Abstract: Wireless communications may use one or more devices for transmission and/or reception that may lead to potentially harmful exposure. One or more safety measures may be used for wireless communication devices, such as maximum power exposure (MPE) reporting and/or related operations. An MPE report may use a power headroom report (PHR) to include an uplink transmission power reduction value associated with an MPE threshold.

Abstract: A wireless device may receive a first radio resource control (RRC) message indicating one or more transmission configuration indicator (TCI) states and a plurality of power control settings of a cell. The plurality of power control settings may comprise a first power control setting. The first power control setting may be used, for an uplink bandwidth part (BWP) of the cell, in response to the plurality of power control settings not being associated with any of the one or more TCI states. The wireless device may transmit, via the uplink BWP, a first uplink signal using the first power control setting. The wireless device may receive a second RRC message indicating a second power control setting, of the power control settings, for a TCI state. The wireless device may transmit, via the uplink BWP, a second uplink signal using the second power control setting associated with the TCI state.

Abstract: A wireless device sends a first request to a mobility management function via a base station. The first request includes a paging cause indication in a paging message. A first paging message is received by the wireless device and comprises a first paging cause indication. Based on the first paging message, a second request for a connection setup is sent.

Abstract: A base station receives, from a wireless device, a requested international mobile subscriber identity (IMSI) offset value for offsetting an IMSI of the wireless device. The base station sends, to a core network node, the requested IMSI offset value. The base station receives, from the core network node, an accepted IMSI offset value for offsetting the IMSI of the wireless device, wherein first paging occasions of the first PLMN are derived using an alternative IMSI determined based on a sum of the IMSI of the wireless device and the accepted IMSI offset value. The base station sends, to the wireless device, the accepted IMSI offset value.

Abstract: A wireless device may transmit, to a base station, a capability message indicating a physical uplink control channel (PUCCH) cell switching capability is supported by the wireless device. The wireless device may receive, based on the PUCCH cell switching capability being supported, one or more messages comprising configuration parameters of: a first PUCCH cell of a PUCCH group; and a second PUCCH cell of the PUCCH group. The wireless device may receive downlink control information (DCI) indicating a downlink transmission of a transport block. The wireless device may select, based on a field of the DCI, a PUCCH cell from the first PUCCH cell and the second PUCCH cell of the PUCCH group. The wireless device may transmit, via the selected PUCCH cell, a hybrid automatic repeat request (HARQ) feedback for the transport block.

Abstract: An encoder or decoder interpolates between a first reference sample and a second reference sample to determine an interpolated value at a point on a reference sample line to which a location of a sample is projected. The interpolating includes applying a first filter coefficient, determined based on a product of a first function and a second function that is inversely related to a distance of the point from the first reference sample, to the first reference sample and also applying a second filter coefficient, determined based on a product of the first function and a third function that is inversely related to a distance of the point from the second reference sample, to the second reference sample. The first function is inversely related to a distance of the point from a closest integer position on the reference sample line. The interpolated value is used to predict the sample.

Abstract: A method may include receiving, by a wireless device from a time sensitive network, TSN, translator device, one or more TSN parameters. The method may also include sending, by the wireless device to an access and mobility management function (AMF), a non access stratum, NAS, message indicating a request to establish a protocol data unit (PDU) session comprising the one or more TSN parameters. The method may further include receiving, by the wireless device from the AMF, a message indicating acceptance of the PDU session.

Abstract: A wireless device receives one or more messages including configuration parameters, for transmission configuration indicator (TCI) indication, of a first control resource set (coreset) and a second coreset. The wireless device receives, via the first coreset and based on a first TCI state, a first control command indicating a second TCI state. In response to the receiving the first control command: downlink transport blocks are received via a downlink shared channel and based on the second TCI state, a first downlink control channel is received via the first coreset and based on the first TCI state; and a second downlink control channel is received via the second coreset and based on the second TCI state.

Abstract: A wireless device may transmit, to a base station, a beam switching type indication requesting a beam switching type initiated by the wireless device. The wireless device may receive a command confirming the beam switching type indication. The wireless device may select, based on the command, a reference signal set for the beam switching type initiated by the wireless device. The wireless device may transmit an uplink transport block based on a spatial domain transmission filter associated with one or more reference signals of the reference signal set.

Abstract: Wireless devices may receive channel state information (CSI) measurement resources for a plurality of cells, including cells of a first transmission point and cells of a second transmission point. The wireless device may measure CSI for each cell, and may quantize the measured CSI jointly across the cells. The wireless device may send the jointly quantized CSI to a base station, and the jointly quantized CSI may be used in communications via the first transmission point and the second transmission point.

Abstract: A wireless device may receive at least one radio resource control (RRC) message comprising a field indicating a starting symbol for an enhanced physical downlink control channel (ePDCCH). The wireless device may receive an ePDCCH signal. The ePDCCH may start from the starting symbol plus an offset value.

Abstract: Systems, apparatuses, and methods are described for wireless communications. Packet data convergence protocol (PDCP) packet duplication may be configured for a bearer of a wireless device. The bearer may use various cells to send packets. A base station central unit and/or a base station distributed unit may configure the cells for the bearer based on various types of information.

Abstract: Systems, apparatuses, and methods are described for wireless communications. A base station may transmit an indication of a type of a beam failure recovery request. A wireless device may detect a beam failure and transmit a beam failure recovery requested based on the type.

Abstract: A first wireless device determines a resource conflict based on a first sidelink control information (SCI) and a second SCI. The first wireless device determines a channel access priority class (CAPC) value, for a transmission of a conflict information indicating the resource conflict, based on one of the first SCI and the second SCI. The first wireless device transmits the conflict information, via a feedback channel, using the CAPC value.

Abstract: A station (STA) transmits to an access point (AP) a setup request frame indicating one or more first traffic identifiers (TIDs) associated with a trigger-enabled restricted target wake time (r-TWT) service period (SP). The STA receives from the AP a setup response frame indicating one or more second TIDs associated with the trigger-enabled r-TWT SP. The STA receives from the AP a first frame indicating a trigger-enabled r-TWT SP for the STA. Based on not receiving a second frame from the AP during a first time period within the trigger-enabled r-TWT SP, the STA transmits a non-trigger based frame following the first time period. The non-trigger based frame causes termination of the r-TWT SP.

Abstract: A wireless device may receive a first radio resource control (RRC) reconfiguration message triggering a first active bandwidth part (BWP) switching to a first BWP of a first cell. The wireless device may receive a second RRC reconfiguration message triggering a second active BWP switching to a second BWP of a second cell. The second active BWP switching may at least partially overlap in time with the first active BWP switching. Based on the overlapping, the wireless device may communicate using the second BWP in a first slot after a time duration. The time duration may be determined based on a duration of the first active BWP switching.

Abstract: A policy control function (PCF) receives from a session management function (SMF) a first message requesting policy establishment of a first packet data unit (PDU) session for a wireless device. The first message comprises a first single-network slice selection assistance information (S-NSSAI) and a first network slice instance identifier (NSI ID) for the first S-NSSAI. The PCF also receives a second message comprising an identifier of a communication service provider (CSP ID). The PCF maps the first NSI ID to the CSP ID and further selects a charging function (CHF) for the first PDU session per CSP based on the mapping.

Abstract: Wireless communications may comprise communications between a base station and a wireless device. A wireless device may perform beam failure recovery (BFR). Based on an indication of completion of the BFR, the wireless device may determine resources for transmission of uplink signals.

Abstract: A method includes projecting, in an angular direction, a location of a sample to a first point on a first reference line and a second point on a second reference line. The method includes interpolating between a first and second reference sample on the first reference line to determine an interpolated value at the first point. The interpolating includes applying a first filter coefficient to the first reference sample and a second filter coefficient to the second reference sample. Both the first and the second filter coefficients are determined based on a first function that is related to a first distance from the second point to a closest integer position in a first direction along the second reference line and a second distance from the second point to a closest integer position in a second direction along the second reference line. The method includes determining a prediction of the sample based on the interpolated value.

Abstract: A wireless device may receive a first message indicating a first transmission configuration indicator (TCI) state for receiving a downlink control channel. After receiving the first message, the wireless device may receive a second message indicating a common TCI state for receiving the downlink control channel and a downlink shared channel. Based on an end of a first application time of the first TCI state being later than an end of a second application time of the common TCI state, the wireless device may receive the downlink control channel using the first TCI state.