Abstract: A wireless device comprises one or more processors and memory storing instructions, When executed by the one or more processors, the instructions cause the wireless device to receive one or more messages comprising an uplink hybrid automatic repeat request (HARQ) round-trip-time (RTT) timer value expressed in units of symbols and an uplink discontinuous reception (DRX) retransmission timer value expressed in units of slot lengths, transmit a transport block via an uplink data channel, start an uplink HARQ RTT timer with the uplink HARQ RTT timer value in response to transmitting the transport block, start an uplink DRX retransmission timer with the uplink DRX retransmission timer value in response to the uplink HARQ RTT timer expiring, monitor a downlink control channel while the uplink DRX retransmission timer is running.

Abstract: A wireless device receives configuration parameters indicating a time alignment timer of a timing advance group comprising a cell. The time alignment timer is started in response to receiving a timing advance command for the timing advance group. The wireless device transmits an uplink signal for a beam failure recovery procedure for the cell based on a beam failure of the cell. The beam failure recovery procedure is aborted based on an expiry of the time alignment timer during the beam failure recovery procedure.

Abstract: Embodiments of the present disclosure relate to the field of network technologies, including a resource transfer method and apparatus and a storage medium. The method includes: storing a graphic code in the specified application client, the graphic code being sent by a specified server when a network is already connected, the graphic code including a user identifier used by the specified application client to log in to the specified server, and the graphic code being obtained by the specified server from a third-party server accessed by an interface of the specified server, and presenting a stored graphic code when detecting a graphic code calling operation.

Abstract: A wireless device receives one or more messages comprising one or more configuration parameters. The one or more configuration parameters indicate a plurality of transmission configuration indication (TCI) states. comprise at least one configuration parameter of a first downlink transmission group and a second downlink transmission group. A medium access control control element (MAC CE) is received. The MAC CE comprises: a first field identifying one of the first downlink transmission group and the second downlink transmission group; and a second field activating one or more TCI states, of the plurality of TCI states, for a downlink transmission group identified by the first field. A downlink control information (DCI) scheduling a transport block is received. In response to receiving the DCI, the transport block based on a TCI state among the one or more TCI states of the downlink transmission group is received.

Abstract: Provided are certain Bcl-2 inhibitors, pharmaceutical compositions thereof, and methods of use thereof.

Abstract: A wireless device receives configuration parameters of a cell. The configuration parameters comprise 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. A downlink control information (DCI) indicating an activation of the cell is received. In response to the DCI: the cell is activated; and the cell deactivation timer is started based on the first timer value. In response to the activation of the cell, the first BWP of the cell is activated. The BWP inactivity timer is started based on the second timer value. In response to expiry of the BWP inactivity timer, a switch is made from the first BWP to the default BWP as an active BWP.

Abstract: A message transmitting/receiving apparatus and method and a communication system. The message transmitting method includes: determining a message type of a message to be transmitted to one or more user equipments; scrambling control information of the message by using an identity to which the message type corresponds; wherein, different identities correspond to different message types; and transmitting data information of the message and the scrambled control information to the one or more user equipment.

Abstract: Wireless communications using multiple active resources (e.g., bandwidth parts (BWP)) are described. A predetermined rule may be used to determine on which downlink (DL) BWP of multiple active DL BWPs, and/or on which uplink (UL) BWP of multiple active UL BWPs, a message is to be sent. A wireless device and/or a base station may reduce the quantity of active DL BWPs and/or active UL BWPs to monitor for a response.

Abstract: A wireless device receives an activation command indicating a set of at least two transmission configuration indicator (TCI) states for a control resource set (coreset). In response to the coreset being activated with the at least two TCI states, the wireless device transmits, via an uplink resource, an uplink signal with a transmission parameter determined based on a TCI state that occurs first in the set of the at least two TCI states.

Abstract: A wireless device transmits a preamble based on a first spatial filter. The wireless device receives an uplink grant indicating transport block (TB) repetitions and a reference signal (RS). The wireless device transmits, based on the first spatial filter, first repetitions of the TB repetitions. The wireless device transmits, based on a second spatial filter associated with the RS, second repetitions of the TB repetitions.

Abstract: A wireless device determines sidelink configurations for sidelink communications that indicate: zone configurations for sidelink transmissions; and communication range thresholds each corresponding to a respective zone configuration of the zone configurations. The wireless device transmits, to one or more second wireless devices, sidelink control information, SCI, that indicates: a zone, of a first zone configuration of the zone configurations, indicating a geographic location of the first wireless device; and a first communication range threshold, of the first zone configuration, indicating a communication range of the sidelink transmissions.

Abstract: A wireless device selects a first downlink reference signal from one or more downlink reference signals based on a received signal strength of the first downlink reference signal being above a value. Based on an index of the first downlink reference signal, a radio network identifier is determined. A downlink control information (DCI) addressed to the radio network identifier and indicating one or more random access occasions (ROs) is received. In response to receiving the DCI, a preamble is transmitted via one of the one or more ROs.

Abstract: Configuration parameters, of channel state information (CSI) resources for a first transmission reception point (TRP) and a second TRP of a cell, are received. One or more media access control control elements (MAC CEs) are received. The MAC CEs indicate a first semi persistent CSI report for the first TRP. The MAC CEs indicate a second semi persistent CSI report for the second TRP. First reference signal received power (RSRP) values, for the first semi persistent CSI report, are determined based on the plurality of CSI resources. Second RSRP values, for the second semi persistent CSI report, are determined based on the CSI resources. A codeword, comprising the first RSRP values and the second RSRP values, is created. The codeword is transmitted, based on the first semi persistent CSI report and the second semi persistent CSI report, via a physical uplink control channel resource.

Abstract: A wireless device may determine a first uplink resource for transmission of a first hybrid automatic repeat request acknowledgement (HARQ-ACK) in a time slot. The wireless device may receive, via at least one monitoring occasion of monitoring occasions, at least one repetition of downlink control information (DCI) that indicates a second uplink resource for transmission of a second HARQ-ACK in the time slot. The wireless device may transmit, in the time slot and via an uplink resource, the second HARQ-ACK based on a monitoring occasion of the monitoring occasions being earlier than a time duration from a starting symbol of the first uplink resource, where an ending time of the monitoring occasion ends latest among ending times of the monitoring occasions.

Abstract: A wireless device receives radio resource control message(s) from a base station indicating random access resources of an uplink bandwidth part of a cell, that comprises two-step random access resources. The wireless device may determine, while the two-step random access type and a four-step random access type are available for transmitting a preamble, that the two-step random access resources comprise contention-free two-step random access resources. The wireless device may also select from among the two-step random access type and the four-step random access type, the two-step random access type. The wireless device may then transmit a preamble to the base station using the two-step random access resources, based on the two-step random access type.

Abstract: A wireless device may receive one or more configuration parameters of a first cell and a second cell. The one or more configuration parameters may indicate a first bandwidth part (BWP) of the first cell, a second BWP of the second cell, and beam failure recovery configuration parameters of the first BWP are for one or more beam failure recoveries of the second BWP of the second cell. The wireless device may switch to the first BWP of the first cell as an active BWP of the first cell. Based on the beam failure recovery configuration parameters of the first BWP being for one or more beam failure recoveries of the second BWP, the wireless device may switch to the second BWP as an active BWP of the second cell.

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 wireless device transmits one or more radio resource control (RRC) messages indicating assistance information, where the assistant information indicates: an identifier indicating a logical channel; and one or more periodicities associated with the logical channel. The wireless device receives, in response to the assistance information, one or more second RRC messages indicating one or more configured grant configurations. The wireless device triggers a buffer status report in response to data of the logical channel becoming available. In response to receiving one or more activation commands indicating activation of the one or more configured grant configurations, the wireless device cancels the buffer status report.

Abstract: Wireless communications using multiple active resources (e.g., bandwidth parts (BWPs)) are described. A wireless device may perform failure event detection, such as radio link monitoring (RLM) and/or beam failure detection (BFD), jointly or separately for multiple active resources (e.g., BWPs) based on one or more criteria.

Abstract: Beam failure recovery (BFR) procedures for wireless communications are described. When beam failures occur on secondary cells, wireless devices may trigger a BFR proceudre via an uplink resource for BFR. If a beam failure occurs for a secondary cell at a time that a wireless device does not have an uplink resource for BFR, the wireless device may perform one or more other actions for BFR of the secondary cell.