Abstract: The present disclosure relates to a communication method and system for converging a 5th-Generation (5G) communication system for supporting higher data rates beyond a 4th-Generation (4G) system with a technology for Internet of Things (IoT). The present disclosure may be applied to intelligent services based on the 5G communication technology and the IoT-related technology, such as smart home, smart building, smart city, smart car, connected car, health care, digital education, smart retail, security and safety services. A method of a base station in a wireless communication system is provided. The method includes determining downlink (DL) transmission (TX) beam scheduling for transmitting downlink control information to a user equipment (UE), transmitting beam scheduling information to the UE, and transmitting the downlink control information according to the DL TX beam scheduling to the UE.

Abstract: According to one embodiment of the present invention, a method for channel-coding channel state information (CSI) in a wireless communication system is performed by a terminal and comprises the steps of: determining the number of input bits for a channel encoder of multi-CSI, to be transmitted in one subframe, for a plurality of cells or CSI processes; and channel-coding input bits for the multi-CSI having the determined number of input bits, wherein the number of input bits of pieces of CSI determined for each individual CSI, for each CSI group, or for each physical uplink control channel (PUCCH) report type or PUCCH report mode.

Abstract: Example methods are provided for a first host to handle control-plane connectivity loss in a virtualized computing environment that includes the first host, multiple second hosts and a network management entity. The method may comprise: detecting a loss of control-plane connectivity between the first host and the network management entity; and generating a request message for control information that the first host is unable to obtain from the network management entity. The method may also comprise sending the request message via a peer-to-peer network that connects the first host with the multiple second hosts; and obtaining the control information from a response message that is sent by at least one of the multiple second hosts.

Abstract: A wireless communication apparatus includes: a short-range receiver that designates, as a reception channel, a control channel or one of service channels; a channel switcher section that switches between the control channel and the service channel in designating the reception channel; a collision determiner section that determines presence of service provider stations and a collision of service start informational items transmitted by the respective service provider stations based on (i) that a service execution informational item is received under states where the service channel is designated as the reception channel, and simultaneously (ii) that a reception error is detected under states where the control channel is designated as the reception channel; and a collision notice processor section that transmits a signal collision notice from a predetermined notice transmitter based on that the collision determiner section determines the collision of the service start informational items.

Abstract: Apparatuses, methods, and systems are disclosed for transmitting and/or receiving system information for changing a configuration. One apparatus includes a receiver that: receives first system information for a first configuration; and receives second system information for a second configuration based on the first configuration. The second system information includes changes to the first configuration without repeating information common to the first and second configurations.

Abstract: Described herein are systems, methods, and software to enhance gateway security for multiple communication groups. In one implementation, a method of operating a gateway service includes identifying a data packet received from a first computing system, wherein the data packet comprises a first destination port value. The method further includes, identifying a group identifier within the data packet, wherein the group identifier associated with a communication group of the plurality of communication groups, translating the first destination port value to a second destination port value based on the group identifier, and forwarding the data packet with the translated second destination port value.

Abstract: A network switch includes switching circuitry and multiple ports. The multiple ports are connected to a communication network. The switching circuitry is configured to receive via the ports packets that are assigned respective Virtual Lanes (VLs), and forward each packet for transmission via a respective selected port, to queue the packets pending for transmission via a given port in multiple VL-dedicated queues, in accordance with the VLs assigned to the packets, to mark an outbound packet, pending for transmission via the given port, with multiple congestion indications that are indicative of respective congestion states of the multiple VL-dedicated queues of the given port, and to transmit the marked outbound packet via the given port.

Abstract: Methods and network devices are disclosed for traffic-engineered forwarding through a new form of bit indexed explicit replication. In one embodiment, a method includes receiving at a first node in a network a message comprising a message bit array, and comparing bit values at one or more bit positions in the message bit array to one or more entries in a forwarding table stored at the first node. The one or more bit positions correspond in this embodiment to links in the network. This embodiment of the method further includes forwarding the message over a link represented in the forwarding table if a result of the comparing indicates that the link is included in a path to be taken by the message. In a further embodiment of the method, the message is a multicast message and forwarding the message comprises forwarding a replica of the multicast message.

Abstract: Methods and network devices are disclosed for traffic-engineered forwarding through a new form of bit indexed explicit replication. In one embodiment, a method includes receiving at a first node in a network a message comprising a message bit array, and comparing bit values at one or more bit positions in the message bit array to one or more entries in a forwarding table stored at the first node. The one or more bit positions correspond in this embodiment to links in the network. This embodiment of the method further includes forwarding the message over a link represented in the forwarding table if a result of the comparing indicates that the link is included in a path to be taken by the message. In a further embodiment of the method, the message is a multicast message and forwarding the message comprises forwarding a replica of the multicast message.

Abstract: In certain embodiments, a network node serves a wireless device capable of carrier aggregation involving a primary cell, PCell, and at least one secondary cell, SCell. The network node determines (304) a target quality for the wireless device to achieve with respect to at least the PCell; determines (308) a PCell interruption probability (e.g., probability of missed ACK/NACK in uplink) corresponding to an SCell measurement cycle that can be used by the wireless device for measuring on one or more cells of a secondary component carrier, SCC, with a deactivated SCell; adapts (312) a parameter related to the CA configuration to make it feasible to achieve the target quality, the parameter adapted based on a comparison between the target quality and the PCell interruption probability; and configures (316) the wireless device with the adapted parameter.