Geodnet (GEOD)

Overview

Geodnet is a network that helps devices find their position with greater precision. Its full name is the Global Earth Observation Decentralized Network. It connects ground-based satellite receivers operated by people and organizations in different places. Together, these stations provide correction data that can improve the location readings used by survey equipment, farm machines, drones, and robots. GEOD is the token used to reward station operators and support services and governance within the network. (docs.geodnet.com)

Geodnet belongs to a category called decentralized physical infrastructure networks, or DePIN. In this model, participants help build real-world infrastructure—in Geodnet’s case, satellite reference stations—and receive tokens for useful contributions. The service customers buy is precise positioning data. The token gives operators an incentive to install and maintain the equipment that produces it. (docs.geodnet.com)

History & Team

From an idea to a working network

Geodnet’s technical work dates to 2021, when its approach to a shared reference-station network was introduced at a navigation conference. The network launched in 2022 with stations run by participants. Its development has since focused on expanding coverage and making the data useful to commercial customers. The GEODNET Foundation, based in Singapore, helps coordinate contributors, developers, and users. (geodnet.com)

Mike A. Horton is Geodnet’s project creator. His background is in navigation and sensor technology. Yudan Yi leads work on global navigation satellite systems, known as GNSS, and has experience in geodesy, the science of measuring Earth. David Chen leads blockchain development. These roles reflect the project’s two linked tasks: producing dependable location data and managing participation through tokens. (geodnet.com)

The project has also raised outside funding. In February 2025, the foundation announced an $8 million strategic round led by Multicoin Capital, with ParaFi and DACM participating. It said this brought total financing to $15 million. The funding was intended to support customers and applications in robotics and related fields. (geodnet.com)

Technology & How It Works

Correcting satellite signals

A phone or vehicle usually finds its location by receiving signals from satellites. Those signals can be affected by the atmosphere and other sources of error. Geodnet’s fixed ground stations observe satellite signals from known locations. The network uses those observations to produce corrections for nearby moving devices, called rovers. The method is known as real-time kinematics, or RTK. Under suitable conditions, RTK can bring positioning accuracy down to the centimeter level. (docs.geodnet.com)

Each station needs a suitable GNSS receiver, an antenna with a clear view of the sky, power, and an internet connection. It sends observations to Geodnet, where they help create correction streams. A compatible rover then uses those streams along with the satellite signals it receives directly. Geodnet’s documentation describes a typical correction range of about 20–40 kilometers from a reference station. (docs.geodnet.com)

Checking data quality

Adding stations is only part of building the service. A receiver blocked by trees or surrounded by reflective surfaces may collect poorer signals. Geodnet evaluates factors such as online time, the strength and number of satellite signals, and interference from reflected signals. Its reward rules give operators a reason to keep stations working and producing useful data. Performance-based rules introduced in 2025 placed greater emphasis on reliable operation. (docs.geodnet.com)

The blockchain handles the token and governance side of the system. GEOD exists on Polygon and Solana, and project documentation also lists an IoTeX version. The location corrections themselves come from physical receivers and the network’s data services. This division lets businesses use familiar positioning equipment while station operators take part in a token-based incentive system. (docs.geodnet.com)

Tokenomics & Utility

GEOD has a stated total supply of one billion tokens. The project identifies separate allocations for mining, the ecosystem, the team, investors, marketing, and a public sale. Mining tokens are distributed to eligible station operators, while team, investor, and ecosystem allocations follow longer unlock schedules. (docs.geodnet.com)

Station rewards begin with a base amount tied to effective online time, then change according to network rules and data quality. The base reward schedule halves each year at the end of June. Under the published schedule, an eligible triple-band station has a base rate of up to six GEOD per day from July 2026 through June 2027, before quality rules or location-based multipliers are applied. Triple-band stations are the type eligible for rewards under the current documentation. (docs.geodnet.com)

GEOD also supports access to correction services and participation in governance. A program called SuperHex lets holders stake tokens toward coverage in locations selected for network expansion. When a proposed area receives enough stake, station operators can deploy there under special reward rules. Governance voting uses a system linked to certain station-related NFTs, staked tokens, and locked tokens, rather than giving every unstaked GEOD holder the same direct vote. (docs.geodnet.com)

Commercial customers may pay for data in conventional currency. Geodnet says it uses 80% of data revenue to buy back and burn GEOD, permanently removing the purchased tokens from supply. This connects use of the positioning service to the token’s economic model without requiring every customer to purchase tokens directly. (geodnet.com)

Ecosystem & Use Cases

Precise positioning matters when a machine must repeat a route or measure a point closely. Surveyors can use correction data for mapping and construction work. Farmers can guide equipment along field rows. Drones can use it to record where images were taken, while robotic machines can combine location readings with cameras and other sensors. Geodnet offers RTK subscriptions and compatible receiving equipment for several of these tasks. (geodnet.com)

The network has developed relationships with companies that make or use positioning tools. In 2025, GNSS equipment maker Septentrio added Geodnet to its corrections partner program. Geodnet also announced work with DroneDeploy on RTK services for drone-based mapping. Later that year, it announced a joint venture with DroneDash to develop agricultural spraying drones that combine RTK positioning with computer vision. These examples show how the same correction network can serve different kinds of equipment. (geodnet.com)

Coverage is an important part of that ecosystem. Geodnet’s website reports more than 22,000 reference stations worldwide and live coverage in over 150 countries. A larger network can place stations closer to more customers, while the project’s location-based programs aim to fill areas where additional stations would be useful. (geodnet.com)

Advantages & Challenges

Geodnet’s main advantage is the link between a physical service and an open participation model. People can contribute by operating stations, while customers can obtain correction data without building a full reference network of their own. Token rewards help attract operators, and quality checks encourage them to provide data the service can use. Support for multiple satellite systems and compatible receivers also makes the network useful across different industries. (docs.geodnet.com)

Its challenges are practical. Stations need suitable hardware, good placement, steady internet access, and maintenance. Coverage must be dense enough in the places customers work, not simply large on a world map. Signal reflections and interruptions can reduce a station’s contribution. Annual cuts to base rewards also make service demand, coverage incentives, and dependable operation increasingly important to the network’s long-term design. (docs.geodnet.com)

Where to Buy & Wallets

GEOD is available on centralized exchanges including Coinbase Exchange, Gate, and MEXC. Decentralized options include QuickSwap and Uniswap on Polygon, and Orca and Raydium for the Solana version. Available services and supported networks depend on the platform and location. (geodnet.com)

MetaMask can hold the Polygon token, while Solflare can display and hold GEOD on Solana. Each version has its own token address: the Polygon contract is 0xac0f66379a6d7801d7726d5a943356a172549adb, and the Solana token address is 7JA5eZdCzztSfQbJvS8aVVxMFfd81Rs9VvwnocV1mKHu. Geodnet’s documentation also explains how to move GEOD between Polygon and Solana. (docs.geodnet.com)

Regulatory & Compliance

Geodnet’s foundation is based in Singapore, while its stations, service users, and token holders span many jurisdictions. The rules that apply can therefore depend on the activity involved. In the European Union, the Markets in Crypto-Assets regulation sets a framework for crypto-asset offerings and service providers. In the United States, the Internal Revenue Service treats digital assets as property for federal tax purposes and describes reporting rules for rewards and disposals. (geodnet.com)

Halal or Shariah compliance is a separate question from legal treatment. Geodnet’s published token materials describe rewards for operating stations, payment for data services, staking, and token burns, but do not provide a Shariah certification. An Islamic finance assessment would need to consider those features and the terms of any staking arrangement; the network’s real-world use alone does not determine a religious ruling. (docs.geodnet.com)

Future Outlook

Geodnet’s next stage centers on turning broad station coverage into dependable service where customers need it. Its reward rules and SuperHex program are designed to favor useful locations and consistent data quality. Work with surveying, drone, agriculture, and robotics companies offers ways to put that infrastructure to use beyond the crypto ecosystem. (docs.geodnet.com)

The relationship between data use and GEOD will remain central to the project. Station rewards help maintain and expand the network; customers create demand for its correction service; and the buyback-and-burn policy links a share of data revenue to the token. How well those parts work together will shape Geodnet’s development as a positioning network. (docs.geodnet.com)

Summary

Geodnet combines satellite reference stations, RTK correction data, and token incentives to provide precise positioning. GEOD rewards contributors and supports parts of the network’s services and governance. Its place in crypto is as a DePIN project built around a tangible service: helping machines and people determine location more accurately. (docs.geodnet.com)