Abstract: An image resolution adjustment method and an electronic device are disclosed. The method includes: executing a target application to obtain a target image with a first resolution based on a first frame rate; and during an execution of the target application, selecting a target memory from a plurality of buffer memories according to a usage rate of each of the buffer memories; processing the target image by an image processing model and the target memory to adjust a resolution of the target image from the first resolution to a second resolution, where the second resolution is higher than the first resolution; and controlling a display interface to present the target image with the second resolution based on the first frame rate.

Abstract: An instruction query method, a computer program product, and an associated query system are provided. A software program is stored in the computer program product, and the software program performs the instruction query method. The instruction query method includes the following steps. Firstly, a language translator translates a non-English query string into an English query string according to a language identification code. Then, a prompt tuning module transforms the English query string into an English interactive prompt string according to at least one high-relevance token vector. The at least one high-relevance token vector relates to the operating instructions of an electronic device. Afterward, the language translator translates an English reply string into a non-English reply string according to the language identification code. The English reply string is generated based on inferences made from the English interactive prompt string.

Abstract: An electronic device with dynamic lighting effect and a method for generating dynamic lighting effect are provided. The method for generating dynamic lighting effect includes the following steps. A lighting effect tracking frame is provided according to an eye position of a user, a dynamic lighting effect frame is received, or a predefined lighting effect frame is stored. The lighting effect tracking frame, the dynamic lighting effect frame or the predefined lighting effect frame is obtained. A size adjustment procedure is performed on the lighting effect tracking frame, the dynamic lighting effect frame or the predefined lighting effect frame to obtain a lighting effect control map. The dynamic lighting effect device is controlled according to the lighting effect control map to generate the dynamic lighting effect.

Abstract: An image composition solution, designed to correct the scale relationship between a person and a 3D virtual scene, is provided. The correction is achieved by adjusting the position of the virtual camera for capturing the person in the virtual world to match the position of the real-world camera. As a result, the disproportionate appearance of the person in the composite image, whether too large or too small, is eliminated, significantly enhancing the coherence and naturalness of the image.

Abstract: A switching method for video conference and a video conference system are disclosed. The switching method for video conference is adapted to a video conference system including a first camera device and a second camera device, and includes the following steps. A first captured image of the first camera device and a second captured image of the second camera device are obtained. Image-object recognition is performed for the first captured image and the second captured image respectively by using a neural network model. According to a model recognition result of the first captured image and a model recognition result of the second captured image, a video source of the video conference is switched to the first camera device or the second camera device. The video conference is carrying out based on images from the video source.

Abstract: The present invention provides methods of establishing a wireless communication connection. The method includes establishing a Bluetooth low energy (BLE) connection between an electronic device and a mobile device. The electronic device transmits first connection information related to the electronic device to the mobile device using BLE. The method further includes transmitting a first Wi-Fi direct pairing request from the mobile device to the electronic device according to the first connection information. According to the method, the electronic device obtains second connection information related to the mobile device according to the first Wi-Fi direct pairing request and cancels the first Wi-Fi direct pairing request. The method further includes using the electronic device to transmit a second Wi-Fi direct pairing request to the mobile device according to the second connection information to establish a Wi-Fi direct connection.

Abstract: A hardware parameter setting method and an electronic device are provided. The method includes following steps. A hardware start event which reflects that target hardware equipment is in a startup status is detected. In response to the hardware start event, a hardware parameter setting interface presenting at least one parameter setting item associated with the target hardware equipment is presented on a display. A user operation corresponding to the hardware parameter setting interface is received. In response to the user operation, parameter setting information is provided to a hardware control interface corresponding to the target hardware equipment. A parameter setting is performed on the target hardware equipment through the hardware control interface.

Abstract: A method for displaying a stereoscopic scene and an electronic device are provided. The electronic device includes a displaying unit, an inputting unit, a stereo scene generating unit, a controlling unit and an imaging unit. The inputting unit includes a hot key. If the hot key is pressed, the stereoscopic scene generating unit generates the stereoscopic scene comprising a plurality of frames. The controlling unit is used for receiving a human interface device (HID) signal from the inputting unit, and converting the HID signal into an angle signal. The imaging unit is used for displaying one of the frames of the stereoscopic scene on the displaying unit according to the angle signal.

Abstract: A frame resolution setting method based on device media foundation transform (DMFT) and a computer system are provided. The DMFT establishes a resolution list including at least one first resolution according to the at least one first resolution supported by a main image capture device. An application program provides at least one second resolution to the DMFT to update the resolution list. A camera application program selects a target resolution between the first resolution and the second resolution in the resolution list provided by the DMFT. The application program performs image scaling processing on a plurality of first input image frames generated by the main image capture device according to the target resolution to generate a plurality of first output image frames conforming to the target resolution. The application program provides the first output image frames conforming to the target resolution to the DMFT.

Abstract: A frame resolution setting method based on device media foundation transform (DMFT) and a computer system are provided. The DMFT establishes a resolution list including at least one first resolution according to the at least one first resolution supported by a main image capture device. An application program provides at least one second resolution to the DMFT to update the resolution list. A camera application program selects a target resolution between the first resolution and the second resolution in the resolution list provided by the DMFT. The application program performs image scaling processing on a plurality of first input image frames generated by the main image capture device according to the target resolution to generate a plurality of first output image frames conforming to the target resolution. The application program provides the first output image frames conforming to the target resolution to the DMFT.

Abstract: An electronic device capable of performing multi-camera intelligent switching and a multi-camera intelligent switching method thereof are provided. The electronic device includes a plurality of camera device media foundation transform (camara DMFT) units, an integrated DMFT unit and a mix camera agent. Each of the camera DMFT units is connected to one of a plurality of cameras. The integrated DMFT unit is serially connected to one of the camera DMFT units. The mix camera agent is connected to the cameras. The mix camera agent is used for obtaining a switching notification signal. The integrated DMFT unit switches a serial path between the integrated DMFT unit and one of the camera DMFT units according to the switching notification signal.

Abstract: A method for processing an image that can be played on a virtual device, including obtaining a super-resolution deep learning network model, which is trained to learn to reconstruct an image from low resolution to high resolution; wherein the super-resolution deep learning network model includes a plurality of feature filters to extract features of the image; modifying the resolution of the feature filters from a preset value to an established value, wherein the established value is higher than the preset value; inputting a low-resolution image into the super-resolution deep learning network model; and increasing the resolution of the low-resolution image to become a high-resolution image through the super-resolution deep learning network model.

Abstract: The present application provides a method and a computer program product for image style transfer. The method uses an AI algorithm based on convolution to extract the content representation of a content image and the style representation of a style image, and generate a new image according to the extracted content representation and style representation. This new image not only has both the features of the content image and the features of the style image, but it also more aesthetically pleasing than the images generated by the commonly known methods do.

Abstract: A method for processing an image that can be played on a virtual device, including obtaining a super-resolution deep learning network model, which is trained to learn to reconstruct an image from low resolution to high resolution; wherein the super-resolution deep learning network model includes a plurality of feature filters to extract features of the image; modifying the resolution of the feature filters from a preset value to an established value, wherein the established value is higher than the preset value; inputting a low-resolution image into the super-resolution deep learning network model; and increasing the resolution of the low-resolution image to become a high-resolution image through the super-resolution deep learning network model.

Abstract: The invention provides a verifying method and a verifying device. The verifying method includes receiving a marketing requirement document (MRD) and a softload content list (SCL). The MRD includes a touch point information of a plurality of applications of a plurality of product lines. The SCL includes a name information and a version information of applications of one of the product lines. The verifying method further includes obtaining a first touch point information to be verified according to the MRD and the SCL. The first touch point information corresponds to a first application of the applications. The verifying method further includes searching a first application module corresponding to the first application from an application database according to the name information or the version information of the first application. The verifying method further includes verifying whether a touch point path of the first application module is valid.

Abstract: Embodiments of a device (such as a computer system or a circuit tester), a method, and a computer-program product (i.e., software) for use with the device are described. These systems and processes may be used to statistically characterize interdependencies between sub-circuits in an integrated circuit (which are referred to as ‘aggressor-victim relationships’). In particular, statistical relationships between the aggressors and victims are determined from values of a performance metric (such as clock speed) when the integrated circuit fails for a group of state-change difference vectors. Using these statistical relationships, a worst-case sub-group of the state-change difference vectors, such as the worst-case sub-group, is selected. This sub-group can be used to accurately test the integrated circuit.

Abstract: Embodiments of a device (such as a computer system or a circuit tester), a method, and a computer-program product (i.e., software) for use with the device are described. These systems and processes may be used to statistically characterize interdependencies between sub-circuits in an integrated circuit (which are referred to as ‘aggressor-victim relationships’). In particular, statistical relationships between the aggressors and victims are determined from values of a performance metric (such as clock speed) when the integrated circuit fails for a group of state-change difference vectors. Using these statistical relationships, a worst-case sub-group of the state-change difference vectors, such as the worst-case sub-group, is selected. This sub-group can be used to accurately test the integrated circuit.

Abstract: A data backup system can analyze the data that need backups in accordance with user-defined or default backup criteria, so that the user can locate the files in need of backup without spending lots of time on finding the files.

Abstract: Disclosed herein are methods and systems for generating test vectors for use in verification of a circuit design and for hardware testing on a fabricated circuit representative of the circuit design. The system and methods can systematically and automatically perform functional and structural testing on selected paths of the circuit design and, in turn, generate one or more test vectors to increase PDT test coverage using the results of the structural test on the selected path.

Abstract: Disclosed herein are methods and systems for generating test vectors for use in verification of a circuit design and for hardware testing on a fabricated circuit representative of the circuit design. The system and methods can systematically and automatically perform functional and structural testing on selected paths of the circuit design and, in turn, generate one or more test vectors to increase PDT test coverage using the results of the structural test on the selected path.