Abstract: In some aspects, a node may configure whether a set of soft time resources is to be conditionally released or unconditionally released. The set of soft time resources may be configurable in a schedulable state or a non-schedulable state. The set of soft time resources may be schedulable subject to at most a directionality constraint when unconditionally released and, when conditionally released, being schedulable subject to: the directionality constraint and one or more conditions other than the directionality constraint if the set of soft resources is configured subject to the directionality constraint, or at least one of the directionality constraint or the one or more conditions other than the directionality constraint if the set of soft resources is not configured subject to the directionality constraint. The node may transmit a configuration that indicates whether the set of soft time resources is conditionally released or unconditionally released in the schedulable state.

Abstract: A transmitting apparatus and an operating method for the apparatus in a multimedia system are provided. The operating method includes inputting at least one network layer packet, generating a link layer packet based on the at least one network layer packet, and transmitting the link layer packet. The link layer packet includes a header including information indicating a packet type of the at least one network layer packet, information indicating whether the link layer packet includes a single network layer packet, and information indicating an identifier related to the at least one network layer packet.

Abstract: Techniques are presented herein for managing the processing of network data units (NDUs) received by a network device. More specifically, the techniques relate to updating NDU processing information in a network device in response to a link becoming active, where the updating reduces the NDU loss when the NDU processing information is being updated.

Abstract: An information indication method includes: adding time-frequency indication information configured for a CORESET of RMSI to a PBCH of a SSB; if the time-frequency indication information indicates the CORESET of RMSI and the SSB are multiplexed in time division, querying a pre-stored correlation according to a present band, an SCS of the SSB and an SCS of the CORESET of RMSI to obtain an extended RB offset minimum set corresponding to the present band; an RB offset is selected from the obtained extended RB offset minimum set, and adding an offset index of the selected RB offset to the time-frequency indication information; and sending the SSB comprising the time-frequency indication information to UE in a beam scanning manner.

Abstract: Systems and methods discussed herein are directed to handling the identity and authentication of server security certificates on SIMs, and establishing secure channels with cloud servers via a wireless communication network using the security certificates and Public Key Infrastructure (PKI) libraries on SIMs. A mechanism to manage the security certificates on SIMs using an Over-the-Air (OTA) platform of the wireless communication network and certificate authority network elements is provided. Multiple cloud systems and their cloud servers are supported by storing multiple cloud certificates on SIMs and enabling features of a dynamic selection of the appropriate server certificate by the OTA platform for secure communication. Accordingly, electronic devices may be used within the wireless communication network for exchanging data with multiple cloud servers without changing codes/software devices, SIMs, etc.

Abstract: One embodiment of the present invention relates to a method whereby a terminal transmits data to another terminal in a wireless communication system, the data transmission method comprising the steps of: selecting resources for transmitting multiple pieces of data; and transmitting the multiple pieces of data by using the selected resources, wherein the terminal is configured to execute the transmission through sensing, and if the terminal fails to transmit the data a preset number of times or more in a row, the terminal reselects resources.

Abstract: A WAN controller can configure a first WAN interface on a first WAN edge device to connect to a first transport network. The WAN controller can configure a second WAN interface on a second WAN edge device to connect to a second transport network. The WAN controller or the first WAN edge device, connected to a first access device of an access network, can determine the first WAN edge device has no Layer 2 connectivity to the second WAN edge device, connected to a second access device of the access network. The WAN controller or the first WAN edge device can establish a tunnel between the first WAN edge device and the second WAN interface. The WAN controller can route a specified class of WAN traffic received by the first WAN edge device from the access network through the tunnel.

Abstract: Embodiments described herein provide for the pseudo-cooperative load balancing and/or distribution of traffic and/or other types of data by independent nodes. Techniques described herein may be considered “pseudo-cooperative” in that the resulting distribution of traffic and/or other data may resemble load balancing techniques in which various nodes, that serve as an ingress for data for distribution and/or other types of processing, communicate with each other (e.g., share context information) in order to perform load balancing in a coordinated or cooperative manner. In contrast, nodes in accordance with some embodiments described herein may perform load balancing with the same or similar results (e.g., a relatively even distribution of traffic and/or other data), without communicating with each other, thus saving time, processing resources, and/or other resources.

Abstract: The 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 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. The disclosure provides a method for supporting re-authentication of a PDU session generated through DN authentication/authorization with a DN-AAA server, and a method and an apparatus for managing a corresponding PDU session if DN authorization information is updated at the time of re-authentication.

Abstract: A reference signal sequence to modulate the demodulation reference signal for the Physical Broadcast Channel in New Radio standard is disclosed. Formulas are proposed for calculating the initialization value for the RS sequence generator so as to accord with the characteristics of New Radio.

Abstract: In general, embodiments of the invention relate to managing the processing of network data units (NDUs) received by a network device. More specifically, embodiments of the invention relate to minimize the use of a peer link between two multichassis link aggregation group (MLAG) peers to transmit NDUs that are to be routed or bridged by the MLAG peers. The aforementioned minimization of the use of the peer link may be achieved, e.g., using a shared media access control (MAC) address.

Abstract: To prevent a decrease in transmission rate of an entirety of a system including devices that transmit data items with use of a plurality of channels ever, in a case where some of the channels change in condition, for example, decrease in transmission rate. In an information processing device including channel evaluation units, a channel selection unit, and a transmission control unit, the channel evaluation units evaluate, on the basis of an evaluation function, a plurality of channels that transmit data items via wireless communication. The channel selection unit performs selection from the plurality of channels on the basis of results of the evaluations. The transmission control unit transmits the data items to the plurality of channels subjected to the selection.

Abstract: An example method may include receiving, at a device, a first frame over a wireless network and constructing a preliminary data portion of a second frame. The second frame may be configured for transmission over the wireless network. The method may also include in response to the receiving of the first frame at the device, beginning transmission of a header portion of the second frame over the wireless network and after the beginning transmission of the header portion of the second frame, constructing, based on the preliminary data portion, a finalized data portion of the second frame for transmission over the wireless network.

Abstract: A Vehicle-to-Everything (V2X) service configuration method includes: acquiring V2X configuration information sent by a plurality of public land mobile networks (PLMNs), where the V2X configuration information is used for instructing a user equipment (UE) to receive a V2X service; and sending the V2X configuration information to the UE.

Abstract: Some embodiments provide novel methods for performing services for machines operating in one or more datacenters. For instance, for a group of related guest machines (e.g., a group of tenant machines), some embodiments define two different forwarding planes: (1) a guest forwarding plane and (2) a service forwarding plane. The guest forwarding plane connects to the machines in the group and performs L2 and/or L3 forwarding for these machines. The service forwarding plane (1) connects to the service nodes that perform services on data messages sent to and from these machines, and (2) forwards these data messages to the service nodes. In some embodiments, the guest machines do not connect directly with the service forwarding plane. For instance, in some embodiments, each forwarding plane connects to a machine or service node through a port that receives data messages from, or supplies data messages to, the machine or service node.

Abstract: A UE is described. The UE may include a higher layer processor configured to acquire a common dedicated radio resource control (RRC) configuration message and one or more dedicated RRC configuration messages. The common RRC message may include first information for indicating a slot format. The one or more dedicated RRC configuration messages including second information for configuring a semi-static downlink transmission and third information for configuring a semi-static uplink transmission. The UE may also include receiving circuitry configured to receive the semi-static downlink transmission. The UE may further include transmitting circuitry configured to transmit the semi-static uplink transmission. If the semi-static downlink reception and the semi-static uplink transmission are configured for a same set of symbol(s), the slot format indicates the set of symbol(s) as either downlink or uplink but not as flexible.

Abstract: A wireless access node simultaneously serves wireless User Equipment (UE) over Fifth Generation New Radio (5GNR) and Long Term Evolution (LTE). A baseband unit splits user data into a 5GNR portion and an LTE portion per a dynamic 5GNR/LTE split. A 5GNR radio wirelessly transfers the 5GNR portion to the wireless UE. An LTE radio wirelessly transfers the LTE portion to the wireless UE. The baseband unit corrects LTE and 5GNR transmission errors and determines a 5GNR Block Error Rate (BLER) and an LTE BLER. The baseband unit modifies the dynamic 5GNR/LTE split based on the difference between the 5GNR BLER and the LTE BLER. The baseband unit splits additional user data into 5GNR and LTE portions per the modified 5GNR/LTE split.

Abstract: A system and method for broadcast response generally employing RDS, DARC, or similar technology is provided, including a method for responding to a broadcast comprising extracting an event identifier from a broadcast signal; detecting a response by a user to the broadcast signal; polling a communications device to determine a user identifier; and communicating the event identifier and the user identifier when the user response is detected.

Abstract: A method and a device for decompressing and compressing uplink data are provided. The method for decompressing uplink data includes: checking, by a decompression end, a UDC header in a PDCP packet after the PDCP packet is received, where the UDC header includes at least: compression context information of a data packet in the PDCP packet and information related to a decompression buffer area, and the information related to the decompression buffer area is for indicating the decompression end to control the decompression buffer area of the decompression end to keep consistent with a compression buffer area of a compression end; and performing, by the decompression end, a corresponding operation on the data packet in the PDCP packet according to the compression context information and the information related to the decompression buffer area.

Abstract: Embodiments of the present disclosure relate to method and device for interworking between service function chain (i.e., service chain) domains In some embodiments, there is provided a communication method comprising: receiving, at a first logic node of a first service chain in a first domain, a first packet associated with a second service chain in a second domain; converting the first packet into a second packet comprising first interworking information between the first service chain and the second service chain, the first interworking information comprising a flag indicating that the second packet is an interworking packet, an address of the first logic node, a first flow identifier of the second packet, a first service path identifier of the second packet and metadata associated with the second service chain; transmitting the second packet to a second logic node in the second domain; and receiving from the second logic node a response to the metadata.