Abstract: The present invention relates to a conjugate for preventing and treating viral infections and a use thereof, and in particular, to a protein-anti-influenza compound conjugate having a structure of formula I-1 or a pharmaceutically acceptable salt, an ester, an isomer, a solvate, a prodrug or an isotope label thereof. The conjugate has small molecules (D1 and D2) linked, by means of linkers (L1 and L2) to an Fc monomer, an Fc domain, an Fc linker peptide, an albumin or an albumin linker peptide (E) and having anti-influenza virus activity. The conjugate or the intermediate compound of the present invention has significant anti-influenza virus activity, and meanwhile, has excellent in vitro/in vivo pharmacokinetic property and safety and has good clinical application prospects.

Abstract: This application is directed to a dual-loop control scheme including multiple voltage regulation loops configured to stabilize an output voltage. The voltage regulation loops include a first loop and a second loop. The first loop includes a feedback signal sensing component for sensing the output voltage. The first loop includes an error amplifier component for determining a voltage difference between the output voltage fed to the error amplifier component and a reference voltage. The first loop further includes a loop compensation network for generating a voltage compensation signal. The voltage regulations loops include a second loop for stabilizing output voltage after the transient voltage conditions have been compensated for by the first loop. The second loop includes a transition sensor module for detecting a transient voltage in the first loop's output voltage. And the second loop includes an amplification module for generating a regulation-based-adjustment signal.

Abstract: This application is directed to providing a thermal path for a circuit package. The circuit package includes a plurality of chiplets. The circuit package further includes a substrate coupled to the plurality of chiplets. The circuit package further includes a processor coupled to the plurality of chiplets through the substrate. The circuit package further includes a printed circuit board coupled to the plurality of chiplets and including a thermal path between a first side and a second side of the printed circuit board. The thermal path is configured to dissipate heat from the plurality of chiplets to ambient.

Abstract: This application is directed to providing rail voltages for an electronic system. The electronic system includes an array of voltage regulator cells and a plurality of reference circuits. The array of voltage regulator cells is configured to provide a plurality of voltage regulator sets, and each voltage regulator set is configured to output a respective rail voltage to a respective power rail of a plurality of power rails. The plurality of reference circuits are coupled to the array of voltage regulator cells. Each reference circuit is shared by, and configured to provide a respective reference voltage to, one or more respective voltage regulator cells of a respective voltage regulator set. The respective voltage regulator set is configured to generate the respective rail voltage based on the respective reference voltage.

Abstract: A method executable at a user device for assisted execution of a primary activity is suggested, wherein the method comprise: acquiring biological data of a first user; adapting, based on the biological data, at least one biological behavior model, associated with a sequence of phases, constituting at least one primary phase and a preparatory phase preceding the primary phase, upon detecting a trigger to adapt at least one of the at least one biological behavior model; providing, based on the at least one adapted version of the at least one biological behavior model and the acquired biological data, updated guidance on execution of the sequence of phases.

Abstract: This application is directed to an electronic device having a configurable group of voltage regulator cells. The electronic device includes a group of voltage regulator cells operating based on parameter settings of individual voltage regulator cells, output a rail voltage, and provide the rail voltage to multiple power rails. The electronic device includes a memory component coupled to the group of voltage regulator cells. The memory component stores an encoding table including multiple register files, and a register file defines parameter settings for the individual voltage regulator cells of the group of voltage regulator cells. The electronic device includes a setting interface for receiving a parameter setting signal applied to select the register file among the multiple register files for defining the parameter settings for the group of voltage regulator cells. The electronic device includes a substrate where the group of voltage regulator cells and the setting interface are integrated.

Abstract: The present application provides a method, terminal device, server, system and storage medium for activating payment functions. The method is applicable to a terminal device. The method includes receiving a first input from a user; generating a payment function activation request in response to the first input, the payment function activation request including a payment function identifier for indicating various payment functions that are instructed to be activated for a target resource card; sending, to a server, the payment function activation request; and receiving an activation reply message sent by the server, the activation reply message comprising a target payment identifier generated by the server according to the payment function identifier, the target payment identifier including payment identifiers of the target resource card under the various payment functions that are instructed to be activated for the target resource card.

Abstract: A method, network node and wireless device for adaptation of search space (SS) density by bandwidth part (BWP) switching are disclosed. According to one aspect, a wireless device (WD) is configured to switch between a sparse search space (SS) configuration and a dense SS configuration, and monitor a physical downlink control channel (PDCCH) according to one of the sparse SS in a first BWP, and the dense SS in a second BWP.

Abstract: A wireless device, such as a user equipment, UE, determines (410) a first sleep opportunity for the wireless device and evaluates (420) one or more energy-related parameters for each of a plurality of possible sleep modes for the wireless device. The plurality of possible sleep modes correspond to varying degrees of reduced energy consumption by the wireless device, relative to a non-sleep mode. The wireless device selects (430) a first one of the plurality of possible sleep modes for the wireless device, based on this evaluating, and activates (440) the selected sleep mode during the first sleep opportunity.

Abstract: An ATR kinase inhibitor as shown in formula I, and a preparation method therefor and the use thereof.

Abstract: Embodiments of the present disclosure relate to lipid-PEGylated solid support and phosphoramidites derivatives, methods for preparing the same, and their uses in the delivery of oligonucleotide drugs to the cellular targets.

Abstract: A method and wireless device (WD) for autonomous WD wake up are disclosed. According to one embodiment, a wireless device configured to communicate with a network node is provided. The wireless device includes processing circuitry configured to determine that a transmitted wake up signal has been missed before a discontinuous reception (DRX) ON-duration, and perform at least one action during the DRX ON-duration based at least in part on the determination that the wake signal has been missed.

Abstract: A method in a User Equipment (UE), the method comprising determining one or more parameters of an expected signal; calculating a performance metric for each of a plurality of receiver modes of the UE, based on the determined one or more parameters; selecting a first receiver mode among the plurality of receiver modes based on the calculated performance metrics.

Abstract: According to certain embodiments, a wireless device is configured to operate in a regular-power mode and a low-power mode, and a method of detecting wireless device movement includes: performing a link characterization measurement in the low-power mode using a low-power radio; determining, based on the low-power radio link characterization measurement, that the wireless device is not stationary; and performing radio resource measurements in the regular-power mode. In particular embodiments, performing the link characterization measurement using the low-power radio includes measuring a stationary reference signal (e.g., secondary synchronization signal (SSS)). Measuring the stationary reference signal uses a time-domain correlation receiver on the stationary reference signal.

Abstract: A position of a mobile communication device is determined. This involves the mobile communication device performing reception, from a network node that serves the mobile communication device, a request for sensing of a local area in accordance with one or more parameters that guide how and/or where the sensing is to be performed. In response to the request for the sensing of the local area, sense data is produced by performing the sensing in accordance with the one or more parameters. The sense data is communicated to the network node. In response to communicating the sense data to the network node, a position of the mobile communication device is received.

Abstract: A method for improved Radio Resource Management (RRM) for a User Equipment, UE, (100) operating in a network (200) comprising one or more first User Equipments (100), a second User Equipment (100-2) and a network node (210. 220), the method comprising: determining a dependency between the one or more first UEs (100) and the second User Equipment (100-2); determining RRM settings for the second User Equipment; and determining RRM settings for the one or more first UEs (100) based on the RRM settings for the second User Equipment (100-2).

Abstract: It is provided a method for calibrating a transparent wearable display configured to be used in parallel with an external display. The method is performed by a calibration device. The method includes the steps of: performing a first calibration to define an indicated position on the external display at least partly based on a direction of the wearable display; determining an indicated position on the external display, based on the direction of the wearable display, the indicated position corresponding to a user interface element shown on the external display; determining an element position on the external display corresponding to a centre position of the user interface element; and performing a translational adjustment of calibration of how the indicated position is determined on the external display based on the direction of the wearable display, to move the indicated position closer to the element position.

Abstract: There is provided a method of a wireless communication device, the communication device being arranged to operate in a wireless communication system employing a plurality of bandwidth alternatives for downlink control information. The method includes determining feasible control information reception modes, acquiring an estimate of energy consumption for respective feasible control information reception modes, selecting control information reception mode based on the estimated energy consumption, and operating the wireless communication device with the selected control information reception mode. A wireless communication device and a computer program for implementing the method in the wireless communication device are also provided.

Abstract: A position of a mobile communication device is determined by obtaining a first set of candidate signal templates, wherein each candidate signal template in the first set of candidate signal templates corresponds to a respective candidate position of a first set of candidate positions, and wherein magnitude values in each candidate signal template in the first set of candidate signal templates are encoded in accordance with a first magnitude encoding strategy. A first radar echo signal is obtained, and a first test signal is produced by encoding magnitude values of the first radar echo signal in accordance with the first magnitude encoding strategy. The first test signal is correlated with each candidate signal template in the first set of candidate signal templates to obtain a first set of respective correlation results.

Abstract: The present disclosure provides a method performed by a network node in a radio access network (RAN) for selective paging of a plurality of user equipments (UEs) operating in a cell served by the network node. The method comprises assigning the plurality of UEs to a plurality of paging subgroups based on one or more operating parameters of the respective UEs, wherein the paging subgroups are associated with a first sequence of paging occasions (POs) to which all of the UEs are assigned. The method comprises transmitting a paging indicator during a particular PO of the first sequence. The paging indicator indicates which of the paging subgroups associated with the particular PO should receive a paging message from the network node. The method further comprises transmitting the paging message within the cell.