Abstract: A digital exposure machine and an exposure control method thereof are disclosed. The exposure control method of the digital exposure machine includes: determining a scanning direction of the digital exposure machine, wherein a plurality of sub-pixels in an array include multiple rows of sub-pixels arranged in the scanning direction, the multiple rows of sub-pixels including a first row of sub-pixels in the scanning direction; determining a starting scanning position, the starting scanning position being located on an outer side of the first row of sub-pixels in the scanning direction; and performing a plurality of scannings to expose a display region of the first display substrate to be exposed, wherein a scanning pitch for each of the plurality of scannings is integer times of a pitch of two adjacent rows of sub-pixels of the first display substrate in the scanning direction.

Abstract: Disclosed are a pixel circuitry, a method for driving the same and a display device. The pixel circuitry includes a light-emitting element, a driving circuit, a compensation control circuit, an initialization circuit, an energy storage circuit, a writing control circuit and a light-emitting control circuit. The driving circuit is configured to drive the light-emitting element to emit light. The initialization circuit is configured to write an initialization voltage to a control end of the driving circuit to control the driving circuit to be turned on or off. The compensation control circuit is configured to turn on the driving circuit and perform threshold voltage compensation on the driving circuit. The writing control circuit is configured to write a data voltage inputted by a data line to a second end of the energy storage circuit and write a reference voltage to the second end of the energy storage circuit.

Abstract: A method for stabilizing bandgap voltage includes the steps of: providing a first layout pattern designated with a first voltage; reducing a critical dimension of the first layout pattern for generating a second layout pattern corresponding to a second voltage; matching the second voltage with a target voltage; and then outputting the second layout pattern to a mask. Preferably, the first layout pattern and the second layout pattern include polysilicon resistor patterns.

Abstract: Provided is a higher manganese silicide based telluride composite for thermoelectric conversion, represented by the following general formula (1): (MnsSi1.740±0.015)1?x(MnTe)x??(1) wherein x is the molar fraction of manganese telluride in the higher manganese silicide based telluride composite for thermoelectric conversion and satisfies the relation 0<x?0.10, and the maximum ZT value is 0.40 or more.

Abstract: A manufacturing method of a light-emitting device includes steps of: providing a substrate with a top surface, wherein the top surface comprises a plurality of concavo-convex structures; forming a semiconductor stack on the top surface; forming a trench in the semiconductor stack to define a plurality of second semiconductor stacks and expose a first upper surface; forming a scribing region which extends from the first upper surface into the semiconductor stack and exposes a side surface of the semiconductor stack to define a plurality of first semiconductor stacks; removing a portion of the plurality of first semiconductor stacks and a portion of the concavo-convex structures trough the region to form a first side wall of each of the first semiconductor stack; and dividing the substrate along the region; wherein the first side wall and the top surface form an acute angle ? between thereof, 30°???80°.

Abstract: A light-emitting device includes a substrate having a top surface, wherein the top surface includes a first portion and a second portion; a first semiconductor stack on the first portion, including a first upper surface and a first side wall; and a second semiconductor stack on the first upper surface, including a second upper surface and a second side wall, and wherein the second side wall connects the first upper surface; wherein the first semiconductor stack includes a dislocation stop layer; and wherein the first side wall and the second portion of the top surface form an acute angle ? between thereof.

Abstract: Disclosed are a pixel circuitry, a method for driving the same and a display device. The pixel circuitry includes a light-emitting element, a driving circuit, a compensation control circuit, an initialization circuit, an energy storage circuit, a writing control circuit and a light-emitting control circuit. The driving circuit is configured to drive the light-emitting element to emit light. The initialization circuit is configured to write an initialization voltage to a control end of the driving circuit to control the driving circuit to be turned on or off. The compensation control circuit is configured to turn on the driving circuit and perform threshold voltage compensation on the driving circuit. The writing control circuit is configured to write a data voltage inputted by a data line to a second end of the energy storage circuit and write a reference voltage to the second end of the energy storage circuit.

Abstract: A light-emitting device includes a substrate having a top surface, wherein the top surface includes a first portion and a second portion; a first semiconductor stack including a first upper surface and a first side wall, wherein the first semiconductor stack is on the first portion; a second semiconductor stack including a second upper surface and a second side wall, wherein the second semiconductor stack is on the first upper surface, and wherein the second side wall is devoid of connecting the first side wall; a plurality of first concavo-convex structures on the first portion; and a plurality of second concavo-convex structures on the second portion; wherein the first side wall and the second portion of the top surface form an acute angle ? between thereof; and wherein the second concavo-convex structures have smaller size than that of the first concavo-convex structures.

Abstract: A power tool including a housing, a motor accommodated in the housing; and an output member connected to the motor via a transmission module. The transmission module is received in a substantially vacuum chamber in the housing. The vacuum chamber effectively reduces the propagation of noises generated by the transmission module to the outside of the power tool, thus improving the user experience.

Abstract: An array substrate includes a base substrate and a plurality of pixel units disposed on a base substrate, and at least one pixel unit includes a plurality of thin film transistors, a first electrode, and a second electrode. The plurality of thin film transistors include at least one first thin film transistor including a first active pattern, a first gate, a first source and a first drain. The first electrode is disposed in a same layer as the first active pattern, the first electrode is coupled to the first drain, and the second electrode is disposed in a same layer as the first gate. Orthographic projections of any two in a group consisting of the first electrode, the second electrode, and the first drain on the base substrate have an overlapping region.

Abstract: The disclosure discloses a method for roughening a surface of a metal layer, a thin film transistor, and a method for fabricating the same. The method for roughening the surface of a metal layer includes: forming a first photo-resist layer on the surface of the metal layer, and processing the first photo-resist layer at high temperature; and stripping the first photo-resist layer to roughen the surface of the metal layer.

Abstract: A method for manufacturing an array substrate, an array substrate and a display panel are provided. The method includes forming patterns of a gate metal layer and a gate insulating layer successively on a base plate, forming a pattern of a semiconductor layer, where the pattern of the semiconductor layer comprises a pattern of an active region and a pattern of a pixel electrode region, the semiconductor layer comprises an insulative oxide layer and a semiconductive oxide layer stacked on the insulative oxide layer, and the insulative oxide layer is located between the gate insulating layer and the semiconductive oxide layer, forming a pattern of a source and drain metal layer, and subjecting the semiconductive oxide layer in the pixel electrode region to plasma treatment, to convert the semiconductive oxide layer in the pixel electrode region into a conductor.

Abstract: A computer-implemented method for temporal up-to-date representation of a moving section of a body is provided. A first x-ray image data record is provided containing the moving section in a specific movement phase and a first 2D x-ray image and a 3D x-ray image superimposed and registered with one another. 2D x-ray images are repeatedly recorded each containing the moving section. 3D ultrasound images are repeatedly recorded each containing the moving section. Extended 2D x-ray images are created from the 2D x-ray images using the first x-ray images data record. The 3D ultrasound images are used as intermediaries for movement correction. The extended 2D images are displayed.

Abstract: The invention provides a red organic electroluminescent device, composed of a substrate, an anode layer, an anode modification layer, a hole transporting-electron blocking layer, a hole-dominated light-emitting layer, an electron-dominated light-emitting layer, a hole blocking-electron transporting layer, a cathode modification layer, and a cathode layer arranged in turn, wherein the electron-dominated light-emitting layer is composed of an organic sensitive material, a red organic light-emitting material, and an electron-type organic host material.

Abstract: A current transformer includes a closed magnetic circuit and a secondary winding. A first part of the closed magnetic circuit completely surrounds a primary conductor, and a second part of the closed magnetic circuit forms the secondary winding. The second part of the closed magnetic circuit serves as a magnetic core of the secondary winding. The closed magnetic circuit forms a plurality of branch magnetic circuits at the second part, and a secondary winding is formed on each branch magnetic circuit. Each branch magnetic circuit serves as a magnetic core of a corresponding secondary winding. Each secondary winding is staggered with each other in at least one of the length, the height and the thickness.