SUB-CENTIMETER REAL-TIME PRECISION
Carrier-phase corrections reduce positioning error from consumer-grade meters to machine-grade centimeters.
AXIS turns independent GNSS base stations into an open centimeter-grade positioning layer. Measure atmospheric drift, verify correction telemetry, serve autonomous machines, and settle network contribution on Solana.
Carrier-phase corrections reduce positioning error from consumer-grade meters to machine-grade centimeters.
Signed station telemetry proves that correction streams originate from registered geospatial reference nodes.
Positioning corrections can be sourced from a distributed station network rather than a single proprietary carrier.
Verified correction activity can feed programmable USDC settlement logic instead of monthly licensing invoices.
AXIS separates reference generation, mobile reception, agricultural automation, and municipal aggregation into specialized node classes.
Fixed dual- or triple-frequency GNSS reference nodes mounted on stable structures with open sky visibility.
Lightweight GNSS receivers consume local AXIS corrections for high-precision autonomous flight and landing.
Persistent correction relays support repeatable tractor paths, robotic field operations, and centimeter-level row alignment.
High-capacity reference hubs combine permanent survey coordinates, multi-band observation data, correction generation, and urban coverage.
Adjust the cost of a multi-band base station, average request utilization, and the settlement rate per validated correction event.
Registered reference stations observe carrier phase, pseudorange, signal quality, and fixed reference coordinates across multiple GNSS constellations.
Station telemetry is cross-checked, signed, and transformed into correction metadata and location proofs suitable for network accounting.
Valid corrections are distributed to clients while accepted station contribution feeds automated USDC settlement.
Integrate AXIS correction streams into autonomous drones, robotic warehouses, agricultural machines, survey equipment, and vehicle navigation stacks.
Precise approach paths, corridor navigation, inspection, landing, and formation operations.
External yard automation and machine positioning across industrial logistics sites.
External reference corrections complement inertial and vision systems with global-frame accuracy.
Machine control and repeatable coordinate references across distributed construction sites.
Adequate for phones, insufficient for many machine-control workloads.
Precision suitable for robotics, drones, survey, and autonomous operations.
Closed account tiers and regional access agreements.
Independent infrastructure can publish and consume verified correction data.
Coverage growth depends on one company's station rollout.
Qualified operators can contribute physical positioning infrastructure.
Infrastructure contribution and customer billing remain internal.
Verified correction activity can map directly to programmable operator payments.
RTK performance depends on station stability, antenna visibility, correction latency, local multipath conditions, and compatibility with client receivers.