Wingbits Explained: How the Aviation DePIN Network, ADS-B Stations and WINGS Token Work

Wingbits Explained: How the Aviation DePIN Network, ADS-B Stations and WINGS Token Work

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by Elena Ryabokon

2 hours ago


Wingbits is an aviation DePIN network designed to collect and commercialize air traffic data. Participants install ground-based ADS-B receivers that capture aircraft signals and transmit positional data to the Wingbits infrastructure, receiving WINGS tokens for useful contributions. Unlike traditional crowdsourced flight-tracking platforms, the project uses cryptographically secured hardware, location verification, and token incentives for station operators. In April 2026, Wingbits launched WINGS on Solana mainnet, while the network itself had expanded to more than 6,000 verified stations across 120+ countries by mid-2026.

Contents

1. What Is Wingbits and How Does the Aviation DePIN Network Work?

Wingbits was created as a distributed network of ground-based aviation signal receivers. Its primary source of information is ADS-B, a technology through which equipped aircraft broadcast their position and other flight parameters. Ground antennas receive these radio signals and send the collected data to servers, where individual observations are combined into a broader picture of air traffic.

Crowdsourced ADS-B networks existed long before DePIN. Aviation enthusiasts install receivers near homes, airports, and major flight routes and provide their data to flight-tracking services. Wingbits changes the economic side of this model by rewarding station operators with WINGS for useful positional messages and consistent contributions to network coverage.

The project was founded in Stockholm by Robin Wingårdh and Alex Lungu, who previously worked at Klarna. The idea emerged in 2023, while in 2024 the network began expanding its station program and testing reward mechanisms. In September 2024, Wingbits raised $3.5 million in a seed round led by Borderless Capital and Tribe Capital, with participation from Antler, while subsequent funding rounds increased the project's total capital raised.

The value of the network comes primarily from aviation data rather than the blockchain itself. This information can be used by airlines, logistics companies, researchers, public-sector organizations, travel-service developers, and other businesses. The blockchain layer is mainly responsible for WINGS and the economic coordination of data providers.

2. ADS-B Stations, GeoSigner, and Wingbits Infrastructure

Wingbits relies on specialized ADS-B equipment to collect flight data. The primary frequency is 1090 MHz Mode S Extended Squitter, which is used by most commercial aircraft. A receiver connects to an antenna and the internet, captures radio messages from aircraft within range, and forwards relevant positional information to Wingbits.

After moving toward an Approved Hardware model, the project introduced stricter hardware requirements. Compatible devices are expected to include an ADS-B receiver and a cryptographic security chip that can sign and verify transmitted data. For certain existing compatible installations, Wingbits introduced GeoSigner, which adds cryptographic device identification and Proof-of-Location functionality.

Component Type Role in Wingbits
ADS-B Receiver Radio Hardware Receives aircraft messages, primarily on the 1090 MHz frequency
Antenna RF Infrastructure Influences the quality and range of aviation signal reception
Security Chip Cryptographic Hardware Links transmitted data to a verified physical device
GeoSigner Verification Hardware Adds cryptographic security and location verification
WINGS Solana SPL Token Supports station rewards and the network economy
Flight Data API Commercial API Provides third-party applications with access to aviation data

Antenna placement has a significant impact on station performance. ADS-B relies largely on line-of-sight radio communication, meaning installation height, surrounding buildings, terrain, antenna characteristics, and cable quality affect the number of aircraft a receiver can detect. Wingbits cites potential coverage of several hundred miles for certain configurations, although real-world range depends on local conditions.

The network also manages the geographic density of new installations. H3 cells are used during onboarding to limit excessive hardware concentration. The objective is not simply to deploy as many receivers as possible in the same city, but to expand unique coverage and improve the reliability of aviation data across underserved areas.

3. WINGS Token, Rewards, and the Aviation Data Economy

WINGS is the utility token of the Wingbits ecosystem and operates as an SPL token on Solana. Its maximum supply is fixed at 10 billion tokens. According to the project's tokenomics, 40% of the supply is allocated to Station Rewards, 11% to the ecosystem, 24.5% to investors, and another 24.5% to the team and company.

A total of 4 billion WINGS is allocated to station operators. Following the Tokenomics 2.0 update, this allocation was divided into 3 billion Network Score Rewards and 1 billion Early Participant Rewards. The main reward pool is designed for long-term distribution, allowing emissions to support network infrastructure over an extended period rather than being concentrated entirely in the early stages.

Key Features of the Wingbits Economy:

  • DePIN model based on physical ADS-B receivers;
  • WINGS as the primary utility token of the network;
  • fixed maximum supply of 10 billion WINGS;
  • 40% of the token supply allocated to station rewards;
  • Network Score Rewards based on the usefulness of submitted data;
  • Early Participant Rewards for early station operators;
  • PageRank-based model for evaluating station contributions;
  • additional incentives for selected types of valuable coverage;
  • manual claiming of earned tokens;
  • buyback-and-burn mechanism linked to commercial revenue.

The current reward system considers positional messages submitted by stations. A global base reward pool is influenced by the number of geographic areas where the network receives sufficient data. Adding more receivers to an already well-covered area does not automatically increase that area's total reward pool, so simply increasing hardware density does not guarantee proportional growth in rewards.

The commercial model is intended to connect supply-side incentives with data sales. According to Wingbits tokenomics, part of the revenue generated by the data business is used to purchase WINGS from the market and subsequently burn the tokens, although the parameters of this mechanism may evolve. The long-term economy therefore depends not only on token emissions but also on actual demand for aviation data.

4. Solana, PageRank, and Flight Data Verification

Wingbits initially considered using Peaq but selected Solana for its token and blockchain infrastructure in 2025. WINGS launched on mainnet on April 22, 2026. Individual ADS-B messages are not recorded as separate Solana transactions: blockchain infrastructure handles token-related operations and settlement, while the high-frequency aviation data stream is processed through specialized off-chain systems.

One distinctive element of the reward mechanism is a PageRank-like algorithm. Instead of evaluating stations solely by the absolute number of messages received, the system considers the significance of their coverage relative to other network participants. As a result, a receiver providing unique or underrepresented coverage can have greater relative value than another station operating in an already dense area.

Early Participant Rewards provide an additional incentive for operators who help establish coverage earlier. These rewards consider the number of geographic cells in which a station submits sufficient positional messages. From late 2025, Wingbits also introduced Low Altitude Rewards for aircraft data below 6,000 feet around selected airports, where reliable ground coverage can be particularly valuable.

Data verification is a central challenge for an aviation DePIN network. Cryptographic receiver identification and comparison of observations from multiple stations make it more difficult to falsify the source of data. In 2025, Wingbits and Spire Global also deployed an ADS-B payload in orbit through SpaceX's Transporter-13 mission. Satellite observations provide an additional source for validating ground-based data and covering areas where deploying terrestrial receivers is difficult.

5. Wingbits Development and the Future of Aviation DePIN

Wingbits has rapidly expanded its physical infrastructure. The network reported more than 2,000 antennas in October 2024, surpassed 4,000 stations in spring 2025, and reached more than 6,000 verified ADS-B receivers across 120+ countries by mid-2026. According to the project, the infrastructure processes tens of billions of aviation data points each day.

Commercial use of the data is developing in parallel. Wingbits provides a REST API covering live aircraft positions, routes, historical information, and GPS interference data. In 2025, the project expanded its collaboration with Spire Global and announced a partnership with the Korean Air R&D Center focused on Advanced Air Mobility and airspace integration.

The demand side is important to the sustainability of the DePIN model. Selling aviation data to companies and developers creates an external source of demand and can reduce the economy's dependence on WINGS emissions alone. However, station operator rewards still depend on location, air traffic, reception quality, nearby competition, changes to the reward formula, and the market value of WINGS.

Wingbits represents an aviation-focused DePIN model in which independent participants build a distributed air traffic observation network while blockchain coordinates economic incentives. Its long-term prospects will depend on ADS-B data quality, expansion of unique coverage, growth in commercial customers, and the network's ability to create useful aviation data services whose value does not depend exclusively on token rewards.

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