Insurers lack the historical loss data required to price novel AI risks. The solution is to use red teaming and systematic evaluations to create a large pool of "synthetic data" on how an AI product behaves and fails. This data on failure frequency and severity can be directly plugged into traditional actuarial models.
To ensure AI reliability, Salesforce builds environments that mimic enterprise CRM workflows, not game worlds. They use synthetic data and introduce corner cases like background noise, accents, or conflicting user requests to find and fix agent failure points before deployment, closing the "reality gap."
Existing policies like cyber insurance don't explicitly mention AI, making coverage for AI-related harms unclear. This ambiguity means insurers carry unpriced risk, while companies lack certainty. This situation will likely force the creation of dedicated AI insurance products, much as cyber insurance emerged in the 2000s.
The model combines insurance (financial protection), standards (best practices), and audits (verification). Insurers fund robust standards, while enterprises comply to get cheaper insurance. This market mechanism aligns incentives for both rapid AI adoption and robust security, treating them as mutually reinforcing rather than a trade-off.
To test complex AI prompts for tasks like customer persona generation without exposing sensitive company data, first ask the AI to create realistic, synthetic data (e.g., fake sales call notes). This allows you to safely develop and refine prompts before applying them to real, proprietary information, overcoming data privacy hurdles in experimentation.
While foundation models carry systemic risk, AI applications make "thicker promises" to enterprises, like guaranteeing specific outcomes in customer support. This specificity creates more immediate and tangible business risks (e.g., brand disasters, financial errors), making the application layer the primary area where trust and insurance are needed now.
Instead of using sensitive company information, you can prompt an AI model to create realistic, fake data for your business. This allows you to experiment with powerful data visualization and analysis workflows without any privacy or security risks.
To improve the quality and accuracy of an AI agent's output, spawn multiple sub-agents with competing or adversarial roles. For example, a code review agent finds bugs, while several "auditor" agents check for false positives, resulting in a more reliable final analysis.
Insurers like AIG are seeking to exclude liabilities from AI use, such as deepfake scams or chatbot errors, from standard corporate policies. This forces businesses to either purchase expensive, capped add-ons or assume a significant new category of uninsurable risk.
AI and big data give insurers increasingly precise information on individual risk. As they approach perfect prediction, the concept of insurance as risk-pooling breaks down. If an insurer knows your house will burn down and charges an equivalent premium, you're no longer insured; you're just pre-paying for a disaster.
The approach to AI safety isn't new; it mirrors historical solutions for managing technological risk. Just as Benjamin Franklin's 18th-century fire insurance company created building codes and inspections to reduce fires, a modern AI insurance market can drive the creation and adoption of safety standards and audits for AI agents.