Abstract: Provided are a display panel and a display apparatus. The display panel includes a substrate, an array layer and a light-emitting element that are provided at a same side of the substrate, and a photosensitive unit. The light-emitting element is provided at a side of the array layer away from the substrate. The light-emitting element includes a first and a second light-emitting elements. The first light-emitting element is provided in a display area of the display panel, and the second light-emitting element is provided in a non-display area of the display panel. The photosensitive unit includes a photosensitive element located in the non-display area, and the photosensitive element is configured to sense light emitted by the second light-emitting element. The luminance attenuation of the second light-emitting element can be monitored by the photosensitive unit, and the luminance attenuation of the light-emitting element in the display area can be obtained.

Abstract: A data encoding method includes obtaining to-be-encoded data; processing the to-be-encoded data by using a volume preserving flow model to obtain a hidden variable output, where the volume preserving flow model includes a target volume preserving flow layer, an operation corresponding to the target volume preserving flow layer is an invertible operation that meets a volume preserving flow constraint, the target volume preserving flow layer is used to perform a multiplication operation on a preset coefficient and first data input to the target volume preserving flow layer, and the preset coefficient is not 1; and encoding the hidden variable output to obtain encoded data.

Abstract: Nanoparticle-fibrous membrane composites are provided as tunable interfacial scaffolds for flexible chemical sensors and biosensors by assembling gold nanoparticles (Au NPs) in a fibrous membrane. The gold nanoparticles are functionalized with organic, polymeric and/or biological molecules. The fibrous membranes may include different filter papers, with one example featuring a multilayered fibrous membrane consisting of a cellulose nanofiber (CN) top layer, an electrospun polyacrylonitrile (PAN) nanofibrous midlayer (or alternate material), and a non-woven polyethylene terephthalate (PET) fibrous support layer, with the nanoparticles provided on the fibrous membranes through interparticle molecular/polymeric linkages and nanoparticle-nanofibrous interactions. Molecular linkers may be employed to tune hydrogen bonding and electrostatic and/or hydrophobic/hydrophilic interactions to provide sensor specificity to gases or liquids. The sensors act as chemiresistor-type sensors.

Abstract: Aspects of the subject disclosure relate to various features of a battery subassembly, such as a battery module. The battery subassembly may be implemented in an electric vehicle or in a building. In one or more implementations, the battery subassembly may include a battery cell having a peripheral rim having a first width and forming a terminal for the battery cell; and at least one weld configured to couple the peripheral rim to a connector, in which the at least one weld has a second width that is larger than the first width.

Abstract: An inspection apparatus for performing electrical equipment inspection includes a rod, a probe attached to an end of the rod, an infrared imaging sensor disposed on the probe, at least one visible light source disposed on the probe, and a visible light imaging sensor disposed on the probe. Infrared imaging data acquired by the infrared imaging sensor are transmitted to a proximal portion of the rod, and visible light imaging data acquired by the visible light imaging sensor are transmitted to the proximal portion of the rod. The at least one visible light source may comprise a green light source, and the visible light imaging data is in this case green light imaging data. The infrared image or video is used to detect thermal hot spots, and the green light image or video is used to detect metal whiskers or the like.

Abstract: This application relates to the field of artificial intelligence, and discloses a data encoding method, a data decoding method, and data processing apparatuses. Both the data encoding method and the data decoding method relate to an invertible flow-based model. The invertible flow-based model includes a target invertible flow layer, a model parameter of the target invertible flow layer is used to constrain an auxiliary variable generated in an inverse transform processing process, an operation corresponding to the target invertible flow layer includes a multiplication operation and a division operation that are determined based on the model parameter, and the auxiliary variable is an increment of a product of the multiplication operation or a remainder generated through the division operation.

Abstract: A data decoding method includes obtaining status information of a decoder and a memory bit, where the status information corresponds to a current to-be-decoded bit; and determining, based on a first mapping relationship, first information, second information, and third information that correspond to the status information, where the first information is a target symbol corresponding to the first bit, the target symbol is a decoding result of the first bit, the second information indicates a quantity of bits selected from the memory bit, the third information performs a summation operation with a bit selected from the memory bit based on the third second information, a result of the summation operation updates the status information, updated status information corresponds to a second bit, and the second bit is a to-be-decoded bit after the first bit.

Abstract: An inspection apparatus for performing electrical equipment inspection includes a rod, a probe attached to an end of the rod, an infrared imaging sensor disposed on the probe, at least one visible light source disposed on the probe, and a visible light imaging sensor disposed on the probe. Infrared imaging data acquired by the infrared imaging sensor are transmitted to a proximal portion of the rod, and visible light imaging data acquired by the visible light imaging sensor are transmitted to the proximal portion of the rod. The at least one visible light source may comprise a green light source, and the visible light imaging data is in this case green light imaging data. The infrared image or video is used to detect thermal hot spots, and the green light image or video is used to detect metal whiskers or the like.

Abstract: A light brightness detection method, an electronic device, a processor and a computer program product. The method includes: a first detection step of detecting an output electrical signal of a first optical sensor within a first exposure duration; a second detection step of detecting an output electrical signal of a second optical sensor within a second exposure duration; and a determination step of stopping detection when an output electrical signal obtained in any one of the detection steps is within a predetermined electrical signal range. The method solves the problem of low detection accuracy of an ambient light sensor in the related art.

Abstract: Aspects of the subject disclosure relate to various features of a battery subassembly, such as a battery module. The battery subassembly may be implemented in an electric vehicle or in a building. In one or more implementations, the battery subassembly may include a battery cell having a peripheral rim having a first width and forming a terminal for the battery cell; and at least one weld configured to couple the peripheral rim to a connector, in which the at least one weld has a second width that is larger than the first width.

Abstract: An inspection apparatus for performing electrical equipment inspection includes a rod, a probe attached to an end of the rod, an infrared imaging sensor disposed on the probe, at least one visible light source disposed on the probe, and a visible light imaging sensor disposed on the probe. Infrared imaging data acquired by the infrared imaging sensor are transmitted to a proximal portion of the rod, and visible light imaging data acquired by the visible light imaging sensor are transmitted to the proximal portion of the rod. The at least one visible light source may comprise a green light source, and the visible light imaging data is in this case green light imaging data. The infrared image or video is used to detect thermal hot spots, and the green light image or video is used to detect metal whiskers or the like.

Abstract: A display panel and a display device are provided. The display panel includes a substrate, and sensing elements and at least one light-emitting element that are located at a side of the substrate. The sensing elements include at least one first sensing element each configured to recognize fingerprint, and further comprises at least one second sensing element and/or at least one third sensing element. The at least one second sensing element each is configured to detect color temperature of ambient light. The at least one third sensing element each is configured to monitor a lifetime of one of the at least one light-emitting element.

Abstract: This application relates to the field of artificial intelligence, and discloses a data encoding method, a data decoding method, and data processing apparatuses. Both the data encoding method and the data decoding method relate to an invertible flow-based model. The invertible flow-based model includes a target invertible flow layer, a model parameter of the target invertible flow layer is used to constrain an auxiliary variable generated in an inverse transform processing process, an operation corresponding to the target invertible flow layer includes a multiplication operation and a division operation that are determined based on the model parameter, and the auxiliary variable is an increment of a product of the multiplication operation or a remainder generated through the division operation.

Abstract: A low temperature sinterable copper nanoparticle or nanowire, comprising gold, zinc, nickel, tin, or aluminum as an alloying metal, and a capping agent. The nanoparticles or nanowires may be deposited on porous or fibrous substrates, the capping agent desorbed, and sintered at low temperature to form conductive traces or sensing elements. The nanoparticles or nanowires may be deposited by aerosol jet, inkjet or dispenser printers, for example.

Abstract: A novel imidazothiazole compound as an Autotaxin inhibitor, a pharmaceutical composition including the compound, and a use thereof in a treatment of a disease with a pathological feature of Autotaxin overexpression in a mammal is provided, wherein the compound has a structure of formula (I), or a pharmaceutically acceptable salt, hydrate, solvate, stereoisomer, tautomer, nitrogen oxide, metabolite, prodrug, or mixture thereof; wherein each of R1a, R1c, R2, R3, R6, Cy, Y, Z, and t is defined as described in the present disclosure.

Abstract: A data encoding method includes obtaining to-be-encoded data; processing the to-be-encoded data by using a volume preserving flow model to obtain a hidden variable output, where the volume preserving flow model includes a target volume preserving flow layer, an operation corresponding to the target volume preserving flow layer is an invertible operation that meets a volume preserving flow constraint, the target volume preserving flow layer is used to perform a multiplication operation on a preset coefficient and first data input to the target volume preserving flow layer, and the preset coefficient is not 1; and encoding the hidden variable output to obtain encoded data.

Abstract: Provided are novel heteroaromatic compound as an Autotaxin inhibitor, a pharmaceutical composition comprising the compound, and a use thereof in a treatment of a disease with a pathological feature of Autotaxin overexpression in a mammal, wherein the compound is according to formula (I), or a pharmaceutically acceptable salt, hydrate, solvate, stereoisomer, tautomer, nitrogen oxide, metabolite, prodrug, or mixture thereof; wherein each of R1, Ar1, Ar2, Ar3, W, Y, Z, and Cy is defined in the present disclosure.

Abstract: Nanoparticle-fibrous membrane composites are provided as tunable interfacial scaffolds for flexible chemical sensors and biosensors by assembling gold nanoparticles (Au NPs) in a fibrous membrane. The gold nanoparticles are functionalized with organic, polymeric and/or biological molecules. The fibrous membranes may include different filter papers, with one example featuring a multilayered fibrous membrane consisting of a cellulose nanofiber (CN) top layer, an electrospun polyacrylonitrile (PAN) nanofibrous midlayer (or alternate material), and a non-woven polyethylene terephthalate (PET) fibrous support layer, with the nanoparticles provided on the fibrous membranes through interparticle molecular/polymeric linkages and nanoparticle-nanofibrous interactions. Molecular linkers may be employed to tune hydrogen bonding and electrostatic and/or hydrophobic/hydrophilic interactions to provide sensor specificity to gases or liquids. The sensors act as chemiresistor-type sensors.

Abstract: The present application relates to a method for evaluating an operation of a distribution network based on data capture and Spark. The method includes: acquiring a packet from a terminal, and mirroring the packet through a mirroring port of a switch to acquire a mirror packet of the packet; analyzing the mirror packet, acquiring a 101/104 protocol packet, and storing the 101/104 protocol packet into an HDFS; acquiring the 101/104 protocol packet from the HDFS, parsing the 101/104 protocol packet on a Spark platform to acquire a parameter in the 101/104 protocol packet, and analyzing and processing the parameter to obtain a key indicator for evaluating the operation of the distribution network; and displaying the key indicator through a web page.

Abstract: Nanoparticle-fibrous membrane composites are provided as tunable interfacial scaffolds for flexible chemical sensors and biosensors by assembling gold nanoparticles (Au NPs) in a fibrous membrane. The gold nanoparticles are functionalized with organic, polymeric and/or biological molecules. The fibrous membranes may include different filter papers, with one example featuring a multilayered fibrous membrane consisting of a cellulose nanofiber (CN) top layer, an electrospun polyacrylonitrile (PAN) nanofibrous midlayer (or alternate material), and a nonwoven polyethylene terephthalate (PET) fibrous support layer, with the nanoparticles provided on the fibrous membranes through interparticle molecular/polymeric linkages and nanoparticle-nanofibrous interactions. Molecular linkers may be employed to tune hydrogen bonding and electrostatic and/or hydrophobic/hydrophilic interactions to provide sensor specificity to gases or liquids. The sensors act as chemiresistor-type sensors.