Gaming-Resistant Insurance Contracts for Autonomous AI Agents: Strategy-Proof Toll Mechanism Design

By Hao-Hsuan Chen

Rating

1367
Battle Count: 50

Relevance

2/10
The paper is primarily about AI agent insurance contract design and mechanism theory, not quantitative trading. However, it shares structural parallels with risk management (VaR/CVaR-like conservative envelopes), portfolio aggregation (common-control aggregation analogous to related-party rules in insurance/reinsurance), and incentive-compatible pricing. The actuarial runtime gate and toll envelope concepts could inform risk-charging mechanisms in algorithmic trading contexts where autonomous agents execute trades, but this is tangential rather than direct.

Implementation Complexity

8/10
The theoretical framework involves multiple interacting theorems (5, 8, 13, 22, 30, 32), a composition contract with six clauses (C1-C6), premium-aware penalty schedules, common-control aggregation maps, and verification protocols. Implementing the full composition contract requires: (1) runtime gate with toll potentials and safe-default enforcement, (2) common-control attribution and aggregate settlement logic, (3) ambiguity-reserve extension for interface failures, (4) escalation adjudication with fee calibration, (5) model-identity verification protocol with detection probability estimation, (6) premium schedule design satisfying IR and BB constraints. The mathematical machinery (super-additivity checks, componentwise minimality proofs, pairwise IC verification) adds significant design complexity.

Reproducibility

3/5
The paper is primarily theoretical with formal proofs. Empirical validation references committed cross-model traces from companion Paper B [9] (arXiv:2605.25632) and Paper A [10] (arXiv:2605.26508). The interface incentive analysis module and Paper B demo bundle (interface_incentive_validation.md) are referenced for reproduction. However, the main theorems are analytical and do not require computational reproduction. The worked example in Section 6 is fully numerical and self-contained.

About this paper

Methodology: Mechanism Design with Contract Theory and Game-Theoretic Analysis. Problem types: Mechanism Design, Risk Management, Optimization, Contract Theory / Principal-Agent Problem, Incentive Compatibility.

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