Abstract: A method for Multipath Quick User Datagram Protocol (UDP) Internet Connections (MPQUIC) over Quick SOCKS (QSOCKS) in a wireless network is provided. The method includes receiving, by a QSOCKS server, a Client Hello (CHLO) message from a QSOCKS client device using a QSOCKS method tag, wherein the CHLO message comprises a plurality of client-supported SOCKS Authentication (AUTH) procedures, selecting, by the QSOCKS server, a candidate client-supported SOCKS AUTH procedure from the plurality of client-supported SOCKS AUTH procedures, and transmitting, by the QSOCKS server, a reject packet using the QSKM tag to the QSOCKS client device, wherein the reject packet includes information indicating the selected candidate client-supported SOCKS AUTH procedure.

Abstract: Methods and computing systems for dynamic rate adaption during real-time Long Term Evolution (LTE) communication are described. A real-time LTE communication session with another mobile device is established over an LTE connection. The real-time LTE communication session is established with codec rate. A monitor component receives data indicating a performance of the real-time LTE communication session, and causes the real-time LTE communication component to perform, during the real-time LTE communication session, a renegotiation of the codec rate based at least on the performance of the real-time LTE communication session.

Abstract: Methods, systems, and devices for wireless communication are described. Generally, the described techniques provide for efficiently determining whether to transmit an uplink transmission scheduled by a semi-static grant or a dynamic uplink transmission scheduled by a dynamic grant when the dynamic uplink transmission conflicts with the uplink transmission scheduled by the semi-static grant. In particular, if a user equipment (UE) determines that a dynamic grant is received within a threshold time before an uplink transmission scheduled by a semi-static grant, the UE may transmit the uplink transmission scheduled by the semi-static grant and refrain from transmitting the dynamic transmission. Alternatively, if the UE determines that a dynamic grant is received in advance of a threshold time before an uplink transmission scheduled by a semi-static grant, the UE may transmit the dynamic transmission and refrain from transmitting the uplink transmission scheduled by the semi-static grant.

Abstract: Certain aspects of the present disclosure provide techniques for dynamic multi-beam transmission for new radio eNB UE (NR) technology multiple-input multiple-output (MIMO) communications. A user equipment (UE) may measure beamformed channel state information reference signals (CSI-RSs) from one or more transmit and receive points (TRPs) and report rank information and/or channel quality information for beams associated with the various beamformed CSI-RSs.

Abstract: A system described herein may provide techniques for a geographically-based traffic handling policy. An originating device may mark traffic with geographic restriction information, such as in a header of network traffic, indicating a geographic restriction on the propagation of the traffic. The geographic restriction may indicate a geographic region in which the traffic may be forwarded, or a geographic region in which the traffic is prohibited from being forwarded. Network devices in a path between the originating device and a destination device may determine whether to drop the traffic or perform other policy-related actions based on whether such devices are inside the geographic region in which the traffic may be forwarded. In some implementations a destination device may register as an exception to such policies, based on which an originating device or a router may bypass geographically-based traffic handling policies with respect to marked traffic directed to the destination device.

Abstract: Aspects described herein include a method comprising predicting, based on one or more transmission characteristics, error values for a sequence of bit positions used for modulating data within a packet. The method further comprises generating a bitmap that maps one or more payload bits and one or more padding bits of the packet to respective bit positions of the sequence. The one or more padding bits are preferentially mapped to respective bit positions having relatively greater error values. The method further comprises modulating the sequence according to the bitmap.

Abstract: The present invention relates to a method and device for transmitting or receiving a broadcast service including a packet, which is generated using an application layer forward error correction (AL-FEC) scheme, in a multimedia service system. An embodiment of the present invention provides a method for transmitting a broadcast service by a transmitter, the method comprising the steps of: determining one forward error correction (FEC) scheme for a broadcast service among multiple FEC schemes; configuring a signaling message so as to include an identifier indicating the determined FEC scheme; and transmitting the configured signaling message.

Abstract: A method for controlling an electronic apparatus is provided. The method includes, based on a user input for registering an external device being received, performing capturing through a camera of the electronic apparatus and obtaining an image, identifying a registrable device from among at least one device included in the image based on a signal received from an external device, displaying a graphic object indicating the registrable device in the image, and based on a user input for registering the registrable device being received, registering the registrable device as a controllable device.

Abstract: Arrangements for automatically detecting bi-directional artificial intelligence (AI) communications and automatically negotiating (i.e., switching to alternative) direct digital communications.

Abstract: An apparatus includes processing circuitry configured to output, to a plurality of devices, an initial superframe configured in an initial superframe mode of a plurality of superframe modes. Each superframe mode of the plurality of superframe modes allocating each slot of a plurality of slots for wireless communication to a first protocol, a second protocol, or a third protocol. In response to determining a change in bandwidth, the processing circuitry is configured to select an updated superframe mode from the plurality of superframe modes. The processing circuitry is further configured to output, to the plurality of devices, an updated superframe configured in the updated superframe mode.

Abstract: The disclosure provides a communication time allocation method using reinforcement learning for a wireless powered communication network and a base station. The method includes: determining a communication time allocation corresponding to the t-th time block according to an objective function associated with the total estimated throughput of the communication nodes; requesting each communication node to perform specific communication behaviors according to the corresponding communication time interval in the t-th time block; obtaining the actual throughput of each communication node in the t-th time block; generating the weight vector of each communication node in the (t+1)-th time block according to the actual throughput, the weight vector, and the estimated throughput of each communication node in the t-th time block.

Abstract: The present disclosure discloses a communication method of a hybrid V2X communication device. The method of comprises accessing a first channel; receiving a Service Advertisement Message (SAM) from the first channel, the SAM providing service information and information related with a service channel through which a service is provided; and accessing a service channel and receiving service data based on the SAM.

Abstract: Disclosed are a communication technique of merging, with IoT technology, a 5G communication system for supporting a data transmission rate higher than that of a 4G system, and a system therefor. The disclosure can be applied to intelligent services (for example, smart home, smart building, smart city, smart car or connected car, health care, digital education, retail, security and safety related services, and the like) on the basis of 5G communication technology and an IoT-related technology. A method for selecting a transmission point in a wireless communication system, according to an embodiment of the present specification, comprises the steps of: setting a transmission point group including at least one transmission point, on the basis of at least one reception point; setting a priority for the at least one transmission point in the transmission point group; and selecting a transmission point.

Abstract: Examples of the present disclosure can include a method. The method may include (1) obtaining, by an network function virtualization orchestrator (“NFVO”), path computation information from the integrated network, the integrated network including a virtual source and a virtual destination, (2) generating, using the path computation information, segments identifying portions of a virtual network path originating at the virtual source and terminating at the virtual destination, (3) generating, by a virtual infrastructure manager (“VIM”), a plurality of labels associated with physical links on the physical network corresponding to the identified portions of the virtual network path, and (4) determining, by the NFVO and using the plurality of labels, a network path for data transfer over the integrated network, the network path identifying virtual and physical network elements.

Abstract: A communication transmitter for transmitting a control message over a physical downlink control channel (PDCCH) towards a communication entity in a mobile communication network, wherein the communication transmitter comprises a processor configured to process a control block to obtain the control message, wherein the control block includes a first portion and a second portion, wherein the first portion includes downlink control information bits indicating information relating to data transmission over the mobile communication network, and insert prefix error detection code bits into the second portion of the control block to obtain the control message, and a communication interface configured to transmit the control message over the mobile communication network and a communication receiver for receiving the control message from the communication transmitter over the communication network.

Abstract: The solution presented herein introduces variable repetition levels for control and data transmissions via a physical downlink control channel for machine-type communications, e.g., the M-PDDCH. When a wireless terminal detects and correctly decodes a message carried by physical downlink control channel for machine-type communications that requests retransmissions, the wireless terminal performs adaptive uplink retransmissions according to a retransmission format defined by the message. The retransmission format defines at least one of a modulation and coding rate for the retransmissions, a frequency resource for the retransmissions, and a number of repetitions.

Abstract: A wireless device receives configuration parameters of cells grouped into physical uplink control channel (PUCCH) groups. The PUCCH groups comprise a secondary PUCCH group. The secondary PUCCH group comprises: a PUCCH secondary cell, with a secondary PUCCH, of a secondary timing advance group (TAG); and a first secondary cell. In response to a time alignment timer of the secondary TAG expiring or stopping the wireless device: stops transmission of acknowledgements for packets of the first secondary cell; stops reception of downlink shared channel packets via the first secondary cell; and continues reception of downlink multicast channel packets via the first secondary cell.

Abstract: A method and an apparatus for signal processing: implementing step-by-step orthogonal decomposition of an original signal to be inputted; on the basis of the number of layers of orthogonal decomposition and the edge high frequency bandwidth of the original signal after orthogonal decomposition, generating a finite-length unit impulse response FIR filter; using the FIR filter to filter the edge high-frequency signal of the original signal; and, after passing the signal obtained after filtering and the low frequency signal obtained at each stage of orthogonal decomposition through an orthogonal filter bank, implementing signal synthesis processing.

Abstract: In an exemplary embodiment, a wireless communication method is disclosed for indicating a mapping between a set of reference signals and data streams so that a reference signal can be transmitted by one or more of multiple network nodes based on the mapping. The disclosed embodiments provide mapping and additional rules.

Abstract: A method of wireless communication is provided. The method includes receiving, by a user equipment (UE), a minimum required received level factor and an offset via system information; obtaining, by the UE, a minimum required received level based on the minimum required received level factor and the offset multiplied by an integer larger than one; determining, by the UE, a cell selection criterion based on the minimum required received level; and performing, by the UE, cell reselection based on the cell selection criterion.