Guide
What is AI testing?
AI testing is the use of AI to create, run and maintain software tests — most often by turning a plain-English description of a flow into a test that drives a real browser. What the term covers, what it does not, and where it still fails.
Last reviewed 29 August 2026
AI testing is the use of artificial intelligence to create, run and maintain software tests. In its most common form today, you describe what should happen in plain English — “log in, add a laptop to the basket, and check the total updates” — and an AI carries that out in a real browser, deciding for itself which elements to click and what a correct result looks like.
That is the short version. The term is used loosely enough that it is worth being precise about what falls inside it.
Two different things are called “AI testing”
The phrase means two almost opposite things, and search results mix them constantly:
- Using AI to test software. The subject of this page. AI writes, runs or maintains tests against an application.
- Testing software that contains AI. A different discipline: evaluating model outputs, checking for hallucination, measuring quality of generated text. This is usually called evaluation or evals.
They share almost no tooling. If you arrived here looking for the second, the tools below will not help you.
What the AI actually does
“AI-powered” is claimed by nearly every testing product now, and it covers at least five separate jobs. Knowing which ones a tool actually does is most of what a comparison is worth.
Authoring. Turning an intention into a test. This is the largest change: instead of a developer writing a script with explicit selectors, someone writes a sentence. It is the reason non-developers can now create tests at all.
Suggesting coverage. Some tools examine an application and propose what is worth testing. Useful when you are starting from nothing and do not know where to begin.
Locating elements. Traditional automation targets an element by a selector — a CSS path or an ID — which breaks when the markup changes. AI approaches identify elements by what they are: the button that submits the form, the field labelled “email”.
Maintenance and self-healing. When the interface changes, something has to update the test. Self-healing repairs a broken locator automatically. Tools that work from a description have less to repair, because the description was never tied to the markup in the first place.
Triage. Reading a failure and saying what probably caused it, rather than handing you a stack trace and a screenshot.
How it differs from traditional test automation
Traditional automation is not going away, and it is not inferior. It is a different trade.
| Code-based automation | AI testing | |
|---|---|---|
| A test is | A script in a programming language | A described outcome |
| Written by | Developers | Anyone who knows the workflow |
| Bound to | The page’s structure — selectors, DOM paths | The intent of the flow |
| When the UI changes | A human updates the selectors | The AI re-interprets the description |
| When it fails | Fully inspectable, fully deterministic | Needs a run history to understand |
| Control | Total | Delegated |
The honest summary of that table: code gives you determinism and demands engineering time. AI gives you speed and access, and asks you to accept that something else is deciding how to carry out your intention.
For a concrete version of this trade-off, see Testmode vs Playwright — Playwright being the strongest example of the code-based approach.
Where AI testing works well
- Regression testing of stable business flows. Checkout, sign-up, search, permissions. High value, tedious to check manually, easy to describe.
- Applications nobody on the team can fully explain. Software generated by AI coding tools, assembled on a low-code platform, or delivered by an outside supplier. You cannot write unit tests for a codebase you do not understand, but you can still describe what it is supposed to do.
- Interfaces that change constantly. A description survives a redesign that would break every selector in a scripted suite.
- Teams with no QA function. This is the largest practical shift. Where the alternative is a person clicking through the site before each release — or nobody checking at all — the comparison is not with a better tool.
Where it still fails
Worth stating plainly, because vendors rarely do:
- Ambiguous expectations. “Check the page looks right” is not a test. If two people would read your sentence differently, so will the AI.
- Pixel-level and canvas interaction. Drag-and-drop, drawing tools, map interactions and games are usually easier to demonstrate by recording than to describe.
- Anything needing an exact assertion. If the requirement is that a value is precisely 1,247.50, say so. Descriptions invite approximation.
- Non-determinism. An AI deciding how to carry out a step can, occasionally, decide differently. Code-based tools are more repeatable, which is exactly why regulated environments still prefer them.
- Audit requirements. If you must evidence precisely what ran, tools built for that — see Testmode vs Virtuoso QA — carry machinery that general-purpose tools do not.
Choosing an approach
Three questions settle most of it.
Who will write the tests? If the answer is developers, code-based frameworks are free, excellent, and fully under your control. If it is a product manager, an operations lead or a founder, plain-English authoring is not a convenience — it is the difference between having tests and not.
What does the tool need before it can help you? Some need a codebase and a pipeline. Some need a QA practice to own them. Some need only a running application and a URL. That constraint, more than any feature list, decides what is realistic for your team.
What happens in six months? Every test suite is a maintenance commitment. Ask what breaks when the interface is redesigned, and who fixes it.
For the tools themselves, sorted by what each one needs from you, see the current roundup of AI testing tools.
Common questions
What is AI testing?
AI testing is the use of artificial intelligence to create, run and maintain software tests. In practice that usually means describing a user flow in plain English and having an AI carry it out in a real browser, rather than writing and maintaining a script for it. Some tools also use AI to suggest what is worth testing, to locate elements when a page changes, and to explain why a test failed.
Is AI testing the same as test automation?
No. Test automation is any automated execution of tests, and it has existed for decades through frameworks like Selenium, Cypress and Playwright. AI testing is a newer layer on top: AI decides how to carry out a described intention, instead of a developer specifying every step and selector in code.
Does AI testing replace QA engineers?
No. It removes the scripting, not the thinking. Deciding what is worth testing, what correct behaviour actually is, and what a failure means are still human judgements. What changes is who can create a test — with plain-English authoring, that is no longer restricted to people who can write code.
Can AI testing be trusted?
For well-described, deterministic user flows it is reliable, and it degrades more gracefully than selector-based automation when an interface is redesigned. It is weaker where the expected outcome is genuinely ambiguous, where a flow depends on pixel-level interaction, or where a description is vague enough to be read two ways. Treat a vague test as the bug.