Beyond an AttestationRouter standard, I'm proposing that Ethereum stakeholders explore a shared schema for autonomous economic actors: a common language describing how protocols, DAOs, and systems are structured, governed, and interdependent.
As a working name, let's call it AEA-0.1 (Autonomous Economic Actor schema).
Economic integration onchain fails when actors can’t clearly express what they control, who can change it, and what they depend on.
AEA-0.1 would be a minimal, testable schema for doing exactly that: a format that makes each actor’s boundary, control surfaces, invariants, and dependencies machine-readable and attestable.
Example 1 — Lending Protocol
{
"actor": { "name": "ExampleLend", "class": ["lending_protocol"] },
"control": { "governance_model": "token_weighted", "timelock": "48h" },
"dependencies": [
{ "target": "chainlink.eth", "type": "oracle", "exposure": "price_feeds" },
{ "target": "makerdao.eth", "type": "collateral_source", "exposure": 0.35 }
],
"invariants": [
{ "id": "no_unbacked_mint", "status": "monitored" },
{ "id": "liquidation_ratio_>_110%", "status": "audited" }
]
}
Defines who governs, what external systems it depends on, and the guarantees it claims to uphold.
---
A Governance DAO
{
"actor": { "name": "ExampleDAO", "class": ["governance_body"] },
"control": {
"governance_model": "multisig",
"threshold": "5 of 9",
"upgrade_paths": ["governor_alpha", "timelock_72h"]
},
"positions": [
{ "label": "token_holder", "right": "vote" },
{ "label": "proposal_creator", "right": "initiate_change" }
],
"dependencies": [{ "target": "ens.eth", "type": "naming_service" }]
}
Clarifies who controls upgrades and what formal rights exist within the system.
---
A Cross-Chain Bridge
{
"actor": { "name": "ExampleBridge", "class": ["bridge"] },
"boundary": {
"state_sets": [
{ "label": "locked_assets", "chains": ["ethereum", "base"] }
]
},
"dependencies": [
{ "target": "optimism.eth", "type": "rollup_settlement" },
{ "target": "zkproof.verifier", "type": "cryptographic" }
],
"invariants": [
{ "id": "supply_equivalence", "spec": "locked == minted" }
]
}
Shows how cross-chain actors can expose their verifiable guarantees and dependencies.
Once actors publish AEA manifests, integration and risk analysis can become automated:
• exposures can be mapped across networks,
• dependencies traced and rated,
• and due diligence itself becomes programmable.
Combined with EAS-based attestations (@eas_eth) and verification engines (@Kleros_io, @UMAprotocol, ZK verifiers), AEA would form a structured "economic metadata layer" — the structured description layer that lets the onchain economy reason about itself.
In short, AEA-0.1 would turn protocol integrity into a data standard.
That would allow a step change in Ethereum’s composability.
The Ethereum Attestation Service (EAS) (@eas_eth) has become the universal, permissionless registry for structured claims.
What’s missing is a standardized layer between EAS and the specialized verification engines we already have, such as Kleros for decentralized arbitration, UMA’s Optimistic Oracle, zero-knowledge proof verifiers, etc.
I’m proposing that the community explore a new EIP for a Verifiable Attestation Protocol built around two core concepts:
AttestationRouter – A standardized onchain contract (could be implemented as an EAS Resolver) that can aggregate and route attestations from multiple sources. The router’s logic would be driven by a machine-readable verificationSpec provided with each task.
Modular Verification Handlers – A common interface for pluggable verification modules, whether human-driven (Kleros, UMA), cryptographic (ZK proof verifiers), or data-driven (IoT oracle feeds).
EAS already provides the universal ledger. Kleros, UMA, ZK verifiers, and DONs are mature enough to serve as verification modules. A standardized AttestationRouter + handler interface would connect these pieces into a coherent "truth layer" for both objective and subjective verification.
A quick clarification on what this schema would and wouldn’t be.
It wouldn’t attempt to capture every possible action or reaction within a protocol. Its purpose would be narrower: to define what the system is — its boundaries, dependencies, etc — in a standard, machine-readable format.
Detailed modeling and stress testing would still be needed to understand how the system behaves. This schema wouldn’t replace that work; it would give those processes a consistent starting point, so researchers, auditors, and integrators can reason from the same base description instead of rebuilding it each time.
Put another way: it should be designed for consistency rather than completeness, meaning it should not attempt to structure complex, dynamic behaviors.
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