Abstract: In some embodiments, the present invention is directed to a first mote, at least including: a first-mote directional antenna; wherein the first-mote directional antenna comprises a plurality of first antennas elements; ad hoc programmed computer processor which is configured to perform at least causing to establish a first communication link between the first mote and a second mote, based on a first direction; where the first direction corresponds to a first state of the plurality of first antennas elements; monitoring, in real time, the initial communication link data; determining, based on the initial communication link data, a second; selectively varying an antenna property operatively associated with the plurality of first antennas elements to establish a second state, corresponding to the second direction, and causing to establish a second communication link between the first mote and the second mote, based on the second state.

Abstract: Multiple modulation and coding scheme (MCS) tables for new radio (NR) networks is disclosed. Multiple MCS tables are defined with different sets of MCS values selected for improved performance in various transmission conditions. The multiple MCS tables may be known to base stations and user equipments (UEs) in the network. A serving base station may determine a set of transmission characteristics related to a transmission environment of a UE. The base station selects one of the MCS tables of the multiple MCS tables based on the set of transmission characteristics. The selected MCS table includes MCS values that may provide improved performance for the UE considering one or more of the characteristics of the set of transmission characteristics. The base station will then transmit an indication of the selected MCS table to the served UE.

Abstract: Approaches are described for release-time-driven (RTD) prioritization of on-board content scheduling and delivery to in-transit transport craft via communications systems. In context of a constrained network, content is scheduled to be delivered to those in-transit on-board media servers in a manner driven by respective release times and other prioritization factors associated with the updated content. Each content is associated with a RTD priority profile that can define a release time, a release priority, and a profile plot for the content. The RTD priority profiles can be used to compute priority surfaces that define priority scores over a multidimensional space for a particular time. A subset of the content can be selected for delivery based on the priority surfaces, and can be scheduled for delivery according to network capacity determinations.

Abstract: Methods and systems establish a traffic policy for a personal electronic device based on one or more physical characteristics of the device. In some aspects, a database of traffic policies is maintained. The traffic policies are for accessing a network via a wireless communications link. A network access unit receives a request from a personal electronic device to access the network. The request is analyzed to determine a physical characteristic of the device. A traffic policy is established from the database for the device based, at least in part, on the determined physical characteristic of the device. Transmission of network traffic for the device is then scheduled based at least in part, on the established traffic policy.

Abstract: A wireless data communication system and method are illustrated. The wireless data communication system has a central communication device and multiple communication devices, wherein the communication devices are able to communicate with the central communication device. The central communication device requests one of the communication devices to transmit one or more packets to the central communication device; if the central communication device determines at least one of the packets of the communication device is lost during transmission, and another one of the communication devices receives the one or more lost packets of the communication device, the other one communication device retransmits the one or more lost packets of the communication device to the central communication device after being requested by the central communication device. Thereby, the retransmission efficiency of packet loss can be enhanced and the transmission efficiency of radio frequency can be improved.

Abstract: Certain embodiments of the present disclosure provide a method and apparatus for processing data. The method comprises, at an edge device, parsing a first data packet after receiving the first data packet sent by a client device to obtain a virtual IP address and a destination port that correspond to the first data packet; querying an IP address mapping table according to the virtual IP address to obtain a destination IP address corresponding to the virtual IP address; and sending the first data packet according to the destination IP address and the destination port.

Abstract: A hyperscale switch is implemented with a plurality of semiconductor crossbar switching elements connected to one another according to a direct point-to-point electrical mesh interconnect for transceiving data packets between peripheral devices connected to the switch and utilizing a lookup table and network device addressing for reduced switching power.

Abstract: A transfer device for coupling a priority signal and a standard signal includes a reception unit configured to receive a plurality of signals transmitted from a device connected to a path different from a forwarding path, a separation unit configured to separate the signals into the priority signal and the standard signal, an identifier reference unit configured to reference an identifier added to the standard signal, an identifier sort unit configured to sort the standard signal by the identifier, a signal coupling unit configured to couple the plurality of standard signals, a multiplexing unit configured to multiplex the priority signal and the standard signal, a priority control unit configured to determine a transfer order of the signals, a transmission unit configured to transmit the signals to a device connected to the forwarding path, an interrupt transfer processing unit configured to perform interrupt processing in a case where the priority signal arrives during transfer of the standard signal, a sig

Abstract: A first base station receives a message from a second base station. Based on the second base station having a backhaul interface to a third base station, the message comprises parameters of one or more cells of the third base station. A request to add the first base station as a secondary base station is received from the second base station. A request of a change of the secondary base station from the first base station to the third base station is transmitting to the second base station based on the message.

Abstract: A label switch router (LSR) in a label-switched path (LSP) may receive, from an ingress edge LSR, a Multi-Protocol Label Switching (MPLS) echo request, where the LSP includes a tunnel having details that are hidden by a Nil Forward Equivalency Class (FEC). The LSR may determine whether the LSR is an egress node for the tunnel in the LSP based at least in part on one or more labels in the MPLS echo request. The LSR may, in response to determining that the LSR is the egress node for the tunnel in the LSP, send an MPLS echo reply that indicates the LSR as being the egress node for the tunnel in the LSP.

Abstract: Techniques and architectures for measuring available bandwidth. A train of probe packets is received from a remote electronic device. A per-packet one-way delay (OWD) is calculated for at least two packets from the train of probe packets. An OWD threshold value is calculated based on the calculated OWD for the at least two packets from the train of probe packets. A packet pair is selected from the train of probe packets based on the per-packet OWD for each packet in the packet pair exceeding the OWD threshold value. An estimated available bandwidth is computed based on one or more transmission characteristics of the selected packet pair.

Abstract: Described are platforms, systems, and methods for performing queue scheduling tasks on data packet flows. In one aspect, a method comprises: retrieving a plurality of packet flows from a network stack; reconfiguring the retrieved packet flows into per-flow queues; and performing one or more queue scheduling tasks on the per-flow queues.

Abstract: Provided herein is a method for a router to process time-sensitive packets, the method comprising: receiving a time-sensitive packet comprising a stack containing at least one local deadline, the stack being comprised within a header of the time-sensitive packet; retrieving a local deadline from the at least one local deadline comprised within the header; and scheduling transmission of the time-sensitive packet based on the local deadline. Also provided is a method for a router to process time-sensitive packets, the method comprising: receiving a time-sensitive packet comprising a stack containing at least one entry, each entry of the at least one entry respectively comprising, as sub-entries, a forwarding instruction and a local deadline; retrieving an entry from the stack; forwarding the time-sensitive packet according to the forwarding instruction comprised in the retrieved entry; and scheduling transmission of the time-sensitive packet based on the local deadline comprised in the retrieved entry.

Abstract: The present application provides a method and device for multiplexing uplink grant resources, including: determining, by a network device, control information, where the control information includes uplink grant resources information and multiplexing manner information, where the uplink grant resources information is used for indicating uplink grant resources configured by the network device for a terminal device, the multiplexing manner information is used for indicating a multiplexing manner of remaining uplink grant resources, and the remaining uplink grant resources are uplink grant resources in the uplink grant resources except a part of uplink grant resources used for carrying data in one or more logical channels corresponding to the uplink grant resources; and transmitting, by the network device, the control information to the terminal device. The method for multiplexing uplink grant resources of the present application can improve a use efficiency of uplink grant resources.

Abstract: A data transmission method, a terminal, and an access-network network element are disclosed. An interface is disposed on a policy client of UE and an operating system or an application layer of the UE. The interface is used to provide the operating system or the application layer with a policy related to the operating system or the application layer, and collect, from the operating system or the application layer, information required for a report. In this way, a dedicated transport channel is implemented by a bottom layer of the UE, reports and policies are transmitted on the dedicated transport channel, and during implementation, a protocol is not coupled with the application layer or the operating system, so that the system is simple to implement.

Abstract: Apparatuses, methods, and systems are disclosed for reporting power headroom (“PH”) information. One apparatus includes a transceiver that communicates with a base unit using a first uplink carrier and a second uplink carrier concurrently, first uplink carrier having a longer transmission duration unit (“TDU”) length than the second uplink carrier. The apparatus also includes a processor that receives an uplink resource allocation for a first TDU on the first uplink carrier, the first TDU overlapping in time with at least two second TDUs on the second uplink carrier. The processor determines a third TDU on the second uplink carrier, the third TDU comprises at least one of the second TDUs. The processor calculates PH information for the second uplink carrier associated with the third TDU and reports, via the transceiver, the PH information in an uplink transmission on the first TDU.

Abstract: A computer implemented method for operating an access node includes: generating, by the access node, an initial block and a time-dependent signal for transmission in a channel occupancy time (COT) of a shared communications channel, the initial block including a time-independent initial sequence that enables the initial block to be transmitted over any slot in the COT, wherein the time-dependent signal is transmitted after the initial block; and transmitting, by the access node, the initial block and the time-dependent signal in a first slot of the COT. An access node is also described.

Abstract: In one embodiment of the present invention, a method for enabling a UDM (Unified Data Management) to perform a registration related procedure of an AMF (Access and Mobility Management Function) in a wireless communication system comprises the steps of: receiving, by the UDM, a message related to serving AMF registration of a UE, which includes access type information and ID (Identity) information, from a first AMF; transmitting, by the UDM, a deregistration related message to a second AMF when the second AMF exists, wherein the second AMF is registered as a serving AMF of the UE and related to the access type information.

Abstract: A method, wireless device and network node for supporting at least one transmission time interval, TTI, are disclosed. According to one aspect, a method includes communicating with a network node in a first cell on a first carrier. The method further includes determining an operation to be performed by the wireless device in a second cell on a second carrier. The method further includes performing the determined operation in the second cell while interrupting the communication with the network node in the first cell on the first carrier according to an interruption parameter that does not exceed an interruption threshold that depends on a duration of a TTI on the first carrier.

Abstract: A system is configured to measure a forward error correction (FEC) decoding property associated with applying FEC decoding to FEC-encoded bits or symbols at a receiver device deployed in a communication network. The system is further configured to provide an assessment of operating conditions of the receiver device based on the FEC decoding property. In one example, the FEC decoding property comprises a distribution of a number of iterations of a FEC decoding operation applied to a plurality of FEC blocks processed within a period of time. In some examples, the FEC decoding property comprises any one of heat, temperature, current, voltage, active clock cycles, idle clock cycles, activity of parallel engines, activity of pipeline stages, and input or output buffer fill level of the FEC decoding. In some examples, the assessment is based on a comparison between the FEC decoding property and reference FEC data.