Abstract: An electron beam is directed at a workpiece on a stage with a first astigmatism applied. The electron beam reflected off the workpiece is detected and an image of the workpiece with the first astigmatism applied is generated. An autofocus model is applied to the image to determine a focus offset for the image with the autofocus model.

Abstract: A carrying module configured to carry a functional assembly includes a main casing, a cover, a stop assembly, and an assist assembly. The cover is detachably assembled to the main casing. The stop assembly is disposed on the main casing and has a stop portion. The stop portion is adapted to stop the cover on an assembling path of the cover. The assist assembly is disposed on the main casing and contacts the stop assembly, such that the stop portion is away from the assembling path of the cover. In addition, an electronic device including the carrying module is also provided.

Abstract: Embodiments of the application disclose a heating control method, device and apparatus. The device is internally provided with a first heating tube and a second heating tube, and a cooking cavity between the first heating tube and the second heating tube is configured to place to-be-heated food. When time reaches a switching time point, a magnitude relationship between heating temperatures of the first heating tube and the second heating tube is switched, so that the effect of turning the food can be achieved to enable the food to be heated uniformly, and prevent a situation in which the food is undercooked or burnt.

Abstract: The present invention relates to a fusion protein for use in ubiquitin-independent protein degradation. The invention also relates to methods for the use of the fusion protein in targeted protein degradation, modulating physiological responses and therapy.

Abstract: A carrying module configured to carry a functional assembly includes a main casing, a cover, a stop assembly, and an assist assembly. The cover is detachably assembled to the main casing. The stop assembly is disposed on the main casing and has a stop portion. The stop portion is adapted to stop the cover on an assembling path of the cover. The assist assembly is disposed on the main casing and contacts the stop assembly, such that the stop portion is away from the assembling path of the cover. In addition, an electronic device including the carrying module is also provided.

Abstract: A composite filler comprising thermally processed porous inorganic mixed particles of silica and at least one heteroparticle selected from the group consisting of zirconia, hafnia, or yttria and a polymer occupying the pores of the porous inorganic mixed particles, wherein the porous inorganic mixed particles are thermally processed at a temperature of from 650 to 900° C., as well as a dental restorative comprising a resin and a composite filler, and optionally other fillers, wherein said resin has a refractive index that increases upon curing, and wherein the opacities of the both uncured and cured restorative are less than 45.

Abstract: Embodiments of the application disclose a heating control method, device and apparatus. The device is internally provided with a first heating tube and a second heating tube, and a cooking cavity between the first heating tube and the second heating tube is configured to place to-be-heated food. When time reaches a switching time point, a magnitude relationship between heating temperatures of the first heating tube and the second heating tube is switched, so that the effect of turning the food can be achieved to enable the food to be heated uniformly, and prevent a situation in which the food is undercooked or burnt.

Abstract: An organic light emitting diode substrate and methods of operating the same are provided and include a flexible substrate, a heat dissipation layer, and an adhesive layer, wherein the adhesive layer is configured to provide adhesion between the flexible substrate and the heat dissipation layer, the heat dissipation layer comprises a first sub heat dissipation layer and a second sub heat dissipation layer, and the first sub heat dissipation layer and the second sub heat dissipation layer are alternately stacked and the first sub heat dissipation layer is made of a metal material and the second sub heat dissipation layer is made of at least one of an organic material and an inorganic material.

Abstract: Provided is an organic light emitting diode display panel, including: a substrate, a plurality of signal lines and at least one spare line disposed on the substrate, wherein the signal lines are at a different layer from the spare line; a plurality of preset connection points are disposed on the spare line, and a projection of any of the signal lines on the substrate overlaps a projection of the two preset connection points on the substrate, and when any of the signal lines is disconnected, the disconnected signal line is electrically connected to the spare line via the preset connection points, so that the disconnected signal line works normally through the spare line.

Abstract: A composite filler comprising thermally processed porous inorganic mixed particles of silica and at least one heteroparticle selected from the group consisting of zirconia, hafnia, or yttria and a polymer occupying the pores of the porous inorganic mixed particles, wherein the porous inorganic mixed particles are thermally processed at a temperature of from 650 to 900° C., as well as a dental restorative comprising a resin and a composite filler, and optionally other fillers, wherein said resin has a refractive index that increases upon curing, and wherein the opacities of the both uncured and cured restorative are less than 45.

Abstract: The present disclosure provides an active matrix organic light emitting diode panel where a color shift does not occur at an edge of a display area. A color shift does not occur at the edge of the display area in an AMOLED panel proposed by an embodiment of the present disclosure to avoid color shift phenomenon at the edge of a display area. So red, green, and blue (R, G, and B) pixel units that are not arranged in a regular pattern at a non-standard pixel structure and a corresponding anode material layer are in a floating state. So the color shift phenomenon will not occur. When the pixel unit of the non-standard pixel structure receives an image display control signal, the color shift phenomenon may occur due to the inability to correspondingly display a corresponding image corresponding to the image display control signal to display the screen normally.

Abstract: A composite filler comprising thermally processed porous inorganic mixed particles of silica and at least one heteroparticle selected from the group consisting of zirconia, hafnia, or yttria and a polymer occupying the pores of the porous inorganic mixed particles, wherein the porous inorganic mixed particles are thermally processed at a temperature of from 650 to 900° C., as well as a dental restorative comprising a resin and a composite filler, and optionally other fillers, wherein said resin has a refractive index that increases upon curing, and wherein the opacities of the both uncured and cured restorative are less than 45.

Abstract: The present disclosure provides an active matrix organic light emitting diode panel where a color shift does not occur at an edge of a display area. A color shift does not occur at the edge of the display area in an AMOLED panel proposed by an embodiment of the present disclosure to avoid color shift phenomenon at the edge of a display area. So red, green, and blue (R, G, and B) pixel units that are not arranged in a regular pattern at a non-standard pixel structure and a corresponding anode material layer are in a floating state. So the color shift phenomenon will not occur. When the pixel unit of the non-standard pixel structure receives an image display control signal, the color shift phenomenon may occur due to the inability to correspondingly display a corresponding image corresponding to the image display control signal to display the screen normally.

Abstract: A particle-beam inspection system may include a reflective particle-beam imaging system providing an image of a selected portion of a sample and a diffraction pattern of the selected portion of the sample and a controller communicatively coupled to the reflective particle-beam imaging system. The controller may receive two or more sample-plane images from the reflective particle-beam imaging system associated with two or more selected portions of the sample, where at least some of the two or more selected portions of the sample overlap. The controller may further receive two or more diffraction-plane images from the reflective particle-beam imaging system associated with the two or more selected portions of the sample. The controller may further construct one or more output images of the two or more selected portions of the sample from the two or more diffraction-plane images using phase information obtained from the two or more sample-plane images.

Abstract: A particle-beam inspection system may include a reflective particle-beam imaging system providing an image of a selected portion of a sample and a diffraction pattern of the selected portion of the sample and a controller communicatively coupled to the reflective particle-beam imaging system. The controller may receive two or more sample-plane images from the reflective particle-beam imaging system associated with two or more selected portions of the sample, where at least some of the two or more selected portions of the sample overlap. The controller may further receive two or more diffraction-plane images from the reflective particle-beam imaging system associated with the two or more selected portions of the sample. The controller may further construct one or more output images of the two or more selected portions of the sample from the two or more diffraction-plane images using phase information obtained from the two or more sample-plane images.

Abstract: An ion source includes an external housing, an electrically conductive tip, a gas supply system, configured to supply an operating gas into the neighborhood of the tip, and a cooling system configured to cool the tip. The gas supply system includes a first tube with a hollow interior, and a chemical getter material is provided in the hollow interior of the tube.

Abstract: A composite filler comprising thermally processed porous inorganic mixed particles of silica and at least one heteroparticle selected from the group consisting of zirconia, hafnia, or yttria and a polymer occupying the pores of the porous inorganic mixed particles, wherein the porous inorganic mixed particles are thermally processed at a temperature of from 650 to 900° C., as well as a dental restorative comprising a resin and a composite filler, and optionally other fillers, wherein said resin has a refractive index that increases upon curing, and wherein the opacities of the both uncured and cured restorative are less than 45.