A new blockchain project is launching with a singular focus: defending against a future threat that many believe could undermine the very foundations of today’s digital infrastructure. Naoris Protocol has activated its mainnet, introducing a layer-1 blockchain built from the ground up using post-quantum cryptography (PQC) to secure transactions and network operations. The network is now live in a limited, invite-only phase, allowing an initial cohort of users to operate validator nodes and process transactions.
The announcement, shared with Cointelegraph, details that the protocol integrates cryptographic standards finalized by the National Institute of Standards and Technology (NIST). This is a direct response to a growing concern in the blockchain space: that the encryption methods securing most networks today—like the elliptic-curve cryptography used by Bitcoin and Ethereum—could be broken by sufficiently powerful quantum computers, exposing historical transactions and private keys.
Before its mainnet debut, Naoris’s test network served as a significant proving ground. The project reports that its testnet processed over 100 million transactions and identified hundreds of millions of potential security threats. This activity, it says, involved millions of simulated wallets and nodes, providing a robust stress-test for its security model.
How Naoris Aims to Outpace the Quantum Threat
At its core, Naoris employs a consensus mechanism called Distributed Proof of Security (dPoSec). Unlike proof-of-work or proof-of-stake, dPoSec is designed to verify transactions and node integrity by continuously assessing and responding to security metrics across the network. Its native NAORIS token is intended to facilitate this ecosystem, acting as an economic unit for staking, fees, and governance as the network’s economic model matures.
The rollout is deliberately staged. It begins with a restricted group of validators and strategic partners, with broader public access planned for future phases. This controlled launch is typical for a network prioritizing security and stability. The project’s advisory board includes figures with deep expertise in cybersecurity, government technology, and enterprise systems, and it has secured backing from investors such as Draper Associates, lending early credibility to its mission.
Why the Push for Quantum Resistance Is Accelerating
The timing of Naoris’s launch is critical. Recent research is dramatically shortening the projected timeline for when quantum computers might pose a practical threat to current encryption.
A pivotal study released by Google Quantum AI on Monday suggests that breaking the cryptographic systems securing major blockchains like Bitcoin (BTC) and Ether (ETH) may require far fewer resources than previously estimated. The research indicates that fewer than 500,000 physical qubits—the basic unit of quantum information—could be sufficient to compromise these networks. This represents a roughly 20-fold reduction from older academic projections.
Justin Drake, a researcher at the Ethereum Foundation, weighed in on these findings, estimating there is now at least a 10% chance that a quantum computer could recover a private key by 2032. This shifting risk assessment is pushing the entire industry to reconsider its cryptographic foundations.
Separate work from researchers at the California Institute of Technology, collaborating with Oratomic, reached similar conclusions. They highlighted that advances in quantum error correction—the technique used to stabilize fragile qubits—could lower the threshold for a viable attack. Their models suggest that a functional quantum computer capable of breaking current encryption might emerge with only 10,000 to 20,000 logical qubits, a number many experts now believe could be reached around 2030.
Industry-Wide Moves Toward a Post-Quantum Future
The blockchain sector is not standing still. Developers are already experimenting with quantum-resistant solutions at various layers.
In January, teams within the Solana ecosystem introduced a quantum-resistant vault feature. It uses hash-based digital signatures—a NIST-approved PQC algorithm—to generate a new, unique key for every transaction. This approach limits the exposure of a user’s master public key, which is the primary target for a quantum “store now, decrypt later” attack.
More comprehensively, the Ethereum Foundation’s Post-Quantum Ethereum initiative, launched in March, provides a roadmap for upgrading the network’s cryptography. It acknowledges the monumental task ahead, targeting protocol-level changes by 2029 while candidly noting that a full transition will be a multi-year, complex process requiring broad community consensus and coordination.
Naoris Protocol enters this landscape as a purpose-built, ground-up solution. Its immediate mainnet launch with a PQC-first design represents a bold bet that the quantum threat is imminent enough to warrant a dedicated network, rather than a series of patchwork upgrades to existing chains. Whether it gains widespread adoption will depend on its ability to balance cutting-edge security with the performance and developer experience needed to attract a vibrant ecosystem.
Editor’s Note: This article was produced in accordance with Cointelegraph’s Editorial Policy, which prioritizes accuracy, independence, and transparency. Readers are encouraged to verify information from multiple sources. The analysis and statements regarding quantum computing timelines are based on published research from Google Quantum AI and academic institutions as cited. Project details are sourced from the official Naoris Protocol announcement.
