AERE Network, a public EVM Layer 1 (Chain ID 2800) whose economics are immutable by code
AERE is a public, EVM-compatible Layer 1 blockchain running Hyperledger Besu with QBFT
consensus and 0.5-second deterministic finality. Its monetary policy is
anchored in immutable code: the destinations are sealed, a burn vault with
no admin, no withdrawal path, and no way to drain it and the owner-less
AereSink flywheel, and 37.5% of the validator reward is burned
into them (a Foundation-set rate, hard-capped at 50%). Supply is fixed at
2,800,000,000 AERE with zero mint. Alongside the base chain, AERE runs an on-chain
compliance-and-privacy verification layer: a sanctions-enforcing privacy
pool, zero-knowledge KYC attributes, and Travel Rule commitments. Every capability below
maps to a contract address you can call on chain 2800. Settlement, fixed in code.
AERE is a public EVM Layer 1 where an account or a contract can require a NIST
post-quantum signature, verified by the network itself. Five native PQC
precompiles (Falcon-512, Falcon-1024, ML-DSA-44, SLH-DSA) have been active on chain 2800 since
block 9,189,161, proven by a real Falcon-1024 signature recorded on-chain.
What we do not claim: that every block is post-quantum final. Per-block finality rests on classical ECDSA QBFT;
post-quantum validator seals are required on every consensus message and in a certificate under every anchor block's hash.
Read this page as an engineer who does not believe us. Every claim below
names the thing that settles it: a block number, a contract address, or a command you can
run against the public endpoint from your own machine. Where a claim is a direction rather
than a measurement, it says so in the same sentence.
Live in production on chain 2800
- 0.5s deterministic finality, Hyperledger Besu QBFT, no re-orgs by construction.
- Post-quantum verifier suite, native precompiles live since block 9,189,161 (Falcon-512, Falcon-1024, ML-DSA-44 / Dilithium2, SLH-DSA, plus WOTS+ and XMSS), each validated against NIST vectors.
- Sealed burn vault, 37.5% of the validator reward (a Foundation-set rate, capped 50%) routed to AereFeeBurnVault (
0x696afDF4f814e6Fd6aa45CE14C498ed9375fB2c6), a stateless sink with no admin and no withdraw.
- Non-custodial post-quantum custody, AereThresholdAccountFactory (
0x69734E4044B1C5943B9256A73De41B101BFA2633): t-of-n ERC-4337 accounts where every signer is verified by the live PQC precompiles, no single key and no admin path.
- Passkey account abstraction, ERC-4337 v0.7 WebAuthn smart accounts (FIPS 186-4 ECDSA on the NIST P-256 curve, the same curve used in government and PIV smart cards), plus ERC-4337 paymasters for gasless onboarding.
- USDC.e, bridged via Hyperlane Warp Route with an end-to-end reserve invariant.
- Lending engine, isolated single-pair money market, live and proven end-to-end (supply, deposit, borrow and repay transactions on-chain).
- Compliant privacy pool, Privacy Pools + Travel Rule hybrid; OFAC-sanctioned addresses cannot exit through the pool (AereCompliancePool
0x79735c31F289F7A4d6Be3E02aaB70B544796D41d).
- Zero-knowledge KYC attributes, SP1 Groth16 screening verifier on AereZKScreen (
0x3A097A459FD26aC79573aCB5adB51430e473C2f1), with proof-root binding.
- zk light clients, an inbound Ethereum-finality client and an outbound QBFT-finality client, both proven live on-chain with succinct Groth16 proofs.
Verify it yourself, from your own machine
Nothing below needs an account, a key, or our permission. The endpoint is public and
read-only for these methods.
# 1. You are talking to chain 2800
curl -s https://rpc.aere.network -H 'content-type: application/json' \
-d '{"jsonrpc":"2.0","id":1,"method":"eth_chainId","params":[]}'
Expect "0xaf0", which is 2800.
# 2. The validator set, counted rather than described
curl -s https://rpc.aere.network -H 'content-type: application/json' \
-d '{"jsonrpc":"2.0","id":1,"method":"qbft_getValidatorsByBlockNumber","params":["latest"]}'
Returns the validators at the current head: post-quantum validator ids since block 20,836,228, ECDSA addresses before it. On 2026-10-01 that array has 10 entries. If it ever returns a different number, believe the chain and not this sentence.
# 3. The contracts named on this page exist and carry code
curl -s https://rpc.aere.network -H 'content-type: application/json' \
-d '{"jsonrpc":"2.0","id":1,"method":"eth_getCode","params":["0x696afDF4f814e6Fd6aa45CE14C498ed9375fB2c6","latest"]}'
Repeat for 0x79735c31F289F7A4d6Be3E02aaB70B544796D41d (AereCompliancePool), 0x3A097A459FD26aC79573aCB5adB51430e473C2f1 (AereZKScreen) and 0x69734E4044B1C5943B9256A73De41B101BFA2633 (AereThresholdAccountFactory). Each returns deployed bytecode, not 0x.
One method note, because it is the trap most reviewers fall into. A
precompile is not a contract: it has no bytecode, so eth_getCode on a
precompile address returns 0x whether or not the capability is there. Absence
of code is not absence of capability. The honest test for the post-quantum verifiers and
for the secp256r1 precompile at 0x100 is a call carrying a known-good NIST
vector together with a second call carrying a corrupted one, so that a pass can be told
apart from a verifier that always says yes. The vectors, addresses and call encodings are
in the whitepaper and the documentation, and the activation height is block
9,189,161.
The road to full decentralization
The network runs on Foundation-operated validators today (10 as read from the chain at 2026-10-02 21:30 UTC). You can read that
number straight off the chain with the second command above, and we would rather you did.
Full decentralization of the validator set is the declared direction of this
network, written here so that it can be held against us.
One honest detail, of the kind usually left out. Seven is not a ceiling on ambition, it is
a measured engineering choice for this stage: at seven, the fault margin protecting the
network is the same margin a larger set would give. Choosing the simpler configuration at
equal safety is not a retreat from decentralization, it is how the work that gets us there
stays affordable.
We publish no date. A date we have not earned is not a commitment, it is a
slogan. What we publish instead is each step, when it is proven, with the measurement
attached, and the call above will show a change before any copy on this page does.
The previously published 273,000 TPS design ceiling has been withdrawn (its stated derivation
did not reach that number and no such rate was ever measured); the measured mean block interval is 0.566 s (re-measured 2026-09-02) and fees are sub-cent. Full methodology
is on the benchmarks page, including what the harness ran and what it did not.
Where the network is going, and why in this order
One rule orders this roadmap: does it make the network singular, or only
faster? Anything that only makes it faster can be done by anyone with money and
engineers. Singular has to be built. When the two compete for the same people, singular
wins. Nothing here carries a date, and nothing is called finished without a measurement
plus a negative control: the test that proves it has to be able to fail, or it proves
nothing.
Work that makes the network singular
- Post-quantum protection carried deeper into the protocol. Today post-quantum seals are required on every consensus message and in a certificate under every anchor block's hash, and accounts and contracts can require them, which is where they are useful to you first; per-block finality still rests on classical ECDSA. The direction is to make every block's finality rest on post-quantum signatures, so the network's own agreement rests on them.
- Post-quantum finality, end to end. Since 2026-08-14 the agreement between validators is hybrid in a limited sense: every anchor block, every 32nd block (every 128th from block 17,225,968 to block 20,746,736, 2026-09-05 to 2026-09-29), must carry under its hash a certificate of at least seven validator Falcon-512 seals, as many as the quorum of the ten validators (the seals prove those validators signed the block, not that it was decided, per the AIP-22 erratum of 2026-10-01), and every 128th block at least seven SLH-DSA seals as well (the minimum was three until block 14,961,456, on 2026-08-21, and six until block 20,715,632, on 2026-09-29; SLH-DSA was required at every anchor from 2026-09-04 to 2026-09-29), and since 2026-09-05 every consensus message must carry a valid Falcon-512 seal of its author, while each block is still committed with classical ECDSA seals. We state exactly that rather than letting a reader assume more. The direction covers validator signatures, node-to-node authentication, checkpoints, light clients and bridges. Making that finality post-quantum needs the post-quantum commit seal to bind the consensus round first (AIP-22 erratum, 2026-10-01). Not quantum-ready. Quantum-native.
- An execution kernel, not a single engine. The L1 EVM becomes an L1 execution kernel: the EVM stays the first virtual machine, with room for others such as RISC-V, while consensus and the state model do not change. That last clause is the point of the design, not a footnote to it.
- A cryptographic abstraction layer. A wall socket lets you change the appliance without rewiring the house. This does the same for signature algorithms: protocol, then interface, then algorithm. Published cryptanalysis moves and standards bodies revise their recommendations, and this layer is what keeps the protocol from having to be rebuilt each time they do.
- A proof of correct execution at every block. Each block carries a compact proof that its transactions ran correctly, produced by default rather than on request. That changes what the chain guarantees, not merely how fast it delivers.
Work that makes the network faster
Real engineering, and none of it changes the category the network competes in, which is
exactly why it is ordered after the list above.
- Parallel execution and a fully parallel commit path, with conflicts predicted before they cost anything.
- A faster state and storage engine, new multi-layer caching, and a rewritten RPC layer.
- Consensus timing, block building and the transaction queue tuned to real traffic instead of averages.
- A modern networking stack, hardware-aware scheduling, and hardware acceleration for post-quantum verification.
- Lighter light clients, wider signature aggregation, and mathematical proof of the invariants that protect funds and liveness.
One at a time, each proven before the next begins. A page reporting a dozen things in
progress tells you nothing true about any of them.
Read the whitepaper
The AERE Network whitepaper (2026 edition) is the full technical specification:
consensus, immutable burn, tokenomics, the compliance-and-privacy layer, the
post-quantum verifier suite, and the decentralization direction. It is published as a
web document and as a downloadable PDF, and the PDF is re-rendered from
the same source as the web edition whenever that source changes, so the copy you download
matches the edition on the site.
Key links