Three companies have signed a Joint Development Agreement to route liquid hydrogen from Norwegian and Japanese production into Europe through the Port of Hamburg. MB Energy brings trading and distribution infrastructure, Daimler Truck brings near-term demand from 100 hydrogen-powered trucks planned for 2026, and Kawasaki Heavy Industries brings the LH2 carrier ships — including a 40,000 m³-class vessel currently under construction. The commercial operation target is the early 2030s, a timeline that converges precisely with the Norwegian hydrogen plants now being backed by EU Innovation Fund capital.
⚡ TL;DR
- What: MB Energy, Daimler Truck AG, and Kawasaki Heavy Industries sign a Joint Development Agreement to establish a liquid hydrogen import supply chain via the Port of Hamburg into Europe.
- Also: HHLA (Hamburg's port logistics operator) joins via a parallel strategic partnership; Gen2 Energy (Norway) is MB Energy's upstream supply partner.
- Ships: Kawasaki is building a 40,000 m³ LH2 carrier; long-term plans extend to 160,000 m³ — comparable to large LNG carriers.
- Demand anchor: 100 Daimler LH2 trucks entering customer operations by end 2026; series production targeted for early 2030s.
- Timeline: Commercial Operation Date for LH2 supply via Hamburg targeted for the early 2030s.
What Was Signed and When
The Joint Development Agreement between MB Energy, Daimler Truck AG, and Kawasaki Heavy Industries was signed at the Hamburg Port Anniversary, with a parallel strategic partnership announced at the Hydrogen Technology World Expo in Hamburg on 22 October 2025. HHLA (Hamburger Hafen und Logistik AG) — the port’s primary logistics operator — participates through the Daimler Truck–HHLA–Kawasaki arm of the arrangement.
A JDA is not a memorandum of intent. It is a structured commitment to jointly fund feasibility work, assess technical requirements, and advance toward a shared Commercial Operation Date. The COD for commercial-scale LH2 supply via Hamburg is targeted for the early 2030s.
The agreement builds on a decade of Japan-Germany hydrogen cooperation, including the Kawasaki-led Hydrogen Energy Supply Chain (HESC) project in Australia, which operated the world’s first liquefied hydrogen carrier, Suiso Frontier, on the Hastings–Kobe route from 2022. The partners are now applying those lessons to the European import corridor.
The Four Partners and What Each Brings
| Partner | Role | Contribution |
|---|---|---|
| MB Energy | Trading / offtake / distribution | Fuel trading expertise, tank terminals, logistics hubs, service station network |
| Daimler Truck AG | Demand anchor | 100 LH2 trucks in service by end 2026; series production from early 2030s |
| Kawasaki Heavy Industries | Technology | LH2 liquefiers, cryogenic storage tanks, LH2 carrier ships |
| HHLA | Port logistics | Hamburg terminal operations, inland rail and road distribution to European hinterland |
MB Energy — formerly operating under the Mabanaft brand — is one of Germany’s largest mineral oil trading and logistics companies. Its value in this partnership is infrastructure: tank terminals, pipeline connections, and a service station network that can be progressively converted from conventional liquid fuels to LH2. This is the same conversion logic used in the LNG build-out, applied to the more demanding requirements of hydrogen at −253°C.
Daimler Truck is the demand anchor. The company has been testing Mercedes-Benz GenH2 Truck prototypes since 2021; the fleet has accumulated over 225,000 kilometres in customer trials. A target of 100 liquid hydrogen-powered trucks in customer operations by end of 2026 creates a near-term offtake signal that helps justify infrastructure investment decisions upstream. Series production for the wider market is targeted for the early 2030s.
“Scaling hydrogen-powered trucks across Europe will only be possible if a reliable and competitive supply of liquid hydrogen is in place.” — Manfred Schuckert, Daimler Truck
Kawasaki Heavy Industries is the most technically significant partner from a maritime perspective. The company has been developing LH2 shipping technology for over a decade. Their 50,000 m³ LH2 storage tank is operational in Kawasaki City. A new 40,000 m³-class LH2 carrier is under construction. Long-term plans extend to vessels of up to 160,000 m³ — directly comparable in scale to conventional large LNG carriers.
HHLA brings port operational capability. The company serves terminals in Hamburg, Odessa, Tallinn, and Trieste, with hinterland connections across Central and Eastern Europe. Its explicit role in this partnership is to import hydrogen at Hamburg and distribute it inland by road and rail — adapting existing logistics operations rather than building from scratch.
“Liquid hydrogen can be transported independently of pipelines — a decisive mobility advantage.” — Annette Walter, HHLA CFO
The Ships: From Suiso Frontier to 160,000 m³ Class
The maritime side of this supply chain is where the story becomes concrete.
Kawasaki’s prototype Suiso Frontier — 1,250 m³ capacity, approximately 75 tonnes of LH2 — demonstrated the technical feasibility of marine cryogenic hydrogen transport. It was not economically viable at commercial scale; it was purpose-built to validate vacuum-insulated tank design, boil-off management, and loading/unloading procedures at sea. That proof-of-concept phase is now complete.
The next step is a 40,000 m³-class carrier, currently under construction. At this scale the economics begin to shift materially. A 40,000 m³ vessel carries roughly 2,400 tonnes of LH2 per voyage — enough to supply a meaningful fraction of an industrial cluster’s hydrogen demand.
The long-term ambition is 160,000 m³ — the scale at which LH2 shipping becomes directly comparable to large LNG carriers in terms of volume per voyage. Getting there requires a parallel buildout of liquefaction capacity at the production end and cryogenic reception terminals at the import end. The JDA is a commitment to define and work toward those endpoints together.
“We leverage proven technologies to develop a hydrogen supply network in Europe.” — Kei Nomura, Kawasaki Hydrogen Strategy Division
The Norwegian Supply Chain
The upstream supply side of the Hamburg chain points north — to Norway.
MB Energy and Gen2 Energy signed a separate Memorandum of Understanding at the same October 2025 Hydrogen Technology World Expo, committing to a three-year collaboration on the production, offtake, and distribution of RFNBO-compliant liquid hydrogen from Gen2 Energy’s Norwegian projects into MB Energy’s German distribution network.
Gen2 Energy’s primary project is the Nesbruket facility in Mosjøen, Nordland — a planned 195 MW electrolysis plant targeting production of approximately 30 tonnes of liquefied green hydrogen per day. This is the same facility that received €61.95 million from the EU Innovation Fund in May 2026, alongside a matching grant to GreenH’s Sola facility. Both projects are targeted for operation from 2031.
The supply chain is beginning to close:
- Gen2 Energy (Mosjøen, Norway): RFNBO green electrolysis → liquefaction → LH2 production — EU Innovation Fund backed, 2031 target ✓
- LH2 carrier (Kawasaki): Cryogenic ship from Norwegian port to Hamburg — 40,000 m³ vessel under construction ✓
- Hamburg port (MB Energy + HHLA): LH2 reception terminal, storage, European distribution — JDA committed ✓
- Demand (Daimler Truck): 100 LH2 fuel cell trucks in 2026, series production in early 2030s — fleet deployment underway ✓
“Hydrogen can become a key enabler for Europe’s energy transition, and Hamburg is ideally positioned to become Germany’s most important gateway.” — Volker Ebeling, SVP MB Energy
Why Hamburg
Hamburg is Germany’s largest port and one of Europe’s top three container ports. Its strategic advantages for LH2 import are structural:
Existing liquid energy infrastructure: MB Energy operates tank terminals and logistics networks designed for liquid energy products. Converting these for LH2 is a significant engineering challenge, but it starts from existing site permissions, quayside access, and distribution connections — not a greenfield.
Hinterland connectivity: Hamburg has direct rail and road corridors to Germany’s industrial heartlands — the Ruhr, Rhine valley, and Bavaria — where hydrogen demand from heavy industry and freight is most concentrated.
Short Norwegian sea route: Norwegian producers with abundant hydropower sit closer to Hamburg than almost any other major green hydrogen production region. Shorter routes mean lower shipping costs per tonne delivered and less cumulative boil-off. A Norway-to-Hamburg voyage is roughly 1,500–2,000 nautical miles, compared with Australia or Chile at 12,000+ nautical miles.
Existing port operator capability: HHLA’s terminal operations mean the transshipment from ship to shore to inland distribution does not need to be built from scratch — it is an adaptation of existing port logistics, which shortens the learning curve and reduces permitting risk compared with entirely new infrastructure.
Open Questions
- Terminal specification: The detailed configuration of Hamburg’s LH2 import terminal — exact location, quayside cryogenic infrastructure, boil-off management, storage tank size — remains to be defined. The JDA commits the partners to that scoping work.
- Regulatory permitting: LH2 import terminal safety cases and permitting under German BImSchG (Federal Immission Control Act) are complex and timeline-critical. Approval processes are a known long lead item for a 2030s COD.
- Japan vs Norway route priority: The article references Japan Suiso Energy (JSE, the tanker operating company behind Suiso Frontier) in the supply chain. Whether the primary Hamburg import route is Japan→Hamburg, Norway→Hamburg, or both in parallel has not been confirmed.
- Boil-off on extended routes: For longer routes (Japan→Hamburg, ~12,000 nm), boil-off during transit is both a cost and a safety consideration. The insulation and pressure management design of the 40,000 m³ carrier will determine how much hydrogen arrives versus what is used or vented.
- LH2 truck cost trajectory: MB Energy’s distribution network economics depend partly on LH2 heavy transport being cost-competitive with battery-electric and fossil alternatives. Daimler’s 2026 field deployment will generate real-world cost data that will inform the wider supply chain investment case.