Mining Intelligence & Exploration
Solutions / Mining Intelligence & Exploration

Mineral exploration data platform: drilling, geochemistry, geophysics and GIS in one place

A mineral exploration data platform brings decades of geological reports, drill holes, assays, geochemical and geophysical surveys and satellite imagery into one environment with one coordinate system, so a geologist can query them together instead of reconciling spreadsheets, PDFs and GIS layers by hand. Mirage builds that environment around the datasets an exploration team already holds and applies machine learning where it helps rank targets; the decision stays with the geoscientists.

Fragmented today
Geological reports
Drilling campaigns
Geochemistry
Geophysics
Satellite imagery
Mirage
Exploration Intelligence
Operational output
Anomaly analysis
3D subsurface view
Ranked targets
Decision support

The problem

Exploration information is spread across decades of geological reports, maps, drilling campaigns, geochemistry, geophysics, satellite imagery and databases, often in incompatible formats built at different times by different teams, in two or three coordinate systems.

The challenge is not having more data. It is making the datasets that already exist usable together: the 1998 trench samples with the 2021 drill holes, the airborne magnetics with the soil geochemistry, the scanned report with the GIS layer.

What we deploy

A unified exploration environment that combines these geological datasets in one coordinate system and applies machine learning where it is useful: to identify patterns, analyse anomalies and help prioritise exploration targets. The geoscience team queries it, draws on it and decides from it; it does not drill anything on its own.

Datasets, outputs, systems

Datasets the exploration platform reads, outputs it produces, and the systems it connects to
ReadsProducesConnected through
Drill hole collars, surveys, lithology and assay intervalsValidated holes in one database, with desurveyed traces and composited intervals; overlaps, gaps and unit mismatches flaggedDrilling database (acQuire, Micromine, Leapfrog, Excel or CSV exports)
Soil, stream, rock-chip and trench geochemistryNormalised element grids and anomaly maps, with detection limits and laboratory batches keptLaboratory certificates (CSV, PDF), GIS layers
Ground and airborne geophysics: magnetics, gravity, IP, EMGridded and filtered layers in the common coordinate system, overlaid with geology and geochemistrySurvey deliverables (grids, line data), GIS
Historical reports, maps and sections, scanned or digitalText and figures indexed and georeferenced; intervals, samples and conclusions extracted with their page referencePDF and image archives, read as documents
Satellite and remote sensing imageryAlteration and structure layers, aligned with the ground datasetsPublic and licensed imagery, GIS
Tenements, access, infrastructure, environmental constraintsRanked targets filtered by what can actually be drilledGIS and cadastral layers

Outputs stay in the tools the team uses: GIS layers, 3D models and drill databases are written back, and the ranked targets come with the evidence behind each rank.

How it works

Mirage engineers work with the geoscience team to inventory and normalise the existing datasets, historical reports, drilling logs, geochemical and geophysical surveys, satellite and GIS layers, into a single environment with one coordinate system and one set of units. Machine learning is applied where it adds value: flagging geochemical or geophysical anomalies, correlating patterns across datasets that were previously reviewed in isolation, and helping rank areas for further fieldwork.

Most of the work is the normalisation. A model trained on badly joined data ranks the join errors, which is why the inventory and the validation of every dataset come before any model is run, and why each ranked target carries the samples, holes and layers that produced it.

What the machine learning does, and what it does not claim

What the machine-learning step does in the exploration platform, and what stays with the geologists
TaskWhat the system doesWhat stays with the geoscience team
Anomaly detectionFlags samples, intervals and grid cells that stand out against their neighbours and against the dataset's own distributionDeciding whether an anomaly is geology, contamination or a laboratory artefact
Pattern correlationFinds where geochemistry, geophysics, structure and alteration coincide, across datasets reviewed separately until nowInterpreting the coincidence in the deposit model
Target rankingOrders areas by the evidence that supports them and by what can be drilled, with the evidence listedChoosing the targets, the drill plan and the budget
Historical dataExtracts intervals, samples and conclusions from scanned reports, with page referencesJudging the reliability of a 1980s report
PredictionDoes not claim to find minerals or to predict gradesAll of it

Operational interface

Decision-support infrastructure for exploration teams, not a claim that the system finds minerals on its own.

What operators see
  • Geological maps and satellite imagery, one coordinate system
  • Drill holes and geochemical layers, queryable together
  • Geophysical data overlays
  • 3D subsurface visualisation
  • Anomalies and ranked exploration targets, each with its evidence
  • Historical reports indexed and georeferenced
Geological / drilling databasesGeochemistry datasetsGeophysics surveysSatellite & GIS imageryHistorical reports and mapsTenement and constraint layers

How it is deployed

Forward-deployed: engineers with your geologists, from the data inventory to the first ranked targets. The proof of concept usually takes one project area with its drill database, assays and one geophysical survey, so the team sees its own data joined before any commitment.

First reply
Within two business hours, from an engineer.
Proof of concept
On your own data (a telematics export, a transaction log, weighbridge tickets, dispatch records), one week after the first meeting.
Pilot
Fixed price, on one site or one fleet, with Mirage engineers deployed with your team. You can stop after it.
Production
The first workflow runs in 4 to 6 weeks. A system that spans several sites or a lot of field equipment is scoped at the first meeting and can take longer.
After go-live
Mirage operates, monitors and improves the system in production; your team keeps the decision on every exception. More than 200 systems have been connected so far.
Price
An annual subscription priced by volume after the pilot, from $10,000 to launch and $1,000 a month, quoted in the first conversation.

Mirage has not published an exploration deployment; its named mining references are Moroccan operators running fleet, fuel and control-room systems, and mining is offered internationally. An exploration engagement starts with the inventory of what the team already holds.

FAQ

What is a mineral exploration data platform?
One environment that holds an exploration project's drill holes, assays, geochemistry, geophysics, imagery and historical reports in one coordinate system, so they can be queried, overlaid and modelled together, with machine learning applied to flag anomalies and rank targets and the decisions left to the geoscience team.
What does it automate?
Normalising decades of reports, drilling logs and surveys into one environment; extracting intervals and conclusions from scanned reports with their page references; flagging geochemical and geophysical anomalies; and correlating patterns across datasets that were reviewed in isolation.
Does it find minerals?
No. It ranks areas by the evidence that supports them and lists that evidence. Whether an anomaly is geology or contamination, which targets to drill and how to spend the budget stay with the geologists.
Who uses it?
Geoscience and exploration teams working with existing geological, geochemical, geophysical and satellite or GIS data, usually with a backlog of historical reports nobody has had time to re-read.
What systems does it connect to?
Drilling databases and modelling tools (acQuire, Micromine, Leapfrog and others), laboratory certificates, geophysical survey deliverables, GIS platforms, imagery archives and the PDF and image archives of historical reports. Where no documented interface exists, Mirage's engineers build the connector.
Does it replace our GIS or drilling database?
No. It combines and normalises the datasets and tools the team already uses and writes layers, models and validated holes back into them.
How long does it take, and what does it cost?
A proof of concept on one project area's data one week after the first meeting, the first workflow in production in 4 to 6 weeks, then an annual subscription priced by volume after a fixed-price pilot you can stop after. Prices start at $10,000 to launch and $1,000 a month; the number of datasets and formats to inventory sets the scope.

See what Mirage can run in your operations

Mirage Metrics: engineers in Paris, Barcelona and Casablanca

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Tell us where your operations lose time. We send back a written plan: which workflows are worth automating, what a deployment looks like on your systems, and the shortest path to production. No commitment.

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