Abstract: The present disclosure provides a chitosan-modified opto-hydrodynamic micromotor and a preparation method and use thereof, and belongs to the technical field of micromotors. The chitosan-modified opto-hydrodynamic micromotor provided by the present disclosure is composed of Phaeodactylum tricornutum Bohlin and a chitosan solution. The chitosan-modified opto-hydrodynamic micromotor provided by the present disclosure has high biocompatibility, can non-invasively remove biological threats in a microenvironment containing cells with a sterilization rate reaching about 98%, and can achieve high-efficiency sterilization without affecting cell viability.

Abstract: The invention discloses a microlens and an application thereof, wherein the microlens is a lipid particle. The microlens prepared by the invention is simple in preparation and extraction methods, and does not need extra processing. The lipid particle is capable of serving as an optical element inside a cell to exert an optical function and has a complete biocompatibility; and meanwhile, the lipid particle is naturally generated inside the cell, and has a natural position-close relationship with a microstructure inside the cell, and is capable of collecting and re-positioning an optical signal of the microstructure in a near field, so that an imaging quality of the cell microstructure of an optical microscope is effectively improved.

Abstract: An electrical readout optical sensor, includes a back metal electrode layer, a semiconductor layer, and a metal or metalloid layer; wherein the semiconductor layer is a main body portion and is divided into a first surface and a second surface; the first surface is provided with a groove structure, and forms a grating; the back metal electrode layer covers the second surface of the semiconductor layer; the metal or metalloid layer covers the first surface of the semiconductor layer, and forms a phototube for generating a photocurrent signal having a wide wavelength range and high linearity. An optical sensing structure of narrowband light absorption and a photoelectric conversion structure having a wide wavelength range are directly integrated, and the portable high-precision optical sensing ability is implemented by means of an output mode of a photocurrent.

Abstract: A design and optimization method of a porous structure for 3D heat dissipation based on triply periodic minimal surface (TPMS) belongs to the field of computer-aided design. Firstly, a porous structure is established through implicit function presentation of TPMS. Secondly, a heat dissipation problem is converted into a minimization problem of thermal compliance under given constraints according to a steady-state heat conduction equation. Then, parametric functions are directly computed through a global-local interpolation method. Finally, period optimization and wall-thickness optimization are conducted for a modeling problem to obtain an optimized porous shell structure with smooth period and wall-thickness change. The porous structure of the present invention greatly improves the heat dissipation performance, and efficiency and effectiveness of heat conduction.

Abstract: The present disclosure provides a mask plate frame. The mask plate frame includes two opposite rims, and a plurality of connectors detachably mounted to a first surface of each rim along a length direction of each rim. Each connector is used to mount a mask strip.

Abstract: An anvil assembly suitable for trans-oral delivery includes an anvil head configured to be tilted. An anvil delivery assembly includes the anvil assembly and a tubular guide assembly secured to the anvil assembly. The tubular guide assembly includes a flexible tube having an oblate cross-section.

Abstract: An electrical readout optical sensor, includes a back metal electrode layer, a semiconductor layer, and a metal or metalloid layer; wherein the semiconductor layer is a main body portion and is divided into a first surface and a second surface; the first surface is provided with a groove structure, and forms a grating; the back metal electrode layer covers the second surface of the semiconductor layer; the metal or metalloid layer covers the first surface of the semiconductor layer, and forms a phototube for generating a photocurrent signal having a wide wavelength range and high linearity. An optical sensing structure of narrowband light absorption and a photoelectric conversion structure having a wide wavelength range are directly integrated, and the portable high-precision optical sensing ability is implemented by means of an output mode of a photocurrent.

Abstract: This disclosure relates to the field of display fabrication technologies, and discloses a fine mask support frame, a fine mask, and a method for fabricating the same. The fine mask support frame includes: a plurality of bezels surrounding a mask area, wherein adjustment openings are arranged on at least one pair of bezels arranged opposite to each other, and at least one adjustment piece is arranged on each of the adjustment openings, wherein the adjustment piece is configured to adjust a shape of a corresponding adjustment opening to thereby adjust deformation of the mask area.

Abstract: A drying system and a drying method for a cleaning solution on a mask are disclosed. The drying system includes: a drying chamber having a first side wall and a second side wall arranged opposite to the first side wall; a plurality of first air knives on the first side wall and the second side wall for air-drying a cleaned mask; and a separation device for allowing a mask strip and a supporting and shielding strip to move away from each other at a spatial intersection region to increase a spacing between the mask strip and the supporting and shielding strip at the spatial intersection region, when the plurality of first air knives are air-drying the cleaned mask.

Abstract: A mask and a fabrication method thereof are provided. The mask includes: a frame, which includes a hollow portion and a border surrounding the hollow portion; an opening plate, which is provided on the frame and includes an opening and a body surrounding the opening, the opening corresponding to the hollow portion, and the body being connected with the border; and a pattern plate, which is provided on the opening plate and includes a pattern portion and a non-pattern portion positioned in a periphery of the pattern portion, the pattern portion corresponding to the opening, the non-pattern portion being connected with the body of the opening plate, and the non-pattern portion and the frame being separated from each other at a position of the border.

Abstract: The present disclosure provides a mask assembly and a method for manufacturing the same, and a display device. The mask assembly includes a frame, a first mask and a second mask, and the first mask and the second mask are superposed on the frame; the first mask includes an opening region, the second mask includes an evaporation region in which a first evaporation hole is provided for allowing an evaporation material to pass therethrough and a buffer region surrounding the evaporation region and configured to block off the evaporation material, and an orthographic projection of the boundary of the opening region onto the second mask is located within the buffer region.

Abstract: A drying system and a drying method for a cleaning solution on a mask are disclosed. The drying system includes: a drying chamber having a first side wall and a second side wall arranged opposite to the first side wall; a plurality of first air knives on the first side wall and the second side wall for air-drying a cleaned mask; and a separation device for allowing a mask strip and a supporting and shielding strip to move away from each other at a spatial intersection region to increase a spacing between the mask strip and the supporting and shielding strip at the spatial intersection region, when the plurality of first air knives are air-drying the cleaned mask.

Abstract: The present disclosure provides a mask plate frame. The mask plate frame includes two opposite rims, and a plurality of connectors detachably mounted to a first surface of each rim along a length direction of each rim. Each connector is used to mount a mask strip.

Abstract: This disclosure relates to the field of display fabrication technologies, and discloses a fine mask support frame, a fine mask, and a method for fabricating the same so as to improve the positional precision of opening areas of the mask to thereby further improve the precision of the mask. The fine mask support frame includes: a plurality of bezels surrounding a mask area, wherein adjustment openings are arranged on at least one pair of bezels arranged opposite to each other, and at least one adjustment piece is arranged on each of the adjustment openings, wherein the adjustment piece is configured to adjust a shape of a corresponding adjustment opening to thereby adjust deformation of the mask area.

Abstract: An anvil assembly suitable for trans-oral delivery includes an anvil head configured to be tilted. An anvil delivery assembly includes the anvil assembly and a tubular guide assembly secured to the anvil assembly. The tubular guide assembly includes a flexible tube having an oblate cross-section.

Abstract: A mask and a fabrication method thereof are provided. The mask includes: a frame, which includes a hollow portion and a border surrounding the hollow portion; an opening plate, which is provided on the frame and includes an opening and a body surrounding the opening, the opening corresponding to the hollow portion, and the body being connected with the border; and a pattern plate, which is provided on the opening plate and includes a pattern portion and a non-pattern portion positioned in a periphery of the pattern portion, the pattern portion corresponding to the opening, the non-pattern portion being connected with the body of the opening plate, and the non-pattern portion and the frame being separated from each other at a position of the border.

Abstract: The present disclosure provides a mask assembly and a method for manufacturing the same, and a display device. The mask assembly includes a frame, a first mask and a second mask, and the first mask and the second mask are superposed on the frame; the first mask includes an opening region, the second mask includes an evaporation region in which a first evaporation hole is provided for allowing an evaporation material to pass therethrough and a buffer region surrounding the evaporation region and configured to block off the evaporation material, and an orthographic projection of the boundary of the opening region onto the second mask is located within the buffer region.

Abstract: The embodiments of the present disclosure relate to an AMOLED device and a fabricating method thereof, and a display apparatus. The AMOLED device comprises: a back plate; a blue hole transport layer on the back plate; an excitation layer on the blue hole transport layer; a blue light emitting layer on the excitation layer; an electron transfer layer on the blue light emitting layer; and a cathode on the electron transfer layer. The excitation layer is excited by a circuit signal of a device to emit ultraviolet light, and the photochromic material is further excited by the ultraviolet light. The blue light emitting layer displays different chromas under different excitation energies. This manner effectively improves the luminous efficiency of the blue light emitting layer, and extends the color gamut to be adaptive to different display environments, thereby improving the display quality.

Abstract: A system, method, and apparatus includes a computed tomography (CT) system having a rotatable gantry, an x-ray source, a generator, a detector having pixels and positioned to receive x-rays, and a computer. The computer is programmed to acquire CT data representative of an object, determine a first subset of the CT data, determine a second subset of the CT data, and determine a difference between the first and second subsets of the CT data to identify a motion region in the object. The computer is also programmed to update image data reconstructed from a first portion of the first subset of the CT data and corresponding to the region and reconstruct an image based on the updated image data and non-updated image data. The non-updated image data is reconstructed from a second portion the first subset of the CT data.

Abstract: An imaging system includes a two-dimensional detector having a plurality of cells wherein each cell is configured to detect energy or signal passing through an object. The imaging system includes a computer programmed to acquire imaging data for the plurality of cells, identify a cell to be corrected, based on the imaging data, interpolate Ix and Iy for the identified cell based on neighbor cells, and calculate local gradients gx and gy between the identified cell and its neighbor cells based on the interpolation. The computer is further programmed to calculate weighting factors wx and wy based on the local gradients, calculate a corrected final value I(0,0) for the identified cell, and correct the identified cell with the corrected final value.