Apparatus and method for testing electronic apparatuses

The disclosure relates to a testing apparatus and a method for testing electronic apparatuses.

After manufacturing, various functions of electronic apparatuses need to be tested. For example, messaging function, call register function of a mobile phone need to be tested. A conventional testing method is that a computer runs a script to pass each of input commands of the script to a to-be-tested electronic apparatus, and the to-be-tested electronic apparatus receives and indentifies each of the input commands to conduct an input key of the keyboard, correspondingly to the input command, of the to-be-tested electronic apparatus. The to-be-tested electronic apparatus then performs a function associated with the input key correspondingly. However, using this method, each of the to-be-tested electronic apparatuses need to be installed a test procedure which is used for the to-be-tested electronic apparatus to indentify each of the input commands of the script. After completing the test on the to-be-tested electronic apparatus, the test procedure needs to be uninstalled. It is time consuming to uninstall the procedure.

Therefore, what is needed is a testing apparatus and a method which can efficiently test different functions of to-be-tested electronic apparatuses.

The components of the drawings are not necessarily drawn to scale, the emphasis instead being placed upon clearly illustrating the principles of a testing apparatus and a method for testing electronic apparatuses. Moreover, in the drawings, like reference numerals designate corresponding parts throughout several views.

FIG. 1 is a hardware infrastructure block diagram of a testing apparatus in accordance with an exemplary embodiment.

FIG. 2 is a block diagram of main function modules implemented by a processing unit of the test apparatus of FIG. 1 in accordance with an exemplary embodiment.

FIG. 3 is a flowchart of a method for testing an electronic apparatus utilizing the testing apparatus of FIG. 1 in accordance with an exemplary embodiment.

FIG. 1 is a hardware infrastructure block diagram of a testing apparatus 10 in accordance with an exemplary embodiment.

The testing apparatus 10 includes an emulator module 101 and a processing unit 102 . The emulator module 101 includes a slot (not shown). The slot can receive different types of emulator adapters 1010 . Each type of the emulator adapters 1010 corresponds to a type of to-be-tested apparatus 30 (e.g., a digital photo frame or a mobile phone), and is connectable to the type of to-be-tested apparatus 30 via a connector 20 correspondingly. The connector 20 can be changed according to the type of the to-be-tested apparatuses 30 . Each emulator adapter 1010 has an identification (ID) and includes a plurality of electrical conductive paths. In an exemplary embodiment, each of the electrical conductive paths includes a transistor and a thyristor, and simulates a key input on the keyboard of the to-be-tested apparatus 30 . That is, when an electrical conductive path is conducted, it correspondingly simulates an actuation of a key input using the keyboard of the to-be-tested apparatus 30 and as a result the to-be-tested apparatus 30 performs a function according to the key input correspondingly.

The testing apparatus 10 further includes a storage 103 and a display 104 . The storage 103 is configured for storing a test table as exampled below and a plurality of scripts. Each of the script is assigned a script name for identification, and is configured for testing a type of the to-be-tested apparatuses 30 . The test table includes an ID column and a script name column, and is configured for recording relationships between the IDs of the emulator adapters 1010 and the script names of the script. Each of the script is further consisted of a plurality of input commands. Each of the input commands includes, but is not limited to, an input key code of an input key of the keyboard of the to-be-tested apparatus 30 , and a time duration of keeping the input key actuated.

FIG. 2 is a block diagram of main function modules implemented by the processing unit 102 of the test apparatus 10 in accordance with an exemplary embodiment.

The processing unit 102 includes an ID reading module 1021 , a script name determining module 1022 , and a script running module 1023 .

The ID reading module 1021 is configured for reading the ID of the emulator adapter 1010 coupled to the slot of the emulator module 101 . The script name determining module 1022 is configured for searching for the script name in the test table according to the ID of the emulator adapter 1010 . The script running module 1023 is configured for fetching the script from the storage 103 according to the determined script name and invoking the script. The script running module 1023 passes each of the input commands of the script to the emulator module 101 . The emulator module 101 receives and identifies each of the input commands and transfers a signal (e.g., a high voltage) to conduct a simulated key input via an electrical conductive path, correspondingly to the input command, of the emulator adapter 1010 . Accordingly, the input key corresponding to the key input of the keyboard of the to-be-test apparatus 30 is activated and the to-be-test apparatus 30 performs a function associated with the input key correspondingly.

The processing unit 102 further includes a user interface processing module 1024 and a display processing module 1025 .

The user interface processing module 1024 is configured for providing a user interface. The user interface includes a text display region and a user operation region. The text display region is configured for displaying a history of the input commands run by the script running module 1023 . The user operation region is configured for providing a plurality of optional operations in relation to the script, for example, pausing the script, continuing the script, and stopping the script. The display processing module 1025 is configured for displaying the user interface on the display 104 , and displaying the history of the input commands run by the script running module 1023 in the text display region of the user interface.

FIG. 3 is a flow chart of a method for testing the to-be-tested apparatuses 30 utilizing the testing apparatus 10 in accordance with an exemplary embodiment.

In step S 301 , the ID reading module 1021 reads the ID of the emulator adapter 1010 coupled to the slot of the emulator module 101 .

In step S 302 , the script name determining module 1022 searches for the script name in the test table according to the ID of the emulator adapter 1010 .

In step S 303 , the script running module 1023 fetches the script from the storage 103 according to the determined script name and runs the fetched script to pass each of the input commands to the emulator module 101 .

In step S 304 , the emulator module 101 receives and indentifies an input command and transfers a signal (e.g. a high voltage) to conduct a simulated key input via an electrical conductive path, correspondingly to the input command, of the emulator adapter 1010 . Accordingly, the input key corresponding to the key input of the keyboard of the to-be-tested apparatus 30 is activated and the to-be-tested apparatus 30 performs a function associated with the input key correspondingly.

In step S 305 , the script running module 1023 determines whether the test process on the to-be-tested apparatus 30 is completed. If the test process is completed, the procedure ends, otherwise the procedure goes to step S 303 described above.

Although the present disclosure has been specifically described on the basis of preferred embodiments and method thereof, the disclosure is not to be construed as being limited thereto. Various changes or modifications may be made to the embodiments without departing from the scope and spirit of the invention.