discharge infrastructure built on the same underlying technology.

Why It Suits Ferries and Regular Routes

The economics only work when utilisation is predictable. A ferry running the same route daily can justify the capital cost of a dedicated installation because the volume and timing of hydrogen demand are known years in advance — exactly the case for Bodø’s Vestfjorden route. A vessel calling irregularly at different ports has no such certainty, which is why truck-to-ship or container swapping fit better for multi-port operators and early adopters without a fixed schedule.

Open Questions

• Boil-off during idle periods. A fixed LH2 installation still faces the same boil-off problem as onboard tanks when the vessel isn’t bunkering — see our coverage of MOF-based boil-off suppression research for where the underlying materials science is headed.
• Replication cost. Bodø’s NOK 129 million in Enova support for a single route illustrates the public funding intensity these installations still require — see the funding guide for the wider programme landscape.
• Cargo vs. fuel infrastructure overlap. Kobe’s terminal shows the same loading-arm technology serving carrier discharge and vessel bunkering; whether that overlap accelerates cost reduction for both remains to be seen as more terminals are built.

See also: Hydrogen Bunkering Methods overview · Truck-to-Ship Delivery · Ship-to-Ship Transfer · Container Swapping