Vema Hydrogen and First Atlantic Sign Deal to Advance Engineered Mineral Hydrogen Project in Newfoundland
Vema Hydrogen and First Atlantic Nickel & Cobalt Corp have signed a non-binding letter of intent to jointly develop engineered mineral hydrogen at the Pipestone XL Project in central Newfoundland, marking a new collaboration aimed at combining hydrogen production with critical mineral development.
The agreement, announced on 8 June 2026, outlines plans to establish a 50:50 joint venture to explore hydrogen production across the 30-kilometre Pipestone Ophiolite Complex, an ultramafic rock formation believed to be highly prospective for both nickel-cobalt mineralisation and hydrogen generation through serpentinisation processes.
The partners say the project could serve as a model for integrating low-carbon hydrogen production directly into mining operations, potentially enabling co-located supply of energy and critical minerals for industrial use. If successful, the approach could also support downstream applications such as ammonia production and regional clean energy supply chains.
Engineered mineral hydrogen, also referred to as EMH, is produced through natural geochemical reactions between water and iron-rich rock formations, with proponents arguing it could provide a lower-energy alternative to conventional hydrogen production methods. In this case, Vema claims laboratory testing of samples from the Pipestone formation has confirmed hydrogen generation potential under stimulated conditions.
The companies intend to build on earlier geological assessments of the site, including analysis of rock samples and infrastructure across the broader ophiolite belt. Vema Hydrogen also plans to leverage experience from its existing engineered mineral hydrogen operations in Quebec’s Thetford region, where it operates what it describes as the world’s first project of its kind.
First Atlantic said the collaboration aligns with its broader nickel-cobalt strategy, noting that the presence of awaruite mineralisation at Pipestone XL could offer advantages for resource recovery. Awaruite, a naturally occurring nickel-iron alloy, is considered by the U.S. Geological Survey to be easier to process than traditional sulphide ores due to its magnetic properties and reduced need for intensive refining.
The companies also highlighted potential benefits for remote industrial regions, where locally produced hydrogen could reduce reliance on transported fuels and strengthen energy resilience for mining and processing operations.
While the agreement remains non-binding, both parties say the project has the potential to establish a scalable framework for engineered mineral hydrogen development across North America, particularly in regions with suitable ultramafic geology.
If advanced successfully, the project could position the Newfoundland site as part of a broader effort to commercialise hydrogen derived from geological processes, although the technology remains at an early stage of development and has yet to be demonstrated at industrial scale.
