Abstract: A camping method, an apparatus, and a terminal are provided. The method includes: executing a first event, where the first event includes the terminal moving from a first zone to a second zone, or the terminal switching from a first state to a second state; and when a first camping priority parameter of the terminal is inapplicable to the second zone or the second state, performing first camping in the second zone or the second state, where the first camping does not use the first camping priority parameter, and the first camping priority parameter includes: a camping priority parameter used by the terminal in the first zone, or a camping priority parameter used by the terminal in the first state.

Abstract: Methods, a remote unit and a base unit are disclosed. According to one embodiment, a method at a remote nit, comprising: receiving, from a base unit, a first signaling for configuring a plurality of subbands for transmitting uplink data; performing a first channel access procedure on each of the plurality of subbands and obtaining a channel occupancy time (COT) on a first set of subbands, wherein the first set of subbands comprises one or more subbands of the plurality of subbands with the first channel access procedures being successful; and transmitting, to the base unit, the uplink data on the first set of subbands within the COT; and transmitting, to the base unit, uplink control information (UCI) associated to the uplink data, wherein the UCI includes a first indicator indicating the first set of subbands.

Abstract: A second access and mobility management function (AMF) may receive a first message having positioning capability information indicating that a location management component (LMC) supports one or more positioning types. The second AMF may receive, from a first AMF, a second message indicating a positioning type of a wireless device. The second AMF may determine the LMC based on the positioning type and the positioning capability information. The second AMF may send, to a base station associated with the LMC, a third message having an identifier of the LMC.

Abstract: The present application retransmits the LTM random access-less cell switch completion information based on a scheduling method, and provides an information retransmission mechanism applicable to the LTM cell switch process, which can improve the transmission reliability of the LTM random access-less cell switch completion information, thereby reducing LTM cell switch failures and/or reduce service interruption delays.

Abstract: A Physical Layer (PHY) transceiver includes communication circuitry and a controller. The communication circuitry includes a digital filter, and is configured to communicate signals using the digital filter over a network link. The controller is configured to monitor a temperature pertaining to the communication circuitry, and, in response to detecting an actual or predicted over-temperature condition, to degrade a functionality of the digital filter so as to reduce power dissipation in the communication circuitry.

Abstract: A voice call transfer method includes when a target device receives an incoming voice call as a called party, displaying, on a call application interface, a device identifier of a first device that can perform voice call transfer, receiving a selection operation performed on the device identifier, triggering the target device to enter a voice call transfer mode, and sending first voice data from a calling party device to the first device when it is determined that the target device performs a voice call with the calling party device and is in the voice call transfer mode, so that the first device plays the first voice data.

Abstract: A base station of a communication system may include an antenna; a memory; and a processor. The processor analyzes a signal received through the antenna to determine if the received signal is a signal transmitted from a fake base station. Based on a determination that the source of the received signal is the fake base station, the processor generates a random access preamble signal for accessing the fake base station. The processor transmits the generated random access preamble signal through the antenna. Thus, the base station may effectively defend against an attack from a fake base station by detecting the fake base station based on collected information of a neighboring base station and causing radio resources of the detected fake base station to be exhausted. Various other embodiments are possible.

Abstract: The present disclosure aims to provide a core node capable of appropriately allocating a radio resource of a RAN Slice allocated for a specific service to a radio terminal that uses this specific service. A core node (10) according to the present disclosure includes: a determination unit (14) configured to determine a radio resource to be allocated in accordance with a service provided for a radio terminal (30); and a communication unit (12) configured to transmit resource identification information indicating the radio resource determined in the determination unit (14) to a base station (20) that manages a plurality of radio resources for each RAN Slice associated with a service.

Abstract: Example reference signal sending methods and apparatus are described. In one example method, a terminal device detects whether a paging scheduling message exists in a PDCCH search space whose starting subframe is a subframe corresponding to a paging occasion (PO), and/or detects whether a wake-up signal (WUS) exists before a PO. A network device determines a time domain resource in first duration based on a quantity of paging occasions in a discontinuous reception period, where the time domain resource is a time domain resource in a time-frequency resource used to transmit a reference signal. The network device sends the reference signal to a terminal device on the time domain resource.

Abstract: Aspects described herein relate to energy headroom report (EHR) and sustainable duty cycle (SDC) reporting for dynamic power aggregation. In one example, a user equipment (UE) may identify an available energy or available time period for an uplink transmission via uplink carrier aggregation or dual connectivity. The UE may further transmit, to a network entity, a report including the available energy or available time period for uplink transmission. In another example, a network entity may transmit a configuration message to configure the UE with carrier aggregation or dual connectivity. The network entity may further receive a report including the available energy or time for uplink transmission via carrier aggregation or dual connectivity. The network entity may further adjust uplink communication with the UE based on the received report.

Abstract: Embodiments of this application provide a mobile terminal, relate to the field of sound on screen technologies. At least a part of a vibrator in the mobile terminal is disposed in an accommodation cavity. The vibrator includes a first magnet, a second magnet, a coil, and at least one third magnet. The first magnet, the coil, and the third magnet are all connected to a rear face of a display module. The first magnet is located in a closed region enclosed by a conducting wire of the coil. The third magnet is located on one side that is of the coil and that is away from the first magnet. The second magnet is connected to a middle frame, and a location of the second magnet and a location of the first magnet are disposed opposite each other.

Abstract: Wireless networks may have thousands of configurable parameters, so manual tuning is infeasible. A self-organizing network (SON) can provide automation. However, automated algorithms are not designed to interact with a wireless network, and network experimentation can jeopardize reliability. To address the former, a SON facilitator of a wireless network management node exposes an API that can translate network configuration information for consumption by a SON enhancer, which may implement an AI algorithm for network tuning. The SON facilitator can also transform output from the SON enhancer into directions for controlling a test scenario, including generating a DL SON message describing the test to a UE. To further increase reliability during the test scenario, the UE can be provisioned with two wireless connections. A first connection is unchanged by the test scenario for stability, and a second connection is used for testing.

Abstract: A roadside positioning method includes: obtaining positioning information of the user terminal, the positioning information being used for indicating a geographic location of the user terminal; obtaining wireless signal information of the user terminal, the wireless signal information being used for indicating wireless signals acquired by the user terminal at the geographic location; and determining a roadside positioning result of the user terminal based on the positioning information and the wireless signal information, the roadside positioning result being used for indicating a roadside on which the user terminal is located.

Abstract: Wireless communications systems may support flexible waveform configuration for autonomous uplink transmissions. A base station may transmit broadcast signaling (e.g., a system information block (SIB)) indicating waveform configuration information for an autonomous uplink transmission by a user equipment (UE). In some cases, the broadcast signaling may include a waveform configuration field (WCF) that may indicate whether flexible waveforms for autonomous uplink are supported, may configure a waveform type, may indicate waveform configuration mapping rules, etc. As such, a UE may identify whether flexible waveform configuration for autonomous uplink is supported, and may determine waveform types for autonomous uplink transmissions based on waveform type configuration information from a base station (e.g., which may include an indication of whether flexible waveform configuration is supported, an indication of waveform type/scenario mapping rules, etc.

Abstract: This disclosure provides power indication methods and apparatuses for wireless communications. In an implementation, a method includes: receiving antenna transmit capability information from a terminal device, wherein the antenna transmit capability information indicates whether a maximum transmit power value of a physical uplink shared channel (PUSCH) corresponding to each sounding reference signal (SRS) port in a SRS resource reaches a preset power value, and determining based on the antenna transmit capability information, whether the maximum transmit power value of the PUSCH corresponding to each SRS port in the SRS resource reaches the preset power value.

Abstract: User equipment includes a control unit that selects a sidelink resource from candidate resources excluding a selected resource and a further resource within a predetermined time window and a transmitting unit that performs transmission or retransmission using the resource selected by the control unit.

Abstract: A wireless communication network receives a first Subscriber Identity Module (SIM) profile from a User Equipment (UE) and authenticates the UE based on the first SIM profile. The network receives a first slice request from the UE and authorizes a first wireless network slice for the UE based on the authentication of the first SIM profile and the first slice request. The network receives a second SIM profile from the UE and authenticates the UE based on the second SIM profile. The network receives a second slice request from the UE and authorizes a second wireless network slice for the UE based on the authentication of the second SIM profile and the second slice request. The network wirelessly exchanges first slice data with the UE over the first wireless network slice, and simultaneously, exchanges second slice data with the UE over the second wireless network slice.

Abstract: The disclosed technology is directed towards detecting improbable speeds of a mobile device, which can indicate fraudulent activity with respect to the mobile device. Radio access network events and call detail records are processed to determine when a mobile device “travel jumps” between locations at improbable speeds. Events corresponding to handovers between adjacent cells are filtered out. For events corresponding to changed cell towers that are non-adjacent, further processing is performed to determine the speed of the mobile device travel between the cells. A first speed threshold is selected based on possible air travel (a cell near an airport) or a second non-air travel speed threshold is selected. If the speed of the mobile device exceeds the selected speed threshold, a travel jump is determined. Exceptions can be made for gaps in connectivity due to topography (known inconsistent reception areas) and for a mobile device shutting down and restarting.

Abstract: A method for providing a communication function in a means of transport includes providing a code on the means of transport, wherein the code is capturable by a mobile terminal of a user and comprises unique identification information of a communication unit of the means of transport; reading the code provided on the means of transport; sending a request for activation of a communication capability of the communication unit to the communication provider by way of the mobile terminal, wherein the request comprises the read unique identification information of the communication unit of the means of transport; and the communication provider providing the communication capability for the communication unit if the user is registered with the communication provider.

Abstract: The present disclosure relates to a method and a device for controlling congestion in a mobile communication system. A method for controlling congestion of a network node according to the present disclosure comprises the steps of: receiving congestion-related information from at least one base station; transmitting a user equipment information request message for making a request for information on a piece of user equipment corresponding to the base station to a mobility management entity; receiving a user equipment information response message including the information on the user equipment corresponding to the base station from the mobility management entity; and transmitting the information on the piece of user equipment corresponding to the base station to another core network node.