Wind-to-hydrogen projects in Newfoundland and Labrador and Nova Scotia aim to use huge onshore wind farms to split water into hydrogen, convert it to ammonia, and ship it to buyers, mainly in Europe. The idea drew billions in proposed investment after 2022, but by 2026 the picture had narrowed sharply: several Newfoundland projects lost their land reserves, the largest was shelved, and the remaining developers are still looking for firm customers. The wind is excellent. The market for green hydrogen has grown more slowly than hoped.
Key takeaways
- Green hydrogen is made by using renewable electricity to split water in an electrolyzer. It's often converted to ammonia for shipping.
- In February 2026, Newfoundland and Labrador declined to extend Crown land wind reserves for three proponents, shrinking the reserved area from about 381,700 hectares to about 30,700.
- World Energy GH2 shelved its large Project Nujio'qonik in early 2026 for lack of buyers and pivoted toward supplying electricity to Canadian markets.
- Two Newfoundland proponents, Exploits Valley Renewable Energy Corporation (EVREC) and the NARL-linked hub, had reserves extended into 2027.
- In Nova Scotia, EverWind Fuels secured financing in 2026 for its first wind projects but had not announced a hydrogen customer.
How wind-to-hydrogen works
- Wind farms generate electricity. Projects proposed in Atlantic Canada ranged from hundreds of megawatts to several gigawatts.
- Electrolyzers split water into hydrogen and oxygen. It typically takes around 50 to 55 kWh of electricity to make one kilogram of hydrogen.
- Hydrogen is converted to ammonia. Ammonia is easier to store and ship than pure hydrogen, and it's already traded globally as a fertilizer ingredient.
- Ammonia is shipped to buyers, who may use it directly (in fertilizer, shipping fuel or power plants) or crack it back into hydrogen.
Each conversion step loses energy. Only a portion of the original wind electricity ends up as usable energy at the destination, which is one reason green hydrogen is expensive. To learn about the first step, see how wind turbines work.
Why Atlantic Canada?
- Outstanding wind: western Newfoundland, the Port au Port Peninsula and parts of Nova Scotia have strong, steady winds.
- Deep-water ports: sites like Stephenville, Come By Chance and Point Tupper have industrial port infrastructure.
- Proximity to Europe: shipping to European ports is shorter than from many competitors.
- Political interest: Canada and Germany signed a hydrogen alliance in 2022, raising hopes for transatlantic trade.
Newfoundland and Labrador: from boom to shakeout
In 2023, Newfoundland and Labrador opened a call for bids for Crown land to host wind-to-hydrogen projects and reserved large areas for selected proponents, who paid reserve fees based on land value.
By early 2026, the province said it was seeing a lack of progress and unpaid fees. In February 2026, it announced:
| Proponent | Status after February 2026 update |
|---|---|
| World Energy GH2 | Reserve not extended; flagship project shelved |
| EverWind NL | Reserve not extended |
| Toqlukuti'k Wind and Hydrogen | Reserve not extended |
| EVREC (Exploits Valley) | Reserve extended to February 2027; advancing assessment and offtake talks |
| NARL wind-hydrogen hub | Reserve extended to January 2027; targeting first deliveries to Europe around 2030 |
| Argentia Renewables (Pattern Energy) | Short contingency reserve into 2026 |
The province also said it was pursuing tens of millions of dollars in outstanding reserve fees.
World Energy GH2's pivot
World Energy GH2's Project Nujio'qonik in Stephenville was one of the most advanced proposals and had received environmental approval. In January 2026, the company shelved it after failing to secure offtake agreements, and announced a new direction, Clean Grid Atlantic, focused on using the region's wind to supply electricity to other parts of eastern Canada, with hydrogen as a possible later use.
Nova Scotia: EverWind and others
EverWind Fuels plans a green ammonia plant at Point Tupper, on the Strait of Canso, with a majority stake held by a Membertou First Nation-led Indigenous consortium. As of 2026:
- The first phase includes several Nova Scotia wind projects totalling around 650 MW, with first wind power expected around 2028.
- In early 2026, EverWind secured more than $240 million in financing to advance that phase.
- The ammonia plant's first phase targets roughly 200,000 tonnes a year, coming online after the wind farms.
- The company hadn't announced a signed hydrogen customer, and in October 2026 confirmed it was exploring hosting a data centre at the site.
That last point reflects a wider trend: developers are hedging, since clean electricity has many potential buyers even when hydrogen demand is uncertain. See our Nova Scotia guide and Newfoundland and Labrador guide for each province's grid context.
The big challenges
- Cost: green hydrogen is still more expensive than hydrogen made from natural gas.
- Buyers: without long-term offtake contracts, projects can't secure full financing.
- Energy losses: converting electricity to hydrogen to ammonia and back is inefficient.
- Local concerns: some communities raised questions about the scale of wind farms, land use and wildlife.
- Competing uses: the same wind could power homes, heat pumps and EVs, or be exported as electricity.
Where hydrogen still makes sense
Many energy researchers see green hydrogen as most valuable for uses that are hard to electrify directly, such as fertilizer, steelmaking, some chemicals and possibly shipping fuels, rather than heating homes or powering cars. Explore broader trends on our future of energy page.
Frequently asked questions
Is green hydrogen dead in Atlantic Canada?
No, but it has shrunk. A few projects are still advancing, and timelines have stretched. Much depends on whether European buyers sign long-term contracts.
Why convert hydrogen to ammonia?
Hydrogen is very light and hard to store and ship. Ammonia is denser, liquefies at moderate conditions, and has existing global shipping infrastructure.
Will these wind farms still get built without hydrogen?
Some may be repurposed to supply electricity to Canadian grids or industrial users, as World Energy GH2's pivot and EverWind's data centre exploration suggest.
The bottom line
Atlantic Canada's wind-to-hydrogen story shows both the promise of the region's world-class wind and the hard economics of a new global fuel. The resource isn't going anywhere, and some projects are still moving, but the coming years will likely see that wind put to work in a mix of ways: hydrogen where buyers emerge, and clean electricity for growing demand closer to home. Learn more on our wind page.
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