Abstract: A backhaul radio is disclosed that includes one or more antenna structures collectively having a plurality of selectable radiation patterns for detecting alignment signals; one or more receivers configured to receive the alignment signals from the one or more antenna structures and provide received signals; one or more processors for processing the received signals to determine signal properties, wherein at least one of the one or more processors are coupled to at least one of the one or more receivers to receive said received signals; and an interface to couple at least one of the one or more processors to an alignment assisting device. The alignment assisting device coordinates between the backhaul radio and the second backhaul radio during the alignment process. The alignment assisting device further provides an indication of an improved alignment adjustment to a user of the alignment assisting device.

Abstract: A first network device advertises routes of locally connected routes/subnetworks based on the connectivity of the host with respect to peer network devices. The first network device establishes a virtual port channel associated with a virtual network address. The virtual port channel includes the first network device associated with a first network address and a second network device associated with a second network address. The first network device detects that a host is connected to the first network device and determines a next hop address to associate with the host. The next hop address is determined based on whether the host is also connected to the second network device of the virtual port channel. The first network device generates a route advertisement associating the next hop address with the host.

Abstract: A computing system may include a database disposed within a remote network management platform that manages a managed network, and a software application associated with the platform. The software application may be configured to: obtain a unit of programmatic code from a third-party computing system, where the unit of programmatic code is hosted by the third-party computing system on behalf of the managed network, and where a program using the unit of programmatic code is executable by computing resources of the third-party computing system that are assigned on demand; parse the unit of programmatic code for a pattern indicative of respective relationships between the unit of programmatic code and service(s) provided by the third-party computing system; generate an association between the unit of programmatic code and the service(s); and store, in the database, representations of the unit of programmatic code, the service(s), and the association therebetween as discovered configuration items.

Abstract: A computing system may include a database disposed within a remote network management platform that manages a managed network, and a software application associated with the platform. The software application may be configured to: obtain a unit of programmatic code from a third-party computing system, where the unit of programmatic code is hosted by the third-party computing system on behalf of the managed network, and where a program using the unit of programmatic code is executable by computing resources of the third-party computing system that are assigned on demand; parse the unit of programmatic code for a pattern indicative of respective relationships between the unit of programmatic code and service(s) provided by the third-party computing system; generate an association between the unit of programmatic code and the service(s); and store, in the database, representations of the unit of programmatic code, the service(s), and the association therebetween as discovered configuration items.

Abstract: A vehicle device for monitoring data traffic with components of a motor vehicle in a motor vehicle includes one or more interfaces to communicate with at least one transceiver of a first radio system and at least one transceiver of a second radio system. The device includes a monitoring module to receive information about a data transmission via the one or more interfaces and the first radio system and to transmit data via the one or more transceivers and via the second radio system. The network device for a network component for monitoring a data transmission to at least one component of a motor vehicle includes at least one interface to communicate with at least one other network component and a monitoring module to receive information about a request for a data transmission and to transmit information about the request via a radio system to the motor vehicle.

Abstract: The present disclosure relates to a communication technique and a system thereof for fusing, with IoT technology, a 5G communication system for supporting a higher data transmission rate than a beyond 4G system. The present disclosure may be applied to intelligent services (such as smart homes, smart buildings, smart cities, smart cars or connected cars, health care, digital education, retail business, security and safety related services, etc.).

Abstract: A method is provided for detour routing in a mesh network that includes nodes and bi-directional links connecting neighboring nodes. The method identifies any primary links useable to decrease a path distance from a source to a destination node. The method randomly selects one primary link for use, responsive to identifying more than one primary link that is non-defective. The method identifies any secondary links useable to decrease the path distance and orthogonal to a primary link, responsive to the primary links being defective. The method randomly selects one secondary link for use, responsive to identifying more than one secondary link that is non-defective. The method identifies any tertiary links useable to decrease the path distance and reverse in direction to a primary link, responsive to the secondary links being defective. The method sends a packet from the source to the destination node using the identified tertiary links.

Abstract: Disclosed are a method and apparatus for controlling the access of a household appliance device to a network. The method includes grouping network configuration information according to a grouping rule; generating a data block of each group, and the data block of each group contains a data packet corresponding to characters on each of information bits of a current group and a data packet corresponding to a serial number, and the length of the data packet corresponds to the characters on one information bit, or corresponds to the serial number, and sequentially broadcasting the data packet in each data block according to a grouping order. Moreover, the efficiency of the household appliance device accessing the network can be improved.

Abstract: According to some embodiment, a microservice architecture is instantiated in accordance with a predefined framework to perform monitoring services of a first system and a second system. The microservice architecture includes one or more microservices. The microservice architecture is segmented into groups of microservices. Each group of microservices is represented by a subset of the predefined framework. A first group of microservices is deployed to the first system. A second group of microservices is deployed to the second system.

Abstract: Embodiments of the present application belong to the field of NB-IoT, and relate to a method, terminal and server for allocating NB-IoT system resources, capable of satisfying the requirements of traffic rate and communication quality simultaneously.

Abstract: A mechanism for S1 handover triggered by a target eNodeB. When a UE is being served by a source eNodeB and detects threshold strong coverage of a target cell, the UE sends an RRC connection request to the target eNodeB and informs the target eNodeB that the UE is being served by the source eNodeB. In response, the target eNodeB engages in a process to invoke handover of the UE to the target eNodeB, without the target eNodeB having received from the MME or from the source eNodeB a handover request for the handover of the UE.

Abstract: Techniques are disclosed whereby a signal is transmitted from a wireless network to a wireless device, requesting automatic repeat-request, ARQ, feedback for certain indicated ARQ processes. This asynchronous approach addresses a problem with irregular ARQ feedback for dynamic time-division-duplexing, and also allows for relaxed processing-time constraints in the wireless device. An example method, in a wireless device, comprises receiving (610) from a wireless communication network, in a first transmission-time interval, a request for ARQ feedback, the request indicating one or more ARQ processes. The example method further comprises transmitting (620) to the wireless communication network, in a second transmission-time interval, ARQ feedback information for each of the one or more indicated ARQ processes.

Abstract: In a computing resource service provider environment, Border Gateway Protocol (BGP) routers may connect various networked environments. In addition, the implementation of the BGP router may be distributed between computing resources within the computing resource service provider environment. A subset of hosts may be selected from a set of hosts within the computing resource service provider environment. The subset of hosts may be selected to implement the BGP router, the adjacency-in routing information, and the adjacency-out routing information.

Abstract: A device-to-device (D2D) user equipment (UE) apparatus identifies at least first and second synchronization reference (SyncRef) UEs each satisfying a predetermined selection/reselection criterion with respect to the D2D UE, determines a measurement period in which to perform one or more measurements on the identified at least first and second SyncRef UEs, and performs the one or more measurements on each of the identified at least first and second SyncRef UEs during the determined measurement period.

Abstract: The apparatus may be a user equipment (UE). The apparatus receives a transmission of at least one of a plurality of first synchronization signals. The apparatus receives at least one repeat transmission of the at least one of the plurality of first synchronization signals. In an aspect, the transmission and the at least one repeat transmission are received in a same synchronization signal block.

Abstract: A network device predicts end-to-end channel capacity entropy to permit use of optimal throughput settings in a network. The network device stores class definitions for a network condition; identifies multiple input features to correlate with the class definitions; generates a multiclass classification model that produces an importance score for each of the multiple input features, wherein the importance score reflects the contribution of an input feature to the network condition; selects two or more of the multiple input features with highest importance scores as influential features; predicts the behavior of the influential features to identify a current class, from the class definitions, for the network condition over an end-to-end communication channel; and sends an estimated network condition, based on the current class, to a device for traffic optimization.

Abstract: A method for optimal path generation includes generating a candidate path to be taken by a platform to move from a start point to a final point, splitting the candidate path into a preset number of sections, calculating a curvature variation of each of the sections, acquiring an optimal path parameter that minimizes a sum of the curvature variations, by changing a path parameter of the candidate path, and determining, as the candidate path corresponding to the optimal path parameter as an optimal path.

Abstract: An in-vehicle control device connected to an in-vehicle LAN system conforming to a CAN protocol, when an output signal output from a second controller maintains a dominant level for a predetermined time, determines that there is an abnormality in the output signal output from the second controller, and converts the output signal output to a selection section from the second controller into a signal of a recessive level.

Abstract: A method and apparatus for selecting a position of a routing node and terminal equipment where the method includes: generating a connection relationship among sensor nodes, a gateway node and deployable routing nodes according to network deployment information and a link quality model related to a deployment environment; and calculating a shortest path from each sensor node to the gateway node according to the connection relationship, and determining deployable positions of routing nodes on the shortest path as positions of the routing nodes. With the embodiments of this disclosure, in selecting a position of a routing node, an effect of a deployment environment and limit of a deployment position are taken into account, thereby obtaining a routing node deployment scheme satisfying a practical environment and ensuring network data transmission performance.

Abstract: A detecting device for detecting a physical quantity includes: a detector, configured to detect the physical quantity and to output data representing the physical quantity; a memory, configured to store a communications profile of the detecting device, wherein the communications profile defines a predetermined transmission time for the transmission of the data, wherein the predetermined transmission time is assigned to the detecting device; and a communications interface, configured to transmit the data to a predetermined target network address at the predetermined transmission time via a communications network. The communications interface is further configured to receive a broadcast signal from a server entity via the communications network, wherein the broadcast signal comprises a further communications profile assigned to the detecting device for modifying the communications profile of the detecting device.