© Copyright GlobalLogic 2009 1
Connect. Collaborate. Innovate.
ISTQB
Testing tool classification
Akshi Chawla
21st
June 2011
Internal
© Copyright GlobalLogic 2009 2
Connect. Collaborate. Innovate.
Switch off your Mobile phone
Or
Put the Mobile phone on silent mode
© Copyright GlobalLogic 2009 3
Connect. Collaborate. Innovate.
Agenda
 Testing tool classification
 Potential benefits of using tools
 Risks of using tools
 Pilot Project
 Q&A
© Copyright GlobalLogic 2009 4
Connect. Collaborate. Innovate.
Testing tool classification
Tools support
the mgmt. of
testing & tests
Tools support
static testing
Tools support
test specification
Tools support test
execution & logging
Tools support
performance &
monitoring
• Test Mgmt tool
• Requirements
Mgmt tool
• Incident Mgmt
tool
•Configuration
Mgmt tool.
• Review process
support tool
• Static analysis
tool (D)
• Modeling tool
(D).
• Test design tool
• Test data
preparation tool.
• Test execution tool
• Test harness and unit
test framework tool (D)
• Test comparator
• Coverage
measurement tool (D)
• Security tool.
•Dynamic analysis
tool
• Performance-
testing, load-
testing and
stress-testing
tool;
• Monitoring tool.
© Copyright GlobalLogic 2009 5
Connect. Collaborate. Innovate.
Test management tools
 Management of tests
 Scheduling of tests to be executed (manually or by a test execution tool)
 Management of testing activities
 Interfaces to other tools, such as:
• test execution tools (test running tools);
• incident management tools;
• requirement management tools;
• configuration management tools;
 Traceability of tests, test results and defects to requirements or other
sources;
 Logging test results
 Preparing progress reports based on metrics (quantitative analysis)
© Copyright GlobalLogic 2009 6
Connect. Collaborate. Innovate.
Requirements Management tools
 Storing requirement statements
 Identifying undefined, missing or 'to be defined later' requirements
 Prioritizing requirements for testing purposes
 Traceability of requirements to tests and tests to requirements, functions
or features
 Traceability through levels of requirements
 Interfacing to test management tools
© Copyright GlobalLogic 2009 7
Connect. Collaborate. Innovate.
Incident Management tools
 Storing information about the attributes of incidents (e.g. severity)
 Storing attachments (e.g. a screen shot)
 Prioritizing incidents
 Assigning actions to people (fix, confirmation test, etc.)
 Status (e.g. open, rejected, duplicate, deferred, ready for confirmation
test,closed)
 Reporting of statistics/metrics about incidents (e.g. average time open
number of incidents with each status, total number raised, open or
closed).
 Incident management tool functionality may be included in commercial
test management tools.
© Copyright GlobalLogic 2009 8
Connect. Collaborate. Innovate.
Configuration Management tools
 Storing information about versions and builds of the software
 Traceability between software and different versions or variants
 Keeping track of which versions belong with which configurations (e.g.
operating systems, libraries, browsers)
 Build and release management
 Access control (checking in and out).
© Copyright GlobalLogic 2009 9
Connect. Collaborate. Innovate.
Static analysis tools (D)
 Calculate metrics such as cyclomatic complexity or nesting levels (which
can help to identify where more testing may be needed due to increased
risk)
 Enforce coding standards
 Aid in code understanding
 Identify anomalies or defects in the code
© Copyright GlobalLogic 2009 10
Connect. Collaborate. Innovate.
Modeling tools (D)
 Helping to understand system functions and identify test conditions using
a modeling language such as UML.
 Identifying inconsistencies and defects within the model
 Helping to identify and prioritize areas of the model for testing
© Copyright GlobalLogic 2009 11
Connect. Collaborate. Innovate.
Test design tools
 Generating test input values from:
• Requirements
• Design models (state, data or object)
• Code
• Graphical user interfaces
• Test conditions
 Generating expected results, if an oracle is available to the tool
© Copyright GlobalLogic 2009 12
Connect. Collaborate. Innovate.
Test data preparation tools
 Extract selected data records from files or databases
 'massage' data records to make them anonymous or not able to be
identified with real people (for data protection)
 Enable records to be sorted or arranged in a different order
 Construct a large number of similar records from a template, to give
a large set of records for volume tests.
© Copyright GlobalLogic 2009 13
Connect. Collaborate. Innovate.
Test execution tools
 Capturing (recording) test inputs while tests are executed manually
 Storing an expected result in the form of a screen or object to
compare to, the next time the test is run
 Ability to initiate post-execution comparison;
 Logging results of tests run
 Sending summary results to a test management tool.
© Copyright GlobalLogic 2009 14
Connect. Collaborate. Innovate.
Test harnesses and Unit Test Framework Tool (D)
 Supplying inputs to the software being tested;
 Receiving outputs generated by the software being tested;
 Recording the pass/fail results of each test (framework tools);
 Storing tests (framework tools);
 Support for debugging (framework tools);
 Coverage measurement at code level (framework tools).
© Copyright GlobalLogic 2009 15
Connect. Collaborate. Innovate.
Comparison tools
 Detect differences between actual test results and expected results
 Test running tools normally include comparison capability
 Stand-alone comparison tools for files or databases
© Copyright GlobalLogic 2009 16
Connect. Collaborate. Innovate.
Coverage measurement tools (D)
 Identifying coverage items
 Calculating the percentage of coverage items that were exercised
by a suite of tests
 Reporting coverage items that have not been exercised as yet
 Identifying test inputs to exercise as yet uncovered items (test-
design tool functionality)
© Copyright GlobalLogic 2009 17
Connect. Collaborate. Innovate.
Security Tool
 Identifying viruses
 Detecting intrusions such as denial of service attacks
 Simulating various types of external attacks
 Probing for open ports or other externally visible points of attack
 Identifying weaknesses in password files and passwords
 Security checks during operation, e.g. for checking integrity of files,
and Intrusion detection, e.g. checking results of test attacks.
© Copyright GlobalLogic 2009 18
Connect. Collaborate. Innovate.
Dynamic analysis tools (D)
 They are 'analysis' rather than 'testing' tools
 Detecting memory leaks
© Copyright GlobalLogic 2009 19
Connect. Collaborate. Innovate.Performance testing, load-testing & stress-testing
tools
 Generating a load on the system to be tested.
 Measuring the timing of specific transactions as the load on the
system varies.
 Measuring average response times.
 Producing graphs or charts of responses over time.
© Copyright GlobalLogic 2009 20
Connect. Collaborate. Innovate.
Debugging tools
 Used by programmers when investigating, fixing and
testing faults
 Used to reproduce faults and examine program execution
in detail single-stepping
• breakpoints or watch points at any statement
• examine contents of variables and other data
© Copyright GlobalLogic 2009 21
Connect. Collaborate. Innovate.
Potential benefits of using tools
 Benefits include:
• Reduction of repetitive work
• Greater consistency and repeatability
• Ease of access to information about tests or testing
© Copyright GlobalLogic 2009 22
Connect. Collaborate. Innovate.
Risks of using tools
 Risks include:
• Unrealistic expectations for the tool
• Underestimating the time and effort needed to achieve
significant and continuing benefits from the tool
• Underestimating the effort required to maintain the test assets
generated by the tool;
• Over-reliance on the tool.
© Copyright GlobalLogic 2009 23
Connect. Collaborate. Innovate.
Pilot Project
 To learn more about the tool (more detail, more depth);
 To see how the tool would fit with existing processes or
documentation, how those would need to change to work
well with the tool and how to use the tool to streamline
existing processes;
 To decide on standard ways of using the tool that will
work for all potential users
 To evaluate the pilot project against its objectives (have
the benefits been achieved at reasonable cost?).
© Copyright GlobalLogic 2009 24
Connect. Collaborate. Innovate.
Any QuestionsAny Questions
© Copyright GlobalLogic 2009 25
Connect. Collaborate. Innovate.
“Thank You” for your learning contribution!
Please submit Online Feedback to help L&D make continuous
improvement……participation credit will be given only on
feedback submission.
For any queries Dial @ Learning:
Noida: 4444, Nagpur:333, Pune:5222, Banglore:111
E mail: learning@globallogic.com
Check new L&D Reward & Recognition Policy
@ Confluence under Global Training
Check new L&D Reward & Recognition Policy
@ Confluence under Global Training

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Testing tool classification

  • 1. © Copyright GlobalLogic 2009 1 Connect. Collaborate. Innovate. ISTQB Testing tool classification Akshi Chawla 21st June 2011 Internal
  • 2. © Copyright GlobalLogic 2009 2 Connect. Collaborate. Innovate. Switch off your Mobile phone Or Put the Mobile phone on silent mode
  • 3. © Copyright GlobalLogic 2009 3 Connect. Collaborate. Innovate. Agenda  Testing tool classification  Potential benefits of using tools  Risks of using tools  Pilot Project  Q&A
  • 4. © Copyright GlobalLogic 2009 4 Connect. Collaborate. Innovate. Testing tool classification Tools support the mgmt. of testing & tests Tools support static testing Tools support test specification Tools support test execution & logging Tools support performance & monitoring • Test Mgmt tool • Requirements Mgmt tool • Incident Mgmt tool •Configuration Mgmt tool. • Review process support tool • Static analysis tool (D) • Modeling tool (D). • Test design tool • Test data preparation tool. • Test execution tool • Test harness and unit test framework tool (D) • Test comparator • Coverage measurement tool (D) • Security tool. •Dynamic analysis tool • Performance- testing, load- testing and stress-testing tool; • Monitoring tool.
  • 5. © Copyright GlobalLogic 2009 5 Connect. Collaborate. Innovate. Test management tools  Management of tests  Scheduling of tests to be executed (manually or by a test execution tool)  Management of testing activities  Interfaces to other tools, such as: • test execution tools (test running tools); • incident management tools; • requirement management tools; • configuration management tools;  Traceability of tests, test results and defects to requirements or other sources;  Logging test results  Preparing progress reports based on metrics (quantitative analysis)
  • 6. © Copyright GlobalLogic 2009 6 Connect. Collaborate. Innovate. Requirements Management tools  Storing requirement statements  Identifying undefined, missing or 'to be defined later' requirements  Prioritizing requirements for testing purposes  Traceability of requirements to tests and tests to requirements, functions or features  Traceability through levels of requirements  Interfacing to test management tools
  • 7. © Copyright GlobalLogic 2009 7 Connect. Collaborate. Innovate. Incident Management tools  Storing information about the attributes of incidents (e.g. severity)  Storing attachments (e.g. a screen shot)  Prioritizing incidents  Assigning actions to people (fix, confirmation test, etc.)  Status (e.g. open, rejected, duplicate, deferred, ready for confirmation test,closed)  Reporting of statistics/metrics about incidents (e.g. average time open number of incidents with each status, total number raised, open or closed).  Incident management tool functionality may be included in commercial test management tools.
  • 8. © Copyright GlobalLogic 2009 8 Connect. Collaborate. Innovate. Configuration Management tools  Storing information about versions and builds of the software  Traceability between software and different versions or variants  Keeping track of which versions belong with which configurations (e.g. operating systems, libraries, browsers)  Build and release management  Access control (checking in and out).
  • 9. © Copyright GlobalLogic 2009 9 Connect. Collaborate. Innovate. Static analysis tools (D)  Calculate metrics such as cyclomatic complexity or nesting levels (which can help to identify where more testing may be needed due to increased risk)  Enforce coding standards  Aid in code understanding  Identify anomalies or defects in the code
  • 10. © Copyright GlobalLogic 2009 10 Connect. Collaborate. Innovate. Modeling tools (D)  Helping to understand system functions and identify test conditions using a modeling language such as UML.  Identifying inconsistencies and defects within the model  Helping to identify and prioritize areas of the model for testing
  • 11. © Copyright GlobalLogic 2009 11 Connect. Collaborate. Innovate. Test design tools  Generating test input values from: • Requirements • Design models (state, data or object) • Code • Graphical user interfaces • Test conditions  Generating expected results, if an oracle is available to the tool
  • 12. © Copyright GlobalLogic 2009 12 Connect. Collaborate. Innovate. Test data preparation tools  Extract selected data records from files or databases  'massage' data records to make them anonymous or not able to be identified with real people (for data protection)  Enable records to be sorted or arranged in a different order  Construct a large number of similar records from a template, to give a large set of records for volume tests.
  • 13. © Copyright GlobalLogic 2009 13 Connect. Collaborate. Innovate. Test execution tools  Capturing (recording) test inputs while tests are executed manually  Storing an expected result in the form of a screen or object to compare to, the next time the test is run  Ability to initiate post-execution comparison;  Logging results of tests run  Sending summary results to a test management tool.
  • 14. © Copyright GlobalLogic 2009 14 Connect. Collaborate. Innovate. Test harnesses and Unit Test Framework Tool (D)  Supplying inputs to the software being tested;  Receiving outputs generated by the software being tested;  Recording the pass/fail results of each test (framework tools);  Storing tests (framework tools);  Support for debugging (framework tools);  Coverage measurement at code level (framework tools).
  • 15. © Copyright GlobalLogic 2009 15 Connect. Collaborate. Innovate. Comparison tools  Detect differences between actual test results and expected results  Test running tools normally include comparison capability  Stand-alone comparison tools for files or databases
  • 16. © Copyright GlobalLogic 2009 16 Connect. Collaborate. Innovate. Coverage measurement tools (D)  Identifying coverage items  Calculating the percentage of coverage items that were exercised by a suite of tests  Reporting coverage items that have not been exercised as yet  Identifying test inputs to exercise as yet uncovered items (test- design tool functionality)
  • 17. © Copyright GlobalLogic 2009 17 Connect. Collaborate. Innovate. Security Tool  Identifying viruses  Detecting intrusions such as denial of service attacks  Simulating various types of external attacks  Probing for open ports or other externally visible points of attack  Identifying weaknesses in password files and passwords  Security checks during operation, e.g. for checking integrity of files, and Intrusion detection, e.g. checking results of test attacks.
  • 18. © Copyright GlobalLogic 2009 18 Connect. Collaborate. Innovate. Dynamic analysis tools (D)  They are 'analysis' rather than 'testing' tools  Detecting memory leaks
  • 19. © Copyright GlobalLogic 2009 19 Connect. Collaborate. Innovate.Performance testing, load-testing & stress-testing tools  Generating a load on the system to be tested.  Measuring the timing of specific transactions as the load on the system varies.  Measuring average response times.  Producing graphs or charts of responses over time.
  • 20. © Copyright GlobalLogic 2009 20 Connect. Collaborate. Innovate. Debugging tools  Used by programmers when investigating, fixing and testing faults  Used to reproduce faults and examine program execution in detail single-stepping • breakpoints or watch points at any statement • examine contents of variables and other data
  • 21. © Copyright GlobalLogic 2009 21 Connect. Collaborate. Innovate. Potential benefits of using tools  Benefits include: • Reduction of repetitive work • Greater consistency and repeatability • Ease of access to information about tests or testing
  • 22. © Copyright GlobalLogic 2009 22 Connect. Collaborate. Innovate. Risks of using tools  Risks include: • Unrealistic expectations for the tool • Underestimating the time and effort needed to achieve significant and continuing benefits from the tool • Underestimating the effort required to maintain the test assets generated by the tool; • Over-reliance on the tool.
  • 23. © Copyright GlobalLogic 2009 23 Connect. Collaborate. Innovate. Pilot Project  To learn more about the tool (more detail, more depth);  To see how the tool would fit with existing processes or documentation, how those would need to change to work well with the tool and how to use the tool to streamline existing processes;  To decide on standard ways of using the tool that will work for all potential users  To evaluate the pilot project against its objectives (have the benefits been achieved at reasonable cost?).
  • 24. © Copyright GlobalLogic 2009 24 Connect. Collaborate. Innovate. Any QuestionsAny Questions
  • 25. © Copyright GlobalLogic 2009 25 Connect. Collaborate. Innovate. “Thank You” for your learning contribution! Please submit Online Feedback to help L&D make continuous improvement……participation credit will be given only on feedback submission. For any queries Dial @ Learning: Noida: 4444, Nagpur:333, Pune:5222, Banglore:111 E mail: learning@globallogic.com Check new L&D Reward & Recognition Policy @ Confluence under Global Training Check new L&D Reward & Recognition Policy @ Confluence under Global Training

Editor's Notes

  • #5: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #9: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #10: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #11: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #12: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #13: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #14: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #16: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #22: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.
  • #23: Verification refers to the set of activities that ensure that software correctly implements a specific function. Validation refers to a different set of activities that ensure that the software that has been built is traceable to customer requirements. Verification ensures the product is designed to deliver all functionality to the customer; it typically involves reviews and meetings to evaluate documents, plans, code, requirements and specifications; this can be done with checklists, issues lists, and walkthroughs and inspection meetings. Validation ensures that functionality, as defined in requirements, is the intended behavior of the product; validation typically involves actual testing and takes place after verifications are completed. The standard definition of Verification goes like this: "Are we building the product RIGHT?" i.e. Verification is a process that makes it sure that the software product is developed the right way. The software should confirm to its predefined specifications, as the product development goes through different stages, an analysis is done to ensure that all required specifications are met. Validation is a process of finding out if the product being built is right? i.e. whatever the software product is being developed, it should do what the user expects it to do. The software product should functionally do what it is supposed to, it should satisfy all the functional requirements set by the user. Validation is done during or at the end of the development process in order to determine whether the product satisfies specified requirements. Validation and Verification processes go hand in hand, but visibly Validation process starts after Verification process ends (after coding of the product ends). Each Verification activity (such as Requirement Specification Verification, Functional design Verification etc.) has its corresponding Validation activity (such as Functional Validation/Testing, Code Validation/Testing, System/Integration Validation etc.). All types of testing methods are basically carried out during the Validation process. Test plan, test suits and test cases are developed, which are used during the various phases of Validation process. The phases involved in Validation process are: Code Validation/Testing, Integration Validation/Integration Testing, Functional Validation/Functional Testing, and System/User Acceptance Testing/Validation.