Green hydrogen, made from Namib sun and Atlantic wind.

Luderitz Green Energies is building an integrated production and export facility in Lüderitz, designed to deliver 300,000 tonnes of green hydrogen a year to Europe and Asia.

green hydrogen a year
300,000 t
solar and wind capacity
8 GWp
capillary electrolysis
3.5 GW
CO₂ displaced a year
~3.5 Mt
Who we are

A flagship for Namibia's green industry

Luderitz Green Energies (Pty) Ltd is planning a hydrogen production facility in the Lüderitz municipal area, making green energy available at industrial scale for international businesses and energy suppliers.

We are a German-Namibian private-sector joint venture with no state partners. That independence lets us respond quickly as markets change. Our first focus is the export of hydrogen products, and we produce pure hydrogen only: no ammonia, no fertiliser.

  • Sustainability
  • Excellence
  • Inclusivity
  • Integrity
  • Innovation
Company
Luderitz Green Energies (Pty) Ltd
Ownership
German-Namibian private joint venture
Registered
Republic of Namibia
Site
Lüderitz, ǁKaras Region
Product
Gaseous and liquid hydrogen for export
Stage
Early development

Mission

Develop, own and operate world-class renewable energy and green hydrogen infrastructure in Namibia, delivering clean, reliable hydrogen to global markets while creating lasting value for Namibian communities.

Vision

Be Africa's leading green hydrogen exporter, with Lüderitz recognised as a premier hub for clean fuel production.

The opportunity

Europe needs to import hydrogen at scale

Germany and the EU cannot meet demand from domestic production alone. Imports from resource-rich partners are a stated priority, and Namibia has signed agreements with Germany and the European Commission on green hydrogen cooperation.

Sources: German National Hydrogen Strategy (2023 update) and Import Strategy (2024); TransHyDE flagship project. LGE supply based on 300,000 t H₂ a year.

  • Germany
  • European Union
  • United Kingdom
  • Japan
  • South Korea
  • Half or more must be imported

    Germany expects to import 50–70% of its 2030 hydrogen demand, even after raising domestic electrolysis targets to at least 10 GW.

  • The network is being built

    More than 9,000 km of hydrogen pipelines are planned in Germany by 2032, linking import points to industry and power plants.

  • Asia is a second market

    Japan targets 12 Mt a year of hydrogen supply by 2040 and South Korea 5.26 Mt, both favouring long-term contracts with stable producers.

  • Namibia is close

    About 7,000 nautical miles to Europe, compared with 11,500 from Chile and 17,000 from Australia.

Technical concept

One site, from sun and wind to the ship

Every stage sits on one integrated site near the coast, sized for around 6,000 full-load hours of hydrogen production a year.

  1. Solar power

    Photovoltaics in the desert hinterland supply half the energy mix, linked to the plant by 525 kV HVDC lines. Irradiance here exceeds 2,900 kWh/m² a year.

    4 GWp~8.3 TWh a year
  2. Wind power

    Wind farms on the coastal strip south of Lüderitz, where winds blow steadily at 8–10 m/s, avoiding the sand abrasion that forces inland turbines to shut down.

    4 GWp~8.3 TWh a year
  3. Storage

    Large-scale sodium-ion batteries stabilise the internal grid and keep electrolysers running through calm spells and at night.

    Sodium-iongrid-scale storage
  4. Desalination

    Seawater reverse osmosis with energy recovery at about 3 kWh/m³. No freshwater is taken from local sources, and surplus drinking water could go to the town.

    2.7 million m³process water a year
  5. Capillary electrolysis

    Hysata's bubble-free capillary-fed process: about 95% efficient, using around 20% less energy than conventional electrolysis, with a much simpler plant.

    3.5 GW41.5 kWh per kg H₂
  6. Liquefaction and export

    Hydrogen is compressed, purified and liquefied at −253 °C, stored in cryogenic tanks and loaded at our own dock beside the plant, which also takes in the seawater.

    Own terminalgaseous H₂ and LH₂

Where the energy goes

The site needs about 16.7 TWh of renewable electricity a year. Three-quarters of it goes into electrolysis itself.

  • Electrolysis 12.45 TWh
  • Compression and liquefaction 2.40 TWh
  • Storage and transport 0.90 TWh
  • Site operations 0.90 TWh

Why capillary electrolysis

Energy needed for our 300,000 t target with each technology. Capillary electrolysis saves up to 3.45 TWh a year compared with alkaline systems.

MeasureAlkaline (AEL)PEMHigh-temp. (SOEC)Capillary
Efficiency60–70%65–75%80%95% (lab 98%)
Energy use53.0 kWh/kg48.0 kWh/kg46.0 kWh/kg41.5 kWh/kg
For 300,000 t15.90 TWh/yr14.40 TWh/yr13.80 TWh/yr12.45 TWh/yr
StrengthsProven and robustSuits variable solar and windCan use waste heatHighest efficiency, lithium-free, minimal cooling
LimitationsSlow response, high coolingHigh coolingComplex plant, high coolingIndustrial rollout from 2027

Capillary electrolysis is being trialled at industrial scale with Forschungszentrum Jülich under the HyGATE initiative. The independent final report is expected in December 2026.

Location

Why Lüderitz

Few places combine sun, steady wind, open land and direct Atlantic access the way Lüderitz does. The plant will sit close to the coast to keep hydrogen transport short.

Sun
Over 2,900 kWh/m² a year, with clear skies on more than 300 days
Wind
8–10 m/s at 100 m along the coast; 45–55% capacity factor projected
Sea access
Our own loading dock for ships and seawater intake
Route to Europe
About 7,000 nautical miles
Skills
NUST campus in Lüderitz: renewable energy, water, logistics, IT
Connections
B4 national road from Keetmanshoop; NamPower HV grid
Atlantic Ocean Lüderitz D A B C
  • AProduction site and dock
  • BWind farm 1, coastal
  • CWind farm 2
  • DPhotovoltaics
Illustrative only. Not to scale; subject to local coordination and final planning.
Project development

The road to first hydrogen

An indicative schedule, to be finalised after the feasibility assessment and coordination with the relevant Namibian authorities.

  1. Partners and validation

    Off-take roadshow in the EU, Germany, Japan and South Korea; EPC and electrolyser shortlist; Jülich report on capillary electrolysis.

  2. Land, permits, finance

    Land allocation with Lüderitz Town Council, ESIA scoping, bankable feasibility study and targeted financial close.

  3. Construction starts

    Ten work packages delivered in parallel to keep construction time short.

  4. Training begins

    Workforce training and student working groups with NUST, well ahead of production.

  5. First exports

    Commissioning, first shipments and ramp-up to 300,000 t a year.

The ten work packages

  • Desalination
  • Loading and intake dock
  • Gas and water storage
  • Wind
  • Photovoltaics
  • Electrical storage
  • Electrolysis
  • Cooling and compression
  • Office building
  • Workers' camp
Impact

Good for the climate, good for Lüderitz

3,000jobs at construction peak, about 1,700 of them local
1,750permanent jobs, about 1,550 of them local
7,500indirect jobs across the ǁKaras economy
3.5 MtCO₂ displaced a year by electrolysis alone
6.5 MtCO₂ saved a year compared with gas-fired power

Skills and education

At least 600 university-qualified employees at the start of production. We will work with the Namibia University of Science and Technology in Lüderitz from the start of construction, including student working groups on the project.

Community

Unemployment in Lüderitz is around 50%. A Community Development Fund of 1% of annual revenue will invest in education, healthcare, water and skills, and we target over 80% Namibian permanent staff.

Certified green

We will seek EU RFNBO certification with independent auditors such as TÜV SÜD or DNV, and carry out a full ESIA under Namibia's EMA and IFC Performance Standards, using seawater only.

Leadership

The team behind LGE

German engineering and project experience, combined with Namibian operational and policy expertise.

  • Andreas Schmidt

    Chief Executive Officer

    MBA and project manager; renewable energy developer with more than 20 years' experience.

  • Jerekandje Amwaandangi

    Chief Operating Officer

    Green hydrogen plant operations.

  • Andreas Mehlhorn

    Chief Technical Officer

    Civil engineer; electrolyser and renewables engineering.

  • Sean Schmidt

    Chief Financial Officer

    Project finance specialist with development-finance experience.

  • Elizabeth Twiindileni Kambode

    Head of Government and Regulatory Affairs

    Namibian policy expert.

The board will have at least five directors, including independent non-executives, with a minimum of 50% Namibian representation. It is supported by an Audit and Risk Committee and a Social and Environmental Committee.

Get in touch

Build this project with us

We are looking for partners to co-develop Lüderitz green hydrogen.

  • Off-takersLong-term hydrogen supply contracts
  • Strategic investorsDevelopment finance institutions, climate and infrastructure funds
  • Technology and EPC partnersElectrolysis, renewables, desalination
  • Government and institutionsPolicy, permitting and skills
info@luderitzenergies.com Lüderitz, ǁKaras Region, Namibia

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