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The result · the deliverable

The map is the product.

Scout maps the surface, Probe reads the shallow subsurface, Overlord fuses every pass into one interactive 3D volume. This is what lands in your inbox — a meter-scale map of what's under the ground, with every layer traceable to the sensor and physics behind it.

The result

A meter-scale 3D map of what's under the ground.

Drag to orbit, scroll to zoom, and toggle each layer — LiDAR surface, mineral bodies in the 0–10 m FDEM detection band, surface metal finds, and the depth-dependent probable-area footprint. The 10–30 m zone is shown as modeled, not detected.

Subsurface Mineral Survey
Sector 7-NW · 5 ore bodies · 3 surface finds · LiDAR + FDEM · 0–10 m detected
LiDAR GPR FDEM Mag Hyper
Open 3D map · 0–10 m detected · 10–30 m modeled · drag to orbit
Scan layers
Solid −10 m = FDEM detection floor · fainter grid below = modeled (roadmap: GPR + magnetometer).
Location footprint widens with depth — deep targets are localised less precisely.
Recovered
Buried coin cache −1m
Lost jewelry surface
Iron relic −2m
Mineral bodies
Concentration
Trace Ore-grade
Mineral type · grade · depth
Au Gold (epithermal) 3.4 g/t Au · 2–4m
Ni Nickel sulfide 0.9 % Ni · 4–7m
Cu Copper porphyry 0.82 % Cu · 6–9m
Fe Magnetite 34 % Fe · 7–9m
Li Lithium brine 820 ppm Li · 9–11m

Interactive concept render from real survey-data structure · 0–10 m detected, deeper modeled (roadmap) · not yet flown

How it works · the receipts

Every layer in that map traces to a sensor and a physical principle.

Scout LiDAR builds the surface. The Probe's multi-frequency FDEM coil reads the shallow subsurface — in-phase (I) for magnetic material, quadrature (Q) for conductive metal, and a 16-frequency sweep to place it in depth. The deeper 10–30 m zone in the map is shown as modeled, not detected.

Surface terrain & corridors

DEM · slope · obstacles · vegetation

Scout LiDAR (rotating turret)

Time-of-flight ranging builds a dense 3D point cloud — the base map every subsurface layer registers against.

Depth
Surface
Bands
ToF laser

Ferrous / magnetic bodies

Steel pipe · rebar · magnetite black sand

FDEM · in-phase (I)

High magnetic permeability returns a strong in-phase secondary field. Magnetite is a classic placer-gold indicator.

Depth
0.5–8 m
Bands
500 Hz – 2.4 kHz

Conductive metals

Copper · aluminum · silver · gold

FDEM · quadrature (Q) + I/Q ratio

Eddy-current conductivity drives the quadrature return; the I/Q ratio at each frequency fingerprints which metal it is.

Depth
0.5–6 m
Bands
3.6 – 200 kHz

Mineralization layers

Disseminated ore · brine · alteration

FDEM · 16-frequency sweep

Bulk conductivity contrast vs background; skin depth ∝ 1/√f turns the frequency sweep into 16 depth slices.

Depth
3–10 m
Bands
500 Hz – 5.4 kHz

Voids, channels & contacts

Cavities · paleochannels · bedrock

FDEM · low band

Detected as conductivity boundaries — or the absence of conductivity — against surrounding rock.

Depth
1–10 m
Bands
500 Hz – 8 kHz

Surface finds

Lost jewelry · coin caches · relics

LiDAR + RGB + shallow FDEM

Surface geometry and optical cues plus a shallow eddy-current return recover valuables at or just below grade.

Depth
0–0.5 m
Bands
27 – 200 kHz

Depths and frequency bands are design targets from the FDEM board spec and the LiDAR platform docs — nominal figures at ~10 mS/m soil conductivity (dry or frozen ground reaches deeper; wet or saline ground shallower). This is the current sensor design scope; hardware integration is in progress.

First survey sites · 2026

Let us map your land.

A small number of free reference surveys in 2026 — landowners, ranchers, exploration juniors. You give us permission and ground truth; we tow the trailer out, fly the survey, and hand you the map.