Future constellation · Target 2029

OrePlume

Nine CubeSats. A new perspective on Earth.

Our planned first constellation: 9 × 1U CubeSats in LEO for scalable live tasking and hyperspectral monitoring. Launch and completion are targeted by 2029.

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OrePlume mission patch showing nine CubeSats above Earth

Mission artwork supplied by EAK-Orbitals. Background spectral map is an illustrative visualisation, not measured OrePlume data.

9

Planned spacecraft

1U

CubeSat format

LEO

Low Earth orbit

2029

Target completion

Programme targets, not an operational fleet. OrePlume’s nine-spacecraft baseline is distinct from the broader company roadmap target of 20 satellites in 2029. Resolution, spectral configuration, revisit cadence and service levels are not yet published.

The 1U platform.

Conceptual 1U CubeSat · Not final flight hardware

01

One mission, nine spacecraft

OrePlume is planned as nine 1U CubeSats in low Earth orbit. The aim is to move from a single-satellite programme towards coordinated monitoring and tasking across a constellation.

02

SWIR and mineral signatures

Shortwave infrared measures reflected light beyond the visible spectrum. Surface materials can have distinct absorption features. Comparing those features supports mapping and exploration, with ground validation needed to interpret an anomaly.

03

Hyperspectral monitoring

Hyperspectral analysis examines many spectral channels rather than just a visible colour picture. OrePlume’s proposed monitoring approach focuses on understanding how surface signatures vary across a region and over time.

04

Scalable tasking

Requests can be organised around areas of interest and mission priorities. Multiple spacecraft are intended to expand tasking opportunities, but acquisition depends on orbital access, weather, illumination, spacecraft resources and ground contacts.

05

From measurements to maps

Useful analysis depends on calibration, location accuracy and consistent processing. The planned data workflow connects acquisitions to interpreted layers that users can compare with field observations and other geospatial evidence.

06

A responsible interpretation

A spectral anomaly is not proof of a deposit, ore grade or economic viability. Satellite observations do not identify individual people. Mineral exploration and activity assessments need contextual evidence and qualified interpretation.

Reading a spectral landscape.

False-colour images assign visible colours to spectral information. They help communicate patterns, but colours alone do not confirm a mineral identification.

Illustrative false-colour SWIR terrain map
Illustrative SWIR mineral mapping concept · Not actual satellite data.
Detail of the same illustrative spectral map showing contrasting surface zones
Same illustrative scene, detail view · No measured mineral classes or concentrations.
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