The Commonplace
Home Papers Evidence Explore Trends Syntheses Digests About 🎲 Workforce Futures
← Papers
Direction, evidence grade, and study type are AI-generated labels (gpt-5-mini), not human-verified. Syntheses are LLM-written. "Tensions" are machine-detected candidates, not confirmed contradictions. A research-acceleration tool, not peer review. How this is built →

Insurance can unlock a multi‑trillion dollar AI agent economy, but current silent coverage and rising correlated risks mean coverage must be redesigned; industry-wide standards, pooled instruments and government backstops are needed to enable billion-dollar affirmative policies and manage catastrophic AI scenarios.

Underwriting the Agent Economy: The Blueprint for an AI Insurance Stack
Cristian Trout, Sanmi Koyejo, Sasha Romanosky, Giorgio Ripamonti, Lynn Thompson, Desiree Spain, A. J. Taylor, Kevin Casey, Stephen Casper, Matthew Botvinick, Sean McGregor, Miles Brundage, A J Cooper, Patricia Paskov, Adrien Ecoffet, Ben Bucknall, Ke Wei, Markus Anderljung, Lukasz Szpruch, Bri Treece, Tom Zick, Gabriel Weil, Ugur Ozer, Kevin Kalinich, Jesus Gonzalez, Vitaly Baranov, Moran Koren, Guy Laban, Gil Arazi, Henri Winand, Derek Blum, Toby Clowes, Adam Kleinman, Anita Srinivasan, Tom Fehring, Rune Kvist, Rajiv Dattani · July 13, 2026 · arXiv (Cornell University)
openalex commentary n/a evidence 7/10 relevance Full text usable extracted full text Source PDF

Structured author observations

Linked only from stored provider relations; the raw author line above is never matched by name.

OpenAlex

Latest observation:

  1. Trout, Cristian provider ID
  2. Koyejo, Sanmi provider ID
  3. Romanosky, Sasha provider ID
  4. Ripamonti, Giorgio provider ID
  5. Thompson, Lynn provider ID
  6. Spain, Desiree provider ID
  7. Taylor, Alex provider ID
  8. Casey, Kevin provider ID
  9. Casper, Stephen provider ID
  10. Botvinick, Matthew provider ID
  11. McGregor, Sean provider ID
  12. Brundage, Miles provider ID
  13. Cooper, A. Feder exact ORCID
  14. Paskov, Patricia provider ID
  15. Ecoffet, Adrien provider ID
  16. Bucknall, Ben provider ID
  17. Wei, Kevin provider ID
  18. Anderljung, Markus provider ID
  19. Szpruch, Lukasz provider ID
  20. Treece, Bri provider ID
  21. Zick, Tom provider ID
  22. Weil, Gabriel provider ID
  23. Ozer, Ugur provider ID
  24. Kalinich, Kevin provider ID
  25. Gonzalez, Jesus provider ID
  26. Baranov, Vitaly provider ID
  27. Koren, Moran provider ID
  28. Laban, Guy provider ID
  29. Arazi, Gil provider ID
  30. Winand, Henri provider ID
  31. Blum, Derek provider ID
  32. Clowes, Toby provider ID
  33. Kleinman, Adam provider ID
  34. Srinivasan, Anita provider ID
  35. Fehring, Tom provider ID
  36. Kvist, Rune provider ID
  37. Dattani, Rajiv provider ID

Semantic Scholar

Latest observation:

  1. Cristian Trout provider ID
  2. Sanmi Koyejo provider ID
  3. S. Romanosky provider ID
  4. G. Ripamonti provider ID
  5. Lynn Thompson provider ID
  6. D. Spain provider ID
  7. A. Taylor provider ID
  8. Kevin Casey provider ID
  9. Stephen Casper provider ID
  10. Matthew Botvinick provider ID
  11. Sean McGregor provider ID
  12. Miles Brundage provider ID
  13. A. Cooper provider ID
  14. Patricia Paskov provider ID
  15. Adrien Ecoffet provider ID
  16. Ben Bucknall provider ID
  17. Kevin Wei provider ID
  18. Markus Anderljung provider ID
  19. Lukasz Szpruch provider ID
  20. Brian P. Treece provider ID
  21. Tom Zick provider ID
  22. G. Weil provider ID
  23. U. Ozer provider ID
  24. Kevin Kalinich provider ID
  25. J. González provider ID
  26. V.M. Baranov provider ID
  27. Moran Koren provider ID
  28. Guy Laban provider ID
  29. Gil Arazi provider ID
  30. Henri Winand provider ID
  31. Derek Blum provider ID
  32. Toby Clowes provider ID
  33. Adam Kleinman provider ID
  34. Anita Srinivasan provider ID
  35. T. Fehring provider ID
  36. Rune Kvist provider ID
  37. Rajiv Dattani provider ID
The report argues that building an industry-wide insurance infrastructure—covering data collection, catastrophe modeling, standards, contract design, pricing, monitoring, and claims management—can make affirmative AI agent coverage in the billions feasible by 2030, but requires coordinated public–private mechanisms to manage tail risks.

Citation observations

Cumulative provider counts captured on specific dates; providers are never combined.

From maritime trade to commercial nuclear power, insurance has been the enabler of major economic and technological developments by pricing risk, limiting downside, and spreading best practices. The emerging AI agent economy, projected to handle trillions of dollars in transactions by 2030, looks to be the next such development. Yet insurers' exposure to AI agent risk currently sits largely unpriced across existing insurance lines; between this silent coverage and growing exclusions, coverage is not fit for purpose. Furthermore, insurability is trending the wrong way: AI agent capabilities appear to be outpacing reliability, leading to rising incident severity; concentration among a few foundation model providers threatens correlated losses; and traditional actuarial modeling will struggle to keep pace with a technology evolving as rapidly as frontier AI. This report argues that affirmative AI coverage with limits in the billions is achievable by 2030, but only with industry-wide coordination. Drawing on successful historical precedents such as Underwriters Laboratories, the Closed Claims Project, and others, we lay out an eight-component AI insurance stack spanning incident data collection, catastrophe modeling, standards, contract design, risk selection, pricing, monitoring, and claims management. Building out this infrastructure is what will enable insurers to cover and manage AI agent risk sustainably and at scale. Finally, we discuss coverage for catastrophic risk from frontier AI ("AI CAT"), including CBRN, critical infrastructure collapse, and loss of control scenarios. Addressing these tail risks will require purpose-built instruments, potentially including a frontier model developer mutual, catastrophe bonds, bespoke liability regimes, and government backstops.

Summary

Main Finding

A coordinated, multi-part "AI insurance stack" is necessary to make the emerging AI agent economy insurable at scale. Without industry-wide data sharing, new standards, forward-looking underwriting tools, and public-private backstops, insurers will either silently carry rapidly growing, correlated exposures or retreat — either outcome risks stalling responsible adoption or producing catastrophic economic losses. With timely coordination, affirmative AI coverage (with limits in the billions) is achievable by ~2030; without it, systemic accumulation and tail risks will overwhelm conventional insurance mechanisms.

Key Points

  • Role of insurance: Historically enabled major technologies by limiting downside, creating incentives for best practices, and compensating harmed parties. AI agents are the next such domain.
  • Current gap: Most frontier AI agent risk is currently "silent coverage" hidden inside cyber, professional, and general liability policies and largely unpriced.
  • Rapid adoption & concentration: Enterprise frontier AI spend rose >300% in 2025; >80% of deployments rely on three foundation model providers — creating strong concentration and accumulation risk.
  • Deteriorating insurability: Agent capabilities are improving faster than reliability; incident severity upper bounds appear to be rising (examples from hallucinated policy errors to wrongful-death events). AI agents are dynamic risks that may outpace traditional actuarial approaches.
  • Eight-component AI insurance stack: recommended components are (1) incident data collection & analysis, (2) accumulation risk research & CAT modeling, (3) standard setting, (4) contract design, (5) risk selection & evaluation, (6) pricing, (7) ongoing loss control & monitoring, and (8) incident response & claims management.
  • Coordination & public goods: Many stack components are complements or public goods (shared incident DB, CAT scenarios, standards, model policy language); cold-start problems make industry coordination and government roles important.
  • Historical precedents: Insurers previously created Underwriters Laboratories and pooled closed-claims datasets to manage new risks — similar institutions are recommended for AI.
  • Tail solutions: Societal-scale frontier risks (CBRN-like, systemic infrastructure collapse, loss-of-control scenarios) will need alternative risk transfer: mutuals, catastrophe bonds, bespoke liability regimes, and government backstops.
  • Macro risk: A relatively limited direct-loss catastrophe (order ~$100 billion) could cascade into multi-trillion GDP losses if it triggers economic slowdown and broad withdrawal of insurance (analogy to post-9/11 effects on terrorism insurance).

Data & Methods

  • Multi-method synthesis: the report combines literature review, historical analogy, industry surveys/consultations, and empirical indices to characterize risk and inform recommendations.
  • Incident-to-usage analysis: authors construct an incident index and a usage index (see Appendix 1) to estimate trends in incidents relative to frontier-AI usage; sensitivity analyses (e.g., leave-one-out bands) are used to test robustness.
  • Market measures: uses observed enterprise spending growth (reported >300% in 2025) and market-concentration statistics (foundation model provider dependence).
  • Qualitative evidence: interviews, industry questionnaires (e.g., Lloyd’s underwriters surveyed on perceived policyholder preparedness), and case examples of incidents (ranging 2022–2025) to illustrate rising severity and heterogeneity in harms.
  • Scenario and risk-modelling prescriptions: recommends developing formal AI catastrophe scenarios and accumulation models (single-point failures, supply-chain concentration, emergent multi-agent failure modes) though the report does not present final CAT models itself.
  • Comparative institutional analysis: examines prior insurance-market solutions (Underwriters Laboratories, Closed Claims Project, cyber insurance lessons, post-9/11 terrorism insurance) to derive governance and structural recommendations.

Implications for AI Economics

  • Pricing and markets
    • Need for new pricing inputs: forward-looking performance evaluations (red-team/pen-test-style scores), standardized proposal forms, and continuous monitoring must be integrated into premium-setting to avoid adverse selection.
    • Rapid capability improvement implies actuarial histories will be a weaker signal; insurers should rely more on real-time/forward assessments and model-based stress testing.
    • Concentration in model providers creates strong positive correlation in losses, requiring explicit accumulation loadings, reinsurance, and novel market instruments.
  • Investment and adoption
    • Robust insurance lowers adoption risk and thus accelerates productive diffusion of AI agents; conversely, failure to create credible coverage could materially slow uptake and investment.
    • Insurance can create incentives for safety investments (underwriting-backed standards and discounts), aligning private incentives with social risk reduction.
  • Market structure and public goods
    • The sector faces a collective-action problem: many crucial assets (incident databases, CAT scenarios, standards, accredited auditors) are public goods. Without coordination, private markets may under-supply these, producing market failure or fragile equilibria.
    • Government and regulatory roles are pivotal: mandatory disclosure rules for severe incidents, support for anonymized reporting systems (NIST-like), backstops or reinsurance for systemic tail events, and guidance on recognizing private standards.
  • Systemic and macroeconomic risk
    • AI-related catastrophes have non-linear macro impacts because of amplification via lack of insurance, financial stress, supply-chain effects, or confidence shocks — making conventional micro-insurance solutions insufficient for extreme tails.
    • Policy instruments (government backstops, cat bonds, industry mutuals) will be needed to transfer systemic tail risk; their design will shape incentives and distributional outcomes across firms and consumers.
  • Competition and concentration
    • As insurers require more granular telemetry and model-level controls, large model providers and well-resourced enterprise adopters may obtain better terms — potentially increasing incumbency advantages and raising barriers for smaller entrants unless standards and access are managed equitably.
  • Regulatory economics and legal frameworks
    • Clearer legal rules and model policy language reduce ambiguity and litigation cost; regulators can accelerate market formation by endorsing standards, requiring incident reporting, and curtailing silent coverage.

Summary recommendation (economic takeaway): creating a functional AI insurance market is both feasible and necessary to unlock the economic benefits of AI agents. Doing so requires coordinated investment in shared data, CAT modeling, prescriptive standards, and novel risk-transfer mechanisms; absent that coordination, market failures and systemic tail risks could impose outsized macroeconomic costs.

Assessment

Paper Typecommentary Evidence Strengthn/a — The report is a policy/industry commentary synthesizing historical analogies, expert judgment, and qualitative analysis rather than presenting new empirical causal evidence or statistical estimation. Methods Rigorn/a — No formal empirical methods, experimental design, or econometric identification are applied; the report relies on narrative reasoning, precedent case studies, and scenario-based argumentation. SampleA qualitative, synthetic industry report drawing on historical precedents (e.g., Underwriters Laboratories, Closed Claims Project), sectoral insurance practice, projections of an 'AI agent economy' through 2030, and conceptual analysis of foundation model concentration and AI incident dynamics; no original microdata or econometric sample. Themesgovernance adoption innovation org_design GeneralizabilityPredictions rely on forward-looking projections to 2030 that are inherently uncertain, Analogies to past industries (maritime, nuclear) may not map cleanly to rapidly evolving frontier AI, Regulatory and legal environments differ across jurisdictions, limiting transferability of proposed instruments, Heterogeneity across insurers and firms (size, risk appetite, tech exposure) constrains one-size-fits-all applicability, Lacks empirical calibration to event frequencies and severities, so quantitative scalability is uncertain

Claims (11)

ClaimDirectionOutcomeConfidence & EvidenceDetails
Insurance has been the enabler of major economic and technological developments (from maritime trade to commercial nuclear power) by pricing risk, limiting downside, and spreading best practices. Innovation Output positive enabling major economic and technological developments
Reading fidelity high
Study strength medium
not reported
0.06
The emerging AI agent economy is projected to handle trillions of dollars in transactions by 2030. Firm Revenue positive transaction volume / market size of AI agent economy
Reading fidelity high
Study strength speculative
trillions of dollars by 2030
0.01
Insurers' exposure to AI agent risk currently sits largely unpriced across existing insurance lines. Market Structure negative pricing (or lack thereof) of insurer exposure to AI agent risk
Reading fidelity high
Study strength low
not reported
0.03
Between silent coverage and growing exclusions, coverage is not fit for purpose for AI agent risk. Market Structure negative adequacy/fitness of insurance coverage for AI agent risk
Reading fidelity high
Study strength low
not reported
0.03
Insurability is trending the wrong way: AI agent capabilities appear to be outpacing reliability, leading to rising incident severity. Ai Safety And Ethics negative incident severity and reliability of AI agents
Reading fidelity high
Study strength low
not reported
0.03
Concentration among a few foundation model providers threatens correlated losses. Market Structure negative risk of correlated losses due to provider concentration
Reading fidelity high
Study strength medium
not reported
0.06
Traditional actuarial modeling will struggle to keep pace with a technology evolving as rapidly as frontier AI. Organizational Efficiency negative effectiveness/adequacy of traditional actuarial modeling
Reading fidelity high
Study strength low
not reported
0.03
Affirmative AI coverage with limits in the billions is achievable by 2030, but only with industry-wide coordination. Adoption Rate positive availability of high-limit (billions) affirmative AI insurance coverage
Reading fidelity high
Study strength speculative
limits in the billions by 2030
0.01
The report lays out an eight-component AI insurance stack spanning incident data collection, catastrophe modeling, standards, contract design, risk selection, pricing, monitoring, and claims management. Governance And Regulation positive existence of an eight-component infrastructure stack for AI insurance
Reading fidelity high
Study strength low
not reported
0.03
Building out the AI insurance infrastructure is what will enable insurers to cover and manage AI agent risk sustainably and at scale. Adoption Rate positive insurers' ability to cover and manage AI agent risk sustainably and at scale
Reading fidelity high
Study strength speculative
not reported
0.01
Addressing catastrophic tail risks from frontier AI (AI CAT), including CBRN, critical infrastructure collapse, and loss of control scenarios, will require purpose-built instruments such as a frontier model developer mutual, catastrophe bonds, bespoke liability regimes, and government backstops. Governance And Regulation positive feasibility/adequacy of instruments to address catastrophic frontier AI risks
Reading fidelity high
Study strength speculative
not reported
0.01

Notes