Fleet Space said its satellite AI has scaled up the Cisco Lithium project in Quebec to a 329 million ton ore target. This estimate amounts to a total of 360 million tonnes and supports a system that can suggest drilling locations within 48 hours.
Why is this Canadian lithium important?
The research was led by Fleet Space Technologies, an Australian exploration company that builds satellite-linked tools to discover minerals.
The company's geoscientists use the system to map the subsurface of Cisco properties and other early-stage mineral projects around the world.
Cisco's exploration target is approximately 300 million tons of lithium rock with a grade of 1% lithium oxide.
That potential would make Cisco one of the largest hard rock lithium prospects currently being tracked in the James Bay region.
It also shows how digital tools can reconstruct early exploration long before official resource estimates establish formal numbers.
Satellites and sensors see underground
The fleet's ExoSphere platform connects a swarm of small satellites with ground-based sensors that record rock vibrations and transmit measurements directly into orbit.
These battery-powered devices, called geodes, sit close to the earth's surface and continuously receive seismic energy from wind, waves, and human activity.
Research shows that Geode sensors use ambient seismic noise tomography on a direct link to satellites to image underground structures without the use of explosives.
By combining these measurements with gravity, magnetic, and geological data, ExoSphere creates a map that highlights zones with physical properties similar to known lithium systems.
Inside the Cisco Lithium Project
Cisco's lithium project is located in the James Bay region of Quebec, with road access along the Billy Diamond Highway.
Q2 Metals, which sponsors the project, reports intervals where spodumene, a lithium aluminum silicate mineral used in batteries, exists within thick pegmatite bodies.
Fleet Space said the results of the lithium deposit could extend beyond Cisco's current boundaries, saying the area has “district-scale potential.”
Exploration teams use ExoSphere's models to target drilling at priority structures and convert exploration targets into resource estimates.
James Bay as a lithium corridor
The James Bay region is already home to several hard-rock lithium projects and discoveries, along the main greenstone belt in northern Quebec.
An industry overview describes James Bay as a spodumene-rich district with several confirmed mineral deposits and strong existing road and port infrastructure.
These descriptions emphasize Quebec's hydropower, or electricity generated from flowing water. This resource allows processing plants to operate with lower emissions than coal-based grids.
This infrastructure puts Cisco in the spotlight for how quickly it can bring new Canadian lithium supplies online.
What faster targeting means for batteries
Demand for lithium is rapidly increasing. This is as electric vehicles scale up and power companies add large battery farms to support solar and wind power generation.
Analysts at the International Energy Agency estimate that demand for lithium from clean energy technologies could surge by 2030.
New mines take nearly a decade to go from discovery to production, so the years of savings from early exploration can be significant when markets are tight.
Faster decision-making on projects like Cisco gives automakers and battery manufacturers confidence when negotiating supply contracts based on North American deposits.
Balancing new mines and local impact
Cisco is located within the traditional territory of the Eeyou Istichie, and the Cree community has a long history of land use and involvement in mining decisions.
Quebec's permitting regulations require an environmental assessment and consultation with First Nations governments before a project can be moved. This will take more time, but will help establish legitimacy if the consultation is to work.
ExoSphere narrows the excavation target, allowing companies to disturb less ground by cutting access tracks, pads, and waste piles in sensitive areas.
Low-impact exploration does not replace conversations about mine design, water use, and reclamation. However, it can help companies come to negotiations with better information.
How AI chooses the next drill hole
Once seismic, gravity, magnetic, and geological datasets are uploaded, Fleet's algorithms search for rock properties that match signatures found in known lithium deposits.
The software then ranks the targets, flags structural trends where pegmatites may be present, and packages the results into maps and cross-sections that geologists can explore.
From there, the team chooses which anomalies to drill, knowing that ExoSphere can update the model within 48 hours as borehole data arrives.
The result is a feedback loop where each drill round provides a sharper image of the subsurface, allowing subsequent holes to be placed more precisely.
What this means for Canada
If Cisco ultimately proves its larger ambitions, the project could anchor a domestic lithium supply chain linking Quebec mines and battery factories.
Hydro-powered refining and cathode production in Quebec gives Canadian lithium a lower carbon footprint than materials shipped from fossil fuel supply chains overseas.
Other mining companies are testing ambient noise tomography and AI workflows for gold and other metals in the hopes that the data can extend exploration budgets.
Fleet Space has signed a multi-year agreement to expand ExoSphere's deployment across multiple continents as governments and producers seek to secure critical mineral supplies.
Remaining limitations and questions
Cisco remains an exploration project, and the widely cited tonnage and grade ranges are conceptual targets rather than formal reserves or defined resources.
Translating these targets into profitable numbers will require incremental drilling, grid strengthening, and independent verification under Canadian reporting standards.
ExoSphere's models rely on assumptions about how rocks respond to seismic waves, so they require calibration against cores pulled from the ground.
At this time, just as society needs new sources of low-carbon battery metals, this technology offers a way to increase the probability of discovery.
Details from the press release by Fleet Space Technologies.
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