Abstract: A mesh network flow control method comprising: allocating a receiving window of a certain size between a parent node and each child node; the child node transmitting a window request to the parent node prior to transmitting a packet; upon receipt of the request, the parent node extracting the sequence number of the request of the child node; comparing the sequence number with a sequence number of the packet last received; calculating the size of an available window and replying to the child node with the size; and the child node transmitting the packet according to the size. Another method includes: a root node broadcasting information concerning a connection state between the root node and a server in a management frame of Wi-Fi, such that through information communication within a network, each node within the network can obtain the information, and then devices within the network transmit packets to the root node, thereby avoiding occupancy of bandwidth by unnecessary packet-transmissions.

Abstract: A user station for a bus system and a method for transmitting a message at different bit rates in a bus system is provided. The user station includes a communication control unit for creating a message for at least one further user station of the bus system. The communication control unit is designed to provide in the message a first phase to be transmitted at a first bit rate, and to provide a second phase to be transmitted at a second bit rate, which is faster or slower than the first bit rate. The communication control unit is designed to provide in the message between the first and second phase a predetermined bit pattern for a bit rate switchover between the first and second bit rate. The predetermined bit pattern includes, both before and after the bit rate switchover, a flank for synchronization.

Abstract: This application provides a communication method and a network device. The communication method includes: obtaining, by a first network device, one or more priorities of one or more network slices in a first network slice set for providing a service to an application; and sending, by the first network device, a correspondence between the one or more priorities and the one or more network slices in the first network slice set to a second network device, where a terminal route selection policy on a terminal is updated based on the correspondence.

Abstract: A data unit that requires a receipt acknowledgement response in a plurality of transmitted data units is suitably selected. A wireless communication apparatus includes a control unit. The control unit controls transmission of receipt acknowledgement requests for a plurality of transmitted data units. Further, the receipt acknowledgement request whose transmission is controlled by the control unit is a receipt acknowledgement request including information, the information identifying a data unit that requires a receipt acknowledgement response in the plurality of transmitted data units and specifying the identified data unit.

Abstract: An electronic device, a radio communication method, and a computer readable storage medium. The electronic device comprises a processing circuit, and is configured to use a group common-physical downlink control channel (GC-PDCCH) to transmit control information relating to data in a time slot preceding a time slot of the GC-PDCCH. In the invention, a GC-PDCCH can be better designed according to characteristics of an NR communication system.

Abstract: A base station may calculate a scheduling value based on at least one of a number of groups associated with a set of UEs operating on a cell provided by the base station a radio frame number, or a subframe number. The base station may send, based on the calculated scheduling value, at least one NRS in at least one PO on a narrowband control channel. A UE may receive, from the base station providing the cell, information associated with at least one PO for the UE. The UE may determine, based on the received information, scheduling information associated with at least one NRS in the at least one PO. The UE may detect the at least one NRS in the at least one PO on a narrowband control channel when the determined scheduling information indicates the at least one NRS is in the at least one PO.

Abstract: A method, network node and wireless device are disclosed. According to one aspect, a network node is configured to select between a first mode of operation and a second mode of operation. The first mode of operation includes generating a first downlink control information (DCI) message having a first number of bits. The second mode of operation includes selecting or generating a second DCI message having a second number of bits less that the first number of bits in at least one of the following fields: a redundancy version (RV) field, a modulation and coding scheme (MCS) field and a hybrid automatic repeat request (HARQ) process field.

Abstract: According to some embodiments, a wireless device is configured to receive resource allocation information from a network node. The wireless device comprises a radio interface and processing circuitry configured to receive radio resource allocation information for a wireless transmission. The radio resource allocation information comprises one or more time-domain resources for the wireless transmission and a mapping type for the wireless transmission. The mapping type refers to a reference signal placement within the wireless transmission (e.g., demodulation reference signal (DMRS) mapping Type A or Type B). The radio interface and processing circuitry are further configured to interpret the received radio resource allocation information to determine a mapping type for the wireless transmission.

Abstract: Disclosed are systems, methods, and non-transitory computer-readable media for variable termination in a vehicle communication bus. To provide compatibility with multiple vehicles, a device may include a software selectable terminator resistor that can be programmatically enabled or disabled to add or remove resistance as needed. For example, the software selectable terminator resistor may be enabled when the device is added as an end node in a high-speed communication bus and operates as a terminator resistor. Alternatively, the software selectable terminator resistor may be disabled when the device is added as an intermediate node positioned between terminator resistors in the high-speed communication bus.

Abstract: A network path selection method and a network node device using the same are disclosed. The network path selection method includes: determining whether a first uplink time parameter table is received from the first relay node device and whether a second uplink time parameter table is received from the second relay node device; when the first uplink time parameter table is received from the first relay node device and the second uplink time parameter table is received from the second relay node device, calculating a first estimated uplink time parameter according to the first uplink time parameter table and a second estimated uplink time parameter according to the second uplink time parameter table; and determining to connect to a gateway via one of the first relay node device and the second relay node device according to the first estimated uplink time parameter and the second estimated uplink time parameter.

Abstract: Embodiments of the application disclose service notification methods and mobile edge hosts. In an embodiment, a method comprising: receiving, by a first mobile edge platform, a service registration message from a first application instance, wherein the first mobile edge platform and the first application instance are comprised in a first mobile edge host; and sending, by the first mobile edge platform, a service notification message to a second mobile edge platform comprised in a second mobile edge host.

Abstract: Packets in a data communications network are encapsulated by an encapsulation module on a sending computer and decapsulated on the receiver computer, the transmission of data packets being controlled by credit sent by the receiving computer. When overloaded, network switches trim the payload from packets; trimmed packets inform the receiving computer of the demands of the sending computer.

Abstract: Packet prioritization for frame generation is disclosed. A modem receives, via a first communication interface, a flow priority structure that comprises one or more modem packet flow identifiers, and for each modem packet flow identifier, a corresponding packet flow priority indicator. Each modem packet flow identifier identifies a different packet flow associated with a computing device to which the modem is communicatively coupled. The modem receives, via a second communication interface, a plurality of packets, each packet corresponding to one of the packet flow priority indicators. The modem generates a frame that includes a subset of packets selected from the plurality of packets based at least in part on the packet flow priority indicators that correspond to the plurality of packets, and transmits the frame via the first communication interface to an aggregation device.

Abstract: Provided are a data transmission method, a terminal device and a network device. The method is applicable to a terminal device, and the terminal device has a first channel used for receiving downlink data. The method comprises: a terminal device generates report information according to the self-interference condition of a first channel, the report information being used by a network device to determine scheduling information of the terminal device, and the self-interference condition referring to the interference on the first channel by channels of the terminal device other than the first channel; and the terminal device sends the report information to the network device.

Abstract: The present invention relates to a wireless communication system and, more particularly, to a method comprising the steps of: generating a first complex symbol sequence corresponding to one time unit including a plurality of transmission symbols; generating a second complex symbol sequence by applying primary scrambling to the first complex symbol sequence on a modulation symbol basis; and repeatedly transmitting the second complex symbol sequence through a plurality of time units, wherein secondary scrambling is applied to the signals in each time unit on a transmission symbol basis, the transmission symbol including an OFDMA symbol or an SC-FDMA symbol; and an apparatus therefor.

Abstract: A wireless communication receiver including a serial to parallel converter receiving an radio frequency signal, a fast Fourier transform device connected to said serial to parallel converter converting NFFT corresponding serial signals into a frequency domain; an EZC root sequence unit generating a set of root sequence signals; an element-by-element multiply unit forming a set of products including a product of each of said frequency domain signals from said fast Fourier transform device and a corresponding root sequence signal, an NSRS-length IDFT unit performing a group cyclic-shift de-multiplexing of the products and a discrete Fourier transform unit converting connected cyclic shift de-multiplexing signals back to frequency-domain.

Abstract: Provided are 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), with a transmission and receipt processing method and device for time-frequency synchronization between V2X terminals. When a synchronization signal to be transmitted is identical to a synchronization signal of an existing D2D terminal, time-frequency resources configured for the D2D terminal in a cell are reused to transmit the synchronization signal. When synchronization signal to be transmitted is different from a synchronization signal of an existing D2D terminal, reconfigured time-frequency resources are used to transmit the synchronization signal. The synchronization signal transmitted by a V2X terminal indicates a corresponding synchronization source type by using a value of an SLSS sequence index and/or a value of a PSBCH specified field.

Abstract: A data transfer path calculation device includes: a travel plan acquisition section that acquires a travel plan composed of routes on which vehicles are estimated to travel and passage times at which the vehicles are estimated to pass through points on the routes; a communication environment acquisition section that, for each of wireless base stations, acquires communication environment information indicating a communication environment for communicating with the corresponding one of the wireless base stations at points; and a transfer path calculation section that searches for a data transfer path based on the travel plan and the communication environment information, the data transfer path being a path through which data sequentially passes, among the vehicles, from an acquisition vehicle through one or more relay vehicles by inter-vehicle communication and from a last relay vehicle among the relay vehicles, the data finally reaching a server via one of the wireless base stations.

Abstract: The present disclosure provides a data processing method adapted to access network architecture, and the access network architecture. The data processing method includes: providing a data distribution and reordering module; acquiring, by the data distribution and reordering module, control information, the control information including information about a byte length of the data distributed over an air-interface channel and information about an air-interface link during air-interface cell switch; and distributing, by the data distribution and reordering module, data received from a PDCP layer toward a central RLC layer/a remote RLC layer in accordance with the control information, reordering data from the central RLC layer/remote RLC layer, and transmitting the reordered data to the PDCP layer.

Abstract: A device for wireless communications includes one or more protocol processors for executing a protocol stack, the one or more protocol processors configured to generate a first RLC (Radio Link Control) PDU (Protocol Data Unit) with data from a first upper-layer PDU and transmit the first RLC PDU to a counterpart base station RLC, generate a second RLC PDU, with its poll bit set, with data from a second upper-layer PDU and transmit the second RLC PDU to the counterpart base station RLC, and receive a status PDU from the counterpart base station RLC that indicates a status of the first and second RLC PDUs.