Abstract: Provided is an organic light-emitting diode, wherein the organic light-emitting diode includes: a first electrode, at least two emission layers, an optical modulation layer and a second electrode which are sequentially laminated on a base substrate; wherein a color of a mixture of light emitted from the at least two emission layers is white; and a thickness of the optical modulation layer ranges from 5 nm to 100 nm.

Abstract: A display panel is provided, including a driving back plate, sub-pixels and micro-lens units; the micro-lens units are on a side of the sub-pixels away from the driving back plate; an orthographic projection of each micro-lens unit covers an orthographic projection of an opening of the corresponding sub-pixel; a pattern of each micro-lens unit is axisymmetric with respect to an axis in any cross section perpendicular to the driving back plate and passing through a center of the orthographic projection of the micro-lens unit; the axis is a straight line passing through the center and perpendicular to the driving back plate; in the cross section, a distance from any point on a side of the micro-lens unit away from the driving back plate to the center is D, a length of a side of the micro-lens unit close to the driving back plate is 2R, and 0.9?D/R?1.0.

Abstract: The present disclosure relates to a display unit, including: a driving current module configured to output a driving current to a first node according to a data voltage; a composite path module, including a first path module and a second path module connected in series, and a second control circuit, wherein a terminal of the composite path module is electrically connected to the first node, and the other terminal is configured to load a reference power supply voltage, and the second control circuit is configured to control whether the composite path module is electrically conductive; and a third path module, including a third light-emitting element and a fourth control circuit connected in series, wherein a terminal of the third path module is electrically connected to the first node, and the other terminal is configured to load the reference power supply voltage.

Abstract: Provided are a pixel circuit, and a display substrate and a dark spot repair method therefor. Each pixel unit in a pixel circuit comprises at least two pixel light-emitting branches; in pixel light-emitting branches (A, B, C, D) of a same pixel unit, light-emitting elements of a same color are connected in parallel; and a first-type metal electrode (1021) is bridged with a first electrode (102) of a first color light-emitting element of each of at least two pixel light-emitting branches (A, B, C, D), a second-type metal electrode (1041) is bridged with a first electrode (104) of a second color light-emitting element of each of the at least two pixel light-emitting branches (A, B, C, D), and a third-type metal electrode (1061) is bridged with a first electrode (106) of a third color light-emitting element of each of the at least two pixel light-emitting branches (A, B, C, D).

Abstract: Provided are a display panel and a display device. The display panel includes a substrate; sub-pixels on a side of the substrate, where the sub-pixels include light-emitting layers respectively, and each of at least one light-emitting layer includes an internal region and an edge region surrounding the internal region; and a first structure layer, on a light-emitting side of the light-emitting layers, and including lens sets each including microlenses, where the lens sets correspond to the sub-pixels one by one. The lens set includes a first region corresponding to the internal region and a second region corresponding to the edge region, and a density of microlenses in the second region is smaller than a density of mircolenses in the first region. According to the present disclosure, a display effect is improved.

Abstract: At least one embodiment of the present disclosure provides an organic electroluminescent device, which includes: a base substrate, and a light-emitting layer, an electron transport layer, and a first electrode layer sequentially stacked on the base substrate, the electron transport layer includes a multilayer structure that is stacked, and a material of at least one layer in the multilayer structure includes lithium metal, the electron transport layer with a thicker thickness is divided into a structure with at least two layers that are stacked, and at least one layer of the multilayer structure contains the lithium metal, which can minimize the impact of the magnetron sputtering process used to form the cathode layer on the electron injection capability of the organic electroluminescent devices to the greatest extent.

Abstract: Provided are a top emitting display panel and a display device, the top emitting display panel includes a substrate, a light-emitting structure and a cover layer, wherein the light-emitting structure comprises a first light-emitting structure, a second light-emitting structure and a third light-emitting structure, and corresponding light-emitting wavelengths are a first wavelength, a second wavelength and a third wavelength respectively; the cover layer is located on a side of the light-emitting structure away from the substrate, and includes at least two of a first region located on the first light-emitting structure, a second region located on the second light-emitting structure, and a third region located on the third light-emitting structure, the first region has a thickness such that twice of the length of an equivalent optical path in the first region along a thickness direction is an integer multiple of the first wavelength; the second region has a thickness such that twice of the length of an equivale

Abstract: A process of characterizing a process window of a patterning process, the process including: obtaining a set of inspection locations for a pattern, the pattern defining features to be applied to a substrate with a patterning process, the set of inspection locations corresponding to a set of the features, the set of features being selected from among the features according to sensitivity of the respective features to variation in one or more process characteristics of the patterning process; patterning one or more substrates under varying process characteristics of the patterning process; and determining, for each of the variations in the process characteristics, whether at least some of the set of features yielded unacceptable patterned structures on the one or more substrates at corresponding inspection locations.

Abstract: The present disclosure provides an organic light-emitting diode, a display panel and a display device, relating to the field of display technologies. The organic light-emitting diode includes a first electrode, at least two emission layers, an optical modulation layer, and a second electrode. A thickness of the optical modulation layer has a relatively bigger range. Therefore, in the case that the thicknesses of other film layers between the first electrode and the second electrode vary, an optical modulation layer having a different thickness can be provided to adjust the microcavity length of the organic light-emitting diode, thereby ensuring the optical performance of the organic light-emitting diode and the display effect of the display panel.

Abstract: A display panel is provided, including a driving back plate, sub-pixels and micro-lens units; the micro-lens units are on a side of the sub-pixels away from the driving back plate; an orthographic projection of each micro-lens unit covers an orthographic projection of an opening of the corresponding sub-pixel; a pattern of each micro-lens unit is axisymmetric with respect to an axis in any cross section perpendicular to the driving back plate and passing through a center of the orthographic projection of the micro-lens unit; the axis is a straight line passing through the center and perpendicular to the driving back plate; in the cross section, a distance from any point on a side of the micro-lens unit away from the driving back plate to the center is D, a length of a side of the micro-lens unit close to the driving back plate is 2R, and 0.9?D/R?1.0.

Abstract: Provided is an organic light-emitting diode, including a first electrode, a second electrode, at least two emission layers, a first hole transport layer and a second hole transport layer. A color of a mixture of light emitted from the at least two emission layers is white. The at least two emission layers includes a first emission layer and a second emission layer. The first electrode, the first emission layer, the first hole transport layer, the second hole transport layer, the second emission layer, and the second electrode are disposed on a base substrate and are sequentially laminated in a direction going away from the base substrate. A thickness of the second hole transport layer is greater than a first thickness threshold. A ratio of the thickness of the second hole transport layer to a thickness of the first hole transport layer ranges from 15 to 40.

Abstract: Provided is a display panel. The display panel includes a base substrate, a first electrode, a light-emitting layer, a protective layer, and a second electrode which are sequentially laminated on a side of the base substrate. A side of the light-emitting layer away from the base substrate is embedded with a target particle, and a gap in communication with the side of the light-emitting layer away from the base substrate is defined between the light-emitting layer and the target particle. The protective layer at least includes a first portion insulated from both the first electrode and the second electrode. The first portion fills the gap.

Abstract: A tissue suturing device includes a body and a plurality of suture needles. The body includes a guide segment and a tube segment. The guide segment contains a suture needle channel. The tube segment has an accommodating cavity communicated with the suture needle channel. Each of the suture needles includes a main needle segment and a puncture needle segment connected with and spaced apart from the main needle segment. Two of the suture needles, together, connect a suture thread releasably between the puncture needle segments of the two suture needles. The main needle segments are arranged in the suture needle channel. The puncture needle segments carry the suture thread and are located in the accommodating cavity. Each of the suture needles moves along the suture needle channel such that the puncture needle segment returns to the accommodating cavity alone after passing with the suture thread through a tissue wall.

Abstract: A process of characterizing a process window of a patterning process, the process including: obtaining a set of inspection locations for a pattern, the pattern defining features to be applied to a substrate with a patterning process, the set of inspection locations corresponding to a set of the features, the set of features being selected from among the features according to sensitivity of the respective features to variation in one or more process characteristics of the patterning process; patterning one or more substrates under varying process characteristics of the patterning process; and determining, for each of the variations in the process characteristics, whether at least some of the set of features yielded unacceptable patterned structures on the one or more substrates at corresponding inspection locations.

Abstract: Provided are a display panel and a display device. The display panel includes a substrate; sub-pixels on a side of the substrate, where the sub-pixels include light-emitting layers respectively, and each of at least one light-emitting layer includes an internal region and an edge region surrounding the internal region; and a first structure layer, on a light-emitting side of the light-emitting layers, and including lens sets each including microlenses, where the lens sets correspond to the sub-pixels one by one. The lens set includes a first region corresponding to the internal region and a second region corresponding to the edge region, and a density of microlenses in the second region is smaller than a density of mircolenses in the first region. According to the present disclosure, a display effect is improved.

Abstract: The present invention is directed to hemostatic compositions comprising at least partially integrated agglomerated ORC fibers, fibrinogen, and thrombin and methods of forming a powdered hemostatic composition, comprising the steps of: forming a suspension of a mixture comprising particles of fibrinogen, thrombin, ORC fibers in a non-aqueous low boiling solvent; spraying the suspension through a nozzle onto a substrate, allowing the non-aqueous solvent to evaporate; separating from the substrate and sieving the composition.

Abstract: Provided are a top emitting display panel and a display device, the top emitting display panel includes a substrate, a light-emitting structure and a cover layer, wherein the light-emitting structure comprises a first light-emitting structure, a second light-emitting structure and a third light-emitting structure, and corresponding light-emitting wavelengths are a first wavelength, a second wavelength and a third wavelength respectively; the cover layer is located on a side of the light-emitting structure away from the substrate, and includes at least two of a first region located on the first light-emitting structure, a second region located on the second light-emitting structure, and a third region located on the third light-emitting structure, the first region has a thickness such that twice of the length of an equivalent optical path in the first region along a thickness direction is an integer multiple of the first wavelength; the second region has a thickness such that twice of the length of an equivale

Abstract: The present invention is directed to hemostatic compositions comprising at least partially integrated agglomerated ORC fibers, fibrinogen, and thrombin and methods of forming a powdered hemostatic composition, comprising the steps of: forming a suspension of a mixture comprising particles of fibrinogen, thrombin, ORC fibers in a non-aqueous low boiling solvent; spraying the suspension through a nozzle onto a substrate, allowing the non-aqueous solvent to evaporate; separating from the substrate and sieving the composition.

Abstract: Disclosed in the embodiments of the present application are a method and apparatus for updating a RAID 5 check value, and a medium. The method includes: acquiring an update instruction for a data stripe, where the update instruction is carried with new state values of data blocks to be updated; searching an established rule library for a matched check value update rule according to a proportion of all the data blocks to be updated in the data stripe and a usage state of the data stripe; and processing the new state values of the data blocks to be updated by using the check value update rule to obtain a new check value of the data stripe.

Abstract: The present invention is directed to a flowable hemostatic paste comprising a crosslinked carboxymethyl cellulose and at least one non-toxic dispersant. More specifically the present invention relates to a hemostatic paste containing citric acid cross-linked CMC, which is suspended or dispersed as a powder in a mixture of a first non-toxic glycerol-containing hygroscopic dispersant and a second non-toxic alcohol functionalized dispersant comprising propylene glycol or 1,3-butanediol.