Operator: A Protocol for Trustless Verification Under Uncertainty
This addresses the challenge of trustless verification for AI agents in dynamic settings, representing a novel approach rather than an incremental improvement.
The paper tackles the problem of ensuring correctness for autonomous AI agents in low-trust environments by proposing a protocol that uses collateralized claims and a recursive verification game, where incorrect agents are penalized and correct opposition is rewarded to make correctness a Nash equilibrium.
Correctness is an emergent property of systems where exposing error is cheaper than committing it. In dynamic, low-trust environments, autonomous AI agents benefit from delegating work to sub-agents, yet correctness cannot be assured through upfront specification or centralized oversight. We propose a protocol that enforces correctness through collateralized claims in a recursive verification game. Tasks are published as intents, and solvers compete to fulfill them. Selected solvers carry out tasks under risk, with correctness checked post hoc by verifiers. Any challenger can challenge a result by staking against it to trigger the verification process. Incorrect agents are slashed and correct opposition is rewarded, with an escalation path that penalizes erroneous verifiers themselves. When incentives are aligned across solvers, challengers, and verifiers, falsification conditions make correctness the Nash equilibrium.