Abstract: A first wireless device receives one or more first messages indicating downlink (DL) discontinuous reception (DRX) parameters indicating a DL DRX on-duration start offset. The first wireless devices determines a starting time of an active time of a sidelink DRX (SL DRX) based on the DL DRX on-duration start offset and a simultaneous reception capability. The wireless device receives, from a second wireless device, one or more sidelink transport blocks during the active time.

Abstract: A wireless device receives a configuration parameter indicating at least two sounding reference signal (SRS) resource sets of a cell. The wireless device receives a power headroom report (PHR) configuration for the cell. The wireless device transmits a PHR comprising one Type 1 power headroom (PH) value of the cell. The PHR is transmitted based on a parameter, indicating to report two power headroom values of the cell, being absent in the PHR configuration.

Abstract: A wireless device may communicate with a base station. The wireless device may request system information associated with a cell. The cell may be determined to be unavailable, for example, based on system information associated with the cell not being provided after a request for it is made.

Abstract: A wireless device transmits, via one or more physical uplink shared channel (PUSCH) transmission occasions, at least one of a first configured grant uplink control information (CG-UCI) and a second CG-UCI. The first CG-UCI is multiplexed in one or more first resource elements of a first sub-band of the one or more PUSCH transmission occasions. The second CG-UCI is multiplexed in one or more second resource elements of a second sub-band of the one or more PUSCH transmission occasions. The second CG-UCI is based on a repetition of the first CG-UCI.

Abstract: Wireless communications for asymmetric services are described. Asymmetric services (e.g., for downlink or uplink) may be associated with each other. Resources may be configured based on an association of asymmetric services.

Abstract: Transmission repetition may be used in wireless communications. Control channel repetition may be used for scheduling communications between a base station and a wireless device. A time period between the control channel and the scheduled communications may be less than a threshold time period. The wireless device may determine, for communicating with the base station, a wireless resource corresponding to a default resource pool, a resource pool used for at least one repetition of the control channel, and/or based on a resource pool indicated via the control channel.

Abstract: Wireless communications using a power saving state are described. A wireless device and/or a base station may provide improved resource management such as by monitoring a reduced resource set in a power saving state. The wireless device may monitor an initial resource set in a non-power saving state and a reduced resource set in a power saving state.

Abstract: Multiple access points may communicate with one or more computing devices. Spatial mapping information may be shared to facilitate multiple access point communication in a network. The spatial mapping information may be updated and used, for example, for the multiple access points communicating with one or more computing devices.

Abstract: Beam determination may be used in wireless communications, for example, in a beam failure recovery procedure. One or more parameters may be communicated and/or used to indicate an association between resources and a corresponding control resource set (CORESET) pool index of multiple CORESET pool indices. For each of the multiple CORESET pool indices, a reference signal associated with the CORESET pool index may be determined. Wireless communications may be performed by selecting a reference signal for each of the multiple CORESET pool indices, and resources associated with a corresponding CORESET pool index may be communicated based on the selected reference.

Abstract: Wireless resource determination and use are described. A wireless device may determine to use a resource (e.g., PUCCH resource), indicated by control information (e.g., DCI), for sending an acknowledgement (e.g., HARQ-ACK feedback) of a reception of data (e.g., at least one transport block). The control information may be received in a message of a plurality of messages. The wireless device may select the control information (e.g., for determining the resource) from among other control information in the plurality of messages, based on one or more factors.

Abstract: A session management function (SMF) may include one or more processors and memory storing instructions that, when executed by the one or more processors, cause the SMF to perform operations. The operations may include selecting a user plane function based on a device type of a wireless device, responsive to a session establishment request to establish a packet data unit (PDU) session for the wireless device. An indication of the device type may be provided with the session establishment request. The operations may also include sending, to the user plane function, reporting rules based on a charging policy received from a policy control function (PCF) responsive to a charging policy request to the PCF.

Abstract: A wireless device may receive one or more messages comprising one or more configuration parameters for a cell. The cell may comprise a normal uplink (NUL) carrier, a supplementary uplink (SUL) carrier, and a downlink carrier comprising at least two downlink bandwidth parts (BWPs). The wireless device may select, for a random-access procedure of the cell, an uplink carrier among the NUL carrier and the SUL carrier based on a measured quality of each downlink BWP of the at least two downlink BWPs. The uplink carrier may be the NUL carrier based on the measured quality of each downlink BWP of the at least two downlink BWPs being equal or greater than an uplink carrier threshold. The wireless device may transmit, via the NUL, a random-access preamble for the random-access procedure.

Abstract: A base station transmits configuration parameters of a cell to a wireless device. In an embodiment, the configuration parameters include bandwidth part (BWP) parameters of a first BWP and a default BWP, a first timer value associated with a cell deactivation timer, and a second timer value associated with a BWP inactivity timer. The base station may also transmit a downlink control information (DCI) indicating an activation of the cell for the wireless device, to the wireless device. In response to transmitting the DCI, the base station may further activate the cell for the wireless device and start the cell deactivation timer based on the first timer value. In response to activating the cell, the base station may activate the first BWP of the cell for the wireless device. The base station may also start the BWP inactivity timer based on the second timer value.

Abstract: A base station may transmit configuration parameters indicating a bandwidth part (BWP), of a cell, associated with a maximum number of transmission layers, and a plurality of demodulation reference signal (DMRS) ports. The base station may transmit downlink control information comprising an antenna port indication value. The base station may determine a subset of DMRS ports, from the plurality of DMRS ports, based on the maximum number of transmission layers associated with the BWP. Based on the antenna port indication value, the base station may select one or more DMRS ports from the subset of DMRS ports. The base station may transmit, via the BWP, a transport block with the one or more selected DMRS ports and with a number of transmission layers. The number may be less than or equal to the maximum number in response to the BWP being associated with the maximum number of transmission layers.

Abstract: A wireless device increments a beam failure instance counter based on a first beam failure instance indication for one or more first reference signals (RSs) for beam failure detection. The wireless device receives a medium access control control element (MAC CE) indicating one or more second RSs for beam failure detection. The wireless device resets the beam failure instance counter in response to receiving the MAC CE. The wireless device increments the beam failure instance counter based on a second beam failure instance indication for the one or more second RSs. The wireless device based on the beam failure instance counter being equal to or greater than a first value, triggers a beam failure recovery for the one or more second RSs.

Abstract: A wire device receives: configuration parameters of: a primary cell with a primary physical uplink control channel (PUCCH); and a secondary cell with a secondary PUCCH; a transmit power control (TPC) radio network temporary identifier (RNTI); a primary TPC index of the primary PUCCH; and a secondary TPC index of the secondary PUCCH. The wireless device receives a downlink control information (DCI) associated with the TPC RNTI. The secondary TPC index identifies a TPC command in an array of TPC commands in the DCI. The wireless device adjusts a transmission power of the secondary PUCCH based on the TPC command.

Abstract: A base station receives, from a wireless device, a first registration request message comprising a first zone identity of the wireless device, wherein the first zone identity is based on a first geographical location of the wireless device and a registration area update type indicating a geographical zone-based tracking type. The base station sends, to an access and mobility management function (AMF), the first registration request message. The base station receives, from the AMF, a first paging message for the wireless device based on the geographical zone-based tracking type. The base station sends a second paging message for the wireless device based on the first paging message.

Abstract: One or more parameters may be used to configure wireless communications between a wireless device and a base station. A transmission configuration indication selection field may indicate which of two (or more) resources is to be used for a transmission/reception. A transport block size for a transmission occasion may be determined using one of the resources, and the same transport block size may be used for another transmission occasion using another of the resources, for example, if the transmission configuration indication selection field indicates using two resources or if the transmission configuration indication selection field is absent.

Abstract: A wireless device may communicate with a base station using transmission resources/schemes. A resource/scheme for transmission/reception may be indicated by a field and/or by an absence of a field in a message that schedules transmission/reception. For example, a spatial domain multiplexing (SDM) scheme may be used, for scheduled transmission/reception, based on a value in a transmission configuration indicator selection field and/or based on an absence of such a field in a message.

Abstract: A wireless device receives radio resource control (RRC) messages comprising configuration parameters of a multicast and broadcast service (MBS). The configuration parameters indicate: a first feedback operation with hybrid automatic repeat request (HARQ) feedback being enabled; and a second feedback operation with the HARQ feedback being disabled. A group common downlink control information (DCI) comprises a field indicating one of the HARQ feedback being enabled or the HARQ feedback being disabled. The wireless device receives a first group common DCI: scheduling a first transport block (TB) of the MBS; and comprising the field indicating the HARQ feedback being enabled. The wireless device transmits, based on the field indicating the HARQ feedback being enabled, a first HARQ feedback for the first TB.