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Software Development

19 Types of Manual Testing in Software Testing [Update 2025]

types-of-manual-testing-in-software-testing

Manual testing continues to play a critical role in software development, even in an age dominated by automation. While automation brings speed and efficiency, manual testing brings human intuition, flexibility and real-world insight to the table. Understanding the types of manual testing in software testing is essential for delivering reliable and user-friendly products.

This guide aims to help software developers, QA engineers and curious tech learners grasp the wide range of manual testing methods available, when to use each, and how they contribute to the software development life cycle.

1. 19 Types of manual testing in software testing

Manual testing is a process where testers manually execte cases without using automated tools. It is crucial for scenarios where human observation is key, for instance in assessing user experience or catching unexpected issues.

Manual vs automated testing: while automated testing is great for regression and performance testing, manual testing reamins ideal for ad-hoc, usability, and exploratory types of testing. Both should complement each other in a robust QA strategy.

1.1 Black box testing

When it comes to types of manual testing in software testing, black box testing is often the first approach QA teams turn to. Why? Because it mimics how real users interact with the product, without digging into the internal workings of the system.

So, what exactly is black box testing?

Black box testing is a technique where testers evaluate the software based solely on what it’s supposed to do, not how it does it. The internal code, architecture, and data flow remain hidden. All the tester needs to know is: ” when I put this, what output should I get?”
Think of it like using an ATM. You insert your card, type your PIN, and expect either cash or a message. You don’t care what code is running in the background, you care about whether it works.

Aspect Details
When to Use – Functional testing (e.g., login, forms, checkout)
– System and acceptance testing
– When testers have no access to the source code
Pros – No need for coding knowledge
– Simulates real user interactions
– Great for catching missing or unclear requirements
Cons – Can’t detect internal code issues
– Difficult to trace the root cause of bugs
– May lead to redundant test cases without code insight

Read more >>>  Difference Between Software Testing and Quality Assurance

1.2 White box testing

White box testing treats the software like a sealed box. While box testing does the opposite, it opens the lid. Among the types of manual testing in software testing, this method is highly technical and focuses on how the system works behind the scenes.
White box testing (also called clear-box or glass-box testing) involves testing the internal logic, structure and code of an application. The tester must understand how the code is written and how each component functions.

Instead of just feeding inputs and checking outputs, testers follow the code path, test conditions, loops, and branches. For example, testing whether all if-else conditions behave correctly, or whether every function returns expected results under various inputs.

Aspect Details
When to Use – Unit testing
– Integration testing
– Testing algorithms or logic-heavy functions
– Code-level security checks
Pros – Finds hidden code defects early
– Ensures thorough code coverage
– Enhances code quality through feedback
Cons – Requires programming skills
– Not suitable for UI or UX testing
– More time-consuming than black box methods

1.3 Gray box testing

Gray Box Testing sits right between Black Box and White Box approaches. It combines the user-focused nature of Black Box Testing with the internal insight of White Box Testing. Among the types of manual testing in software testing, Gray Box Testing is ideal for testers who have limited knowledge of the internal codebase but enough context to design more effective test cases.

In Gray Box Testing, the tester knows partial information about the system’s internal structure — like architecture diagrams, APIs, or database schemas — but does not interact directly with the source code.

This hybrid approach helps uncover integration issues, security flaws, and problems across multiple layers of the system.

Aspect Details
When to Use – Integration testing
– Web applications and APIs
– Security and data flow testing
Pros – Combines benefits of both Black and White Box
– Detects issues in complex workflows
– Requires less access than full White Box Testing
Cons – Limited visibility into full code logic
– May still miss deep internal bugs
– Requires some technical background to be effective

1.4 Functional testing

Functional testing is a core category within the types of manual testing in software testing, focusing on whether each feature of an application works according to requirements. It tests what the system does, not how it does it.

functional testing
functional testing

Functional testing can be broken down into several layers, each building on the previous one. Here’ how they connect from the smallest part of the code to the entire system.

  • Unit test: this is the first layer. It checks if a single piece of code like a function or method works correctly on its own. Usually done by developers.
  • Integration testing: once the pieces are ready, integration testing makes sure they work well together. It checks the flow between modules or components.
  • System testing: here, the full application is tested from end to end, as one complete system to ensure all features work as intended.
  • Acceptance testing: finally, acceptance testing answers the big question: “does this software do what the users and stakeholders expect?”

Each stage is important in its own right, but together they provide a strong foundation for ensuring the application is functional, reliable, and aligned with business goals.

1.5 Non-functional testing

While functional testing checks what the system does, non-functional testing focuses on how it performs. It helps ensure the software is reliable, fast, secure, and user-friendly — all critical for a positive user experience.

  • Sanity testing: A quick check to confirm that specific functions work after minor changes. It’s like asking, “Is everything still okay after this tweak?”
  • Smoke testing: A shallow, broad test to see if the basic features of a new build are working well enough to proceed with deeper testing. Think of it as a first filter.
  • Regression testing: Verifies that recent updates haven’t broken any previously working features. It’s crucial during ongoing development or maintenance.
Test Type When to Use Pros Cons
Sanity After bug fixes or minor updates – Helps detect issues early before full testing – Often repetitive if not automated
Smoke When receiving a new software build – Saves time by catching critical failures fast – Doesn’t test new features in depth
Regression After major code changes or feature additions – Keeps existing features stable through updates – May require significant effort to maintain test cases

1.6 Exploratory testing

Among the types of manual testing in software testing, exploratory testing stands out as an intuitive, adaptive approach where test design and execution happen simultaneously. It relies heavily on the tester’s creativity, domain knowledge, and real-time decision-making to uncover issues that structured test cases might overlook.

Exploratory testing
Exploratory testing

In contrast to automation, which executes repeatable steps with speed and consistency, Exploratory Testing adds human insight and spontaneity—qualities that make it a vital part of the quality assurance process.

1.6.1 Benefits of exploratory testing

As one of the more flexible types of manual testing in software testing, Exploratory Testing brings several unique advantages:

  • Rapid discovery of bugs: Especially useful for uncovering hidden or unusual issues not covered by typical test cases.
  • Higher adaptability: Enables real-time reactions to evolving software functionality, especially during Agile development cycles.
  • Cost and time efficiency: Requires minimal planning, making it ideal when documentation is incomplete or deadlines are tight.
  • Improved user empathy: Testers experience the software as users would, which helps detect issues related to usability and user flow.

Because of these advantages, it is often recommended as a complementary method alongside scripted tests in both manual vs automated testing strategies.

1.6.2 When to use exploratory testing

You should consider Exploratory Testing in the following contexts:

  • During early development , features are evolving, and documentation is sparse.
  • To validate new functionality without waiting for formal test cases.
  • As part of regression testing, to identify side effects of code changes not captured by automation.
  • For usability and user experience evaluations, especially in customer-facing applications.

1.7. Usability and compatibility testing

Among the best manual testing methods, Usability Testing focuses on evaluating how intuitive, efficient, and satisfying the software is for end users. As one of the crucial types of manual testing in software testing, this method addresses functional testing from a human-centric viewpoint.

By observing real users perform specific tasks, QA teams assess ease of navigation, clarity of design, and overall experience. Usability Testing is especially effective in revealing UI/UX flaws that might otherwise go undetected in automated scripts—solidifying its role in the quality assurance process.

Compatibility Testing ensures that the application performs consistently across different devices, operating systems, browsers, and network environments. This testing method supports the QA methodologies that aim for inclusivity and scalability.

With the increasing variety of user environments, Compatibility Testing has become a critical part of the software testing life cycle. It guarantees seamless operation regardless of platform, and helps QA teams maintain high quality across all user segments, key to effective manual testing best practices.

1.8. Performance testing

Performance Testing is a non-functional yet essential part of the types of manual testing in software testing. It assesses how well the software performs under various loads and stress levels—ensuring the product can meet user expectations in real-world usage.

1.8.1 Load Testing

Load Testing checks how the software behaves under expected user loads. It’s a core non-functional test that ensures the application can handle real-world usage without slowdowns or failures.

1.8.2 Stress Testing

Stress Testing intentionally pushes the system beyond its operating limits to test how it behaves under extreme pressure. This helps uncover weaknesses, memory leaks, or crashes, insights that contribute significantly to performance optimization and disaster readiness. It’s a proactive step in refining your manual testing strategy.

1.8.3 Alpha Testing

Alpha Testing is conducted by internal teams before release to detect bugs early. As a form of manual testing, it’s vital in the software testing life cycle, ensuring a clean handoff to beta users or clients.

1.9. Security testing and more

Principles of security testing
Principles of security testing

1.9.1 Security testing

Security Testing focuses on identifying vulnerabilities such as weak authentication, insecure data handling, and system misconfigurations. As part of manual vs automated testing, manual Security Testing offers the human insight necessary to anticipate hacker-like behaviors.

It is critical in industries dealing with sensitive information, where software quality assurance is tightly linked to user trust and regulatory compliance.

1.9.2 Adhoc testing

Adhoc Testing, though informal, is a powerful exploratory method within the types of manual testing in software testing. It allows testers to improvise and dig into edge cases or unlikely scenarios not covered by formal test planning.

When executed by skilled testers, Adhoc Testing is a creative yet efficient way to catch critical issues that could otherwise reach production.

1.10. Advanced testing methods

Test Lifecycle: Setup and Teardown for Test Suite, Class, Unit Test
Test Lifecycle: Setup and Teardown for Test Suite, Class, Unit Test

1.10.1 End-to-end testing

End-to-End (E2E) Testing validates that the entire workflow of an application behaves as intended, from start to finish. It confirms integration between subsystems and supports full test execution paths, verifying system health and reliability under real-world scenarios.

This approach is essential in modern software ecosystems involving third-party services, microservices, or cloud platforms. It strengthens the difference between software testing and quality assurance, by going beyond just “does it work?” to “does it deliver business value end-to-end?”

1.10.2 Equivalence partitioning

Equivalence Partitioning is a white box testing technique that simplifies test case design by dividing input data into logical partitions. By testing one representative from each group, QA engineers can achieve thorough coverage with fewer test cases—enhancing both efficiency and precision.

It’s often used alongside Black Box Testing, adding technical depth to test design while still focusing on functionality.

2. Conclusion

The types of manual testing in software testing provide critical insight into software quality, usability, and reliability. From Black Box to Exploratory Testing, each method plays a key role in ensuring a flawless user experience. Combining these approaches with best practices strengthens your overall QA strategy and bridges the gap between testing and true quality assurance.

If you’re looking to streamline your testing process or build a high-performing QA team, Stepmedia is here to help. We specialize in tailored software testing solutions that integrate the most effective types of manual testing in software testing to ensure your product launches smoothly and scales with confidence.

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Software Development

4 Difference Between Software Testing and Quality Assurance

differences-between-software-testing-and-qa

High-quality software is essential in today’s world. From apps on your phone to websites you use, people expect software to work smoothly and reliably. Two key processes help make this happen: software testing and quality assurance (QA). While they both aim to deliver great software, they are not the same. Many people mix them up, but each has a unique role in building software that users love.

Software testing is about finding and fixing problems with the software, like bugs that cause crashes. Quality assurance, on the other hand, is about setting up processes to prevent those problems from happening in the first place. Together, they ensure software is dependable and meets user needs.

This article will explain the differences between software testing and QA in a clear and simple way. Whether you’re a developer, a project manager, or just curious about software development, you’ll learn how these processes work and why they matter.

1. What is software testing?

Software testing is the process of checking software to find and fix bugs or errors. Its main goal is to make sure the software works correctly and meets user needs. Testers run the software, try different actions, and check if it behaves as expected.

Software testing life cycle diagram
Software testing life cycle diagram

1.1 Type of testing

  • Unit testing: tests small pieces of code, like a single feature
  • Integration testing: checks if different parts of the software work together
  • System testing: tests the whole software as one complete product
  • Acceptance testing: verifies the software meets user or client expectations

1.2 Tools used

Testers use tools to make testing faster and easier.

  • Selenium: automated testing for web apps
  • Postman: tests API to ensure they work correctly
  • Apache Jmeter: checks how software performs under heavy use
  • Testrail: helps organize and track test plans and result

1.3 Role in development

Testing happens mostly during and after coding in the software development lifecycle (SDLC). Testers create test cases, run them and report bugs to developers for fixes. It’s a hands-on process to catch problems before the software goes live.

2. What is quality assurance (QA)?

Quality assurance (QA) is the process of ensuring software is built correctly from the start. Unlike testing, which focuses on finding bugs, QA aims to prevent problems by improving how software is developed. It’s about creating reliable processes to deliver high-quality software.

SDLC quality assurance flowchart
SDLC quality assurance flowchart

2.1 QA processes and methodologies

QA involves planning and monitoring the entire software development lifecycle (SDLC):

  • Requirement analysis: ensures project goals are clear and achievable
  • Process audits: checks if the team follows best practice
  • Documentation: creates guidelines for consistent development
  • Training: educates teams on quality standards and tools

QA often uses methodologies like Agile or DevOps to promote teamwork and continuous improvement.

2.2 Focus on defect prevention

QA looks at the big picture to stop problems before they start. For example:

  • Reviewing code early to catch mistakes.
  • Setting up clear coding standards.
  • Using tools like JIRA to track progress and issues.

2.3 Standards and certifications

QA teams follow industry standards to ensure quality:

  • ISO 9001: a global standard for quality management.
  • ISTQB Certification: a qualification for QA and testing professionals. These standards help teams build trust and deliver reliable software.

2.4 Role in development

Qa starts early in SDLC, even before coding begins. It guides the entire project by setting quality goals, monitoring progress, and ensuring the team follows best practices. QA professionals work closely with developers, testers and managers to keep quality first.

3. Key differences between software testing and QA

Understanding the difference between software testing and QA is crucial for delivering high-quality software. while both software testing vs. Quality assurance aims to ensure a reliable product they have distinct roles in the software development lifecycle (SDLC). Here’s a clear breakdown of how QA vs. software testing differs in scope, timing, roles, and outcomes, helping teams optimize their processes.

QA, QC vs Software Testing
QA, QC vs Software Testing

3.1 Scope and focus

  • Software testing: Centers on the product itself. It involves checking the software to find bugs, verifying features work correctly, and ensuring it meets user needs. The role of software testing in the QA process is to catch issues in code or functionality, making it a hands-on task.
  • QA: Focusses on the process of creating software. Quality assurance sets standards and guidelines to prevent issues before they arise. It ensures the development process is efficient, consistent, and aligned with quality goals, addressing what is the difference between software testing and quality assurance at a broader level.

3.2 Timing in the SDLC

  • Software Testing: Takes place primarily during and after coding. Testers begin once parts of the software are built, running tests like unit or system tests, and continue until the product is ready for release. This answers how QA and testing work together in SDLC by showing testing as a key phase.
  • QA: Starts before coding and spans the entire SDLC. From defining requirements to monitoring development and evaluating results, QA ensures quality at every step, highlighting its proactive role in the software testing vs. quality assurance comparison.

3.3 Roles and Responsibilities

  • Software Testing: Carried out by testers or quality engineers who create and run test cases, report bugs, and verify fixes. Testers collaborate with developers to ensure the software performs as expected, focusing on the importance of software testing in the QA process.
  • QA: Managed by QA professionals who design processes, set quality standards, and perform audits. They guide the team to follow best practices, working with developers, testers, and managers to maintain quality throughout, a key aspect of the role of QA in software development.

3.4 Outcome and Deliverables

  • Software Testing: Produces bug reports, test results, and confirmation that the software is ready for users. Its goal is a product free of major defects, directly addressing the difference between software testing and QA in terms of tangible outputs.
  • QA: Delivers improved processes, quality guidelines, and documentation. The result is a reliable development process that minimizes errors and boosts overall software quality, emphasizing how QA and testing work together in SDLC for better outcomes.

4. Conclusion

The difference between software testing and QA is clear: testing focuses on finding and fixing bugs in the software, while quality assurance ensures the development process prevents those bugs from occurring. Both are vital in software testing vs. quality assurance equation, working together to deliver reliable, user-friendly software. Testing catches issues in the code, ensuring functionality, while QA sets standards to make the entire software development lifecycle (SDLC) more efficient and consistent.

Understanding QA vs. software testing helps teams assign the right roles, use the best tools, and follow effective processes. For example, testers might use Selenium or Postman to verify features, while QA professionals implement quality assurance processes like ISO standards or Agile methodologies to guide development.  Together, they ensure software meets user expectations and industry benchmarks.

To achieve top-notch software, embrace both software testing and quality assurance. Start by defining clear requirements, use tools like JIRA for collaboration, and invest in training for ISTQB certification or other standards. By combining the importance of software testing in the QA process with a strong QA framework, you’ll build products that stand out. Take action today, review your processes, align your team, and prioritize quality at every step.