Abstract: A wireless device receives a first parameter indicating whether simultaneous physical uplink control channel (PUCCH) and physical uplink shared channel (PUSCH) transmission is configured for a primary cell of a plurality of cells. The plurality of cells comprise the primary cell and a PUCCH secondary cell. Based on the first parameter and the PUCCH secondary cell being deactivated, a first power headroom (PH) comprising a first Type 2 PH field for the primary cell is transmitted. Independent of the first parameter and based on the PUCCH secondary cell being activated, a second PH report comprising a second Type 2 PH field for the primary cell is transmitted.

Abstract: A wireless device receives a downlink control information comprising a first field and a second field. The wireless device determines a position of a first subframe in one or more subframes employing the first field. The wireless device transmits, in the first subframe, one or more channel state information (CSI) fields when the second field is set to trigger a CSI report.

Abstract: A wireless device initiates a random access procedure on a first cell. The wireless device counts a number of physical layer preamble transmissions for the random access procedure. The wireless device counts a number of listen-before-talk (LBT) procedures performed by a physical layer for transmission of one or more preambles for the random access procedure. The wireless device determines the random access procedure on the first cell unsuccessfully completed based on either the number of physical layer preamble transmissions for the random access procedure reaching a maximum counter value or the number of listen-before-talk (LBT) procedures reaching a maximum counter value.

Abstract: A first wireless device receives from a first base station, configuration parameters of one or more beams of a first cell of the first base station. The first wireless device determines a connection failure with the first cell based on considering at least one criterion during a period of time in which the first wireless device employs at least a first beam of the one or more beams. The first wireless device selects a second cell of a second base station in response to the connection failure. The first wireless device transmits to the second base station, a first message comprising a radio link failure report. The radio link failure report comprises: a first beam identifier of the first beam; and a first cell identifier of the first cell.

Abstract: A second base station receives first message from a first base station. The first message comprises neighbor beam information of a first cell of the first base station. The neighbor beam information comprises: a neighbor cell identifier of a neighbor cell of the first cell; a first beam index of a first beam of the first cell; and at least one neighbor beam index of at least one neighbor beam of the first beam of the first cell. The at least one neighbor beam is associated with a third base station. The second base station makes a handover decision for a wireless device towards the first cell based on the neighbor beam information. The second base station transmits to the first base station, a handover request for the wireless device in response to the handover decision.

Abstract: A base station receives a first message comprising mobility parameter(s) from a second base station. The mobility parameter(s) may comprise a power value of a handover trigger change for a wireless device handover between: first beam(s) of a first cell of the base station; and second beam(s) of a second cell of the second base station. A measurement report may be received from the wireless device. The measurement report may comprise: first received power value(s) associated with the first beam(s); and second received power value(s) associated with the second beam(s). A handover decision may be made for the wireless device based on the first message and the measurement report. A second message may be transmitted to the second base station. The second message may indicate a handover request for the wireless device in response to the handover decision.

Abstract: A base station transmits to a wireless device at least one first message comprising configuration parameters of a plurality of cells. The plurality of cells is grouped into a plurality of physical uplink control channel (PUCCH) groups comprising a primary PUCCH group comprising a primary cell with a primary PUCCH received by the base station and a secondary PUCCH group. The secondary PUCCH group comprising a PUCCH secondary cell with a secondary PUCCH received by the base station and one or more other secondary cells. The base station detects a radio link issue with the PUCCH secondary cell. The base station transmits at least one media access control (MAC) command configured to deactivate at least one of the one or more other secondary cells in the secondary PUCCH group in response to the radio link issue with the PUCCH secondary cell.

Abstract: A wireless device may receive from a first base station, measurement configuration parameters of a measurement of the wireless device. The measurement configuration parameters comprise first beam identifiers of a first plurality of beams, second beam identifiers of a second plurality of beams and a measurement event indicating that a second combined reference signal measurement value of the second plurality of beams exceeds a first combined reference signal measurement value of the first plurality of beams by more than a first offset value. The first plurality of beams and the second plurality of beams are monitored to determine an occurrence of the measurement event. The first base station transmits a measurement report in response to the occurrence of the first measurement event. The measurement report comprises: the first combined reference signal measurement value and the second combined reference signal measurement value.

Abstract: A wireless device receives configuration parameters of cells comprising at least a first cell type operating on a first frequency band; and a second cell type operating on a second frequency band. A calculated total transmit power is determined for signals comprising: a first SRS configured for transmission in a subframe of the first cell type in the cells, and a second SRS configured for transmission in the subframe of the second cell type in the cells. At least one of the first SRS or the second SRS is dropped or scaled based on a transmit power priority of the first SRS and the second SRS when the calculated total power exceeds a first value. The transmit power priority is based on whether the first SRS or the second SRS is configured for transmission on the first frequency band or the second frequency band.

Abstract: A wireless device receives a downlink control information (DCI). The DCI comprises: number of subframes field indicating a first number of subframes; a modulation and coding scheme field; a transmit power control field; and a listen before talk (LBT) field indicating timing information for performing an LBT procedure. The wireless device performs the LBT procedure for transmission in the first number of subframes based on the timing information. The wireless device determines a transmission power of each subframe in the first number of subframes based on a same closed loop adjustment factor and the transmit power control field. The wireless device transmits, in each subframe of the first number of subframes, employing the modulation and coding scheme field.

Abstract: A wireless device receives, in a first subframe, a first DCI comprising: a first field indicating an assignment of resource blocks for transmissions via an uplink subframe; and a first trigger indicating that the first DCI is triggered in response to a second DCI. A power headroom value of a reference subframe for transmission via the resource blocks of the uplink subframe are determined. The reference subframe is later than the first subframe and earlier than the uplink subframe. A power headroom value of the reference subframe is transmitted via the uplink subframe.

Abstract: Cells are grouped into a plurality of timing advance groups (TAGs) and a plurality of physical uplink control channel (PUCCH) groups. The PUCCH groups comprise a primary PUCCH group comprising a primary cell and a secondary PUCCH group comprising a PUCCH secondary cell. The PUCCH secondary cell is in a first TAG. When a time alignment timer of the first TAG expires, the wireless device notifies a radio resource control layer to release the secondary PUCCH, and stops transmission of positive acknowledgement or negative acknowledgement for a downlink HARQ process of an activated cell in the secondary PUCCH group.

Abstract: A first off-network mission critical (ONMC) wireless device discovers ONMC wireless devices employing a proximity services discovery procedure. First media traffic is transmitted employing a first mission critical session to a third ONMC wireless device. A message comprising an organization field identifier and an organization identifier is received from a second ONMC wireless device. A call priority is determined, at least in part, based on the organization field identifier and the organization identifier. Transmission of the first media traffic terminates, based at least on the call priority. Transmission of second media traffic to the second ONMC wireless device employing a second mission critical session may be started.

Abstract: A plurality of timing advance groups (TAGs) comprises a secondary TAG. The second TAG comprises a first unlicensed cell and a second unlicensed cell. Uplink transmission timing in the second TAG is derived employing at least a first signal received on the first unlicensed cell and a second signal received on the second unlicensed cell.

Abstract: A base station receives from a first core network entity, packet(s) for a wireless device in an RRC inactive state. The base station initiates a RAN paging procedure comprising sending RAN paging message(s) to second base station(s). The RAN paging message(s) comprises a first identifier of the wireless device. The base station determines a failure of the RAN paging procedure in response to not receiving a response of the RAN paging message(s). The base station sends a first message to a second core network entity in response to the failure of the RAN paging procedure. The base station receives a second message from the second core network entity in response to the first message. The second message comprises a tunnel endpoint identifier of a third base station for forwarding the packet(s). The base station sends to the third base station, the packet(s) based on the tunnel endpoint identifier.

Abstract: An automobile device transmits data to a server in a communication network. The automobile device records the data received from one or more transmitters located in an automobile. The automobile device transmits a random access preamble on an uplink carrier to a base station when a pre-defined condition is met. The automobile device encrypts the data and transmits the encrypted data to a server via a base station.

Abstract: A base station transmits configuration parameters of a plurality of cells to a wireless device. The plurality of cells comprise: a primary cell with a primary physical uplink control channel (PUCCH); and a PUCCH secondary cell with a secondary PUCCH; a transmit power control (TPC) radio network temporary identifier (RNTI); a primary TPC index for the primary PUCCH; and a secondary TPC index for the secondary PUCCH. An activation control element indicating activation of the PUCCH secondary cell is transmitted. A downlink control information (DCI) associated with the TPC RNTI is transmitted via a common search space of the primary cell. The DCI comprises an array of TPC commands. The secondary TPC index determines a TPC command in the array. An uplink signal with an uplink signal transmission power determined based on the TPC command is received from the wireless device and via the secondary PUCCH.

Abstract: A wireless device receives at least one message comprising configuration parameters of a plurality of cells grouped into a plurality of physical uplink control channel (PUCCH) groups comprising: a primary PUCCH group comprising a primary cell with a primary PUCCH, and a secondary PUCCH group comprising a PUCCH secondary cell with a secondary PUCCH. The wireless device receives, on a common search space of the primary cell, a transmit power control (TPC) command for the secondary PUCCH. The wireless device ignores the TPC command when the PUCCH secondary cell is in a deactivated state.

Abstract: A base station transmits at least one message to a wireless device. The at least one message comprises one or more configuration parameters of: a plurality of cells grouped into a plurality of groups, and a pathloss reference of a secondary cell. The base station receives uplink signals on the secondary cell. Transmission power of the uplink signals in the secondary cell is determined, at least in part, employing measurement of downlink signals of the pathloss reference of the secondary cell.

Abstract: A request message for changing one or more media for an MCVideo call may be transmitted from a wireless device to n MCVideo application function (AF). A DIAMETER AA-request (AAR) command may be received by a policy and charging rules function (PCRF) from the MCVideo AF. The DIAMETER AAR command may comprise: a modification bearer message; and an application identifier attribute-value pairs (AVP) corresponding to the MCVideo call. An implementation message may be transmitted from the PCRF to a policy and charging enforcement function (PCEF). The implementation message may comprise an updated Quality of Service (QoS). The PCEF may implement the updated QoS for the MCVideo call. The updated QoS may: comprise QoS data bearer modification information; and depend on a change in a radio network coverage.