Nillion

What is Nillion (NIL)?

Nillion is a decentralized network for private computation and storage, which it calls a blind computer. The idea is that data can be stored and processed by many nodes without any single node, or the network itself, being able to read it. To do this it combines privacy-enhancing techniques including multi-party computation, secret sharing, homomorphic encryption and trusted execution environments. NIL is the network's token. Nillion's mainnet and token generation event took place in March 2025, and the project has since described a move toward a more permissionless network run by the community, along with products built around encrypted markets.

What NIL is used for

The project's own materials give NIL several roles:

• Paying for network operations: storage, compute and private inference are paid for in NIL, and developers spend it to run workloads.
• Rewarding contributors: node operators and participants in attestation checks are compensated in the token.
• Staking: a staking mechanism with minimum thresholds is planned, aimed at securing the network and sharing rewards with community node runners.
• Governance: token holder voting on parameters such as rewards and fees has been discussed, but is not confirmed.

Typical applications are private AI inference, confidential data sharing and storage of sensitive records.

NIL supply and token design

The genesis supply was 1 billion NIL. Nillion has said it is still deciding how emissions should work and is weighing mechanisms such as usage burns, slashing burns and treasury buybacks to manage scarcity, so the long-term supply path may change as those decisions are made. NIL exists as an ERC-20 token on Ethereum at 0x7cf9a80db3b29ee8efe3710aadb7b95270572d47, which is the contract to check because copycat tokens are common.

Live circulating supply is shown in the market data on this page.

Official information is on nillion.com.

What to check before using NIL

• Roadmap risk. Staking, governance and permissionless node participation are described as plans, and the final mechanics may differ.
• Emission policy. Because the emission schedule is still being defined, future supply and reward rates are uncertain.
• Technical complexity. Privacy networks rely on advanced cryptography, and real-world security depends on careful implementation and audits.
• Adoption. The token's role depends on developers actually paying for blind computation and storage.
• Impersonation. Confirm the contract address and use only links from the official site.