Abstract: A quick-assembly seat includes a seat body, a clamping assembly and a driving assembly. The clamping assembly includes a clamping member and a touch member which are slidably connected to the seat body. The driving assembly includes a first driving member and a third driving member, where one end of the first driving member and one end of a third driving member are connected to the seat body, and the other end of the first driving member and the other end of the third driving member are respectively connected to the clamping member and the touch member. The clamping member is configured to move along a first direction toward an inside of the seat body, so that the first driving member accumulates a driving force, and the third driving member releases a driving force to drive the touch member to be clamped with the clamping member.

Abstract: A quick-assembly component includes a quickly-assembly plate and a quick-assembly seat. The quick-assembly plate has a first surface and a second surface oppositely arranged along a thickness direction of the quick-assembly plate. The first surface is provided with a recess; a side wall of the recess is provided with a clamping slot communicating with the recess. The quick-assembly seat includes a seat body, a touch assembly, and clamping assemblies. The touch assembly includes touch members that are movable relative to the seat body along the thickness direction of the quick-assembly plate. The clamping assemblies each include a clamping member and a first restoring member provided between the clamping member and the seat body. The clamping member is movable relative to the seat body to allow the first restoring member to accumulate and release a restoring force.

Abstract: A quick-assembly component includes a quickly-assembly plate and a quick-assembly seat. The quick-assembly plate has a first surface and a second surface oppositely arranged along a thickness direction of the quick-assembly plate. The first surface is provided with a recess; a side wall of the recess is provided with a clamping slot communicating with the recess. The quick-assembly seat includes a seat body, a touch assembly, and clamping assemblies. The touch assembly includes touch members that are movable relative to the seat body along the thickness direction of the quick-assembly plate. The clamping assemblies each include a clamping member and a first restoring member provided between the clamping member and the seat body. The clamping member is movable relative to the seat body to allow the first restoring member to accumulate and release a restoring force.

Abstract: A quick-assembly seat includes a seat body, a clamping assembly and a driving assembly. The clamping assembly includes a clamping member and a touch member which are slidably connected to the seat body. The driving assembly includes a first driving member and a third driving member, where one end of the first driving member and one end of a third driving member are connected to the seat body, and the other end of the first driving member and the other end of the third driving member are respectively connected to the clamping member and the touch member. The clamping member is configured to move along a first direction toward an inside of the seat body, so that the first driving member accumulates a driving force, and the third driving member releases a driving force to drive the touch member to be clamped with the clamping member.

Abstract: A test coverage analysis method and corresponding apparatus are disclosed, wherein, by executing the program under test using one or more test cases, generating one or more heapdump files containing the call stack information of the program under test, and analyzing the call stack information in the one or more heapdump files, the coverage information of the one or more test cases in terms of functions in the program under test is obtained.

Abstract: A test coverage analysis method and corresponding apparatus are disclosed, wherein, by executing the program under test using one or more test cases, generating one or more heapdump files containing the call stack information of the program under test, and analyzing the call stack information in the one or more heapdump files, the coverage information of the one or more test cases in terms of functions in the program under test is obtained.

Abstract: A test coverage analysis method and corresponding apparatus are disclosed, wherein, by executing the program under test using one or more test cases, generating one or more heapdump files containing the call stack information of the program under test, and analyzing the call stack information in the one or more heapdump files, the coverage information of the one or more test cases in terms of functions in the program under test is obtained.

Abstract: A test coverage analysis method and corresponding apparatus are disclosed, wherein, by executing the program under test using one or more test cases, generating one or more heapdump files containing the call stack information of the program under test, and analyzing the call stack information in the one or more heapdump files, the coverage information of the one or more test cases in terms of functions in the program under test is obtained.

Abstract: A test coverage analysis method and corresponding apparatus are disclosed, wherein, by executing the program under test using one or more test cases, generating one or more heapdump files containing the call stack information of the program under test, and analyzing the call stack information in the one or more heapdump files, the coverage information of the one or more test cases in terms of functions in the program under test is obtained.

Abstract: An exemplary barcode decoding chip includes a scan module, a boundary identification module, a direction identification module, a bar space boundary processing module, a symbol parameter identification module, a symbol character extraction module, and a decoding module.

Abstract: A test coverage analysis method and corresponding apparatus are disclosed, wherein, by executing the program under test using one or more test cases, generating one or more heapdump files containing the call stack information of the program under test, and analyzing the call stack information in the one or more heapdump files, the coverage information of the one or more test cases in terms of functions in the program under test is obtained.

Abstract: A method of performance testing for software applications can include storing, in a network accessible location, options corresponding to functions for use in performance test cases and sending to a computer system an electronic document specifying at least one of the plurality of options. The computer system can be remotely located from the network accessible location. The method further can include receiving, from the computer system, input selecting at least one option from the electronic document and automatically generating a performance test case using functions corresponding to the selected option(s). The options can be selected through a Web-based shopping cart and/or system interface thereby easing the process of test case generation.

Abstract: An exemplary barcode decoding chip includes a scan module, a boundary identification module, a direction identification module, a bar space boundary processing module, a symbol parameter identification module, a symbol character acquisition module, and a decoding module.

Abstract: A method of performance testing for software applications can include storing, in a network accessible location, options corresponding to functions for use in performance test cases and sending to a computer system an electronic document specifying at least one of the plurality of options. The computer system can be remotely located from the network accessible location. The method further can include receiving, from the computer system, input selecting at least one option from the electronic document and automatically generating a performance test case using functions corresponding to the selected option(s). The options can be selected through a Web-based shopping cart and/or system interface thereby easing the process of test case generation.

Abstract: A method of performance testing for software applications can include storing, in a network accessible location, options corresponding to functions for use in performance test cases and sending to a computer system an electronic document specifying at least one of the plurality of options. The computer system can be remotely located from the network accessible location. The method further can include receiving, from the computer system, input selecting at least one option from the electronic document and automatically generating a performance test case using functions corresponding to the selected option(s). The options can be selected through a Web-based shopping cart and/or system interface thereby easing the process of test case generation.

Abstract: A method of performance testing for software applications can include storing, in a network accessible location, options corresponding to functions for use in performance test cases and sending to a computer system an electronic document specifying at least one of the plurality of options. The computer system can be remotely located from the network accessible location. The method further can include receiving, from the computer system, input selecting at least one option from the electronic document and automatically generating a performance test case using functions corresponding to the selected option(s). The options can be selected through a Web-based shopping cart and/or system interface thereby easing the process of test case generation.