Abstract: A system, method, and computer program product are provided for automatically converting manual test cases to automated test structures in a software testing project. In operation, an activity being tested associated with at least one software testing project is identified. Additionally, an automated test case is created based on a manual test case associated with the activity being tested. Further, the automated test case is linked to a generic reusable automated activity group. In addition, one or more parameters associated with measurements of the activity being tested and corresponding values associated with a current testing instance are identified. Moreover, a work flow is automatically generated for the reusable generic activity group available for future testing use, based on the one or more parameters and the corresponding testing values.

Abstract: A gravity reactive braking system comprises a housing connected to a structural element of a manually powered wheeled unit; a guide wheel having a first sector of radially protruding elements positionable in drivable contact with a main wheel periphery, and a second sector with a circular periphery of a shorter radial length than the first sector; a plate configured with a cammed surface; a height adjustment unit; and a follower element connected to a brake assembly cable and pivotably mounted onto the housing, for movably engaging a plate periphery. The guide wheel is rotatable in a rotational direction opposite to the main wheel's rotational direction when the radially protruding elements are positioned in drivable contact with the main wheel periphery following suitable manipulation of the height adjustment unit, and is indexable a predetermined angle until a desired region of the guide wheel is in contact with the main wheel periphery.

Abstract: A system, method, and computer program product are provided for web testing and automation offline storage and analysis. In operation, an automated testing flow of a system under test is monitored by a testing system. Further, an instruction is received by the testing system to capture a snapshot of the system under test during the automated testing flow of the system under test. In response to receiving the instruction to capture the snapshot of the system under test, a complete snapshot of the system under test is saved by the testing system. The complete snapshot includes an appearance of the system under test, digital assets being utilized in association with the automated testing flow of the system under test, and current code associated with the automated testing flow of the system under test, such that full client-side functionality of the system under test is available to a tester offline.

Abstract: A gravity reactive braking system comprises a housing connected to a structural element of a manually powered wheeled unit; a guide wheel having a first sector of radially protruding elements positionable in drivable contact with a main wheel periphery, and a second sector with a circular periphery of a shorter radial length than the first sector; a plate configured with a cammed surface; a height adjustment unit; and a follower element connected to a brake assembly cable and pivotably mounted onto the housing, for movably engaging a plate periphery. The guide wheel is rotatable in a rotational direction opposite to the main wheel's rotational direction when the radially protruding elements are positioned in drivable contact with the main wheel periphery following suitable manipulation of the height adjustment unit, and is indexable a predetermined angle until a desired region of the guide wheel is in contact with the main wheel periphery.

Abstract: A system, method, and computer program product are provided for efficiently automating software testing of business flows. In use, a business flow executed by a user is recorded by a testing system. The business flow is executed by the testing system utilizing a plurality of user selected parameters. Additionally, the recorded business flow is automatically parsed by the testing system into a plurality of activities associated with the business flow. Further, one or more existing automated activities in a test automation repository that correlate with one or more of the plurality of activities associated with the business flow are identified by the testing system (e.g. using a smart match algorithm). Moreover, an automated test for the business flow is generated by the testing system utilizing the one or more existing automated activities in the test automation repository.

Abstract: A system, method, and computer program product are provided for High Volume Test Automation (HVTA) utilizing recorded automation building blocks. In operation, a testing system identifies at least one HVTA test to perform on a system under test as part of a testing project based on an existing set of tests. The testing system identifies a plurality of generic test functions in an automation repository that are applicable to the at least one HVTA test that has been identified by the testing system as relevant. Additionally, the testing system identifies dependency rules associated with the plurality of generic test functions. Further, the testing system generates at least one test flow utilizing the plurality of generic test functions, based on the dependency rules associated with the plurality of generic test functions. In addition, the testing system organizes an overall test sequence for the at least one HVTA test including the at least one test flow, based on a type of HVTA test to be performed.