Abstract: Disclosed solutions provide intelligent demodulation reference signal (DMRS) allocation. When a user equipment (UE) is in good signal conditions, such as stationary, with low interference, strong received power, and slowly varying channel characteristics, multiple DMRS symbols are not needed for reliable demodulation. Rather, the downlink (DL) and/or uplink (UL) signal qualities are monitored, so that the count of DMRS symbols used (in each direction) may be optimized. This permits reliable demodulation in poorer signal conditions, while improving data throughput in better signal conditions, by approximately 10% (on the DL; UL is slightly lower). For example, DMRS symbol count may be reduced from two per time slot to only one, and in some scenarios, if signal conditions are sufficiently good, some slots may be skipped and have no DMRS symbols at all. Some examples may place a single DMRS symbol per slot in position 7 (i.e., the slot center).

Abstract: Disclosed solutions provide intelligent demodulation reference signal (DMRS) allocation. When a user equipment (UE) is in good signal conditions, such as stationary, with low interference, strong received power and slowly varying channel characteristics, multiple DMRS symbols are not needed for reliable demodulation. Rather, the downlink (DL) and/or uplink (UL) signal qualities are monitored, so that the count of DMRS symbols used (in each direction) may be optimized. This permits reliable demodulation in poorer signal conditions, while improving data throughput in better signal conditions, by approximately 10% (on the DL, UL is slightly lower). For examples, DMRS symbol count may be reduced from two per time slot to only one, and in some scenarios, if signal conditions are sufficiently good, some slots may be skipped and have no DMRS symbols at all. Some examples may place a single DMRS symbol per slot in position 7 (i.e., the slot center).

Abstract: A display panel has a display region, and a bending region and a bonding region. The display panel includes a display substrate and a touch functional layer disposed on the display substrate. The touch functional layer includes touch units disposed in the display region, at least portion of each of touch lines and compensation lines. Each touch unit is electrically connected to at least one touch line. The touch lines include at least one first touch line and at least one second touch line, and a resistance of the at least one first touch line is greater than a resistance of the at least one second touch line. At least part compensation lines of the compensation lines are disposed on the side of the bending region away from the display region. A second touch line is electrically connected to at least one compensation line.

Abstract: This disclosure discloses a link quality determining method, an apparatus, a chip system, and a storage medium, to determine quality information of at least one segment of link between two apparatuses based on measurement results of at least two reference signals. According to the method, a first apparatus obtains first information indicating a relationship between transmit power values of at least two reference signals sent by a second apparatus. The first apparatus determines quality information of at least one link based on the first information and measurement information of the at least two reference signals. A first link in the at least one link includes a link from the second apparatus to a second relay apparatus or a link from a third apparatus to a first relay apparatus.

Abstract: Embodiments of this disclosure provide an electronic device. A circuit board includes an extension area. The extension area is located between the side frame and a battery housing and is provided with a ground point. The middle frame assembly further includes a first electrical connection structure. The first electrical connection structure includes a fixed part and a spring sheet part. The fixed part is fixedly connected to the first pad area of the antenna. The spring sheet part is located on a side of the fixed part close to the battery housing. The spring sheet part extends along the second direction. A first end of the spring sheet part is connected to the fixed part, and a second end of the spring sheet part is in a contact connection to the ground point of the circuit board.

Abstract: Disclosed solutions provide intelligent demodulation reference signal (DMRS) allocation. When a user equipment (UE) is in good signal conditions, such as stationary, with low interference, strong received power and slowly varying channel characteristics, multiple DMRS symbols are not needed for reliable demodulation. Rather, the downlink (DL) and/or uplink (UL) signal qualities are monitored, so that the count of DMRS symbols used (in each direction) may be optimized. This permits reliable demodulation in poorer signal conditions, while improving data throughput in better signal conditions, by approximately 10% (on the DL, UL is slightly lower). For examples, DMRS symbol count may be reduced from two per time slot to only one, and in some scenarios, if signal conditions are sufficiently good, some slots may be skipped and have no DMRS symbols at all. Some examples may place a single DMRS symbol per slot in position 7 (i.e., the slot center).

Abstract: Described are systems and methods for providing a content generation service that may be configured to generate content, such as digital images and the like, based on both a textual input and supplemental information. The content generation service may include one or more trained machine learning models that may be configured to generate an image based on a textual input and one or more supplemental information input(s). The supplemental information may include, for example, user information, content information, etc. and can provide context, preferences, or any other additional information beyond the textual input that may be used to generate the content. Further, the content generation service and/or the user may be able to assign weights to each of the textual input and the supplemental information input in connection with the generation of the content.

Abstract: The present disclosure provides a temperature field device for crystal growth. The temperature field device may include a drum; a filler filled in the drum and configured to support a crucible; a bottom plate mounted on a bottom of the temperature field device and covering a bottom end of the drum; and a cover plate mounted on a top of the temperature filed device and covering a top end of the drum.

Abstract: Arrangements for a generative operation prewarning beacon service are provided. A series of performance indexes may be monitored. One or more trends may be determined from the series of performance indexes. A first prewarning vector may be generated based on the determined one or more trends. Trending operations associated with the one or more trends may be stored in a data store. A validity check may be performed on content information communicated between upstream and downstream services. A second prewarning vector may be generated based on a result of the validity check. The first prewarning vector and the second prewarning vector may be transmitted to an anomaly aggregator. The anomaly aggregator may consolidate at least the first prewarning vector and the second prewarning vector into a unified record of operation prewarning vectors. An operation prewarning report may be generated before an actual alert is triggered.

Abstract: A method for providing enhanced subpixel resolution includes obtaining point spread function (PSF) data associated with an input image. The method also includes determining subpixel PSF data from the PSF data. The method further includes generating a filled subpixel sparse image from pixels of the input image. In addition, the method includes applying nearest neighbor pixel deconvolution (NNPD) to the subpixel PSF data and the filled subpixel sparse image to generate an enhanced subpixel image having an increased resolution.

Abstract: A header assembly includes a first tube, a first plate, a second tube and a first port, wherein the first tube includes a first wall and a first cavity, the first plate is at least partially located in the first cavity, the first plate separates the first cavity, the first cavity includes a first sub-cavity and a second sub-cavity, the second tube is at least partially located in the first cavity, the second tube includes a second wall and a second cavity, the second tube further comprises a first communicating portion and a second communicating portion, the first communicating portion is in communication with the first sub-cavity and the second cavity, the second communicating portion is in communication with the second sub-cavity and the second cavity, the first port is located at the first wall, and the first port is in communication with the first sub-cavity.

Abstract: Embodiments of the present disclosure provide a method for crystal processing. The method for crystal processing includes: obtaining an initial crystal; determining a processing scheme for the initial crystal; and processing the initial crystal based on the processing scheme.

Abstract: An object management method, an electronic device and a storage medium are provided. The method includes: obtaining, in response to creating a first object combination on a management page of a target entity, at least two parent objects included in the first object combination, where the at least two parent objects belong to the target entity; obtaining a target child object corresponding to each of the at least two parent objects from sub-entities of the target entity, where attribute information of the target child object is the same as attribute information of the corresponding parent object; and displaying, for a first sub-entity including at least two target child objects among the sub-entities of the target entity, a second object combination on a management page of the first sub-entity, where the second object combination includes the at least two target child objects.

Abstract: An example semiconductor device includes: a first semiconductor structure including capacitor structures, a first electrode plate and a first contact structure, the first electrode plate is coupled with the capacitor structures; a second semiconductor structure bonded to the first semiconductor structure; a conductive structure extending along a first direction and arranged at intervals along a second direction, the conductive structure located on a side of the first semiconductor structure away from the second semiconductor structure; the conductive structure including first conductive structures coupled with the second semiconductor structure, and a plurality of second conductive structures between adjacent ones of the first conductive structures and coupled to the first electrode plate; the first electrode plate is located between the second conductive structures and the capacitor structures; the first contact structure extends along a third direction and is located on a side of the first electrode plate a

Abstract: A display substrate is provided. The display substrate includes a base substrate; and a plurality of sub-pixels located on the base substrate. Each of at least part of sub-pixels includes a light emitting element including a light emitting region; the light emitting element includes a light emitting functional layer, and a first electrode and a second electrode; the first electrode is located between the light emitting functional layer and the base substrate; the light emitting functional layer includes a plurality of film layers. The sub-pixels include sub-pixels of different colors. At least two defining structures are disposed between at least two sub-pixels having different colors and disposed adjacently; the at least two defining structures are arranged in an arrangement direction of the sub-pixels disposed adjacently; at least one layer of the light emitting functional layer is disconnected at an edge of the defining structure.

Abstract: A method including receiving an input for a language model including decoder layers having attention heads. The language model predicts a chunk of tokens based on the input. Predicting includes determining, for each of the attention heads, corresponding attention map weights from the input. The method also includes determining, from the corresponding attention map weights of each of the attention heads, a lookback ratio vector for the chunk of tokens. A hallucination score for the chunk of tokens is predicted using the lookback ratio vector. A determination is made that the hallucination score fails to satisfy a predefined threshold, ?, such that the chunk of tokens represents a hallucination of the language model. An edit direction for the corresponding attention map weights for the chunk of tokens is determined. The attention map weights of at least some attention heads are modified to generate a post-process language model.

Abstract: A display panel includes a display substrate, first touch structures and second touch structures. A first touch structure includes first touch electrodes arranged in at least one column and first connection portions, and first touch electrodes in at least one column are connected through first connection portions. A second touch structure includes second touch electrodes arranged in at least one row and second connection portions, and second touch electrodes in at least one row are connected through second connection portions. An overlapping region where an orthographic projection of a second connection portion on the display substrate partially overlaps with an orthographic projection of a first connection portion on the display substrate is a bridge sub-region. A curvature radius of the display substrate is greater than or equal to 4.5 mm in a bridge sub-region that is in a curved region of the display substrate.

Abstract: The present application belongs to the technical field of display devices. Disclosed are a touch-control electrode unit, a touch-control electrode structure and a display panel. The touch-control electrode unit is defined as an incomplete state, and the touch-control electrode unit comprises a first touch-control electrode and a second touch-control electrode, the first touch-control electrode comprising a main body portion and an incomplete portion, which are separated by part of the second touch-control electrode, wherein the first touch-control electrode further comprises a first connecting portion, and the first connecting portion and the second touch-control electrode are arranged in a crossed manner, so as to be respectively connected to the main body portion and the incomplete portion.

Abstract: A display panel includes a first organic layer, a first touch wire and a second touch wire, and the first touch wire and the second touch wire each include first section extending in a first direction. The first section of the first touch wire and the first section of the second touch wire each include a first sub-section and a second sub-section which are connected to each other, wherein the orthographic projection of the first sub-section on a base substrate does not overlap the orthographic projection of the first organic layer on the base substrate, and the orthographic projection of the second sub-section on the base substrate is located in the orthographic projection of a second area of the first organic layer on the base substrate. The first organic layer further includes a protruding block unit.

Abstract: Provided are a display panel and display apparatus, including: a plurality of touch-control electrodes and a plurality of touch-control electrode leads, at least one touch-control electrode being connected to at least one touch-control electrode lead; a display panel including a display region and a non-display region surrounding the display region, the plurality of touch-control electrodes being located in the display region; the display panel also includes lead labels arranged around at least one of the touch-control electrode leads and used for identifying the leads of the touch-control electrodes.