From QA to QE: Why Mindset, Skillset, and Strategy Matter More Than Ever
1. Introduction: Why the Shift from QA to QE is Critical
In today’s software landscape, traditional Quality Assurance (QA) approaches are struggling to keep pace. Agile, DevOps, and Continuous Delivery demand faster feedback, tighter collaboration, and embedded quality — things QA was never designed for.
This is where Quality Engineering (QE) enters: a proactive, engineering-led approach that ensures quality is not inspected in, but built in.
But QE is not just “QA with automation.” It requires a new mindset, a modern skillset, cross-functional collaboration, and a clear, governed strategy. As the founder of QE Gauge™, I created this platform because I saw a major gap: there’s no formal standard to guide this transition.
Let’s unpack what makes QA and QE fundamentally different — and why QE is the path forward.
2. Mindset: From Gatekeeping to Quality Enabling
Traditional QA mindset: - Reactive: QA kicks in after development is complete. - Siloed: Testers are separate from dev teams and work independently. - Compliance-driven: QA focuses on whether requirements are met, not whether value is delivered. - Ownership avoidance: Defects are seen as someone else’s problem until the QA team catches it.
QE mindset: - Proactive: Quality starts at backlog refinement, not after deployment. - Collaborative: QE engineers sit with developers, BAs, and product owners in the same squads. - Value-focused: QE ensures the right things are tested — and that testing drives business confidence. - Shared responsibility: Developers write testable code, testers co-design test scenarios, and quality becomes a team goal.
Key takeaway: QE transforms testing from an isolated activity into an integrated mindset that accelerates delivery.
3. Skillset: From Manual Testing to Engineering Craft
QA skillset: - Writing and executing manual test cases. - Familiarity with defect management tools (e.g., JIRA, TestRail). - Limited scripting or automation capability. - Reliance on UI-based testing and exploratory techniques.
QE skillset: - Deep understanding of test automation frameworks (e.g., Cypress, Playwright, Tosca). - Ability to test across layers: unit, API, UI, performance, and security. - Knowledge of CI/CD tools and test orchestration in pipelines (e.g., Jenkins, GitLab, Azure DevOps). - Familiarity with mocking, virtualization, test data generation, and synthetic monitoring.
Key takeaway: QE professionals are engineers first — they don’t just test systems, they architect sustainable quality.
4. Collaboration: From Siloed Testing to Embedded Partnership
QA model: - Testers are only involved after development, leading to late feedback and bottlenecks. - Developers “throw code over the wall” to QA. - Communication between testers and developers is minimal and transactional.
QE model: - Testers are embedded in squads, participating in planning, grooming, and design discussions. - Collaboration happens continuously: test scenarios are co-created with developers and product owners. - Feedback loops start early and are maintained throughout the SDLC, including production.
Key takeaway: QE fosters a “test with” rather than “test after” culture — enabling faster releases and fewer surprises.
5. Metrics: From Vanity to Value
QA metrics: - % Test cases passed - Number of test cases executed - Number of defects logged - Bug fix rate
QE metrics: - Defect escape rate: How many bugs reach production? - Mean Time to Detect (MTTD): How fast are we finding issues? - Test debt ratio: How much of our code is under-tested or untested? - Automation coverage by layer: Are we covering unit, integration, and UI layers appropriately? - Pipeline pass rate and test stability: Are flaky tests slowing us down?
According to the World Quality Report 2023–2024: > “Only 38% of organizations say their automation strategy is aligned with business objectives — and fewer than 30% have visibility into quality across the full SDLC.”
This gap shows why vanity metrics fall short — and why quality engineering metrics must reflect risk, speed, and value.
Key takeaway: QE metrics expose systemic risk and drive continuous improvement — not just compliance.
6. Tooling: From Ad Hoc to Purpose-Driven
In QA: - Tool usage is often inconsistent or based on personal preference. - Manual testers rely heavily on spreadsheets, click-through tests, and legacy tools. - There’s little integration with CI/CD pipelines or source control.
In QE: - Tooling is standardized and integrated across the SDLC. - Automation frameworks are scalable, modular, and designed for reusability. - Tools are aligned with a defined strategy and support test data management, service virtualization, performance testing, and observability.
Key takeaway: QE tools are selected because they serve a purpose — to increase feedback speed, reduce risk, and support scale.
7. Enablers: Test Data, Environments & Observability
In QA: - Shared environments lead to unstable test results. - Manual data creation causes delays and inconsistencies. - Lack of production visibility means teams can’t catch issues after release.
In QE: - Test data is generated on demand or via self-service tools. - Test environments are isolated, reproducible, and treated as code. - Observability tools (e.g., Splunk, Datadog) are used for release validation, synthetic tests, and proactive issue detection.
Key takeaway: QE isn’t just about testing — it’s about creating the infrastructure to enable continuous quality.
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8. Strategy: The Most Overlooked Ingredient
Common QA pitfall: “Let’s just automate more tests.”
Without strategy, this leads to: - Redundant test cases - Flaky pipelines - Disconnected tools and teams
What a QE strategy includes: - Vision and principles: What does quality mean for us? - Test architecture: How do we layer tests across unit, API, UI? - Governance: What are our standards for automation, coverage, and code reviews? - Improvement roadmap: How do we move from chaos to maturity?
Key takeaway: QE without strategy is like Agile without a backlog — directionless.
Real-World Example: Strategy That Scaled
At one of South Africa’s largest banks, we faced a common dilemma: > High automation coverage… yet constant production defects and rework.
Our team applied a QE-first strategy by: - Embedding QE engineers into cross-functional squads - Refactoring automation layers (focusing on APIs vs. UI scripts) - Introducing quality gates in the CI/CD pipeline - Tracking escape rate, stability, and test flakiness weekly
Result within 6 months: - 35% reduction in production defects - 2x faster deployment approvals - Increased stakeholder confidence in test coverage and risk visibility
Automation alone didn’t solve the problem. Strategy, alignment, and QE mindset did.
9. Why Are We Still Struggling With QE?
Applying the 5 Whys Root Cause Analysis Let’s look at a common complaint:
Problem: Our test automation isn’t adding value.
- Why 1? - We’re automating the wrong tests.
- Why 2? - There’s no prioritization or test strategy.
- Why 3? - Teams aren’t aligned on what quality means.
- Why 4? - Quality is still seen as QA’s responsibility.
- Why 5? - There’s no shared QE vision or maturity model to guide improvement.
Root Insight: It’s not the tools — it’s the absence of a quality strategy and shared maturity baseline.
10. Why We Created QE Gauge™
Across 20+ years in software delivery and testing, I saw the same pattern: - Teams don’t know where they stand in their QE journey. - Automation is high, but value is low. - There’s no single standard for measuring QE maturity.
That’s why I built QE Gauge™ — a global platform to: - Benchmark across 11 key focus areas (like Test Automation, Observability, NFT, DevSecOps) - Generate a radar chart for maturity insights - Deliver a guided improvement roadmap - Align leadership, delivery, and testing teams around a shared vision
QE Gauge™ isn’t just a self-assessment — it’s a movement to modernize quality, globally.
11. QA vs QE: The Real Differences
❓ Common Objections About QE — And Why They Miss the Point
“Isn’t QE just another word for test automation?” Not at all. QE involves mindset, architecture, metrics, and enabling infrastructure. Automation is just one component.
“Our developers already test. Why add QE?” QE helps design for testability, ensures observability, and builds governance. Dev testing is necessary — not sufficient.
“We don’t have the time to implement a full QE strategy.” You don’t need to. Start with a self-assessment like QE Gauge™ to baseline where you are and focus efforts smartly.
Conclusion: QA Isn’t Dead — But QE Is the Future
QA brought us this far. QE will take us forward.
The world needs faster, safer, and smarter software. That doesn’t happen by adding more testers — it happens by evolving how we engineer quality from the ground up.
If your team is ready to move beyond outdated QA models and build a future-fit quality practice — start with QE Gauge™.
Because quality isn’t just a task. It’s a strategy.
Full-Stack Developer | Node.js, React, Laravel, PHP & Android | Transitioning from Retail to Tech | IST Graduate – Institute of Software Technologies
3moThanks for sharing, Franscois
QA Manager | Java + Selenium + API Expert | Team Leadership | CI/CD | SIT | UAT| Mobile Testing | Open to Senior Roles | Open to Work |Immediate Joiner
3moGreat article - more insightful , definitely QE is the path forward ,,,
De-Risking Launches | Bridging QA & Business Growth 🚀 at Cleverix
3moGreat article - captures the frustration of being a "gatekeeper" instead of enabling quality. The shift from vanity metrics (test cases passed) to value metrics (defect escape rate, MTTD) makes so much sense. Your bank example showing a 35% reduction in production defects is compelling proof that this works. The emphasis on strategy before automation resonates - I've seen too many teams automate everything without thinking through the purpose or architecture. Two quick questions for someone considering this transition: For legacy systems not built for testability, do you start with automation around existing code, or is refactoring a prerequisite? With embedded QE in squads using different tech stacks - do QE engineers need to be generalists across all technologies, or do you create specialized roles? Thanks for the practical insights instead of just theory!