The Asentum Thesis

Every major blockchain securing value today signs transactions with ECDSA or Ed25519. Both schemes rest on the discrete-logarithm problem being hard. In 1994 Peter Shor proved that a sufficiently large quantum computer can solve that problem in polynomial time. Not weaken it — break it.

In ten years, if that machine exists, people will derive secret keys from public addresses and empty dormant sleeping whales onto the open market. Bloodshed like we've never seen. And because blockchains are permanent public ledgers, the attack is retroactive — every signature ever written is already archived, already waiting.

NIST finalised the first post-quantum signature standard — FIPS 204, ML-DSA — in August 2024. Federal systems have migration deadlines. Major TLS libraries are already shipping hybrid post-quantum handshakes. The NIST Post-Quantum Cryptography program is the primary source. Blockchains, as a category, have not moved.

Every signature on Asentum, from block zero, is ML-DSA-65 (Dilithium3) — the NIST-standardized post-quantum scheme, level 3 security. There is no migration period because there is no classical signature history to migrate from. The cost of building this in from day one is small. The cost of being wrong about the timeline is catastrophic.

If you want a chain to matter, you need people who can build on it. The blockchain industry has spent a decade asking the rest of the software world to learn its language. Imagine what smart contracts could be capable of if they were written and executed natively in pure JavaScript — the language that already runs every website, every mobile app, most of the internet.

22 million+ people write JavaScript. Guess how many active blockchain developers there are? Around 24,000. Source: the 2024 Developer Report. That is a ratio of roughly 1,000 to 1. The largest untapped labor pool in software, and every blockchain has been ignoring it.

Asentum contracts are plain JavaScript. Not transpiled, not a subset, not a Solidity-shaped DSL with curly braces. Real JS, running inside a Hardened JavaScript sandbox, deterministic across CPU architectures. Readable on-chain. Verifiable in a single hash compare. If you've written Node for ten years, you already know enough to ship a contract on Asentum.

Current chains claim they are decentralized. In reality, joining a chain as a validator is ruthlessly expensive and dominated by the same three or four massive operators. The hardware floor forces everyone else into renting from AWS, GCP, or Hetzner — which means the network ends up looking, in practice, like a federation of cloud tenants in two countries.

Ethereum validators want a server-class machine. Solana's floor is closer to $5,000 in hardware and a gigabit uplink. You can measure the outcome: on every major chain, a handful of operators concentrate a supermajority of stake, and most of them live in a handful of datacenter regions. "Decentralisation" at those thresholds is a marketing claim, not a property of the system.

Asentum is tuned for the median consumer PC — a 4-core laptop with 8 GB of RAM. The Raspberry Pi 4 is the supported floor. 2-second blocks, a rotating ~100-validator BFT committee per epoch, permissionless after genesis. The ceiling on how many independent operators the network can host isn't set by economics — it's set by how many people want to participate. We ship the node as a single binary installer and a desktop app so a non-dev can turn their home PC into a meaningful, incentivised validator in under ten minutes.