Abstract: The present disclosure provides a virtual viewpoint synthesis method, including: pre-processing a depth image with zero parallax corresponding to an original image to obtain a processed depth image; generating virtual viewpoint images corresponding to a plurality of virtual viewpoints respectively according to the processed depth image and the original image; and filling holes in the virtual viewpoint image to generate a plurality of filled virtual viewpoint images. The present disclosure further provides an electronic apparatus and a computer-readable medium.

Abstract: The present disclosure provides a A driving method of a display panel, including: determining a target region and a non-target region in the display panel; dividing the target region into a plurality of target sub-regions, and dividing the non-target region into a plurality of non-target sub-regions, wherein an area of the target sub-region is less than that of the non-target sub-region; determining brightness compensation values of each target sub-region and each non-target sub-region according to a gray scale value of each pixel in an input image; determining a compensated brightness of each pixel unit in the display panel according to the gray scale value of each pixel in the input image, the brightness compensation values of each target sub-region and each non-target sub-region; and driving each pixel unit in the display panel to emit light according to the compensated brightness of each pixel unit in the display panel.

Abstract: A driving method for a display device, including: inputting a source image, wherein the source image includes depth information; searching in the source image by utilizing the depth information to determine first image pixel points matched with light-emitting sub-pixels of the display device; assigning pixel gray values of the first image pixel points to the light-emitting sub-pixels of the display device; and controlling the light-emitting sub-pixels to emit light according to assigned pixel gray values, so that the display device displays a multi-viewpoint image corresponding to the source image. The driving method of the display device provided in the embodiment of the present application directly searches for the first image pixel that satisfies the preset parallax condition on the source image based on the depth information, renders the display device, saves hardware storage resources, and improves the processing efficiency of multi-viewpoint naked-eye 3D display.

Abstract: A vibration method and apparatus are provided. The method comprises: in response to a first operation, the electronic device including at least two motors enters a first application scene; when a screen direction of the electronic device is a first screen direction, the at least two motors vibrate in a first vibration mode; and in response to a second operation, the screen direction of the electronic device is switched from the first screen direction to a second screen direction, and the at least two motors vibrate in a second vibration mode, wherein the first vibration mode is different from the second vibration mode. A vibration mode of a motor may be changed to adapt to the screen direction of the electronic device, so as to achieve an effect of adapting to a vibration feeling of a user based on the screen direction and improve user experience.

Abstract: A testing device is disclosed. The testing device includes a socket configured to support a DUT and a first detection module disposed at a first side of the socket and configured to detect a location relationship between the DUT and the socket.

Abstract: A testing device is disclosed. The testing device includes a socket configured to support a DUT and a first detection module disposed at a first side of the socket and configured to detect a location relationship between the DUT and the socket.

Abstract: A vibration method and apparatus are provided. The method comprises: in response to a first operation, the electronic device including at least two motors enters a first application scene; when a screen direction of the electronic device is a first screen direction, the at least two motors vibrate in a first vibration mode; and in response to a second operation, the screen direction of the electronic device is switched from the first screen direction to a second screen direction, and the at least two motors vibrate in a second vibration mode, wherein the first vibration mode is different from the second vibration mode. A vibration mode of a motor may be changed to adapt to the screen direction of the electronic device, so as to achieve an effect of adapting to a vibration feeling of a user based on the screen direction and improve user experience.

Abstract: A semiconductor device structure and method for forming the same are provided. The semiconductor device structure includes an interconnect structure formed over a substrate and a passivation layer formed over the interconnect structure. The semiconductor device structure also includes an anti-acid layer formed in the passivation layer and a bonding layer formed on the anti-acid layer and the passivation layer. The anti-acid layer has a thickness that is greater than about 140 nm.

Abstract: A semiconductor device structure and method for forming the same are provided. The semiconductor device structure includes an interconnect structure formed over a substrate and a passivation layer formed over the interconnect structure. The semiconductor device structure also includes an anti-acid layer formed in the passivation layer and a bonding layer formed on the anti-acid layer and the passivation layer. The anti-acid layer has a thickness that is greater than about 140 nm.

Abstract: A semiconductor device structure and method for forming the same are provided. The semiconductor device structure includes an interconnect structure formed over a substrate and a passivation layer formed over the interconnect structure. The semiconductor device structure also includes an anti-acid layer formed in the passivation layer and a bonding layer formed on the anti-acid layer and the passivation layer. The anti-acid layer has a thickness that is greater than about 140 nm.