Abstract: Disclosed is a communication method that prevents excess message transmission and improves the efficiency of a communication system. The method includes transmitting a first connection request message for a service connection to a network by an electronic device, receiving a first connection reject message for the first connection request from the network, abstaining from retransmission of the connection request to the network based on the first connection reject message, determining whether an operation configured in the electronic device belongs to a condition set by the electronic device based on at least a portion of the abstinence operation, and when determining that the operation belongs to the condition, transmitting a second connection request message to the network.

Abstract: A system may include a first full duplex split site system and a second full duplex split site system. The first full duplex split site system may include a first transmitter and a first receiver. The second full duplex split site system may include a second transmitter and a second receiver. The first transmitter may be configured to transmit a data payload to the second receiver via a high frequency (HF) link on a first frequency. The first receiver may be configured to: instruct the first transmitter to send a command to the second receiver to instruct the second transmitter to establish a maintenance link with the first receiver on a frequency different from the first frequency; and command the first transmitter to begin transmitting the data payload to the second receiver.

Abstract: A packet is received at a device configured to provide a service function within a network service chain. A network overlay and/or segmentation identifier is extracted from a header of the packet. The service function is applied to the packet according to policies specific to a network overlay and/or segmentation identified in the network overlay and/or segmentation identifier.

Abstract: A method and apparatus for performing a sidelink (SL) transmission in a wireless communication system is provided. A user equipment (UE) transmits a contention based scheduling request (CB-SR) to an eNodeB (eNB) by using CB-SR resources to request SL transmission resources, and determines whether a SL grant for the SL transmission resources is received or not. If the UE does not receive the SL grant until a timer expires, the UE may transmit non-contention based SR to the eNB or autonomously select SL resources from resource pool to perform SL transmission.

Abstract: A receiving device comprises a channel estimation unit, for generating a plurality of channel estimates according to a plurality of reference signals; an eigenvalue computation unit, coupled to the channel estimation unit, for generating at least one eigenvalue corresponding to the plurality of channel estimates according to the plurality of channel estimates; a channel compensation unit, coupled to the eigenvalue computation unit, for generating a correlation compensation value for compensating the plurality of channels according to the at least one eigenvalue; a channel capacity computation unit, coupled to the eigenvalue computation unit and the channel compensation unit, for generating a channel capacity according to the at least one eigenvalue and the correlation compensation value; and a selection unit, coupled to the channel capacity computation unit, for determining a modulation and coding scheme (MCS) according to the channel capacity.

Abstract: An apparatus, a method, a system, and computer program product are disclosed for link aggregation group management. A method includes receiving an identifier from a device connected to a first port of a first switch, determining whether a second switch has a connection to the device on a first port of the second switch based on the identifier for the device, and autonomously configuring a link aggregation group comprising the first port of the first switch and the first port of the second switch in response to determining that the device is connected to the first port of the first switch and the first port of the second switch.

Abstract: The disclosed computer-implemented method for network traffic routing to reduce service congestion at a server may include (1) receiving, by the computing device and from the cloud server, a traffic routing policy, (2) identifying, for a transaction and using at least one hook inserted into an operating system of the computing device, metadata describing a traffic type, (3) comparing the metadata with the traffic routing policy to determine the transaction is bypass traffic, and (4) sending the bypass traffic from the computing device to a destination other than the cloud server. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: Systems and methods for enhanced subnetwork preference logic are herein provided. In certain implementations, a method for transmitting messages over a datalink communication system includes identifying a location of a first communication unit; and identifying an altitude of the first communication unit. Further, the method includes selecting a sub-network preference for the first communication unit for communicating between the first communication unit and one or more other communication units, wherein the sub-network preference is selected based on the location and the altitude of the first communication unit, wherein the sub-network preference identifies one or more sub-networks in order of preference; and transmitting one or more messages to the one or more other communication units through a sub-network that is a most preferred sub-network as indicated by the selected sub-network preference and available for communications.

Abstract: A system and method for scheduling cooperative uplink transmissions in a virtual multiple input multiple output (MIMO) wireless communication environment are provided. More specifically, both random and channel aware orthogonal scheduling techniques for identifying a sub-set of N mobile terminals to provide cooperative uplink transmissions for each transmit time interval are provided.

Abstract: One example discloses an apparatus for wireless communication, including: a first wireless device configured to communicate with a second wireless device over a first wireless link, according to a first wireless link protocol; wherein the first wireless link protocol defines communications between the first wireless device and the second wireless device; wherein the first wireless device is configured to monitor communications on a second wireless link between the second wireless device and a third wireless device; wherein the second wireless link is configured according to a second wireless link protocol that defines communications between the second wireless device and the third wireless device; and wherein the first wireless device is configured to spoof the second wireless device in response to an error condition or signal degradation on the second wireless link.

Abstract: The present invention provides a network device and a method for allocating an access point name. The network device includes: a receiving module, configured to receive a user activation request sent by user equipment UE, where the user activation request includes user location information ULI; a parsing module, configured to parse the ULI received by the receiving module, to acquire an area code of a location of the UE; a determining module, configured to determine an area code set to which the area code acquired by the parsing module belongs; and an acquiring module, configured to acquire, according to a mapping relationship between the area code and an actual access point name APN, the actual APN for the UE. The embodiments of the present invention can implement centralized management on UE based on a geographical area range.

Abstract: The present invention addresses method, apparatus and computer program product for handling of secondary scheduling request in carrier aggregation. Thereby, a message comprising a request of radio resources for uplink transmission from the user equipment to a base station is composed, it is determined whether the user equipment is in a carrier aggregation mode in which two or more carriers are aggregated forming one primary cell and at least one secondary cell, the primary cell and at least one secondary cell supporting physical uplink control channel, the message is assigned to a physical uplink control channel, wherein assigning is permitted to the physical uplink control channel of the primary cell and a physical uplink control channel of any of the at least one secondary cell, and transmission of the message is caused using the assigned physical uplink control channel.

Abstract: Embodiments of the present invention disclose a primary secondary cell change method and a base station. The primary secondary cell change method in the embodiments of the present invention includes: determining, by a primary base station, to change a first primary secondary cell served by a secondary base station, and selecting a second primary secondary cell from cells served by the secondary base station; sending, by the primary base station, a first message to the secondary base station, which is used to request the secondary base station to change the primary secondary cell, where the first message includes an identity of the second primary secondary cell; and sending, by the primary base station, a second message to a user equipment UE, which is used to request the UE to use the second primary secondary cell.

Abstract: A data transmission method and a device are disclosed and relate to the field of communications technologies, so that a channel resource preemption probability of a device can be effectively increased by reducing a CCA interval at which a CCA is performed on a channel resource. The method includes: determining, by a first device, a CCA start moment at which a clear channel assessment CCA is performed; determining, by the first device, a CCA interval, where the CCA interval is a time interval between two adjacent CCAs, and a time interval between any two adjacent CCAs is less than a preconfigured data frame period; performing, by the first device, a CCA process according to the CCA start moment and the CCA interval; and sending, by the first device, data at an end moment of the CCA process. The method and the device are used for data transmission.

Abstract: An I/O board of a VXLAN switch receives a multicast data packet having a first VXLAN encapsulation, removes the first VXLAN encapsulation, determines that layer 3 multicast forwarding is to be performed for the multicast data packet, and sends the multicast data packet to a fabric board. The fabric board determines that layer 3 multicast forwarding is to be performed for the multicast data packet. When a multicast group member port corresponding to the multicast data packet is a VXLAN tunnel port, the fabric board modifies a source MAC address of the multicast data packet and sends the modified multicast data packet to an I/O board corresponding to the multicast group member port. The I/O board corresponding to the multicast group member port adds a second VXLAN encapsulation to the multicast data packet and forwards the multicast data packet having the second VXLAN encapsulation to a VXLAN.

Abstract: Implementations described and claimed herein provided for a system for provisioning network resources. The system includes a network provisioning abstraction layer having an application interface for receiving network provisioning requests from applications and determine provisioning instructions for fulfilling the requests. Each of the received provisioning instructions is queued in a priority queuing system according to a request priority. The provisioning instructions for the highest priority requests are removed from the front of the queue and sent to a resource interface that relays the requests to the appropriate network resources.

Abstract: A system and method for collaborative broadcasting and bi-directional network transmission. Such a system may comprise a broadcast transmission source that uses a one-to-many broadcasting method, a bi-directional network that uses a one-to-one broadcasting method, and a receiver apparatus configured to receive broadcasts from the broadcast transmission source and communicate with the bi-directional network. When the receiver apparatus receives a broadcast from the broadcast transmission source, and when the broadcast is partially damaged or missing, the receiver apparatus is configured to communicate with the bi-directional network and request the damaged or missing data.

Abstract: A first network device adapted for communication with one or more other network devices is configured to originate a first route identifying a tunnel for carrying traffic for a multicast, to originate a second route specifying a leaf information requirement for the multicast but not identifying a tunnel for carrying traffic for the multicast, and to track a plurality of receivers of the multicast based at least in part on leaf information received from the multicast receivers responsive to the specified leaf information requirement of the second route. The first route may comprise an inclusive route having a tunnel attribute that identifies an inclusive tunnel for the multicast and the second route may comprise a selective route having a tunnel attribute configured to indicate that it carries no tunnel information. Multicast traffic can be switched between an inclusive tunnel and a selective tunnel responsive to the multicast receiver tracking.

Abstract: The present disclosure relates to a pre-5th-generation (5G) or 5G communication system to be provided for supporting higher data rates beyond 4th-generation (4G) communication system such as a long term evolution (LTE). Various examples of the present disclosure provide a method of allocating sounding reference signal (SRS) resources. A base station of a target cell receives information of first cell edge terminals in an adjacent cell transmitted by the adjacent cell. The base station allocates SRS resources for a terminal in the target cell according to information of second cell edge terminals in the target cell and the information of the first cell edge terminals, and transmits information of the allocated SRS resources to the terminal.

Abstract: Methods and apparatus as described herein for determining whether to transmit a signal to at least one receiver of a plurality of receivers with an orthogonal multiplexing technique while signals to a remainder of the plurality of receivers are simultaneously transmitted with a non-orthogonal multiplexing technique If it is determined that the signal should be transmitted to the at least one receiver with the orthogonal multiplexing technique, simultaneously transmitting the signal to the at least one receiver with the orthogonal multiplexing technique and the signals to the remainder of the plurality of receivers with the non-orthogonal multiplexing technique. Methods and apparatus are also described for decoding the signals on the receiving end.