Hydrogen Partnership Closes the Feedstock Gap in Canada Nickel's Zero-Carbon Cluster

• Canada Nickel has signed a Memorandum of Understanding (MOU) with GeoRedox to develop the world's first stimulated geologic hydrogen well at the Crawford Nickel Project in Timmins, Ontario.
• GeoRedox will fully fund the demonstration programme, making this a zero-capital addition to Canada Nickel's cluster infrastructure.
• Crawford's ultramafic geology is the specific rock formation that GeoRedox's Advanced Weathering Enhancement technology is designed to target, making the site a purpose-fit validation setting rather than a generic host.
• Canada Nickel already holds three carbon capture and storage pathways: In-Process Tailings Carbonation, the NetCarb Alliance, and a University of Texas at Austin and Department of Energy partnership, making the GeoRedox MOU an extension of an existing decarbonisation programme.
• If the hydrogen demonstration succeeds, NetZero Metals would gain access to a locally produced, zero-carbon feedstock for downstream nickel, stainless-steel, and alloy processing.

Canada Nickel (TSX-V: CNC | OTCQX: CNIKF) has signed a Memorandum of Understanding (MOU) with GeoRedox to develop what would be the world's first stimulated geologic hydrogen well at the Crawford Nickel Project in Timmins, Ontario. The agreement does not introduce a new strategic direction; it extends a decarbonisation programme that Canada Nickel has been assembling through three distinct carbon capture and storage pathways. 

The Zero-Carbon Industrial Cluster, designed to convert concentrates into finished critical mineral products while drawing on the region's carbon storage infrastructure, acquires a potential hydrogen feedstock layer through this partnership. Under the MOU, GeoRedox bears all demonstration costs while Canada Nickel contributes site access, technical expertise, and data, making this a zero-capital addition to the company's existing cluster infrastructure. The outcome of the demonstration will determine whether that feedstock layer becomes a functioning input to NetZero Metals' downstream processing economics.

The GeoRedox MOU & What It Adds

The MOU assigns all demonstration-phase capital risk to GeoRedox while giving Canada Nickel direct access to the programme's outcomes without financial exposure. GeoRedox will cover the full cost of developing the first stimulated geologic hydrogen well at Crawford, including all expenditure required to design, plan, and execute the programme. Canada Nickel's contribution is operational: the company will provide site access, rock samples, technical expertise, data, and the resources necessary for planning and implementation at the Crawford site. That division reflects a clear commercial exchange: GeoRedox secures access to a geologically validated site for which its technology is specifically designed, and Canada Nickel gains a potential hydrogen production layer at no capital outlay.

Whether the demonstration yields a scalable hydrogen supply depends on outcomes that the first phase is designed to establish. The MOU does not commit either party to production targets or post-demonstration capital deployment; both parties' obligations are scoped to the demonstration phase. That structure is commercially appropriate: Canada Nickel's cluster programme does not require hydrogen production to proceed on its current timeline, and the GeoRedox partnership adds optionality to an existing decarbonisation infrastructure stack without creating a programme dependency.

Geologic Hydrogen & the Advanced Weathering Enhancement Process

Crawford's ultramafic host rock is the specific geological condition that makes the site technically appropriate for the GeoRedox programme, not a generic advantage of size or regional location. GeoRedox's Advanced Weathering Enhancement (AWE) technology produces zero-carbon hydrogen through natural chemical reactions in ultramafic rock, without requiring a capping layer or reservoir. The absence of both requirements distinguishes AWE-produced hydrogen from conventional subsurface extraction methods, in which reservoir development and management represent material costs in their own right. The technology is designed specifically for ultramafic formations, and Crawford's host rock is precisely the rock type GeoRedox targets across its international portfolio. That correspondence positions Crawford as a purpose-fit validation setting, one chosen for geological specificity rather than logistical convenience.

Chief Executive Officer (CEO) of Canada Nickel, Mark Selby, is precise on why the district-scale geological footprint is structurally relevant to the partnership, not merely convenient:

"The ultramafic rock that hosts our Crawford deposit and twenty-plus projects across the Timmins Nickel District is precisely the geology GeoRedox's technology is designed for."

Canada Nickel holds more than 20 projects across the Timmins Nickel District, all within the same ultramafic geology. The AWE process is designed to produce ultralow-cost hydrogen from widely distributed ultramafic formations globally, and that cost profile, if achieved at Crawford, would carry implications for the company's broader project portfolio across the same rock type. Validation at Crawford would establish a production baseline applicable at the district scale, extending the partnership's technical value beyond the initial demonstration well.

Canada Nickel's Carbon Pathways Before This MOU

The GeoRedox MOU extends a decarbonisation programme that Canada Nickel had already structured around three distinct carbon capture and storage pathways. The first is In-Process Tailings (IPT) Carbonation, the primary operational pathway, designed to store 1.5 million tonnes of carbon dioxide per year directly in processing tailings as part of Crawford's standard operations. The second is the NetCarb Alliance, a scale-up pathway with a projected capacity of 10 to 15 million tonnes per year. The third is the Carbon Dioxide-to-Rock partnership with the University of Texas at Austin and the US Department of Energy, a technology development programme focused on underground injection and mineralisation.

The GeoRedox MOU does not add a fourth carbon pathway; it introduces a hydrogen production capability that the three existing pathways do not address. The distinction is analytically significant: the carbon programme targets the output side of the cluster's emissions profile, while the hydrogen programme, if validated, addresses the input side of the downstream processing economics. Both dimensions are required for a cluster designed to deliver zero-carbon finished products from mine to market.

Hydrogen as a Feedstock Layer for NetZero Metals

A geologic hydrogen source at Crawford would supply NetZero Metals with a locally produced, zero-carbon processing input, unlike conventional refining operations, which procure externally at prevailing market rates. Canada Nickel is advancing NetZero Metals as a downstream processing programme encompassing fully integrated nickel processing and stainless-steel production facilities in the Timmins region. Each downstream facility is designed to draw on Crawford's carbon storage capacity to deliver zero-carbon finished products, including nickel, stainless steel, and alloys. If the hydrogen demonstration programme succeeds, that zero-carbon positioning would extend to the processing input side of the operation.

President and CEO of GeoRedox, Robert Stoner,  is direct about the industrial logic connecting geologic hydrogen to metals processing.

"Hydrogen is used extensively in metals production, which makes GeoRedox a natural partner to the mining industry." 

The feedstock mechanism Stoner describes carries structural implications for NetZero Metals' operating model. External hydrogen procurement exposes a processing operation to input cost variability and to the carbon intensity of conventionally produced hydrogen; a geologically sourced supply produced on-site would eliminate both exposures simultaneously. The extent to which geologic hydrogen production would reduce total processing costs cannot be quantified at the current programme stage, as that determination depends on demonstration outcomes and subsequent engineering assessment. Crawford is expected to rank among the world's lowest-carbon nickel operations, and a locally produced hydrogen input would reinforce that positioning at the processing stage, where conventional operations typically absorb the carbon intensity of externally procured feedstocks.

Sequencing the Zero-Carbon Industrial Cluster

If the hydrogen demonstration succeeds, the cluster would combine a carbon management system spanning multiple independent mechanisms, a downstream processing operation, and a local hydrogen supply, all aligned around a single industrial site in Northeast Ontario, a configuration that distinguishes a sequenced programme from a long-range aspiration.

Selby frames the MOU not as a standalone announcement but as a step in an already-articulated industrial programme.

"This partnership brings us a significant step closer to a Zero-Carbon Industrial Cluster in Northeast Ontario, one that converts our concentrates into finished critical mineral products, including nickel, chromium, and cobalt, while leveraging the region's significant carbon storage capacity." 

NetZero Metals is intended to support a vertically integrated North American critical minerals supply chain, addressing a gap in electric vehicle supply infrastructure that extends beyond Canada Nickel's immediate operational scope. Upon successful demonstration, the hydrogen programme has the potential to provide large-scale, carbon-free hydrogen for the cluster's processing operations, reinforcing the zero-carbon positioning at the production input level. The degree to which the cluster advances toward full industrial operation depends on successive validation steps; the GeoRedox MOU initiates the first.

Crawford's Infrastructure Position & Regional Fit

Crawford's physical infrastructure and jurisdictional profile reduce the execution risk for both the hydrogen demonstration and the broader cluster build-out. The site sits within Ontario's Critical Minerals Corridor and has direct access to road, rail, power, and water, eliminating the need for greenfield infrastructure investment across the programme's components. Timmins is an established mining camp with a documented history of successful mine permitting, access to skilled labour, and a regional supply chain capable of supporting industrial-scale operations. Those baseline conditions lower the logistical threshold for the hydrogen demonstration programme and for the downstream processing facilities NetZero Metals is developing.

The project has been fast-tracked by both federal and provincial governments as a national priority. Crawford is included in Ontario's One Project, One Process (1P1P) framework and in Canada's Major Projects Office, both of which are designed to streamline permitting timelines for projects of strategic national significance. Ontario ranks among the leading global mining jurisdictions, and the 1P1P framework reduces the regulatory uncertainty that typically accompanies large-scale resource and industrial development. For the hydrogen demonstration specifically, operating at an advanced-stage development project with fast-tracked regulatory support means the programme faces a lower procedural threshold than a greenfield hydrogen project would.

Investment Thesis

• Crawford is expected to rank among the Western world's largest nickel sulphide projects, positioning Canada Nickel at the supply end of a critical minerals market that currently lacks large-scale Western hemisphere production.
• The Advanced Weathering Enhancement demonstration programme at Crawford is fully funded by GeoRedox, giving Canada Nickel a potential hydrogen feedstock layer for NetZero Metals at no capital outlay.
• Three independent carbon capture and storage pathways, In-Process Tailings Carbonation at 1.5 million tonnes of carbon dioxide per year, the NetCarb Alliance at 10 to 15 million tonnes per year, and the Carbon Dioxide-to-Rock partnership with the University of Texas at Austin and the US Department of Energy, establish Canada Nickel's decarbonisation infrastructure across multiple mechanisms and scales.
• NetZero Metals has the potential to become the largest nickel processing facility in North America and the largest stainless-steel and alloy production facility in Canada, supporting a vertically integrated supply chain from concentrate to finished product.
• Crawford's inclusion in Ontario's One Project, One Process framework and Canada's Major Projects Office, combined with direct site access to road, rail, power, and water infrastructure, reduces permitting and execution risk across the full cluster programme.
• Canada Nickel's portfolio of more than 20 ultramafic projects across the Timmins Nickel District means that Advanced Weathering Enhancement technology validation at Crawford would establish a production baseline applicable to a district-scale geological footprint.

The GeoRedox MOU advances Canada Nickel's cluster strategy by adding a feedstock dimension that the company's existing carbon storage programme does not supply. If the hydrogen demonstration succeeds, NetZero Metals gains access to a locally produced, zero-carbon processing input that could reduce both procurement exposure and the indirect emissions associated with externally sourced hydrogen. Combined with the company's three existing carbon pathways, the partnership deepens the integration of Crawford's zero-carbon industrial model while leveraging the project's infrastructure position, government prioritisation, and district-scale geological footprint.

TL;DR

Canada Nickel has added a potential hydrogen feedstock layer to its Zero-Carbon Industrial Cluster at no capital cost: GeoRedox will fully fund the first stimulated geologic hydrogen well at Crawford, targeting the ultramafic geology its technology is specifically designed for, and a successful demonstration would give NetZero Metals a locally produced, zero-carbon processing input that the company's three existing carbon pathways do not supply.

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