Abstract: A winding structure, a stator, an axial motor, a power assembly, and an output device. The winding structure includes multiple conductor components, where the multiple conductor components are arranged to form an annular body. The conductor component includes a main body portion, the main body portion extends along a radial direction of the annular body, the main body portions of at least some of the multiple conductor components are connected in series via connecting wires, and lead-out wires are respectively provided at two ends of a winding formed by the multiple main body portions connected in series.

Abstract: A stator, an axial flux motor, an electric driving apparatus, an electric driving system, and an electric device. The stator includes a stator housing, a stator body, and a lead-out wire; an axial side of the stator housing is provided with a wire outlet; the stator body is accommodated in the stator housing; and one end of the lead-out wire is connected to the stator body, and the other end of the lead-out wire passes through the wire outlet.

Abstract: Disclosed is an intermittent urinary catheter structure, which comprises: a tube, one end of the tube acting in concert with the human body and the other end of the tube being provided with a switch used for controlling the starting and stopping of liquid flow, and the outside of the tube having sleeved thereon a retractable sheath extending along the length direction of the tube, one end of the sheath being connected to the switch, and the other end of the sheath being detachably provided with a sealing cap, forming a closed structure capable of enveloping the tube. The present application has the advantages of reducing the risk of infection and the difficulty of tube insertion.

Abstract: An engineered microorganism, which comprises one or more of a gene encoding an aromatic amino acid transaminase, a gene encoding phenylalanine dehydrogenase, a gene encoding phenylpyruvate decarboxylase, a gene encoding an aldehyde reductase, a gene encoding glutamate dehydrogenase, and a gene encoding a phenylalanine transport protein, or a functional equivalent thereof. The present invention also relates to a composition comprising the engineered microorganism; a method for using the engineered microorganism or the composition to alleviate and/or treat diseases and/or conditions associated with hyperphenylalaninemia; and use of the engineered microorganism or the composition in the preparation of medicaments or health products for treating diseases and/or conditions associated with hyperphenylalaninemia.

Abstract: Disclosed are a genetically modified microorganism and the use thereof. The genetically modified microorganism expresses at least one, two or three exogenous genes (AMUC_1100 polypeptide, IL-10 and/or IL-22). The genetically modified microorganism can still stably survive after integrating exogenous target genes therein; and efficiently expresses and secretes proteins or polypeptides encoded by the exogenous genes in the intestinal tract, and the expressed and secreted proteins or polypeptide encoded by the exogenous genes can still have good activity. Therefore, the genetically modified microorganism is used for treating inflammatory diseases or autoimmune diseases, such as enteritis and arthritis.

Abstract: A stator includes a stator core and a stator winding. The stator core has a plurality of winding slots formed at an end surface of the stator core in an axial direction of the stator core and arranged at intervals in a circumferential direction of the stator core, and each of the plurality of winding slots extends through an inner wall and an outer wall of the stator core. The stator winding includes at least one coil unit, and each of the at least coil unit includes a plurality of first conductors assembled together. Each of the plurality of first conductors includes at least one insertion portion inserted into a corresponding one of the plurality of winding slots. The coil unit is formed by assembling and connecting the plurality of first conductors.

Abstract: A driving backplane includes a substrate, pad groups and line groups. A line of each line group is connected to a pad of a pad group. At least one pad of a pad group and a line connected thereto define line hollowed-out regions. The line hollowed-out regions include a first line hollowed-out region and a second line hollowed-out region that are disposed on two sides of the pad(s) in a second direction. The driving backplane further includes a reflective layer covering a first surface of the substrate and the line groups. Each window region in the reflective layer includes a first region, a second region and a third region that are arranged in the second direction. The second region exposes a pad group and a pad spacer region corresponding to the pad group, and the first region and the third region expose portions of the first surface of the substrate.

Abstract: The present disclosure provides a genetically engineered probiotic, including an exogenous expression cassette including a nucleotide sequence that encodes acetaldehyde dehydrogenase, wherein the probiotic intestinal bacterium is Escherichia coli strain Nissle 1917 (EcN), and uses thereof.

Abstract: The present disclosure provides a composition comprising Amuc_1100 (or a genetically engineered host cell expressing the Amuc_1100) and an immune checkpoint modulator, and uses thereof.

Abstract: The embodiments of the present disclosure provide a driving backplate and a display device adopting the following solutions. The driving backplate comprises: a substrate; a first reflective layer disposed on the substrate; the first reflecting layer is provided with a plurality of first openings; an outline of the first opening comprises a plurality of first grooves; a functional element disposed within the first opening; and a dispensed portion arranged at a periphery of the functional element, and at least part of the first groove is filled by one side of the dispensed portion close to the first reflecting layer.

Abstract: A display panel includes an array substrate, a first flexible circuit board, a non-flexible circuit board, a control circuit board and a second flexible circuit board; the first flexible circuit board is electrically connected to the array substrate; the non-flexible circuit board is electrically connected to the first flexible circuit board; the control circuit board is provided on the non-flexible circuit board and is electrically connected with the non-flexible circuit board; the second flexible circuit board is electrically connected to the non-flexible circuit board.

Abstract: The embodiments of the present disclosure provide a driving backplate and a display device adopting the following solutions. The driving backplate comprises: a substrate; a first reflective layer disposed on the substrate; the first reflecting layer is provided with a plurality of first openings; an outline of the first opening comprises a plurality of first grooves; a functional element disposed within the first opening; and a dispensed portion arranged at a periphery of the functional element, and at least part of the first groove is filled by one side of the dispensed portion close to the first reflecting layer.

Abstract: A semiconductor memory device includes a memory cell array and peripheral circuitry. The memory cell array includes a block of memory cells The peripheral circuitry can perform first program-verify loops in response to a first write operation to a first word line in a word line group to program memory cells associated with the first word line to multiple states. The word line group includes one or more word lines. Then, the peripheral circuitry determines verification start loops of the multiple states based on sensing results in the first program-verify loops, and performs second program-verify loops with the determined verification start loops of the multiple states in response to a second write operation to a second word line in the word line group.

Abstract: A semiconductor memory device includes a memory cell array and peripheral circuitry. The memory cell array includes a block of memory cells The peripheral circuitry can perform first program-verify loops in response to a first write operation to a first word line in a word line group to program memory cells associated with the first word line to multiple states. The word line group includes one or more word lines. Then, the peripheral circuitry determines verification start loops of the multiple states based on sensing results in the first program-verify loops, and performs second program-verify loops with the determined verification start loops of the multiple states in response to a second write operation to a second word line in the word line group.

Abstract: A display panel includes an array substrate, a first flexible circuit board, a non-flexible circuit board, a control circuit board and a second flexible circuit board; the first flexible circuit board is electrically connected to the array substrate; the non-flexible circuit board is electrically connected to the first flexible circuit board; the control circuit board is provided on the non-flexible circuit board and is electrically connected with the non-flexible circuit board; the second flexible circuit board is electrically connected to the non-flexible circuit board.

Abstract: A light guide plate, a backlight, a display device, and a dot striking apparatus and a method for fabricating the light guide plate are provided. In the light guide plate, the bottom surface of the light guide plate includes a first region and a second region, first dot structures are arranged in the first region and a transition region of the second region that is adjacent to an edge of the first region, an outer surface of each of the first dot structures has a surface roughness greater than a threshold, so that a portion of the incident light is diffusely reflected by the first dot structures and emits, and second dot structures are arranged in a region other than the transition region of the second region.

Abstract: Computer-based methods and systems perform root cause analysis with the construction of a probabilistic graph model (PGM) that explains the, e.g., negative, event dynamics of a processing plant, demonstrates precursor profiles for real-time monitoring, and provides probabilistic prediction of plant event occurrence based on real-time data. The methods and systems establish causal relationships between processing events in the upstream and resulting events in the downstream sensor data. The methods and systems provide early warnings for online process monitoring in order to prevent undesired events. The methods and systems successfully combine historical time series data with PGM analysis for operational diagnosis and prevention in order to identify the root cause of one or more events in the midst of multitude of continuously occurring events.

Abstract: Semiconductor nanowire arrays are used to replace the conventional planar layered construction for fabrication of LEDs and laser diodes. The nanowire arrays are formed from III-V or II-VI compound semiconductors on a conducting substrate. For fabrication of the device, an electrode layer is deposited on the substrate, a core material of one of a p-type and n-type compound semiconductor material is formed on top of the electrode as a planar base with a plurality of nanowires extending substantially vertically therefrom. A shell material of the other of the p-type and n-type compound semiconductor material is formed over an outer surface of the core material so that a p-n junction is formed across the planar base and over each of the plurality of nanowires. An electrode coating is formed an outer surface of the shell material for providing electrical contact to a current source.