Duration 4 Days – 28 hrs.

 

Overview

 

This four-day practical training course equips quality assurance professionals with the foundational and intermediate skills required to use OpenAI Codex and generative AI effectively across software-testing workflows.

 

Designed for a single QA team composed of local and international participants, the course uses standardized requirements, sample applications, source-code repositories, API specifications, test artifacts, defect records, and application logs. This ensures that participants can collaborate using a common set of exercises regardless of location or technical background.

 

Participants will learn how artificial intelligence and generative AI work, how Codex supports software-development and QA activities, and how to write structured prompts that produce more accurate, relevant, and verifiable results. Practical activities will cover requirements analysis, test-scenario identification, test-case creation, test-data generation, API and automation-test assistance, defect analysis, regression planning, documentation, and reporting.

 

The course emphasizes responsible AI use. Participants will learn to validate AI-generated outputs, protect confidential information, recognize hallucinations and bias, manage permissions carefully, and maintain human accountability for all QA decisions.

 

OpenAI recommends providing Codex with a clear goal, context, constraints, and definition of done, particularly for larger or higher-risk software tasks. The course applies this structure directly to QA prompting and validation exercises.

 

Objectives

 

• Explain the basic concepts of artificial intelligence, machine learning, generative AI, and large language models.
• Describe the role of Codex in software development and quality assurance.
• Identify suitable and unsuitable uses of AI in QA.
• Navigate the available Codex environment and understand its basic workflow.
• Provide Codex with relevant requirements, code, logs, test artifacts, and repository context.
• Write effective prompts using goals, context, constraints, output requirements, and completion criteria.
• Generate and refine test scenarios and test cases from requirements and user stories.
• Apply equivalence partitioning, boundary-value analysis, decision tables, and state-transition concepts with AI assistance.
• Generate realistic positive, negative, boundary, and exception test data.
• Use Codex to assist with API test scenarios and automation-test scripts.
• Analyze defects, error messages, logs, stack traces, and failed test results.
• Use Codex to improve defect descriptions, test documentation, and QA reports.
• Review AI-generated code and test scripts for accuracy, maintainability, security, and completeness.
• Use Codex to identify missing test coverage and possible regression risks.
• Incorporate AI-assisted activities into existing QA processes.
• Recognize hallucinations, incorrect assumptions, bias, incomplete coverage, and unreliable outputs.
• Protect source code, credentials, personal information, production data, and other confidential information.
• Apply human review, verification, traceability, and approval controls.
• Develop a practical team plan for responsible Codex adoption.

 

Target Audience

 

• Manual QA testers
• QA analysts
• Software test engineers
• Test automation engineers
• API testers
• Performance testers
• Quality engineers
• Test leads and QA team leads
• Test managers
• User acceptance testing personnel
• Business analysts involved in software quality
• Developers supporting testing activities
• Application support professionals
• QA professionals beginning to use AI-assisted tools

Prerequisites

 

• Basic understanding of software testing and QA concepts.
• Familiarity with test scenarios, test cases, expected results, and defect reports.
• General knowledge of the software-development lifecycle.
• Experience using at least one test-management or defect-tracking tool is helpful.
• Basic familiarity with web applications or APIs is recommended.
• Basic knowledge of programming or test automation is helpful for technical exercises but is not mandatory.
• A laptop with reliable internet access.
• An approved OpenAI or Codex account, where required.
• Access to the designated training repository and sample applications.
• An approved code editor, IDE, or Codex interface.
• Permission to use the supplied non-production training data and source code.
• Participants are not required to have previous experience with AI, generative AI, or Codex.

 

Training Environment Requirements

The training provider or client should prepare:

• Authorized Codex access for each participant
• A supported Codex interface
• A standard source-control repository
• A sample web application
• Sample REST APIs
• User stories and acceptance criteria
• Functional and non-functional requirements
• Existing test cases and test data
• Sample defects, logs, and failed test results
• Basic automation-test examples
• Non-production and anonymized training data
• Required development and testing tools
• Appropriate workspace permissions

 

Confidential client information, production credentials, personal data, secrets, and protected source code must not be used unless explicitly approved under the organization’s AI and information-security policies.

 

Course Outline

 

Day 1: AI Fundamentals, Codex Orientation, and Effective Prompting

Module 1: Artificial Intelligence and Generative AI Fundamentals       

 

• What is artificial intelligence?
• Traditional AI versus generative AI
• Machine learning and deep learning overview
• Large language models
• How generative AI produces responses
• AI coding agents and their role
• Common AI capabilities and limitations
• AI applications in software development
• AI applications across the testing lifecycle
• Benefits and risks of AI-assisted QA
• Human responsibility for AI-assisted decisions

 

Module 2: Introduction to OpenAI Codex

 

• What is Codex?
• Codex as a software-development and coding agent
• Common Codex environments and interfaces
• Navigating the available training environment
• Working with files, folders, and repositories
• Providing requirements and project context
• Asking Codex to explain unfamiliar code
• Planning before implementation
• Creating, reviewing, and validating changes
• Understanding workspace boundaries
• Human review and approval responsibilities

 

Module 3: Prompt Engineering for QA Professionals

 

• What is a prompt?
• Characteristics of an effective prompt
• Defining the goal
• Providing relevant context
• Specifying constraints and boundaries
• Defining the required output
• Establishing completion criteria
• Assigning an appropriate role or perspective
• Using examples and templates
• Requesting assumptions and uncertainties
• Breaking complex tasks into smaller activities
• Iterative prompting and follow-up instructions
• Comparing weak and strong QA prompts

 

Module 4: Prompt Validation and Output Evaluation

 

• Checking whether the response answers the request
• Identifying unsupported assumptions
• Detecting hallucinated requirements
• Verifying completeness and traceability
• Asking Codex to critique its output
• Requesting alternative approaches
• Using checklists and acceptance criteria
• Distinguishing useful suggestions from verified facts
• Maintaining human accountability

Day 1 Practical Exercises

• Explore the Codex training environment.
• Ask Codex to explain a sample application and repository.
• Improve weak QA prompts using a structured prompt framework.
• Generate a summary of a sample requirement.
• Identify assumptions and ambiguities in an AI-generated response.
• Create a reusable QA prompt template.

 

Day 2: AI-Assisted Test Analysis, Test Cases, and Test Data

Module 5: Requirements Analysis Using Codex

 

• Reviewing business and functional requirements
• Analyzing user stories and acceptance criteria
• Identifying missing, ambiguous, and conflicting requirements
• Extracting business rules
• Identifying testable conditions
• Identifying system dependencies
• Generating clarification questions
• Creating a requirements traceability structure
• Distinguishing stated requirements from AI assumptions

 

Module 6: Test Scenario and Test Case Generation

 

• Generating test scenarios from requirements
• Creating positive and negative test cases
• Developing happy-path and exception scenarios
• Boundary-value analysis
• Equivalence partitioning
• Decision-table testing
• State-transition testing
• Role and permission testing
• Data-validation testing
• Error-handling scenarios
• Usability and accessibility considerations
• Reviewing AI-generated test cases for duplication and gaps
• Prioritizing test cases based on risk

 

Module 7: Test Data Generation

 

• Identifying data requirements
• Creating positive and negative test data
• Boundary and edge-case data
• Invalid and malformed inputs
• Combinatorial data
• Role-based and permission-based data
• Generating structured CSV and JSON data
• Creating synthetic data
• Masking and anonymizing sensitive information
• Avoiding real personal and production data
• Validating generated data before use

 

Module 8: Test Planning and Coverage Analysis

 

• Creating a basic test strategy
• Defining scope and exclusions
• Risk-based testing
• Mapping requirements to test cases
• Identifying missing coverage
• Prioritizing high-risk workflows
• Selecting regression-test candidates
• Estimating testing activities
• Identifying assumptions, dependencies, and blockers
• Creating QA checklists

Day 2 Practical Exercises

• Analyze a sample user story and acceptance criteria.
• Identify missing and ambiguous requirements.
• Generate test scenarios and detailed test cases.
• Apply boundary-value and equivalence-partitioning techniques.
• Generate synthetic CSV or JSON test data.
• Build a basic requirements-to-test traceability matrix.
• Review and improve AI-generated test coverage.

 

Day 3: Codex for Technical Testing, Defect Analysis, and Review

Module 9: AI-Assisted API Testing

 

• Understanding an API specification
• Interpreting endpoints and HTTP methods
• Generating positive and negative API scenarios
• Request headers, parameters, and bodies
• Authentication considerations
• Response status and body validation
• Schema and contract validation
• Boundary and invalid-payload testing
• Error-response testing
• Generating sample API test scripts
• Reviewing generated scripts before execution

 

Module 10: AI-Assisted Test Automation

 

• Identifying good candidates for automation
• Converting manual test cases into automation steps
• Generating basic automated test scripts
• Explaining existing automation frameworks
• Creating reusable functions and test components
• Generating assertions
• Improving naming and readability
• Refactoring duplicated test code
• Adding comments and documentation
• Handling waits, timing, and test stability
• Reviewing generated code for maintainability
• Running and validating generated tests
• Avoiding blind acceptance of AI-generated code

 

Module 11: Defect Investigation and Root-Cause Assistance

 

• Improving defect titles and descriptions
• Organizing reproduction steps
• Comparing expected and actual results
• Analyzing logs and error messages
• Understanding stack traces
• Summarizing failed test results
• Identifying possible failure patterns
• Creating troubleshooting hypotheses
• Distinguishing symptoms from root causes
• Identifying additional evidence required
• Suggesting focused retest scenarios
• Avoiding unsupported root-cause conclusions

 

Module 12: Reviewing Code and Test Changes

 

• Reviewing generated test scripts
• Checking correctness and coverage
• Detecting missing assertions
• Identifying brittle test logic
• Reviewing changes for possible regressions
• Reviewing uncommitted changes or branch differences
• Providing focused review instructions
• Prioritizing findings by severity and risk
• Requesting evidence for reported findings
• Verifying suggested corrections
• Keeping humans responsible for final acceptance

 

Codex can review a branch, commit, selected files, or uncommitted changes and report prioritized findings without necessarily modifying the working tree.

 

Day 3 Practical Exercises

• Generate API test scenarios from a sample specification.
• Create or improve a basic API or UI automation script.
• Add assertions and negative scenarios.
• Analyze a failed test and related application logs.
• Prepare an improved defect report.
• Review an AI-generated test script for defects and maintainability.
• Use Codex to identify potential regression risks in a sample code change.

 

Day 4: QA Documentation, Responsible AI, and Workflow Integration

Module 13: AI-Assisted QA Documentation and Reporting

 

• Generating test plans and test summaries
• Preparing daily and weekly QA status reports
• Summarizing test-execution results
• Creating release-readiness reports
• Documenting risks, issues, and blockers
• Producing defect summaries
• Generating stakeholder-specific reports
• Technical versus management reporting
• Converting raw results into concise insights
• Maintaining consistent terminology
• Verifying figures and source information
• Preventing fabricated metrics and conclusions

 

Module 14: Responsible and Secure AI Use

 

• AI limitations and hallucinations
• Bias and incomplete outputs
• Confidentiality and data privacy
• Source-code protection
• Credentials, tokens, keys, and secrets
• Personally identifiable information
• Intellectual-property considerations
• Approved and prohibited data
• Human-in-the-loop review
• Traceability and auditability
• Safe use of external information
• Prompt-injection awareness
• Organizational AI policies
• Incident and escalation procedures

 

Codex uses sandboxing and approval controls to limit file, command, and network access. Teams should retain restrictive permissions and grant broader access only when required and authorized.

 

Module 15: Integrating Codex into Existing QA Processes

 

• Mapping AI opportunities across the QA lifecycle
• Requirements-review workflow
• Test-design workflow
• Test-data workflow
• Test-automation workflow
• Defect-triage workflow
• Regression-analysis workflow
• Documentation and reporting workflow
• Identifying tasks that require human judgment
• Defining review and approval checkpoints
• Measuring productivity and quality improvements
• Establishing reusable prompt templates
• Maintaining team QA guidance
• Continuous improvement and lessons learned

 

Module 16: Team Standards and Reusable Instructions

 

• Standardizing prompts across the QA team
• Creating reusable QA checklists
• Defining required test and review commands
• Providing repository-specific instructions
• Establishing coding and testing conventions
• Defining completion and verification criteria
• Introducing repository-level guidance
• Using AGENTS.md for durable project instructions
• Reviewing and improving team instructions
• Sharing effective practices across local and international members

 

 Final Team-Based Practical Assessment

 

Participants will:

• Review a sample application requirement.
• Identify ambiguities, risks, and missing information.
• Create structured prompts for the assigned QA tasks.
• Generate and refine test scenarios and test cases.
• Generate anonymized test data.
• Create or improve an API or automation-test script.
• Analyze a sample defect, failed test, and application log.
• Review generated outputs for errors and unsupported assumptions.
• Prepare a concise QA execution or release-readiness report.
• Present a proposed Codex-assisted QA workflow.
• Identify required human review and governance controls.