Abstract: A virtual track design system for mobile devices and implementation method thereof are disclosed. The virtual track design system includes communication module: which is mainly used for relevant map information, virtual track information, positioning information, and task information transmission, and acts as a bridge; interaction module: which sets fixed track with arbitrary shape and length through graphical editing environment, and supports segmental modification, deletion of tracks and other functions. After editing, sends the virtual track information to the intelligent cruise algorithm processing module; acquisition module: which gets the virtual track information provided by the interaction module, stores relevant data, and sends the information to the key point of track extraction module. The invention does not require additional cost to deploy auxiliary equipment, and is more convenient, flexible and fast to use.

Abstract: The invention discloses a virtual wall system for mobile devices and implementation method thereof. The virtual wall system for mobile devices includes: communication module: which is mainly used for the transmissions of relevant map information, virtual wall information, positioning information, and task information, and act as a bridge; interaction module: by which users set, add or delete the virtual wall information of any shape through the graphical editing environment, and sends this information to the processing part of the intelligent mobile algorithm; acquisition module: which obtains the virtual wall information provided by the interaction module, stores relevant data. The present needs no additional cost to produce additional auxiliary hardware devices, and is more convenient, flexible and fast for use.

Abstract: A virtual track design system for mobile devices and implementation method thereof are disclosed. The virtual track design system includes communication module: which is mainly used for relevant map information, virtual track information, positioning information, and task information transmission, and acts as a bridge; interaction module: which sets fixed track with arbitrary shape and length through graphical editing environment, and supports segmental modification, deletion of tracks and other functions. After editing, sends the virtual track information to the intelligent cruise algorithm processing module; acquisition module: which gets the virtual track information provided by the interaction module, stores relevant data, and sends the information to the key point of track extraction module. The invention does not require additional cost to deploy auxiliary equipment, and is more convenient, flexible and fast to use.

Abstract: The invention discloses a virtual wall system for mobile devices and implementation method thereof. The virtual wall system for mobile devices includes: communication module: which is mainly used for the transmissions of relevant map information, virtual wall information, positioning information, and task information, and act as a bridge; interaction module: by which users set, add or delete the virtual wall information of any shape through the graphical editing environment, and sends this information to the processing part of the intelligent mobile algorithm; acquisition module: which obtains the virtual wall information provided by the interaction module, stores relevant data. The present needs no additional cost to produce additional auxiliary hardware devices, and is more convenient, flexible and fast for use.

Abstract: An automated testing system is described for efficient testing of software applications. Locators are used by the test to find user interface elements in an application's graphical user interface during testing. If during a test a user interface element is not found, which may be due to a changed locator during code refactoring, the system finds the user interface element based on the element's type and on previously stored information about the element. Such information can be a snapshot image of the element, the coordinates of the element's location, dimensions of the element, or other information. Once the missing element is found, a new locator for the element is read and the test is performed using the new locator.

Abstract: An automated testing system is described for efficient visual verification of graphical user interfaces of software applications. A pattern is formed for the user interface of a page of the application indicating regions of the page where user interface elements should be located and identifying which user interface element should be located in which region. During test execution, image recognition is performed using previously stored snapshots of user interface elements to determine whether the application's user interface elements appear in correct positions on the page.

Abstract: An automated testing system is described for efficient testing of software applications. Locators are used by the test to find user interface elements in an application's graphical user interface during testing. If during a test a user interface element is not found, which may be due to a changed locator during code refactoring, the system finds the user interface element based on the element's type and on previously stored information about the element. Such information can be a snapshot image of the element, the coordinates of the element's location, dimensions of the element, or other information. Once the missing element is found, a new locator for the element is read and the test is performed using the new locator.

Abstract: An automated testing system is described for efficient visual verification of graphical user interfaces of software applications. A pattern is formed for the user interface of a page of the application indicating regions of the page where user interface elements should be located and identifying which user interface element should be located in which region. During test execution, image recognition is performed using previously stored snapshots of user interface elements to determine whether the application's user interface elements appear in correct positions on the page.

Abstract: An automated testing system is described for efficient testing of software applications. Locators are used by the test to find user interface elements in an application's graphical user interface during testing. If during a test a user interface element is not found, which may be due to a changed locator during code refactoring, the system finds the user interface element based on the element's type and on previously stored information about the element. Such information can be a snapshot image of the element, the coordinates of the element's location, dimensions of the element, or other information. Once the missing element is found, a new locator for the element is read and the test is performed using the new locator.

Abstract: An automated testing system is described for efficient testing of software applications. Locators are used by the test to find user interface elements in an application's graphical user interface during testing. If during a test a user interface element is not found, which may be due to a changed locator during code refactoring, the system finds the user interface element based on the element's type and on previously stored information about the element. Such information can be a snapshot image of the element, the coordinates of the element's location, dimensions of the element, or other information. Once the missing element is found, a new locator for the element is read and the test is performed using the new locator.