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The AICPA Trust Services Criteria were published in 2017 with revised points of focus in 2022, and they evaluate controls over the security, availability, processing integrity, confidentiality, or privacy of information and systems.
Not one of those five categories names a model, a prompt, or training data, and every SOC 2 report is measured against them.
That gap opens the moment an AI agent starts reading your application. A vendor can hand you a clean SOC 2 Type II report and still have no written position on whether your test fixtures reach a third-party model.
This article maps what an AI testing tool actually sees inside a pipeline, what SOC 2 does and does not attest to, and the specific questions that close the difference before you sign.
TL;DR
SOC 2 attests that a vendor operates controls over security, availability, processing integrity, confidentiality, and privacy. It does not examine how that vendor's AI handles your data, because its criteria predate generative AI. Cover the difference with ISO/IEC 42001, a written model-training statement, and a per-artifact retention schedule.
What Governs AI Testing Data Security?
What Does an AI Testing Agent Read?
Anything rendered in the session it drives: the DOM, network traffic, console output, and every screenshot or video the run produces. TestMu AI publishes both its certification scope and a per-artifact retention schedule so that surface can be audited rather than assumed.
Security reviews of testing tools tend to focus on the login and the network path. The larger exposure is the artifacts a run produces, because a test suite deliberately drives an application into its most data-rich states.
A checkout test has to reach a filled cart. An account test has to reach a populated profile. Whatever is on that screen lands in the recording.
| Artifact | What it typically contains | Why it matters in a review |
|---|---|---|
| Test fixtures and seed data | Account records, addresses, payment tokens, and identifiers copied or shaped from production | Often the only dataset in the pipeline that carries regulated personal data |
| Rendered DOM | Every value visible on screen at the moment the agent inspects the page | An agent resolving elements by intent reads the page content, not just its structure |
| Network logs | Request and response bodies, headers, session tokens, and API payloads | Bearer tokens and full API responses persist long after the run ends |
| Session video and screenshots | A visual record of every populated screen the test reached | Cannot be redacted retroactively, and is the artifact teams forget to scope |
| CI environment | Secrets, API keys, and connection strings injected as variables | Console output echoes them whenever a failure dumps configuration |
Map these five rows against your own pipeline before reading any vendor's report. The exercise tells you which SOC 2 scope questions are worth asking and which are irrelevant to you.
SOC 2 is an attestation that an independent CPA firm examined a service organization's controls against the AICPA Trust Services Criteria. The criteria were established by the AICPA Assurance Services Executive Committee, and they define five categories.
| Category | What it addresses | Relevance to test data |
|---|---|---|
| Security | Protection of systems and information against unauthorized access | The common criteria present in every SOC 2 report |
| Availability | Whether the system is available for operation as committed | Matters for pipeline reliability, not for data exposure |
| Processing integrity | Whether processing is complete, valid, accurate, and authorized | Rarely scoped in, and not a statement about test result correctness |
| Confidentiality | Protection of information designated as confidential | The category that speaks to your fixtures and logs, when it is scoped in |
| Privacy | Handling of personal information through its lifecycle | Relevant when seed data carries regulated personal records |
Only security appears in every report. The other four categories are scoped in by the service organization, which is why two vendors can both display a SOC 2 badge while attesting to very different things.
The AICPA is direct about this. Following allegations about a compliance vendor's SOC practices, it stated that SOC services should be thoroughly evaluated by service organizations and CPA firms. Treat the badge as the beginning of your review.
The Trust Services Criteria are technology-neutral by design, which is a strength for infrastructure and a limitation for AI. A criterion about restricting logical access applies equally to a database and to a model endpoint, and says nothing specific about either.
Four questions sit outside what a SOC 2 report answers, and each one is decided by vendor policy rather than by the audit:
The OWASP Top 10 for LLM Applications 2025 list ranks Sensitive Information Disclosure at LLM02, Supply Chain at LLM03, and Data and Model Poisoning at LLM04.
A testing tool that reads your application and writes to a model touches the top of that list by design. The ranking is a useful agenda for a vendor call, because each entry converts into a question the vendor has to answer concretely.
The same list ranks prompt injection at LLM01, which is a testable property rather than a policy question. Our guide to prompt injection testing covers how to probe for it in your own application.
Three frameworks address what SOC 2 leaves open. They are complements, not alternatives, and a vendor that cites all three is describing a genuinely different posture from one that cites a single badge.
| Framework | What it establishes | How to use it in a review |
|---|---|---|
| ISO/IEC 42001:2023 | Requirements for establishing and improving an AI management system, for organizations that provide or use AI systems | Ask whether the vendor is certified or aligned, and by which body |
| NIST AI RMF | A voluntary framework organized around the Govern, Map, Measure, and Manage functions | Useful vocabulary for a risk conversation; carries no certificate |
| OWASP Top 10 for LLM Applications | The ranked failure modes of LLM-backed systems, including system prompt leakage at LLM07 | Turn each entry into a question the vendor must answer concretely |
ISO/IEC 42001 is the one to lead with, because it is the first AI management system standard and the only one of the three that an independent body can certify against. ISO does not certify organizations itself, so ask which accredited body issued the certificate.
The NIST AI Risk Management Framework was released in January 2023 and is intended for voluntary use.
A vendor describing itself as NIST-aligned is therefore reporting an internal practice, not an external assessment. Draw that distinction out in the call, because the two carry very different weight in a review.
Note: TestMu AI runs AI-assisted testing on infrastructure that is SOC 2 Type II, ISO 27001:2022, and ISO 27701:2019 certified, with a published per-artifact retention schedule and an AI trust page stating that inputs and outputs are never used to train any LLM models. Try it free!
Vendor questionnaires fail when they accept a yes. Each question below has a weak answer that passes a checkbox and a strong answer that is verifiable, and the difference is what a security review should be looking for.
| Ask this | Weak answer | Strong answer |
|---|---|---|
| Are inputs or outputs used to train models? | "We take privacy seriously" | A published statement covering both inputs and outputs, including third-party providers |
| How long is each artifact retained? | "Data is retained per our policy" | A per-artifact schedule naming videos, logs, screenshots, and builds separately |
| Which AI features are in SOC 2 scope? | "We are SOC 2 certified" | The system boundary description from the report, plus the observation period |
| Which model providers are subprocessors? | "We use industry-leading models" | A named subprocessor list with jurisdictions and a change-notification commitment |
| How is customer data isolated? | "Each customer is logically separated" | The concrete mechanism, such as a per-tenant identifier and a dedicated virtual private cloud |
| Can testing stay inside our network? | "We support secure connections" | A documented tunnel for firewalled applications, or an on-premise deployment option |
| Who performs penetration testing? | "We test regularly" | A stated cadence and an external firm, with a summary available under NDA |
The retention row is the one most teams skip and most regret. A 30-day video retention and an indefinite one produce identical answers to every other question on the list.
Vendor selection is half the control. The other half is what you send, and it is the half you own regardless of which platform you pick.
These six controls also make the vendor conversation shorter. A team that already masks its fixtures has far fewer questions riding on the answer about model training.
For test authoring specifically, KaneAI keeps MFA-protected flows testable by generating time-based one-time passwords from a stored secret key, so a shared authenticator device never enters the pipeline. Tunnel support covers locally hosted and firewalled applications without exposing them to the public internet, and proxy configuration controls how test traffic is routed.
Every claim in this section was checked against a live page rather than a sales deck, which is the same method your review should use. A vendor that publishes its posture openly can be verified in minutes; one that only answers under NDA cannot.

Three checks separate a documented posture from a marketing claim, and all three can be run before you ever speak to a sales engineer:
Run those three checks against any shortlisted vendor. Where a page does not exist, that absence is itself the finding, and it belongs in the review notes rather than in a follow-up email.
For teams whose obligations rule out shared infrastructure entirely, a private real device cloud moves execution onto dedicated hardware, which changes the data-residency conversation from a policy question into an architectural one.
Open your current AI testing vendor's trust page and look for three documents: the certification scope, a written statement on model training, and a per-artifact retention schedule. Most reviews stall because the second and third were never requested.
Then map the five artifact types from the first section against your own pipeline and mark which ones carry regulated data today. That map converts a generic questionnaire into a short list of questions that actually decide the purchase.
If you are building the broader programme around this, our guides to security testing and compliance monitoring cover the continuous side, where controls are verified on every build rather than once a year.
Note: AI assistance was used in researching and drafting this article. Sawan Garg, Senior Vice President of Engineering at TestMu AI, whose listed expertise includes Platform Engineering and Distributed Systems, verified every statistic, link, and product claim against primary sources before publication. Sources cited are from primary standards bodies (AICPA, ISO, NIST, and OWASP). Read our editorial process and AI use policy for details.
Author
Sawan Garg is Senior Vice President of Engineering at TestMu AI (formerly LambdaTest), leading platform and infrastructure engineering across the testing cloud. He designed the microservices architecture and databases behind the platform and built the streaming technologies, including VNC, Guacamole, and WebRTC, that deliver live and real-time testing. He also contributed to the distributed proxy-based Tunnel that lets teams test firewall-protected and locally hosted websites. He brings 13+ years of engineering experience across Python, Java, Golang, Node.js, Kafka, Elasticsearch, Redis, and Kubernetes. Sawan holds a B.Tech in Computer Science and Engineering.
Reviewer
Vipul Verma is Group Senior Vice President of Engineering at TestMu AI (formerly LambdaTest), where he heads the entire engineering organization that builds KaneAI, HyperExecute, and the broader testing cloud. He brings 15+ years architecting, securing, and scaling large enterprise applications across multiple sites. Before TestMu AI he was India Head at LogicHub, where he built the India R&D site from the first employee to a 30-plus engineering team, and Principal Software Engineer at Sumo Logic, where he was the first engineer in the India office and shipped search-performance and pricing-model initiatives. Earlier he worked on trading platforms at Portware and D. E. Shaw. Vipul holds a B.Tech in Computer Science from IIT Kharagpur.
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