Abstract: The present disclosure provides a PDCCH resource configuration method, a PDCCH resource determining method, a network device and a user equipment. The PDCCH resource configuration method is applied to a network device and includes: determining resource configuration information of PDCCH, where the resource configuration information at least includes: REG bundle size, CCE-REG mapping manner, and REG mapping manner; and configuring PDCCH resources according to the resource configuration information, and transmitting the resource configuration information to a user equipment.

Abstract: The present disclosure provides a processing method for terminal measurement and a terminal.

Abstract: A communication method includes: determining by a user equipment whether an SCG failure occurs between the user equipment and an SCG; when the SCG failure occurs between the user equipment and the SCG, using, by the user equipment, a failure mode measurement configuration to perform measurement and/or reporting of a link quality between the user equipment and the SCG. In this way, when the SCG failure occurs between the user equipment and the SCG, the power/resources consumed before the user equipment finds a proper cell can be reduced. A user equipment, a communication node and an apparatus having a storage function are also provided.

Abstract: A content provider has a plurality of content provider domain names, and a content delivery network (CDN) allocates a plurality of CDN domain names to the particular content provider. The content provider domain names are mapped to the CDN domain names. CDN domain names are bound to corresponding CDN clusters. The binding of the of CDN domain names to corresponding CDN clusters is modified.

Abstract: The present disclosure provides a beam indication processing method, a user equipment and a network device. The beam indication processing method includes: determining beam indication information to be used currently; determining a beam for reception according to the determined beam indication information; and performing receiving according to the determined beam.

Abstract: A fiber optic cable includes a tube, a stack of fiber optic ribbons twisting along a lengthwise axis through the tube, a support, and water-blocking tape positioned at least partially around the stack, between the stack and the tube. The support and water-blocking tape provide an elevated portion of the water-blocking tape that is raised. As the stack twists along the lengthwise axis of the tube, corners of the stack interface with the elevated portion to provide intermittent frictional coupling between the stack and the tube.

Abstract: An antenna structure includes a housing, a first feed source, a second feed source, a third feed source, and a radiating body. The first feed source is electrically coupled to a first radiating portion of the housing and adapted to provide an electric current to the first radiating portion. The second feed source is electrically coupled to the second radiating portion and adapted to provide an electric current to the second radiating portion. The radiating body is mounted within the housing and electrically coupled to the third feed source. The third feed source provides an electric current to the radiating body.

Abstract: An antenna structure includes a radiating portion and a coupling portion. The radiating portion is electrically connected to a feed point for feeding current. The coupling portion is electrically connected to a ground point to be grounded. The coupling portion is spaced apart from the radiating portion. The radiating portion excites a first resonant mode for generating radiation signals in a first frequency band. The current flowing through the radiating portion is coupled to the coupling portion, and the coupling portion excites a second resonant mode and a third resonant mode for generating radiation signals in a second frequency band and a third frequency band. Frequencies of the first frequency band are higher than frequencies of the second frequency band. Frequencies of the third frequency band are higher than frequencies of the first frequency band.

Abstract: An Internet of things (IoT) devices wireless communication service enablement platform. The platform comprises a memory, a processor, and an IoT devices wireless communication service enablement application stored in the memory. When executed by the processor, the application receives a rule set for enabling wireless communication service for a plurality of IoT devices, where the rule set associates service codes to quality of service (QoS) levels to be provided to the IoT devices, receives a message comprising a service code from the one of the IoT devices, identifies a QoS level in the rule set that matches the received service code, monitors the location of the one of the IoT devices, builds an eSIM profile based on the location of the one of the IoT devices and based on the QoS level that matches the received service code, and sends the eSIM profile to the one of the IoT devices.

Abstract: Methods and systems for providing data are disclosed. An optimal set of subcarriers can be determined for a data transmission when a plurality of devices have requested the data transmission. The optimal set of subcarriers can be determined based on similarities or differences between parameters assigned to subcarriers in capability profiles. Capacity loss and other information can be determined based on the similarities or the differences among corresponding parameters of the capability profiles. The data transmission can be transmitted to the plurality of devices via the optimal set of subcarriers.

Abstract: The present disclosure is directed to enabling transparency for network traffic through an off-net site using the concept of static Pseudo-Wire (PW) of arriving data packets at a Network Interface Device (NID). In one aspect, a method of providing transparent Ethernet private line service includes receiving, at a network interface device of an enterprise network, a packet, the enterprise network being configured to receive the Ethernet private line service from a service provider; determining, by the network interface device, whether the packet is a raw data packet or a statically pseudo-wired packet; and performing, by the network interface device, a pseudo-wire encapsulation process if the packet is the raw data packet or a pseudo-wire de-capsulation process if the packet is the statically pseudo-wired packet, prior to delivering the packet to a corresponding destination.

Abstract: Provided in embodiments of the present disclosure a QoS processing method and a QoS processing device. The QoS processing method includes transmitting, by a target base station, a first message to a source base station. The first message at least comprises first information and second information; the first information is configured for notifying the source base station that the target base station is incapable of meeting a QoS requirement on one or more flows of a UE; and the second information is information of a QoS parameter capable of being accepted by the target base station and recommended with respect to the one or more flows.

Abstract: Disclosed are a method and device for feeding back channel state information, and a method and device for determining a pre-coding matrix. In the present application, a terminal determines N orthogonal vector groups, one of the orthogonal vector groups being used for constructing pre-coding corresponding to M layers in a pre-coding matrix; the terminal determines, according to beams in the N orthogonal vector groups, linear combination coefficients for constructing the pre-coding matrix, the linear combination coefficients includes linear combination coefficients corresponding to the layers in the pre-coding matrix; the terminal feeds back channel state information to a base station, the channel state information includes indication information of the N orthogonal vector groups and linear combination coefficients, in the determined linear combination coefficients of the pre-coding matrix, corresponding to Y layers, wherein Y is less than or equal to the number of layers of the pre-coding matrix.

Abstract: Disclosed herein are systems, methods, and non-transitory computer-readable storage media for processing multimodal input. A system configured to practice the method continuously monitors an audio stream associated with a gesture input stream, and detects a speech event in the audio stream. Then the system identifies a temporal window associated with a time of the speech event, and analyzes data from the gesture input stream within the temporal window to identify a gesture event. The system processes the speech event and the gesture event to produce a multimodal command. The gesture in the gesture input stream can be directed to a display, but is remote from the display. The system can analyze the data from the gesture input stream by calculating an average of gesture coordinates within the temporal window.

Abstract: Methods and system for providing scene layouts during a network conference. In an embodiment, a method for providing a scene layout for use by conference participants during a network conference is disclosed. The method includes identifying a conference host and conference attendees from the conference participants, identifying a scene layout selected by the conference host, and distributing the scene layout to the conference participants. The scene layout includes a plurality of video areas. The method also includes assigning selected video areas of the scene layout to selected conference participants, respectively, receiving video streams from the selected conference participants, and displaying the scene layout so that the video streams from the selected conference participants are displayed in their associated video areas, respectively.

Abstract: In a wireless network, a Distributed Unit (DU) receives Uplink (UL) data from User Equipment (UE) and a Central Unit (CU) receives Downlink (DL) data for the UE. When DL-centric applications in the UE use the DL, the CU executes most network applications and the DU executes a few network applications. When the DL-centric applications use the UL, the DU executes the network applications and the CU transfers the UL data to the core. When UL-centric applications in the UE use the DL, the CU routes the DL data to the DU, and the DU executes the network applications. When the UL-centric applications use the UL, the DU executes a few network applications and the CU executes most network applications to route the data to the core. Advantageously, the DU and the CU are optimized to process UL/DL data for a user application based on whether the user application is UL-centric or DL-centric.

Abstract: A system can monitor the server for indications of an attack and adjusts server settings accordingly. In response, the system can increase server tolerance in a systematic way to deal with DDoS by adjusting server settings appropriately. Conversely, when the server is not under attack, the settings can be adjusted to those for standard operations (e.g., adjusted downward), as they are more optimal for normal, non-attack operations.

Abstract: A mobile communication device. The mobile communication device comprises a radio frequency transceiver, a processor, a memory comprising a system partition and a non-system partition, wherein the system partition comprises a hidden application, and an installer application stored in the system partition of the memory. When executed by the processor, the installer application receives a first message comprising an identity of an enterprise and a communication address of an application download service, sends a second message to the communication address received in the first message, wherein the second message comprises the identity of the enterprise received in the first message, receives a third message that comprises an enterprise application associated with the identity of the enterprise, installs the enterprise application in the system partition of memory in the place of the hidden application, and sets the status of the enterprise application to visible status.

Abstract: Methods, systems, and apparatuses for securing property are presented. A premise security system may be placed in a learning mode. Changes in position of a security sensor may be detected and used to set a permitted range of motion for the sensor. Further, a plurality of security sensor profiles may be stored, and each profile may identify a different predefined permitted range of motion of a sensor. The addition of a new sensor to a premise may be detected, and a user may be prompted, on a display, to identify a profile to be used to configure the new sensor.

Abstract: A method of sending a beam report and a terminal thereof are provided. The method includes: monitoring a quality parameter of at least one beam link; and determining, according to the quality parameter of the beam link, at least one beam link subjected to a quality loss; in the case that at least a first preset quantity of beam link of the at least one beam link subjected to the quality loss is the beam link of a target antenna panel, determining that a shielding event of the target antenna panel is detected and sending a beam report to a network.