The Network
Position, navigation and timing, rebuilt from the ground up.
What PNT actually is
01
Position
A receiver measures its distance to several nodes whose locations are known. Three or more ranges resolve a fix by trilateration.
02
Navigation
Successive fixes over time give heading, speed and route — the difference between knowing where you are and getting where you're going.
03
Timing
Ranging is really timing. Distance is the time-of-flight of a signal, so the network must hold a shared, precise clock. That same clock underpins power grids, telecoms and financial settlement.
Why a non-satellite-dependent network is no longer optional
Public sector
GNSS jamming and spoofing are now routine near conflict zones and around airports and ports. Aviation, emergency response, border control and defence need an independent fallback that does not share a single point of failure in orbit.
Private sector
Logistics yards, ports, mines, warehouses, autonomous vehicles and drone operators lose GNSS indoors, in urban canyons and under interference. Data centres and exchanges need resilient timing that survives satellite outages.
2.4GHz LoRa
The radio layer
Why 2.4GHz LoRa
2.4GHz LoRa is globally licence-exempt, so nodes can be deployed in any market without regional spectrum negotiation. Long-range spread spectrum modulation keeps links robust at very low power.
Ranging, not just messaging
The 2.4GHz radios support time-of-flight ranging between nodes, so devices measure real distances instead of inferring position from signal strength.
Self-surveying mesh
Nodes range against their neighbours and converge on a shared geometry and time base. Density improves accuracy — every new device sharpens the whole cell.
Proof of coverage
Neighbour-to-neighbour challenges prove a device is where it claims to be and doing real work. Verified work is what earns token rewards.