ISTQB Test Automation Engineer + Sample Questions (RETIRED)

Explore the purpose of test automation and its objectives, including API and UI testing approaches, while noting costs, maintenance, and required automation skills.

Explore the success factors in test automation, including architecture aligned with the software product, testability of decoupled components, and a strategy and framework with robust reporting and environment configurations.

Explore chapter one insights on test automation vs manual testing, including how automation shortens execution time and increases coverage, and the importance of a learnable, maintainable, high-performance automation architecture.

Identify factors influencing test automation, including interfaces, APIs, third-party integrations, and architectures. Plan early with defined requirements, environment setup, and automation strategy, even when the application is under development.

Learn how to evaluate and select tools for test automation, guided by the test manager and automation engineer, considering objectives, organizational maturity, cost-benefit ratio, and integration and compatibility.

Design for testability and automation emphasizes observability, controllability, and clear architecture, enabling test interfaces, mocks, validation, and tool integration for robust automated testing.

Investigate automating the interface between a legacy system and a third-party software via API for integration testing. Configure the tool to disable unnecessary features and emphasize observability to verify outcomes.

Introduction to the generic test automation architecture (gTAA) and test development, covering environment setup, task design, reuse, and core principles like single responsibility and abstractions.

Explore the generic test automation architecture, detailing the test generation, definition, execution, and adaptation layers, and how adapters connect tests to APIs and services.

Learn about the gTAA test automation architecture across generation, definition, and test execution layers, including manual test design, model-based generation, test data, tracing, parameterization, and execution logging.

Explore the gTAA test automation architecture, focusing on the test adaptation layer, its tools and adapters, cross-device execution, and configuration and project management for automated testing.

Explore how to design a test automation architecture by capturing requirements, selecting levels and types of tests, and comparing the test generation, definition, execution, and adaptation layers.

Explain how abstraction enables technology independence and vendor-neutral, portable test frameworks, balancing maintainability with cost, and outline levels, interfaces, and interaction paradigms for test execution and environments.

Explore approaches to automating test cases, including capture and playback, linear/structured scripting, keyword-driven, data-driven, and model-based testing, and learn to translate procedures into automated scripts and frameworks.

Explore structured, data-driven, and keyword-driven scripting in test automation architecture and design. Discover how libraries and control scripts enable reusable tests, reduce maintenance, and expand test coverage with data-driven approaches.

Explore process driven scripting and model based testing as approaches to automate test cases, emphasizing workflow scenarios and the benefits and caveats of each method.

Explore the technical considerations of the sut, including test interfaces, internal and external apis, configuration data, and diverse environments to ensure testability and secure, compliant automation.

Define execution control requirements, reporting formats, and security with role-based access in the development and quality assurance process, and map an integrated tool landscape for streamlined test management.

Explore how to align process, team, technology, and tool compatibility between the test automation system and the system under test to ensure effective automation setup and quality.

Coordinate the synchronization between TAS and SUT by aligning requirements and development phases to ensure testing readiness. Map defects to tasks and maintain consistency between requirements, design, and testing.

Explore synchronization between TAS and SUT, detailing two approaches that coordinate task analysis and design with test design and deployment, through a hybrid manual and automated testing framework.

Identify and embed reusable artifacts, such as test models, data, libraries, and adapters, into the TAS, document them, and maintain them to improve maintainability and return on investment.

Explore how test automation supports multiple target system configurations by considering components, environments, technologies, libraries, and tools, and by aligning architecture and versioning for compatible product variants.

Explore sample questions from chapter 3 of the ISTQB test automation engineer course, focusing on test definition versus test execution, test reuse, and process-driven scripting insights.

Identify a suitable project, plan and conduct a pilot, and evaluate outcomes to inform the organization-wide deployment of the test automation tool, guided by metrics, costs, and skills.

Deploy the test automation tool incrementally across the organization after a successful pilot, guiding training, data collection, and lessons learned to optimize processes and mitigate lifecycle risks.

Identify common risk factors in test automation, assess deployment risks for initial and maintenance deployments, and implement mitigation strategies by defining infrastructure, procedures, and adapting tests to version changes.

Explore the four types of maintenance in test automation: preventive, corrective, adaptive, and quality enhancement, and how updates reflect changes in applications and environments.

Explore the scope and approach of test automation maintenance, including layers, components, and impact analysis, and apply best practices for documentation, third-party dependencies, modular design, and environment isolation.

Explore scope and approaches in test automation maintenance, emphasizing easy-to-read naming conventions, comprehensive documentation, and up-to-date training materials to prevent regression and facilitate onboarding.

learn deployment risk and contingencies in chapter four, focusing on maintaining a strong test task through modular design, separate environments, and managing third‑party dependencies within a test automation framework.

Explore how to select TAS metrics, distinguishing external and internal task metrics, and assess automation benefits, effort, logging, and maintenance for test automation.

Explore key TAS metrics, including ratio of failures to defects, time to execute automated tests, and false positives and false negatives, to improve automation efficiency and test coverage.

Analyze the selection of test automation metrics, including code coverage, script quality, defect density, speed, and trend analysis, to assess automation effectiveness across unit, system, and integration testing.

Implement measurements in test automation by using scripting language commands, comparators, and inbuilt tool features, then export data to Excel or XML and visualize results via dashboards and charts.

Capture comprehensive task and SUT logging during test execution, including start/end times, status, parameters, environment, and screenshots, to support failure analysis, reproducibility, and dashboard reporting.

Understand the purpose and contents of automated test reports, including summaries, environment, and failure history. Identify the responsible person and publish reports on dashboards to help stakeholders resolve issues.

Explores sample questions on chapter 5, showing automated test result reporting to a database and dashboards, and collecting execution results to diagnose delays; highlights including the test environment in reports.

Identify criteria for automation, including frequency of use, complexity to automate, and tool compatibility. Assess sustainability and process maturity to plan transitioning from manual to automated testing.

Identify the steps to implement automation within regression testing by analyzing frequency, execution time, data sharing, test interdependency, preconditions, coverage, and validation of manual tests for large suites.

Assess factors for implementing automation in new feature testing, including updating test scripts, aligning with object properties, and evaluating tools and environments to ensure existing tests remain valid.

Automate confirmation testing to verify defect fixes and regression tests within agile, continuous integration environments, using stable configuration and a narrow test scope, and integrate into standard automation workflows.

Prepare for exam with chapter six questions, emphasizing manual test cases as the basis for automated scripts and the role of test designers with domain expertise, plus automated defect confirmation.

Verify automated test environment components by examining tool installation, centralized versus local setups, and configuration needs; ensure repeatable setups and reliable connectivity to internal and external interfaces.

Verify automated test environment components and manage intrusiveness. Explore interfaces and framework reliability to ensure accurate, fast test automation.

Verify the automated test suite before execution by assessing completeness, consistency, and correct behavior; validate pass/fail results, regression tests, test data, environment compatibility, repeatability, verification points, and checkpoints.

Explore sample questions from chapter 7 on test automation, focusing on maintaining consistent automated tests across environments via a centralized repository, verifying test validity, and using known-failure checks.

Explore options for improving test automation by refining scripting approaches such as data driven and keyboard driven, and by strengthening test execution, architecture, and pre and post processing.

Plan the implementation of test automation changes by evaluating environment changes, updating libraries and architecture incrementally, consolidating control functions, standardizing naming, and pruning tests to improve reliability and performance.

explore chapter 8 sample questions on standardizing error recovery in automated tests, update the adaptation layer in the DTA to test via APIs, and incorporate the latest liabilities.