Abstract: A multi radio media access control (MAC) (MRM) transceiver includes a plurality of transceiver systems, each transceiver system assigned a different MAC address, and a memory configured to aggregate, in a shared queue, a plurality of packets of a data stream received via a computer network. Each of the transceiver systems is configured to asynchronously acquire one or more of the packets from the shared queue for transmission in one of a plurality of transmission channels. Each one of the transmission channels comprises a different frequency. The transmission channels are maintained for simultaneous transmission of the one or more packets to a common target user equipment (UE) that is wirelessly coupled to the MRM transceiver.

Abstract: The disclosed technology provides wireless uplink transmission from a computing device to a peripheral device by communicating over a wireless connection between a digitizer of the computing device and the peripheral device by a multiuse communication protocol in which the digitizer receives input from the peripheral input device to affect operation of the computing device, transitioning communication from the multiuse communication protocol to a dedicated uplink communication protocol in which communication between with the peripheral input device includes transmission of multiple consecutive uplink blocks before the digitizer accepts downlink communications from the peripheral input device, and transmitting, while using the dedicated uplink communication protocol, consecutive data uplink blocks representing an upload to the peripheral input device before the digitizer accepts downlink communications from the peripheral input device.

Abstract: A user equipment (UE) can include processing circuitry configured to decode physical broadcast channel (PBCH) information received from a base station (BS). The decoded PBCH information includes a scrambled PBCH payload and an unscrambled bit sequence. A scrambling sequence is generated based on time information signaling within the unscrambled bit sequence. The scrambled PBCH payload is de-scrambled using the scrambling sequence, to obtain master information block (MIB) information. System information block (SIB) information is decoded based on the MIB information. The decoded PBCH information includes cyclic redundancy check (CRC) information. The scrambled PBCH payload and the unscrambled bit sequence can be verified based on the CRC information. The time information signaling includes one or more bits of a system frame number (SFN).

Abstract: An electronic device is provided. The electronic device may include a display, a communication circuit, and a processor configured to control the communication circuit to connect with a plurality of external electronic devices through independent communication links to each of the plurality of external electronic devices and, based on identifying that the plurality of external electronic devices belongs to a set of devices, control the display to display a first user interface including information indicating that the plurality of external electronic devices belongs to the set of devices, based on coupled-device information of at least one external electronic device among the plurality of external electronic devices.

Abstract: The present disclosure generally relates to apparatus, software and methods for predicting future network traffic. The disclosed apparatus, software and methods alleviate congestion and/or increase overall traffic flow by providing methods for reallocating future idle capacity.

Abstract: An operating method of a terminal, the operating method includes determining a decoding priority of a plurality of aggregation levels based on reference information, the plurality of aggregation levels corresponding to a downlink control channel, performing candidate filtering-based blind decoding on one or more control channel candidates corresponding to the plurality of aggregation levels according to the decoding priority to obtain a decoding result, and receiving downlink control information based on the decoding result.

Abstract: The present invention provides a control method of an electronic device, wherein the control method includes the steps of: obtaining a first measurement result of frequencies of one or more bands; obtaining a second measurement result of the frequencies of the one or more bands, wherein the first measurement result and the second measurement result are generated at different times; determining a similarity between the second measurement result and the first measurement result to generate a determination result; and determining a system selection strategy according to the determination result.

Abstract: An operating method of a terminal, the operating method includes determining a decoding priority of a plurality of aggregation levels based on reference information, the plurality of aggregation levels corresponding to a downlink control channel, performing candidate filtering-based blind decoding on one or more control channel candidates corresponding to the plurality of aggregation levels according to the decoding priority to obtain a decoding result, and receiving downlink control information based on the decoding result.

Abstract: A method of transmitting data by a communications device to a wireless communications network comprising determining, by the communications device, from granted uplink communications resources, OFDM symbols of one or more time slots which are designated for transmitting uplink data, and transmitting the uplink data in the OFDM symbols determined as designated for uplink transmission. The determining the OFDM symbols of the one or more time slots which are designated for transmitting uplink data includes identifying one or more F-symbols of the one or more time slots designated for transmitting the uplink data based on information received with an indication of the communications resources of the uplink.

Abstract: Provided is a broadcast signal output device and a vehicle having the same. The broadcast signal output device includes: a communicator configured to receive current location information; a memory in which map information is stored; a tuner configured to receive a broadcast signal having a frequency; a processor configured to determine whether a current location is a shadow area based on the current location information and the map information, determine whether a broadcast device is present upon determining that the current location is the shadow area, mute the received broadcast signal to prevent noise from being output upon determining that the broadcast device is absent, and control an output of the received broadcast signal upon determining that the broadcast device is present; and a sound outputter configured to output an audio signal in the received broadcast signal in response to a control command of the processor.

Abstract: A UE includes a transceiver configured to receive, from a base station, a higher layer parameter that is set as enabled or disabled. The higher layer parameter is explicitly or implicitly determined to be disabled by Boolean parameters or DL DCI format types. The UE also includes a controller configured to, based on identifying that the higher layer parameter is set as enabled either on per CORESET basis or on per DCI format basis, assume that, for receiving a PDSCH, an indication state is present in a DL DCI transmitted by a PDCCH on a CORESET, wherein the indication state indicates an associated PDSCH QCL parameter. A transceiver receives the associated PDSCH using the QCL parameter from the base station.

Abstract: Example reference signal measurement methods, example resource indication methods, and example apparatuses are provided. One example method includes receiving at least one reference signal from a network device. Channel state information can then be determined based on some or all of the at least one reference signal. The channel state information can then be reported to the network device based on first duration. When it is determined to activate a first antenna panel and measure the at least one reference signal by using the first antenna panel, the first duration can be determined based on a first constraint relationship. The first antenna panel can be currently not activated.

Abstract: A next generation NodeB (gNB) implements a radio access network (RAN) convergence functionality for new radio (NR) and wireless local area network (WLAN) access, the gNB further implementing a split architecture comprising a central unit (CU) and a distributed unit (DU) for each of the NR access and WLAN access. The gNB receives a data packet for transmission to a user equipment (UE) implementing the RAN convergence functionality, the data packet comprising one of a control plane (CP) packet or a user plane (UP) packet. The gNB splits the data packet via a convergence layer residing on the NR CU or a convergence layer residing on the WLAN CU and transmits the split data packet over the NR access and the WLAN access.

Abstract: The present disclosure provides procedures for early synchronization based on Idle mode measurements to enable fast connection establishment and resumption on transition to a Connected mode. When transitioning (120) to a Connected state, the UE selects one or more cells/frequencies for which in addition to the target cell configured/activated by the network to initiate early synchronization (140) prior to transition to the Connected state. When the UE receives (150) a message from the network requiring the UE to synchronize with a target cell in a target frequency, the UE determines (160) if the message from the network indicates that the UE shall configure or add a target cell, that is not the PCell, for which the UE has synchronized and, if so, uses the synchronization information to initiate (170) a random access procedure towards the target cell configured/activated by the network.

Abstract: A physical channel monitoring method and a terminal device are provided. The method included: a terminal device being configured with at least one serving cell group; and the terminal device performing PDCCH monitoring on a first serving cell according to a first serving cell group, wherein the first serving cell is a serving cell included in the first serving cell group, and the first serving cell group is a serving cell group in the at least one serving cell group.

Abstract: This application provides a sensing method and a communication apparatus. A first device indicates at least one second device to perform a sensing task by using a midamble, and indicates a sensing parameter required by the at least one second device to perform the sensing task. This may enable the at least one second device to perform the sensing task by using the midamble sent by the first device, to implement sensing by using the midamble.

Abstract: An automated method is provided for mitigating data service system performance degradation due to excess user traffic. A traffic assessment and management server (TAMS) retrieves historical time-varying environment information and transaction data for a data service processing system (DSPS). The TAMS receives a set of expected environment conditions for a future time interval and determines, using the time-varying environment and transaction data, estimated traffic information for the DSPS for the future time interval. The estimated traffic information includes an estimated usage level for at least one system component. The TAMS establishes a simulated system configuration for the DSPS and simulates DSPS operation using the estimated traffic information. The TAMS then determines from the simulation, an estimated likelihood of failure for the at least one system component.

Abstract: Provided is an uplink signal time difference adjustment method, adapted to a base station and including the following steps. Each first delay time of arrival of each uplink signal is detected based on a time slot boundary. Each second delay time of each uplink signal is adjusted according to multiple sampling points. Each time offset between each first delay time and each second delay time corresponding to each user apparatus is calculated. The time slot boundary is adjusted according to each time offset.

Abstract: Various example embodiments for supporting data center management are presented herein. Various example embodiments for supporting data center management may be configured to support fabric service management for a data center fabric including a set of servers and a fabric network configured to support communications of the servers. Various example embodiments for supporting fabric service management within a data center may be configured to support a capability for configuring a fabric network of the data center fabric of the data center based on merging and unmerging of underlay and overlay configurations. Various example embodiments for supporting fabric service management within a data center may be configured to support a capability for debugging a fabric network of the data center fabric of the data center based on use of probes.

Abstract: A device is provided, which includes one or more antennas and a circuit. The circuit is configured to receive a packet from a transmitter device through the antennas, and obtain channel-state information from the received packet. The circuit includes one or more filters to filter out or recognize the received packet that complies with one or more preset conditions. The circuit uses the channel-state information of the received packet, which complies with the one or more preset conditions, to estimate a status of a channel between the transmitter device and the device.