One thing you’ll start to notice as you shop around is that, broadly, browser testing tools advertise a similar set of features.
Low-code testing? Check. Auto-healing? Check. AI agents? Check.
This means that you’ll need to dive into the detail to distinguish between them – how do the autohealing features work? What method of low-code test creation does a particular tool rely on?
Different methods have their strengths and limitations, depending on the context in which you’re using them. Here’s a top-level summary of where modern browser testing tools work – and where to tread lightly.
What do we mean by ‘works for your team’? Let’s clarify.
Any browser testing tool worth investing in (your budget if proprietary; hours of setup and customization if open source) should help you achieve the following:
How much of an improvement could you see?
To put some numbers on it, we’re talking running your daily test executions in 30 minutes, or scaling up to 80% test coverage in just two days.
Those numbers aren’t hypothetical. They are real-world results, achieved by engineering teams just like yours. That’s why it’s so important to make the right choice when it comes to browser testing tools.
Let’s get into the details of three of the most in-demand browser testing features – which aspects work, and where their uses might be limited.
‘Low-code’ testing covers a wide array of testing methods. The best fit for you will depend on your team and your internal processes, but some methods are significantly quicker than others.
Natural language tools
These let you write tests in plain English, for example ‘navigate to the login page and log in as an admin user’. It’s as simple as that, and will save your engineers hours of tinkering – we think it’s the fastest low-code testing method out there.
Some tools will convert these instructions into code (Playwright or Selenium). Tread carefully with these, as they risk technical debt from AI generated code, bloated automation repo, and brittle tests with static selectors, flows, and assumptions.
To really get the most out of natural language test generation, look for a solution that interprets your instructions at runtime via its own execution engine. This keeps tests efficient, robust, and able to adapt dynamically to UI changes. Bonus points for transparency for business stakeholders too.
Reusable components (modular test building)
Some low-code tools use ‘test blocks’ or reusable components, often as part of a drag-and-drop interface.
These work well for login flows and reusable navigation patterns, as well as regular input sequences (such as forms), but may create tangled dependency webs. They are less flexible than natural language tools, and test creation takes longer – you can create custom blocks, but you’ll need to spend time coding to do so.
Record-and-playback/record-and-refactor
Record yourself performing an action (or series of actions) to create a test. Some browser testing tools generate readable scripts or flows that you can refactor.
This is a fantastic method for non-engineers to build tests, as coding requirements or experience with test logic isn’t required – you simply perform an action on your app as a user would. However, they are much less easy to use when you’re testing complex logic (such as API validation) or repeated updates to dynamic components.
Auto-healing aims to fix broken selectors without human intervention. Platforms implement this in different ways – it’s important to be aware of the strengths and limitations of each.
Intent-based locators
Intent-based locators add stability for tests. When the UI changes (for example, a button moves or its structure shifts), the AI tries to resolve the description to the correct element, so the test doesn’t break, as long as the intent holds.
These are significantly more robust options than traditional CSS/X-Path locators, as they are DOM-independent. Testing tools with intent-based locators also remember successful element resolutions, so future runs are more stable and consistent.
Fuzzy matching (similarity scoring on DOM nodes)
Fuzzy matching heals your tests by finding the closest match based on string similarity, DOM distance, or textual cues. Some tools use ML models to estimate ‘intent’ more accurately.
Fuzzy matching works well for text changes and near-structure changes (such as button shifts within the same container). On the other hand, it has the potential to fail where elements have similar names, or where interactions require precision (such as dropdown menus).
Visual anchors (image-based or DOM-relative visual context)
Some systems anchor elements based on surrounding text, icons, or screenshot snippets.
These work well for high-consistency UIs and tests involving visual UI elements, such as buttons, icons, and banners. You may run into issues testing responsive layouts, apps with theming or dark modes, and also in potential localization scenarios.
Smart/dynamic/auto waits
Automated waits are a way to navigate dynamic content on web app pages – such as animation or ads loading – and avoid flaky timing issues and false test results.
Basic sleep or fixed wait tools are of limited use here. Instead, look for browser testing tools that use AI-based ‘smart’ or ‘dynamic’ waits – these monitor navigation events, DOM changes, and network activity to decide when it’s safe to move on to the next step.
Agentic AI can autonomously generate tests, explore flows, or triage failures. There’s a lot of hype around AI agents at the moment – make sure you cut through this and keep focused on the actual value to your organization.
AI-generated test suggestions from user stories
AI agents can read specs, PR descriptions, or Gherkin files and generate suggested test cases.
This is a handy little tool for expanding your scenario coverage quickly – but its success will depend on your team’s discipline around logging requirements and specs.
Clean user stories and precise requirements? You’ll have no problem.
Running on vague requirements, or working in an organization where requirements are implicit, tribal knowledge? You won’t find as much value.
Autonomous exploratory navigation
Some AI agents can virtually click through your app to map reachable paths. This is ideal for early exploratory testing, identifying dead links or broken flows, and generating early-stage tests for new features.
At this point, you probably don’t want to use them for complex apps and workflows, with multi-step logic or an understanding of business rules. The tech is evolving very quickly, however – watch this space.
AI-based debugging and failure summarization
Your junior devs’ dreams, answered. AI agents can inspect logs, screenshots, and console errors to suggest root causes for defects and test failures.
Generally speaking, AIs are very, very good at this. You’ll be able to identify missing selectors, network failures, and slow responses in a fraction of the time it takes to manually debug a test.
As with any technology, there are some edge cases where AI agents won’t work as well – avoid reliance on them for nuanced logic errors or cross-service failures that require deep domain understanding.
"It’s like giving someone your QA checklist and watching them execute it for you"
Sriram Sundarraj (Engineering Lead, Retool)
We’re not exaggerating – Momentic’s AI testing features really are that powerful. That’s why Retool managed to 4x their release cadence and save over 40 engineering hours per month.
Want to join them? Book a demo today to take your test speed to the next level.