80 results about "Cell ID" patented technology

Disclosed, according to various embodiments, are a method by which a terminal performs cross link interference (CLI) measurement in a wireless communication system and an apparatus therefor. Disclosed are a method and an apparatus therefor, the method comprising the steps of: receiving information about a CLI measurement resource for CLI measurement; and transmitting, to a base station, measurement information including CLI measured on the basis of the CLI measurement resource, wherein, on the basis that timing advance (TA) information of a candidate cell is received, the measurement information further includes information about a cell ID determined on the basis of the TA information and a measurement timing when the CLI is measured.

Systems, methods, and instrumentalities are disclosed for synchronization signal burst, signal design, and / or system frame acquisition. A synchronization signal (SS) block or burst can be received. The SS block or burst can include a primary synchronization signal (PSS), a secondary synchronization signal (SSS), and / or a physical broadcast channel (PBCH). A first cell ID can be determined, and / or a plurality of SSS sequences can be generated. An m0 value (e.g., a first cyclic shift) can be determined from a set of m0 values, for example, based on the generated plurality of SSS sequences. An n1 value (e.g., a second cyclic shift) can be determined from a set of n1 values. A second cell ID can be determined based on, for example, the m0 value and the n1 value. A third cell ID can be determined based on, for example, the second cell ID and the first cell ID.

An electronic device includes a communication processor and a memory. The communication processor may be configured to cause the electronic device to: detect at least one satellite network based on the reception of at least one system information block (SIB); generate a PLMN list including at least one PLMN; determine the service time of each of a plurality of non-terrestrial wireless communication devices included in the PLMN list based on satellite data stored on the memory; and determine the priorities of the plurality of non-terrestrial wireless communication devices based on the determined service times, wherein the satellite data includes at least one of a mobile country code (MCC), a mobile network code (MNC), a mobile network code (TAI), a cell ID, and / or information about the service type of a service provided by the satellite network.

A wireless transmit / receive unit (WTRU) may be configured to receive a first message comprising a candidate cell identification (ID) and a synchronization signal block (SSB) configuration for a candidate cell, and configured to receive a second message that comprises a first set of SRS configurations, and configured to receive a third message over a physical downlink control channel (PDDCH) that may include SRS indications, and configured to determine a second set of SRS configurations based on the SRS indications in the third message and based on the target cell ID being different than a cell ID of the serving cell. The second set of SRS configurations may comprise at least an uplink spatial filter, an SRS power, and a timing advance. The WTRU may be configured to send, to a target cell, based on the third message, an SRS transmission, using the determined second set of SRS configurations.

According to exemplary embodiments, a cell tracking controller can be provided. The cell tracking controller may comprise: a cell ID collection unit for collecting a cell ID, which is identification information of a battery cell; a data collection unit for collecting at least one from among inspection data of the battery cell, measurement data of the battery cell, and equipment data collected from equipment of a battery cell manufacturing process or an equipment controller for controlling the equipment; and a cell ID mapping unit for mapping, to the cell ID, at least one from among the inspection data, the measurement data, and the equipment data corresponding to the cell ID, wherein the cell ID collection, the data collection and the data mapping can be performed in real time.

According to exemplary embodiments, a data hub device may be provided. The data hub device for mapping, between a plurality of battery cell manufacturing processes, data acquired from the processes may comprise: a first data collection unit configured to collect, in real time from initiation of each process, a first data set including at least one of position data and a cell ID of a battery cell in each process; and a second data collection unit configured to collect a second data set by correcting, upon completion of one battery cell in each process, at least one of position data and a cell ID of the battery cell included in the first data set so as to correspond to at least one of position data and a cell ID of the one battery cell completed in a process preceding the corresponding process.

Systems and methods for updating an active Transmission Configuration Indicator (TCI) state for multi-Physical Downlink Control Channel (PDCCH) based Multi-Transmission Reception Point (TRP) are provided. In some embodiments, a method performed by a wireless device for receiving one or more, TCI states includes: receiving a TCI state for at least one Control Resource Set (CORESET) using a control message comprising seven or more bits of TCI State ID field. In this way, the control message can be used to receive additional TCI states. In some embodiments, this allows the physical cell ID to be added to the TCI state.

Systems, methods, and tools for synchronization signal bursts, signal design, and / or system frame acquisition are disclosed. A synchronization signal (SS) block or burst may be received. The SS block or burst may include a primary synchronization signal (PSS), a secondary synchronization signal (SSS), and / or a physical broadcast channel (PBCH). A first cell ID may be determined, and / or a plurality of SSS sequences may be generated. An m0 value (e.g., a first cyclic offset) may be determined from a set of m0 values, e.g., based on the generated plurality of SSS sequences. An n1 value (e.g., a second cyclic offset) may be determined from a set of n1 values. A second cell ID may be determined based on, for example, the m0 value and the n1 value. A third cell ID may be determined based on, for example, the second cell ID and the first cell ID.

A base station according to one aspect of the present disclosure comprises: a reception unit that receives a configuration for terminal positioning based on an extended cell ID; and a control unit that performs control so as to report, on a per-cell basis or on a per-transmission / reception-point (TRP) basis, the reporting granularity of measurement results pertaining to a metric for the positioning.

A terminal according to one aspect of the present disclosure comprises: a reception unit that receives a medium access control (MAC) control element (CE) including a first field indicating a candidate cell identifier (ID) and a second field indicating a resource set ID for an aperiodic reference signal (RS) in a candidate cell corresponding to the candidate cell ID; and a control unit that, on the basis of the first field and the second field, determines activation or deactivation of an RS resource set corresponding to the resource set ID for the aperiodic RS. The communication quality / throughput can be improved according to the one aspect of the present disclosure.

Systems, methods, and devices are provided for performing cell selection or reselection in a network comprising earth-moving beams. In one example, a method comprises receiving, via a satellite, control information transmitted by a base station indicating that a beam associated with a cell ID has been redirected; in response, measuring a beam strength of the redirected beam; and performing cell reselection based on the measured beam strength.

Various aspects of the present disclosure generally relate to wireless communications. In some aspects, a user equipment (UE) may receive a primary synchronization signal (PSS) and a secondary synchronization signal (SSS). The UE may identify a master information block (MIB) carried by a physical broadcast channel (PBCH) based at least in part on the PSS and the SSS, and identify a physical cell identifier (ID) based at least in part on one or more of the PSS or the SSS. The UE may identify a synchronization signal block (SSB) index based at least in part on the scrambling of the PBCH. The UE may identify a model ID associated with a machine learning (ML) model or a pairing ID associated with an ML model pair based at least in part on the SSB index or the physical cell ID. Numerous other aspects are described.

The present disclosure relates to a 5G or 6G communication system for supporting a data transmission rate higher than that of a 4G communication system such as LTE. This method performed by user equipment in a wireless communication system using a non-terrestrial network (NTN), according to the present disclosure, may comprise the steps of: receiving a first physical cell ID (PCI) for a first cell from a first NTN base station; receiving a second PCI for the first cell from a second NTN base station; calculating a PCI gap (PCIG) corresponding to a difference between the first PCI and the second PCI; and identifying, within PCIG information, first cell information corresponding to the calculated PCIG. Other various embodiments identified through the specification are possible.

Various aspects of this disclosure relate to the transmission mode configuration of low-power synchronization signals. A device with a low-power processor and / or a user equipment (UE) with a primary radio and a low-power radio can receive first signaling comprising a portion of the low-power synchronization signal and a cell identifier (ID) of the serving cell. The first signaling can be transmitted using a transmission mode associated with an indexed modulation scheme (e.g., an on / off keying (OOK) waveform). The device can receive second signaling comprising an indication of the remainder of the cell ID. The device can use the cell ID to establish a radio connection with network equipment (NE), such as a base station.

A method and apparatus for UE assistance based network energy saving in a wireless network system. The CU of the first RAN node receives, from the DU of the first RAN node, a configuration update message including an activation request for the cell from the wireless device, where the configuration update message includes an ID of the cell; and determining whether to activate the cell in response to the activation request. On the basis of determining to activate the cell: the CU of the first RAN node transmits a configuration update acknowledgement message including activation permission and an ID of the cell to the DU of the first RAN node; and the CU of the first RAN node sends information informing that the cell is activated to the second RAN node.

The invention discloses a shared repeater-based cell frequency offset estimation method and device and a medium, and the method comprises the steps: obtaining preprocessed IQ signal data, and enabling the IQ signal data to be mutually closed with a sequence of a local main synchronization signal to obtain a corresponding peak value and a rough frequency offset of a cell; according to the position of the peak value and the corresponding relation between the auxiliary synchronization signal and the local main synchronization signal in the time domain and the frequency domain, the initial position of the time domain of the auxiliary synchronization signal is determined; analyzing the auxiliary synchronization signal, and determining the ID group number of the cell according to the intra-group ID of the cell; determining the ID number of the cell according to the ID group number of the cell and the ID in the group; analyzing the demodulation reference signal according to the cell ID number to obtain a synchronous broadcast block index; and determining the position of the synchronous broadcast block index according to the synchronous broadcast block index, and determining the accurate frequency offset of the cell. The invention belongs to the field of base station frequency offset estimation. According to the invention, accurate estimation of the frequency offset of the base station can be realized.

According to an exemplary embodiment, a secondary battery manufacturing system is provided. The system includes a controller configured to collect cell identifier (ID) sensing data based on a cell ID sensing signal generated based on a data matrix read by a data matrix reader, where the data matrix read by the data matrix reader is configured to read the cell ID sensing data based on the cell ID sensing signal. The cell ID sensing data includes a cell ID as a read value of the data matrix and a device number matching the cell ID, and the device number indicates an installation location of the data matrix reader.

The present disclosure provides a system (208) and a method for managing connections of a plurality of devices (204) to a network (206). The system (208) receives a cell identifier (ID) and a device ID of each of a plurality of devices (204), upon camping to a network (206). The system (208) segregates the plurality of devices (204) based on the cell ID and the device ID, and creates batches including a predefined number of devices (204) among the plurality of devices (204). The system (208) assigns a delay factor representing a predetermined time to each batch, and transmits the delay factor representing the predetermined time to each device in each batch. Therefore, the system (208) delays a connection process of each device, based on the delay factor, to manage the connections of the plurality of devices (204) to the network (206).

Embodiments of the present disclosure provide solutions for core network (CN) enhancements to enable multicast and broadcast services (MBS) over non-terrestrial network (NTN). In an example method, a network device transmits a request to create a MBS session comprising a service area of the MBS session and at least one of: an indication that the MBS session is to be provided via an NTN; an indication that the service area of the MBS session is smaller than a cell level granularity; an indication that the MBS session requires an mapped cell ID to denote the service area of the MBS session; an indication that the MBS session requires a small MBS service area list to denote the service area of the MBS session; a service area description of the MBS session including a small MBS service area list or a mapped cell ID; or a satellite ID.

Embodiments of present disclosure disclose transmission of cell DTX-DRX parameters for RRC inactive state. The method comprises receiving from serving gNodeB (gNB), for RRC inactive state of a UE, cell DTX / DRX parameters of cells of Radio Access Network (RAN) Notification Area (RNA) of UE and corresponding cell IDs during a state transition of UE from RRC connected to RRC Inactive state using RRC release procedure; and performing a periodic RNA update aligned with cell DTX / DRX pattern based on received cell DTX / DRX parameters for RRC inactive state of UE. Method also comprises detecting occurrence of event related to change of RNA during RRC inactive state; transmitting event triggered RNA update to new serving gNB during cell DTX / DRX active duration or inactive duration; and receiving new cell DTX / DRX parameters for RRC inactive state of cells of new RNA of UE from new serving gNB. Present disclosure helps in network energy saving.

The present disclosure provides a method and apparatus for a user equipment (UE) that includes receiving, from a radio access network (RAN) node, a broadcast message that contains an AIoT request from am AIoT function (AIoTF) of the wireless communication network, the AIoT message includes information indicating that AIoT communication is requested and information indicating a radio resource for the UE to use for the AIoT communication, determining by the UE whether it is configured for AIoT communication, in response to the UE determining that it is configured for AIoT communication receiving from one or more AIoT devices, a response, the response from each respective one of the one or more AIoT devices including the AIoT device identifier (ID) of the respective one of the one or more AIoT devices, and transmitting, to the AIoTF of the wireless communication network, a response to the AIoT request that includes a UE identifier (UE ID) of the UE and the AIoT device IDs of the one or more AIoT devices. The present disclosure also provides a method and apparatus for an ambient internet of things (AIoT) function (AIoTF) that includes receiving from an application function (AF) an AIoT request that requests AIoT communication and comprises information indicating a location associated with the requested AIoT communication, determining a cell identifier (cell ID) of a cell associated with the location, transmitting a discovery AIoT command directed to a RAN node associated with the cell ID, the AIoT command to cause the RAN node to transmit a discovery AIoT request to all of the user equipment (UE) within the cell, receiving from one or more UEs responses to the discovery AIoT request, wherein each response comprises at least a UE identifier (UE ID) associated with a UE from which the response is received and one or more AIoT device identifiers (IDs), based on the responses, generating binding information for each of the AIoT device IDs included in the received responses to the discovery AIoT request, the binding information comprising the AIoT device ID and the UE ID of a UE from which a response that included the AIoT device ID was received, updating a stored binding table based on the generated binding data, and transmitting to the AF a AIoT response to the AIoT request, the AIoT response comprising at least the AIoT device ID of each of the one or more AIoT devices for which a response to the discovery AIoT request was received.

The application discloses a door lock video stream distribution backhaul method and system, the method comprising: establishing a multicast forwarding table by a router according to a unique identifier obtained when each door lock accesses a network; assigning a target cell ID and a target door lock ID for each sub-flow from an available assisting door lock list according to an event of detecting uplink path congestion of a source door lock; encapsulating the sub-flow as a multicast message carrying the target identifier and sending by the source door lock according to the identifier assigned for each sub-flow; unicasting and forwarding original video data packets to a central server by the source door lock as a source; sorting and reorganizing the video data packets received from the source door lock and multiple assisting door locks by the central server according to sequence numbers; directly requesting the source door lock to retransmit lost specific data packets by the server when detecting discontinuous sequence numbers, and directly unicasting and supplementing by the source door lock. The embodiment of the application can improve the reliability, real-time performance and overall utilization of network bandwidth of video stream backhaul.

Disclosed is a method performed a network entity in a wireless communication system using an open-radio access network (O-RAN), the network entity including at least one of a non-real-time RAN intelligent controller (non-RT RIC) and near-RT RIC, the method comprises configuring at least one node with a list of cell IDs representing cells to be activated or deactivated based on a condition in a network, and transmitting, to the at least one node, information including the list of cell IDs.

A method and apparatus for identifying different factors as part of performance diagnostics are disclosed. The disclosed method and apparatus provide a downstream application for policy configuration and network performance diagnostics. Various embodiments of a method and apparatus for power management initiated from a Citizens Band radio Service Device (CBSD) are disclosed. In addition, methods and apparatus for extending concepts related to Self-Organizing Networks (SONs) to support Self-Organizing Neighborhoods (SONs) are also disclosed. Furthermore, various embodiments enable the management of frequency / channel / BW (BW) allocation, power allocation on each channel, and Physical Cell ID (PCI) selection.

A method for determining the geolocation of a communication tower involves receiving a cell ID for a network cell from a data record and querying geolocation data sources for the tower's geolocations using the cell ID. In cases where the querying fails to retrieve the geolocations based on the cell ID, the method sets the geolocations to be between the previous cell ID geolocations and the following cell ID geolocations. The method then associates the cell ID with the communication tower based on the determined geolocations and pushes the geolocations into a large-scale data storage using a data processing platform. This method enables accurate determination of the physical of a communication tower even when geolocation data sources do not provide the necessary information.

The present disclosure relates to a mobility management in wireless communications. According to an embodiment of the present disclosure, a method performed by a user equipment (UE) in a wireless communication system comprises: receiving, from a network node, a radio resource control (RRC) message comprising access configurations for one or more target cells; receiving, from the network node, an indication, wherein the indication comprises access information; and performing an access to a target cell based on an access configuration for the target cell in the RRC message and the access information in the indication, wherein the access information comprises at least one of a random access preamble for the access or a target cell information for the access, and wherein the target cell information i) informs a cell identifier (ID) of a target cell not included in the one or more target cells configured for the UE, or ii) does not inform any cell ID.

Methods and apparatus for automatically identifying overshooting cells and automatically changing PCIs in cases of actual or possible PCI confusion are described. A cell with a poor KPI, e.g., indicative of failed attachment attempts, is identified. PCI confusion is considered as a possible cause of the poor KPI. A cell which uses the same PCI as the cell with the poor KPI is identified and the coverage areas of the cell with the poor KPI and the other cell using the same PCI is determined. Operating UEs in trace mode combined with deactivation of a cell while the other cell using the same PCI remains active is sometimes used to map cell coverage areas. If the coverage areas of two cells using the same PCI are determined to overlap, a different PCI is assigned to one of the two cells using the same PCI to thereby eliminate possible PCI confusion.

A method may be performed by a wireless transmit / receive unit (WTRU), including receiving configuration information for first and second cells. The first cell configuration information may include a cell ID of a first cell and indicate a first cell type in which the cell is transmitting an NR-SS and an LP-SS. The second cell configuration information may include a cell ID of a second cell and indicate that the cell is a second cell type in which the NR-SS is transmitted. The WTRU may monitor the NR-SS and the LP-SS. A first cell LP-SS and NR-SS measurement and a second cell NR-SS measurement may be determined. A first cell quality may be determined based on the first cell LP-SS and NR-SS measurements. A second cell quality may be determined based on a second cell NR-SS measurement. LP-WUS resources for the first or second cell may be selected based on a comparison of qualities of the first and second cells.

A terminal according to one aspect of the present disclosure comprises: a receiving unit that receives a medium access control (MAC) control element (CE) including a first field indicating a candidate cell identifier (ID) and a second field indicating a resource set ID of a semi-persistent reference signal (RS) in a candidate cell corresponding to the candidate cell ID; and a control unit that determines whether to activate or deactivate an RS resource set corresponding to the resource set ID of the reference signal on the basis of the first field and the second field. According to one aspect of the present disclosure, communication quality / throughput can be improved.

Embodiments herein disclose methods for selecting a frequency band in (MHS) for a UE. These methods may include determining, by the UE, one or more parameters, wherein the one or more parameters may include at least one of: signal strength parameters, connectivity conditions of the UE in relation to the client device, and a data consumption capability of the UE, then mapping, by the UE, one or more parameters of the UE to at least one of a cell identity (ID), an Access point ID in case of Wi-Fi sharing (AP ID), and a geolocation of the UE, while connecting with the client device, and selecting, by the UE, the frequency band from a plurality of frequency bands based on at least one of the mapped cell ID or application ID and the geolocation of the UE.