Defects caught at commit cost a fraction of defects caught in production. We build AI-powered test automation, performance, security, and accessibility validation into every stage of your delivery pipeline so your team ships with confidence.
Enterprise Customers
What shifts when quality is built in
Automated regression runs on every commit. Broken builds surface in minutes, not after a release cycle. Your team merges with confidence.
Throughput and latency baselines are validated in the pipeline. Traffic spikes stop being surprises you've already tested against them with k6, JMeter, and Gatling.
SAST, DAST, and dependency scanning run continuously. Vulnerabilities are caught at code level, not in a quarterly pen-test report.
Testing capabilities at a glance
Five testing disciplines, one unified strategy from a single commit to production.
Playwright · Cypress · Selenium
WebdriverIO · TestCafe
Cucumber · SpecFlow · pytest
Cross-browser · BDD · E2E
Postman · RestAssured · Karate
SoapUI · Pact · WireMock
Newman · Hoverfly
Contract · Schema · Events
k6 · JMeter · Gatling
Locust · Artillery · Taurus
Lighthouse · BlazeMeter
OWASP ZAP · Burp Suite
Snyk · SonarQube · Checkmarx
SAST · DAST · SCA
Appium · Espresso · BrowserStack
Axe · Percy · Applitools · Pa11y
Capabilities
Comprehensive coverage of user flows and business rules, running on every commit. Playwright leads our cross-browser automation suite supporting Chromium, Firefox, and WebKit with a single API.
Microservices fail at the seams. We validate contracts, schemas, and data integrity between services before they’re wired together catching integration drift early.
Performance isn’t a feature you add before launch. We set baselines early, validate against real traffic profiles, and wire alerting into the pipeline so degradation is caught before users feel it.
A security test at the end of a release cycle is an audit. We shift security left scanning code, dependencies, containers, and running applications continuously.
Mobile and accessibility are still afterthoughts in many delivery cycles. We fold them into the same automation discipline applied everywhere else real devices, real standards.
Our approach
LLM-powered models generate test cases from user stories, API schemas, and code diffs cutting the time from feature to coverage.
When UI elements change, AI-driven locator strategies self-repair. Maintenance overhead the main reason automation suites are abandoned drops significantly.
ML models trained on your defect history select the tests most likely to catch failures for any given commit the full suite runs only when warranted.
AI-based visual testing understands what constitutes a real regression versus a rendering difference fewer false positives, more genuine signal across browsers and viewports.
AI analysis of test history identifies flaky tests and common failure patterns converting noise into actionable signal your team can close out.
Static and runtime analysis mapped against AI risk profiles surfaces untested code paths prioritised by actual change frequency and defect proximity.
Platforms & tooling
Quality engineering builds testing, including functional, performance, security, and accessibility validation, directly into every stage of the delivery pipeline, rather than treating quality as a separate phase that happens after development is complete. Traditional QA typically tests a build after it's done; quality engineering catches defects at commit, which costs a fraction of catching the same defect once it reaches production.
Self-healing test automation uses AI-driven locator strategies to automatically repair test selectors when UI elements change, instead of a test failing and requiring a developer to manually update it. This matters because ongoing maintenance overhead is the main reason automated test suites get abandoned over time, so reducing that overhead is what keeps a test suite useful months or years after it's first written.
Predictive test selection uses machine learning models trained on an application's defect history to identify which tests are most likely to catch a failure for a given code change, so the full test suite only runs when it's actually warranted. This is different from running every test on every commit regardless of what changed, which becomes slow and expensive as a test suite grows.
SAST (static application security testing) analyzes source code for vulnerabilities without running the application, DAST (dynamic application security testing) tests a running application by simulating attacks against it, and SCA (software composition analysis) scans third-party dependencies for known vulnerabilities. Running all three continuously in the pipeline catches vulnerabilities at the code and dependency level, rather than relying on a periodic penetration test after the application is already in production.
AI-powered test generation uses large language models to create test cases directly from user stories, API schemas, and code diffs, reducing the time between a feature being built and it having test coverage. This is paired with visual AI comparison, which distinguishes a genuine visual regression from a harmless rendering difference between browsers, reducing false positives that would otherwise require manual review.
Yes, performance engineering validates throughput and latency baselines directly in the CI/CD pipeline using tools like k6, JMeter, and Gatling, so traffic spikes and load-related issues are tested against before a release ships rather than discovered during a real spike. This turns performance from a reactive incident response problem into something checked automatically on every relevant change.
Where these capabilities apply
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