Analysis of Test Coverage Data on a Large-Scale Industrial System
Software testing verifies the program's functional behavior, one important process when engineering critical software. Measuring the degree of testing is done with code coverage, describing the amount of production code affected by tests. Both concepts are extensively used for industrial system...
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Linköpings universitet, Programvara och system
2016
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ndltd-UPSALLA1-oai-DiVA.org-liu-1318152018-01-15T07:13:08ZAnalysis of Test Coverage Data on a Large-Scale Industrial SystemengVasconcelos Jansson, Erik SvenLinköpings universitet, Programvara och system2016code coveragesoftware testingindustrialanalysislarge-scalesimilarityjaccardimplementationfeasibilityperformanceSoftware EngineeringProgramvaruteknikComputer SciencesDatavetenskap (datalogi)Software testing verifies the program's functional behavior, one important process when engineering critical software. Measuring the degree of testing is done with code coverage, describing the amount of production code affected by tests. Both concepts are extensively used for industrial systems. Previous research has shown that gathering and analyzing test coverages becomes problematic on large-scale systems. Here, development experience, implementation feasibility, coverage measurements and analysis method are explored; providing potential solutions and insights into these issues. Outlined are methods for constructing and integrating such gathering and analysis system in a large-scale project, along with the problems encountered and given remedies. Instrumentations for gathering coverage information affect performance negatively, these measurements are provided. Since large-scale test suite measurements are quite lacking, the line, branch, and function criteria are presented here. Finally, an analysis method is proposed, by using coverage set operations and Jaccard indices, to find test similarities. Results gathered imply execution time was significantly affected when gathering coverage, [2.656, 2.911] hours for instrumented software, originally between [2.075, 2.260] on the system under test, given under the alpha = 5% and n = 4, while both processor & memory usages were inconclusive. Measured criteria were (59.3, 70.7, 24.6)% for these suites. Analysis method shows potential areas of test redundancy. Student thesisinfo:eu-repo/semantics/bachelorThesistexthttp://urn.kb.se/resolve?urn=urn:nbn:se:liu:diva-131815application/pdfinfo:eu-repo/semantics/openAccess |
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English |
format |
Others
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code coverage software testing industrial analysis large-scale similarity jaccard implementation feasibility performance Software Engineering Programvaruteknik Computer Sciences Datavetenskap (datalogi) |
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code coverage software testing industrial analysis large-scale similarity jaccard implementation feasibility performance Software Engineering Programvaruteknik Computer Sciences Datavetenskap (datalogi) Vasconcelos Jansson, Erik Sven Analysis of Test Coverage Data on a Large-Scale Industrial System |
description |
Software testing verifies the program's functional behavior, one important process when engineering critical software. Measuring the degree of testing is done with code coverage, describing the amount of production code affected by tests. Both concepts are extensively used for industrial systems. Previous research has shown that gathering and analyzing test coverages becomes problematic on large-scale systems. Here, development experience, implementation feasibility, coverage measurements and analysis method are explored; providing potential solutions and insights into these issues. Outlined are methods for constructing and integrating such gathering and analysis system in a large-scale project, along with the problems encountered and given remedies. Instrumentations for gathering coverage information affect performance negatively, these measurements are provided. Since large-scale test suite measurements are quite lacking, the line, branch, and function criteria are presented here. Finally, an analysis method is proposed, by using coverage set operations and Jaccard indices, to find test similarities. Results gathered imply execution time was significantly affected when gathering coverage, [2.656, 2.911] hours for instrumented software, originally between [2.075, 2.260] on the system under test, given under the alpha = 5% and n = 4, while both processor & memory usages were inconclusive. Measured criteria were (59.3, 70.7, 24.6)% for these suites. Analysis method shows potential areas of test redundancy. |
author |
Vasconcelos Jansson, Erik Sven |
author_facet |
Vasconcelos Jansson, Erik Sven |
author_sort |
Vasconcelos Jansson, Erik Sven |
title |
Analysis of Test Coverage Data on a Large-Scale Industrial System |
title_short |
Analysis of Test Coverage Data on a Large-Scale Industrial System |
title_full |
Analysis of Test Coverage Data on a Large-Scale Industrial System |
title_fullStr |
Analysis of Test Coverage Data on a Large-Scale Industrial System |
title_full_unstemmed |
Analysis of Test Coverage Data on a Large-Scale Industrial System |
title_sort |
analysis of test coverage data on a large-scale industrial system |
publisher |
Linköpings universitet, Programvara och system |
publishDate |
2016 |
url |
http://urn.kb.se/resolve?urn=urn:nbn:se:liu:diva-131815 |
work_keys_str_mv |
AT vasconcelosjanssoneriksven analysisoftestcoveragedataonalargescaleindustrialsystem |
_version_ |
1718610603560402944 |