摘要:
Provided are an apparatus and method for tracking a directory, in which a final running directory path is transferred to a file transfer program through a terminal emulator. The method includes the steps of: (a) outputting a directory path request command in use to a terminal emulator; (b) receiving a current directory path output from the terminal emulator in response to the directory path request command; and (c) outputting the received current directory path to a file transfer program. Therefore, a path of a final running directory is transferred to a file transfer program through a terminal emulator to automatically set a directory path where the file transfer program is uploaded/downloaded when the file transfer program is executed.
摘要:
Provided are a method and apparatus for evaluating the effectiveness of a test case used for a program test on the basis of error detection capability. The method includes: receiving a target program used for evaluating the effectiveness of the test case; generating an error program by inputting errors to the target program; detecting the errors by executing the test case on the generated error program; and calculating evaluation points of the test case using a ratio of the number of the detected errors to the number of the input errors. Thus, the capability of the test case used for a program test to detect errors can be evaluated.
摘要:
Provided are a method and apparatus for evaluating the effectiveness of a test case used for a program test on the basis of error detection capability. The method includes: receiving a target program used for evaluating the effectiveness of the test case; generating an error program by inputting errors to the target program; detecting the errors by executing the test case on the generated error program; and calculating evaluation points of the test case using a ratio of the number of the detected errors to the number of the input errors. Thus, the capability of the test case used for a program test to detect errors can be evaluated.
摘要:
A debugging apparatus and method for correcting errors in embedded systems are provided. More particularly, a non-stop debugging apparatus and method for correcting errors in embedded systems in a development environment configured of a host and a target are provided.With the non-stop debugging apparatus and method, application programs of the embedded systems can be easily debugged without the user having to frequently execute operation and stoppage of the application programs, in time-sensitive application programs and the application programs on which it takes a user much time to perform.Also, according to the non-stop debugging apparatus and method, commands for the non-stop debugging and information required for other debugging are stored in the host system, thus making it possible to minimize the load of the target system so as to conform to the characteristics of the embedded systems sensitive to resource limitations.
摘要:
The present invention relates to a task scheduling method for a real time operating system (RTOS) mounted to an embedded system, and more particularly, to a task scheduling method which allows a programmer to make a CPU reservation for a task. The task scheduling method for a real time operating system, includes: at a scheduling time point, determining whether or not a highest priority of tasks present in a ready queue is a predetermined value K; if the highest priority is determined to be K, applying a reservation based scheduler to perform a scheduling; and if the highest priority is determined not to be K, applying a priority based scheduler to perform a scheduling; the tasks present in the ready queue, the priority of which is K, contains idle CPU reservation allocation information received as a factor when the tasks the priority of which is K are created.
摘要:
Provided are a device and method for executing a kernel application program interface (API) interactively in a Linux system, wherein a kernel API is independently operated in a user region to confirm an operation result. The device includes: a device interface unit for receiving a command from a user, and outputting an execution result corresponding to the command to the user; a kernel API command analysis unit for receiving the command from the device interface unit, analyzing the command, and generating kernel API execution information; and a kernel API command execution unit for executing a kernel API corresponding to the command using the kernel API execution information, and transmitting the execution result to the device interface unit. Thus, a kernel API can be applied using a simple process with reduced time and effort, instead of repeating the entire kernel program development process for a Linux system.