Decentralized Geodetic Infrastructure: An Analytical Evaluation of Onocoy ($ONO)

Technical architecture and kinematic correction

Standard GNSS constellations (GPS, GLONASS, Galileo, BeiDou) broadcast from orbits roughly 20,000 kilometers up. Atmospheric delay, tropospheric refraction, and local multipath degrade a standard receiver to three to ten meters. RTK removes those errors: a stationary reference station at a precisely surveyed coordinate measures the exact error in the satellite carrier waves, then streams corrections in RTCM format over the NTRIP standard.

+-------------------------------------------------------------+
|                GNSS Satellite Constellations                |
|              (GPS, Galileo, GLONASS, BeiDou)                |
+-------------------------------------------------------------+
                 /                             \
                /                               \
       (Atmospheric delay)             (Atmospheric delay)
              /                                   \
             v                                     v
+-----------------------------+        +-------------------------+
|     Onocoy Base Station     |        |       Mobile Rover      |
|     (Precisely Surveyed)    |        |  (Drone/Tractor/Robot)  |
+-----------------------------+        +-------------------------+
              |                                     ^
              | (Raw MSM7 phase corrections)        | (cm-level RTCM)
              v                                     |
+-----------------------------+                     |
|     Onocoy Caster Servers   |                     |
|   (servers.onocoy.com:2101) |                     |
+-----------------------------+                     |
              +---(Streams RTCM corrections via internet)---+

A rover connects an NTRIP client to the Onocoy caster network at servers.onocoy.com:2101. Unlike single-station corrections, Onocoy uses a modern Multi-System Message approach (MSM4/5/6/7), tracking all available constellations at once.

Leadership and validation

Onocoy was founded by satellite and GPS-telemetry veterans, including co-founder and president Daniel Ammann. Its standout credential is a $1.5M non-dilutive grant from the European Space Agency's NAVISP Element 2 program, funding a project with ETH Zurich to engineer an AI-driven, decentralized fraud-detection layer against GPS spoofing, signal injection, and data falsification.

Operational growth, partnerships, and funding

The network has grown to over 6,700 active, verified reference points, capitalized by more than $5.7M. Early rounds drew Smart Island Capital and hardware executives, notably Thomas Seiler, the long-standing former CEO of GNSS manufacturer u-blox, who joined as a core strategic advisor. Institutional backing from Ryze Labs followed to accelerate international markets.

These connections position Onocoy across precision agriculture, heavy-machinery tracking, and European drone-delivery corridors, for an estimated $1.85M of annualized recurring revenue as pilots move into commercial production.

Token economics: the dual-token model

Onocoy settles on Solana for high throughput and sub-penny fees, and caps $ONO at 810,000,000. A strict dual-token model isolates the volatile crypto layer from consumer utility cost.

• ·Data Credits (DC): an internal, fiat-pegged currency used only to buy RTK correction streams. Enterprise clients buy DC with cash or $ONO.
• ·$ONO token: the crypto asset distributed daily to base-station operators for uploading continuous, multi-constellation data.

+--------------------------------------------------------+
|              Commercial Enterprise Client              |
|        (Buys fixed-value Data Credits with fiat)       |
+--------------------------------------------------------+
                            |
                            v
+--------------------------------------------------------+
|               Data Credit (DC) Consumption             |
|          (Client consumes the stream via NTRIP)        |
+--------------------------------------------------------+
                            |
                            v
+--------------------------------------------------------+
|                  On-Chain Token Burn                   |
|       (Corresponding $ONO is permanently burned)       |
+--------------------------------------------------------+
                            |
                            v
+--------------------------------------------------------+
|                 Operator Reward Cycle                  |
|   (New $ONO emitted to base stations meeting 98%+      |
|    quality standards)                                  |
+--------------------------------------------------------+

High-Value Areas amplify emissions over industrial or underserved zones to pull supply where demand is, while over-dense clusters face severe reward dilution. Because 100% of the $ONO mapped to consumed Data Credits is burned on-chain, the network trends structurally toward net deflation as tracking operations scale past the fixed daily emission curve.

Hardware, validation, and installation friction

On setup, a station does not earn full rewards immediately. A mandatory 24-to-36 hour validation test measures signal-to-noise ratio, tracking consistency, and antenna stability to screen out spoofed or indoor installs. Rewards are bound to location scarcity: devices placed in close proximity have baseline payouts reduced by mathematical decay functions to eliminate redundant overhead.

Installation

Geodetic hardware remains a high barrier, setting the Operator Ease score at 60 out of 100. The antenna needs a rigid roof mast with a 360-degree clear sky view and no obstruction above a 10-degree elevation, low-loss coaxial routed indoors, wired Ethernet, and caster configuration.

+-------------------------------------------------------------+
|  1. Antenna mechanical mounting                             |
|     - Secure a geodetic antenna on a rigid roof mast        |
|     - Achieve a 360-degree unobstructed view of the sky     |
|     - No barriers above a 10-degree elevation angle         |
+-------------------------------------------------------------+
                            |
                            v
+-------------------------------------------------------------+
|  2. Hardware infrastructure                                 |
|     - Route low-loss coaxial cable indoors to the receiver  |
|     - Connect wired RJ45 Ethernet directly to the router    |
|     - Avoid sharp cable bends to limit signal attenuation   |
+-------------------------------------------------------------+
                            |
                            v
+-------------------------------------------------------------+
|  3. Firmware and caster configuration                       |
|     - Open the WebUI at a local IP (e.g. 192.168.3.1)       |
|     - Set reference position to Auto for calibration        |
|     - Map NTRIP output to servers.onocoy.com:2101           |
|     - Activate RTCMv3 MSM7 blocks (1005, 1077, 1087)        |
+-------------------------------------------------------------+
                            |
                            v
+-------------------------------------------------------------+
|  4. Dashboard onboarding                                    |
|     - Register the hardware serial on the Onocoy console    |
|     - Enter the NTRIP username and password                 |
|     - Link a Solana SPL wallet to complete mapping          |
+-------------------------------------------------------------+

Comparative analysis: Onocoy versus legacy networks

Legacy providers keep an edge in long-standing legal SLAs and government contracting, but Onocoy's capital-efficient, token-incentivized scaling lets it compete hard on price-to-performance, putting centimeter-accurate data within reach of mass-market robotic and commercial software platforms.

Editorial conclusion

Onocoy is a high-fidelity implementation of the physical-sensing DePIN model. By avoiding single-vendor hardware lock-in and securing cryptographic validation from top-tier academic and aerospace institutions, it builds a defensible, enterprise-grade geodetic layer on Solana. Its main challenge is translating a dense European footprint into demand capture across the Americas and Asian commercial shipping corridors.