Exam Syllabus Contents
Block 1: Core Software Testing Concepts
4 objectives covered by the block → 6 exam items
Objective 1.1 – Understand the Definition and Purpose of Software Testing
- Define software testing as the process of verifying that software meets its intended requirements.
- Explain why software testing is critical for identifying defects and improving software quality.
- Explore key traits of testing, such as defect detection, failure prevention, and quality feedback.
- Discuss the limitations of testing, including the impossibility of proving the absence of all defects.
Objective 1.2 – Understand the Relationship Between Errors, Defects, and Failures
- Explain the chain of issues: errors (human mistakes), defects (bugs), and failures (incorrect software behavior).
- Use real-world examples to demonstrate how defects can cause failures in software systems.
- Examine how testing breaks the chain by detecting defects early, preventing failures.
Objective 1.3 – Understand the Role of Testing in the Software Development Lifecycle
- Evaluate the risks of not testing software, including financial loss, damage to customer trust, loss of reputation, legal liabilities, and potential safety risks.
- Explain how software testing, particularly automated testing, improves development efficiency and product quality.
- Discuss the long-term cost benefits of early defect detection in reducing support costs after release.
- Compare how testing is handled in different development methodologies: Waterfall (late-stage testing), Agile (continuous testing), and DevOps (automated testing throughout).
- Apply the concept of Shift-Left Testing, where testing is introduced early to catch issues before they become costly to fix.
- Assess the advantages and challenges of continuous testing in fast-paced Agile and DevOps environments.
- Explore challenges faced by testers, including limited time, resources, and constantly changing project requirements.
- Discuss the importance of close collaboration between analysts, designers, testers, developers, and product owners to ensure software quality.
- Evaluate how testers contribute to the development process by writing automated tests, performing manual tests, and identifying high-risk areas of code.
Objective 1.4 – Explain how data is stored and organized.
- Describe how testing helps identify defects but cannot ensure perfection.
- Discuss why it’s important to focus testing on critical and high-risk areas.
- Analyze how focusing on specific areas of the software during testing can lead to more efficient defect detection.
- Examine how evolving test cases and strategies over time ensures that tests remain effective in identifying issues.
- Assess whether the testing strategy incorporates early detection of defects, risk-based prioritization, and appropriate resource allocation.
- Determine if the testing strategy is adaptable to different contexts and software types.
- Design a testing workflow that prioritizes early testing and focuses on the areas most likely to contain defects.
- Update testing procedures regularly to ensure that defects are consistently identified and addressed.
Block 2: Software Testing Types, Levels, and Processes
6 objectives covered by the block → 8 exam items
Objective 2.1 – Understand the Types of Software Testing and Apply Them Appropriately
- Define manual and automated testing, explaining when each is appropriate based on the project's needs, goals, and resources.
- Differentiate between functional testing and non-functional testing.
- Apply manual testing for exploratory, creative tasks and automated testing for repetitive, high-volume tasks like regression testing or frequent validation.
- Evaluate how different types of testing contribute to ensuring software quality throughout the development lifecycle.
Objective 2.2 – Understand and Apply the Levels of Testing
- Explain the levels of testing, including unit testing, integration testing, system testing, and acceptance testing.
- Apply each level of testing in scenarios such as verifying a module in isolation (unit testing) or ensuring end-to-end functionality across the entire application (system testing).
- Analyze the importance of these levels in catching defects early and preventing issues in later stages of the development cycle.
Objective 2.3 – Understand the Test Pyramid and its Role in Efficient Test Strategy
- Define the Test Pyramid and explain how it guides an efficient testing strategy by emphasizing more unit tests (fast and inexpensive), fewer integration tests, and the least number of end-to-end tests (slower, more costly).
- Apply the Test Pyramid approach to prioritize testing activities based on cost and efficiency, ensuring that the majority of tests focus on small, fast units.
- Analyze real-world applications of the Test Pyramid in agile development, where continuous testing is critical.
Objective 2.4 – Understand the Testing Process and Apply Structured Approaches
- Define the key phases of the testing process: Test Planning, Test Design, Test Environment Setup, Test Execution, Test Reporting, and Test Closure.
- Apply the steps of the testing process to plan and execute comprehensive test strategies for software projects.
- Evaluate how following a structured process ensures that tests are comprehensive, that defects are identified early, and that testing efforts are well-documented for future reference.
Objective 2.5 – Understand and Create Effective Test Documentation
- Define and explain the purpose of core test documentation: test plans, test cases, test scenarios, and test reports.
- Demonstrate the ability to create a detailed test plan that outlines scope, objectives, schedule, and resources.
- Develop and execute test cases that include steps, expected results, and actual outcomes to ensure thorough testing.
- Analyze test reports to communicate testing results, highlighting any defects, coverage, and recommendations for improvements.
Objective 2.6 – Understand and Utilize Test Doubles in Isolated Testing
- Define test doubles (e.g., dummies, stubs, fakes, spies, and mocks) and explain their importance in isolating units of code during testing.
- Apply test doubles to simulate dependencies, such as replacing a database with a stub, to make unit tests faster and more reliable.
- Analyze the appropriate use of test doubles in different types of testing, such as unit testing versus integration testing, to ensure isolation and accurate test results.
Block 3: Static Analysis, Dynamic Testing, and Code Refactoring
6 objectives covered by the block → 10 exam items
Objective 3.1 – Understand and Apply Static Testing Techniques
- Define static testing and explain its purpose in identifying issues early in the development lifecycle without executing code.
- Differentiate between various static testing techniques, such as code reviews, walkthroughs, and inspections.
- Use static analysis tools, such as linters, to detect syntax errors, security vulnerabilities, and adherence to coding standards (e.g., PEP 8 in Python).
- Analyze the benefits of static testing in terms of improving code quality and catching issues early in the development process.
Objective 3.2 – Understand and Apply Dynamic Testing Techniques
- Define dynamic testing and explain its role in validating the functionality of the software during execution.
- Differentiate between levels of dynamic testing, including unit testing, integration testing, system testing, and acceptance testing.
- Apply dynamic testing methods in various scenarios, such as verifying individual units of code (unit testing) or testing the integration of components (integration testing).
- Evaluate how dynamic testing contributes to identifying defects that may only arise during code execution.
Objective 3.3 – Understand the Role of Code Quality and Standards in Static Testing
- Define code quality and explain the importance of maintaining high-quality code through adherence to standards like PEP 8.
- Apply PEP 8 guidelines to ensure consistency and readability in Python code, including proper use of indentation, naming conventions, and line length.
- Use tools like linters to automate the enforcement of coding standards and improve code quality.
- Analyze how maintaining good code quality leads to easier maintenance, fewer bugs, and better collaboration among development teams.
Objective 3.4 – Perform Static Analysis to Improve Code Quality
- Explain the purpose of static analysis in identifying potential issues in code without executing it.
- Apply static analysis tools, such as Pylint or Flake8, to detect dead code, unused variables, formatting issues, and potential bugs.
- Refactor code based on static analysis results, improving its readability, maintainability, and performance.
- Evaluate the role of static analysis in preventing defects and reducing the time spent on debugging during dynamic testing.
Objective 3.5 – Understand and Apply Test Coverage and Metrics
- Define test coverage and explain its importance in measuring the effectiveness of testing efforts.
- Differentiate between types of test coverage, such as line coverage, branch coverage, and method coverage.
- Apply tools to measure test coverage and ensure that the most critical parts of the code are thoroughly tested.
- Analyze how achieving high test coverage helps reduce the risk of undetected bugs and improves software reliability.
Objective 3.6 – Understand and Implement Effective Code Refactoring
- Define code refactoring and explain its role in improving the internal structure of the code without changing its external behavior.
- Implement code refactoring techniques to simplify complex functions, improve readability, and ensure the code adheres to best practices.
- Understand and apply the AAA pattern in unit testing.
- Apply the DRY (Don't Repeat Yourself) principle to reduce duplication and improve code maintainability.
- Follow the KISS principle to keep code simple and focused on solving the problem at hand without adding unnecessary complexity.
- Analyze the benefits of code refactoring in terms of reducing technical debt and making the code easier to extend and maintain over time.
Block 4: Debugging, Assertions, and Testing Techniques
6 objectives covered by the block → 11 exam items
Objective 4.1 – Understand and Apply Debugging Techniques
- Define debugging and explain its role in identifying and fixing issues in a program.
- Apply print debugging to trace variables and understand the program flow, using simple print statements for small-scale problems.
- Use advanced debugging tools like an IDE debugger, breakpoints, and step-by-step execution to handle more complex scenarios where print debugging becomes overwhelming.
- Evaluate the role of debugging in improving code quality and software functionality by identifying issues early.
Objective 4.2 – Understand and Apply Assertions in Code
- Define assertions and explain their role in verifying that a program behaves as expected.
- Apply assertions to automatically check code conditions and trigger errors when conditions are not met.
- Work with multiple assertions, handling different return values or conditions to improve debugging effectiveness.
- Analyze the role of assertions as self-documenting code that makes the program’s expectations clear and improves maintenance.
Objective 4.3 – Understand and Apply Logging for Debugging and Testing
- Define logging and its importance in tracking program behavior during execution.
- Apply logging using print statements, assertions, and Python's logging module for different levels of logging (DEBUG, INFO, WARNING, ERROR, CRITICAL).
- Analyze how logging helps identify errors, track the execution flow, and understand program behavior in complex systems.
Objective 4.4 – Understand and Apply White Box Testing Techniques
- Define white box testing and explain its focus on testing internal logic and structure.
- Apply white box testing techniques like statement coverage, branch coverage, path coverage, and loop testing to ensure every part of the code is tested thoroughly.
- Analyze how white box testing contributes to identifying potential issues in code logic, paths, and data flow.
Objective 4.5 – Understand and Apply Black Box Testing Techniques
- Define black box testing and explain its focus on testing software functionality without knowledge of internal code or implementation details.
- Apply black box testing techniques such as equivalence partitioning, boundary value analysis, decision table testing, and state transition testing to ensure external behavior meets requirements.
- Analyze how black box testing verifies that the system functions correctly across a range of inputs and scenarios.
Objective 4.6 – Understand and Apply Experience-Based Testing Techniques
- Define experience-based testing and explain how testers rely on their knowledge and intuition to explore the system.
- Apply experience-based testing techniques such as error guessing, exploratory testing, and checklist-based testing to identify potential risks and defects.
- Analyze how experience-based testing helps testers discover hidden defects by using their past experience with similar systems.