Helium Mobile is the telecommunications branch of the Helium ecosystem, using the DePIN model to build distributed wireless infrastructure. Instead of relying exclusively on large carriers to deploy coverage, the network allows individuals and businesses to install Wi-Fi Hotspots or connect compatible existing equipment through which operators can offload mobile traffic. Helium Mobile is both a consumer mobile service developed by Nova Labs and one of the service providers using the open Helium Network. Following Helium's migration to Solana and changes to its tokenomics, the Mobile network economy has increasingly focused on HNT, real carrier offload, and rewarding infrastructure operators for providing useful coverage.
Contents
- What Is Helium Mobile and How Does DePIN Telecom Work?
- Hotspots, Passpoint, and Helium Mobile Network Architecture
- HNT, Data Credits, and the Helium Mobile Economy
- Solana, Proof-of-Coverage, and Decentralized Network Risks
- Helium Mobile Development and the Future of DePIN Telecom
1. What Is Helium Mobile and How Does DePIN Telecom Work?
Helium Network emerged as decentralized wireless infrastructure in which physical network equipment can be deployed by independent participants. The project initially focused primarily on IoT connectivity through LoRaWAN, but the ecosystem later expanded into mobile communications. The concept is to create an additional coverage layer that telecommunications operators can use to offload part of their mobile data traffic.
Helium Mobile, developed by Nova Labs, operates as a consumer mobile service while also using the Helium Network. The model is hybrid: when suitable decentralized coverage is available, data can be transmitted through Helium Hotspots, while outside these areas subscribers continue using the traditional mobile infrastructure of partner carriers. Helium therefore does not attempt to completely replace nationwide cellular networks.
The DePIN model changes how the last layer of wireless infrastructure can be financed and deployed. Instead of requiring a single carrier to acquire locations and install all equipment itself, Hotspots can be deployed by stores, restaurants, offices, property owners, and individual users. The protocol provides economic incentives for creating coverage in locations where connectivity may be useful.
Helium Network should also be distinguished from Helium Mobile as a commercial operator. The former represents open network and blockchain infrastructure, while the latter sells mobile plans to end users. By 2026, Helium Mobile's plans include Air with 10 GB of data and Infinity with unlimited data, subject to specific limits for high-speed and hotspot usage.
2. Hotspots, Passpoint, and Helium Mobile Network Architecture
Hotspots form the physical layer of the Mobile network. Helium's current architecture places significant emphasis on Wi-Fi: Indoor Hotspots are designed for buildings, while Outdoor Hotspots target streets, public areas, and other open environments. In addition to dedicated hardware, compatible existing Wi-Fi deployments can be connected to the network through Helium Plus.
Automatic user connectivity is enabled through Passpoint technology. A smartphone with the appropriate profile can recognize a supported network and connect without manually searching for an access point or entering a password. RadSec is used for interaction with carrier authentication systems, allowing carrier offload to become part of the normal connectivity experience.
| Component | Type | Role in Helium Mobile |
|---|---|---|
| Mobile Hotspot | DePIN hardware | Creates local wireless coverage and carries user data traffic |
| Passpoint | Wi-Fi technology | Enables automatic connectivity for supported devices |
| RadSec | Authentication protocol | Connects Hotspots with carrier authentication infrastructure |
| Helium Core | Network infrastructure | Routes messages and interacts with carrier systems |
| HNT | Native token | Supports the network economy and rewards infrastructure participants |
| Data Credits | Utility credits | Used to pay for network usage and created by burning HNT |
| Solana | Layer 1 blockchain | Provides Helium's underlying blockchain layer following the 2023 migration |
The economic value of a Hotspot depends on more than simply installing the device. The protocol considers factors such as location, coverage quality, land type, potential foot traffic, and actual network usage. Operators can also apply higher reward multipliers to selected areas, directing incentives toward locations where additional coverage is more valuable.
The network also distinguishes between providing coverage and actually transferring data. Real subscriber internet traffic routed through a Hotspot and verified by a participating carrier can qualify as rewardable data. Artificially generated traffic, speed tests, and other ineligible activity should not automatically receive the same rewards.
3. HNT, Data Credits, and the Helium Mobile Economy
Helium's economic model has changed several times. Following the introduction of the Mobile subDAO, operators of mobile infrastructure received the specialized MOBILE token, while the IoT segment used IOT. Both assets existed alongside HNT and had their own governance mechanisms, making the ecosystem's tokenomics relatively complex.
Under HIP-138, the community approved a return to a unified reward system. New MOBILE and IOT emissions were discontinued, while participants providing Mobile and IoT infrastructure began receiving HNT directly. Previously issued MOBILE tokens did not automatically disappear and retained conversion mechanisms through the corresponding treasury model.
Key Features of the Helium Mobile Economy:
- a DePIN model based on physical infrastructure operated by independent participants;
- HNT as the primary economic asset of the network;
- HNT rewards for protocol-supported network activity;
- Data Credits for paying for network usage;
- creation of Data Credits by burning HNT;
- rewards for actual carrier data offload;
- Proof-of-Coverage for evaluating the usefulness of deployed coverage;
- Reward Multipliers for priority geographic areas;
- support for both dedicated and existing Wi-Fi infrastructure;
- protocol governance through Helium Improvement Proposals.
Data Credits remain an important part of Helium's burn-and-mint economy. They are tied to a dollar-denominated value and are created by burning HNT. Carriers and other network participants use DC to pay for network services, creating an economic connection between actual infrastructure usage and demand for HNT.
Hotspot operator earnings are not fixed. Rewards depend on protocol rules, location, deployment quality, competing coverage, actual traffic, and governance decisions. Purchasing hardware therefore should not be treated as an investment with a predetermined yield, as changes in network activity or reward distribution rules can significantly affect results.
4. Solana, Proof-of-Coverage, and Decentralized Network Risks
In April 2023, Helium moved away from operating its own Layer 1 blockchain and migrated its tokens, Hotspots, and network state to Solana. Following the migration, Solana became responsible for underlying blockchain transactions and smart contract functionality, while specialized Helium processes, including Proof-of-Coverage and Data Transfer processing, use additional infrastructure and oracles.
Proof-of-Coverage addresses a fundamental DePIN challenge: installing a device does not automatically mean that it provides useful connectivity. The protocol needs to determine the Hotspot's location, coverage availability, and potential value. Within the Mobile network, these mechanisms have evolved as Helium shifted from its earlier CBRS-focused deployments toward broader Wi-Fi infrastructure.
Geographic hexes and additional data are used to evaluate coverage. In 2026, the Reward Multiplier considers factors including urbanization, footfall, and land type, while operators can identify additional locations where coverage is needed. The goal is to direct emission incentives toward areas of actual demand rather than simply encouraging unrestricted hardware deployment.
However, DePIN introduces specific risks. Hotspot operators need to consider hardware costs, internet connectivity, deployment quality, the density of competing devices, and changes to token economics. HNT price volatility, technical failures, future HIP changes, and dependence on commercial demand from carriers are additional factors. Blockchain makes reward distribution programmable, but it does not guarantee demand for coverage from a particular Hotspot.
5. Helium Mobile Development and the Future of DePIN Telecom
An important stage in Helium's development was its expansion beyond its own mobile service. In 2024, Telefónica and Nova Labs tested the network in Mexico, allowing Movistar customers to offload some traffic onto Helium infrastructure. In February 2025, the collaboration expanded, with plans to make Helium connectivity available to 2.3 million subscribers and an initial deployment covering more than 300 locations.
In April 2025, AT&T also announced a collaboration with Helium. Its subscribers gained the ability to connect to community-built Wi-Fi infrastructure in supported locations. This is significant for the DePIN model because demand for decentralized coverage can come from ordinary mobile users who never need to interact directly with cryptocurrency.
By 2026, network usage had increased substantially. According to Helium, daily active users grew from approximately 1.4 million in the second quarter of 2025 to 3.4 million in the first quarter of 2026, while data traffic increased from around 24 TB per day in June 2025 to approximately 128 TB per day in May 2026. These figures represent usage of the Helium Network and should not be interpreted as the number of paying Helium Mobile subscribers.
The project's strategy is gradually evolving toward a marketplace for wireless coverage. Infrastructure operators provide network capacity, carriers direct subscriber traffic through it, and the protocol connects network usage with HNT incentives. Helium Plus further expands this model by allowing existing commercial Wi-Fi deployments to participate without requiring dedicated Helium Hotspots.
Helium Mobile demonstrates a practical DePIN model for telecommunications: blockchain is used to coordinate infrastructure and economic incentives rather than to transmit internet traffic itself. The project's future will depend on the volume of real carrier offload, coverage quality, and additional carrier integrations. With sufficient demand, decentralized infrastructure could complement traditional mobile networks rather than attempting to replace the existing telecommunications architecture.
