Abstract: The present disclosure provides a method for motion control of at least one working head. The method may include obtaining a target region of a subject based on a scan of a high-precision measuring device. The method may also include determining depth information corresponding to the target region based on the target region. The method may further include determining a motion trajectory of the at least one working head based on the depth information.

Abstract: A method of forming a semiconductor device includes forming active regions, forming S/D regions, forming MD contact structures and forming gate lines resulting in corresponding transistors that define a first time delay circuit having a first input configured to receive a first clock signal and having a first output configured to generate a second clock signal from the first clock signal; and corresponding transistors that define a second time delay circuit having a second input configured to receive the second clock signal and having a second output configured to generate a third clock signal from the first clock signal; forming a first gate via-connector in direct contact with the first gate line atop the first-type active region in the first area; and forming a second gate via-connector in direct contact with the second gate line atop the second-type active region in the second area.

Abstract: A touch display panel and a display device are provided. The touch display panel includes: a plurality of touch electrodes, a plurality of touch signal lines, a plurality of demultiplexing circuits, a plurality of touch channel signal lines, a plurality of pads, and a driving chip. The demultiplexing circuits can selectively electrically connect one of multiple of the touch signal lines to a corresponding one of the touch channel signal lines. A number of the pads can be decreased, and layout design space required by the touch channel signal lines and the pads can be reduced, so as to increase freedom of selection of the driving chip.

Abstract: The present invention provides a display panel, a display screen, and an electronic device. The display panel includes a non-shared pixel array including a plurality of non-shared pixel columns and a plurality of non-shared pixel rows, a shared pixel array including a plurality of shared pixel columns and a plurality of shared pixel rows, and a plurality of data lines, wherein the non-shared pixel row and the shared pixel column adjacent to the non-shared pixel row correspond to one data line.

Abstract: An organic light emitting diode (OLED) display including a display body and a chip encapsulation board is provided. The chip encapsulation board is electrically connected to the display body through a connecting component; wherein an edge of the display body is provided with a groove, and a connection of the connecting component and the display body is located at a sidewall of the display body defining of the groove.

Abstract: An organic light emitting diode (OLED) display including a display body and a chip encapsulation board is provided. The chip encapsulation board is electrically connected to the display body through a connecting component; wherein an edge of the display body is provided with a groove, and a connection of the connecting component and the display body is located at a sidewall of the display body defining of the groove.

Abstract: An OLED display panel and an under-screen optical fingerprint recognition method are provided. In the OLED display panel, light sensitive units for optical fingerprint recognition are assembled in an OLED module functional layer and located on a same film layer where an anode of an organic electroluminescence device is located on, and located at gaps between the anodes. Such a structure reduces a path for light propagation, increases intensity of light received by the light sensitive units, and improves accuracy and efficiency in fingerprint recognition.

Abstract: An OLED display panel and an under-screen optical fingerprint recognition method are provided. In the OLED display panel, light sensitive units for optical fingerprint recognition are assembled in an OLED module functional layer and located on a same film layer where an anode of an organic electroluminescence device is located on, and located at gaps between the anodes. Such a structure reduces a path for light propagation, increases intensity of light received by the light sensitive units, and improves accuracy and efficiency in fingerprint recognition.

Abstract: A planarizing method for forming a patterned planarized aperture fill layer within an aperture employs a planarizing stop layer formed of a reductant based material, such as but not limited to a hydrogenated silicon nitride material. The reductant based material provides the planarizing stop layer with enhanced planarizing stop properties. The method is particularly useful within the context of CMP planarizing methods.

Abstract: A planarizing method for forming a patterned planarized aperture fill layer within an aperture employs a planarizing stop layer formed of a reductant based material, such as but not limited to a hydrogenated silicon nitride material. The reductant based material provides the planarizing stop layer with enhanced planarizing stop properties. The method is particularly useful within the context of CMP planarizing methods.