The lunar
power backbone.

Aurora builds solar-first lunar microgrids that generate, store, and distribute power from South Pole power zones to industrial worksites.

Explore the Microgrid Request Infrastructure Brief

Everything begins with sunlight.

At the lunar South Pole, sunlight is more than illumination. It is industrial fuel. Aurora captures, stores, and routes that energy into the first powered lunar worksites.

No power. No lunar industry.

Every serious lunar operation depends on energy: robotics, thermal systems, communications, surface mobility, extraction equipment, research instruments, and habitat support. Aurora is designed to solve that first constraint.

Mission-limited power

  • isolated systems
  • short-duration operations
  • fragile energy margins
  • mission-specific hardware

Aurora utility layer

  • shared generation
  • layered storage
  • distributed power
  • scalable industrial uptime

Generate. Store. Deliver.

Aurora is built around a simple infrastructure logic: collect energy where sunlight is strongest, store it for operational continuity, and deliver it where lunar work happens.

Generate

Solar arrays positioned across high-value South Pole illumination zones.

Store

Layered storage for short-duration, long-duration, and high-demand operations.

Deliver

Power distribution infrastructure connecting generation zones to worksite demand.

Power deployment trajectory.

A conceptual sequence showing how Aurora’s first lunar utility layer becomes operational.

T+00
Earth Launch
T+04D
Lunar Transfer
T+07D
South Pole Approach
T+09D
Power Ridge Deployment
T+11D
Storage Node Activation
T+14D
Power Spine Online
T+15D
Industrial Worksite Powered

Conceptual deployment sequence for system illustration.

From ridge sunlight
to worksite power.

Aurora separates the best solar collection zones from the highest-demand operating zones, then links them through resilient distribution infrastructure.

Power Ridge
Solar Array Field
Storage Node
Power Electronics
Power Spine
Industrial Worksite
Utility Interface

A modular utility architecture.

Aurora is designed as a scalable power system, not a single installation. Each module expands generation, storage, delivery, or local utility access.

Solar Array Unit

Captures energy across high-illumination lunar terrain.

Storage Node

Balances supply, demand, shadow periods, and operational peaks.

Power Spine

Moves energy from generation zones to worksite infrastructure.

Utility Interface

Provides usable power access for lunar surface systems.

Worksite Power Hub

Coordinates local delivery, redundancy, and operational load.

Gated by proof, not optimism.

Aurora advances through measurable infrastructure gates. Each phase must prove the conditions needed for the next.

Phase 01 — Site Modelling
Output: South Pole power-zone selection.
Phase 02 — Pilot Generation
Output: First solar array deployment.
Phase 03 — Storage Validation
Output: Layered storage node online.
Phase 04 — Distribution
Output: Power spine connected to worksite.
Phase 05 — Utility Operations
Output: First continuous powered worksite.
Phase 06 — Expansion
Output: Additional arrays, nodes, and service zones.

Power as lunar infrastructure.

Aurora is designed as a utility platform: a physical energy asset that can expand with demand and support multiple categories of lunar operations.

Infrastructure, not territory.

Aurora is designed as a commercial infrastructure platform, not a territorial claim. Its purpose is to supply energy for lawful lunar activity through scalable, cooperative power systems.

The Moon's next era begins with power.

Aurora is building the solar generation, storage, and distribution infrastructure needed for sustained lunar operations.

Explore the Microgrid Request Infrastructure Brief