Abstract: A communication method for a terminal device is disclosed. The communication method includes transmitting first channel state information report, second channel state information report, and a scheduling request. The communication method also includes in a certain subframe, transmitting, in a case that there is only the first channel state information report, the first channel state information report on a first Physical Uplink Control Channel (PUCCH) resource, and transmitting, in a case that there are the first channel state information report and the second channel state information report, the first channel state information report and the second channel state information report on a second PUCCH resource different from the first PUCCH resource. The communication method uses the second PUCCH resource for transmission of the scheduling request, the first channel state information report, and the second channel state information report.

Abstract: Provided is a terminal apparatus including: a measurement unit that can measure a time difference between reception and transmission by the terminal apparatus; a transmitter that can report a measurement result of the time difference based on an event associated with the measurement of the time difference, wherein in a case that the prescribed Transmission Time Interval (TTI) length is configured, and in addition, in a case that the measurement result is greater than a prescribed threshold, the transmitter reports the measurement result to the terminal apparatus. The transmission efficiency is thus improved.

Abstract: An Integrated Access and Backhaul (IAB) node that communicates over a radio interface, the IAB node comprising: transmitting circuitry configured to perform a synchronization signal and physical broadcast channel block (SS/PBCH block) transmission(s), wherein a first symbol index(es) of a time position(s) for a candidate(s) of a SS/PBCH block(s) is determined based on a subcarrier spacing of the SS/PBCH and whether the SS/PBCH block transmission(s) is from an IAB donor or an IAB node.

Abstract: A terminal device and a base station device are capable of communicating with each other efficiently using an uplink channel. The terminal device transmits a transport block on a first shared channel upon detection of a control channel including first control information. For the first control information along with a CRC parity bit scrambled by a first identifier, a size of the transport block is given using a first information field included in the first control information along with the CRC parity bit scrambled by the first identifier, based on whether a second shared channel for an initial transmission of a transport block identical to the transport block corresponding to the first control information is scheduled by a random access response grant.

Abstract: A terminal apparatus which performs periodic channel state information reporting to a base station apparatus, the terminal apparatus including a reception unit that receives first information, second information, and index information indicating a value for reporting periodicity of the channel state information, from the base station apparatus, and a transmission control unit that determines the value for reporting periodicity of the channel state information on the basis of the index information, in which the applicable value is based on a certain UL-DL configuration, in which, in a case where the second information is not configured, the certain UL-DL configuration is a UL-DL configuration indicated by the first information, and in which, in a case where the second information is configured, the certain UL-DL configuration is a UL-DL configuration indicated by the second information.

Abstract: A user equipment (UE) is described. The UE includes receiving circuitry configured to monitor a first physical downlink control channel (PDCCH) conveying a first pre-emption indication downlink control information (DCI) that indicates pre-emption of a first physical downlink shared channel (PDSCH) transmission by a second PDSCH transmission and/or monitor a second PDCCH conveying a second pre-emption indication downlink control information (DCI) that indicates pre-emption of a first physical uplink shared channel (PUSCH) transmission by a second PUSCH transmission. The receiving circuitry is also configured to receive the first PDSCH transmission or assume that no transmission to the UE is present based on the first pre-emption indication DCI. The UE also includes transmitting circuitry configured to transmit or skip the first PUSCH transmission based on the second pre-emption indication DCI.

Abstract: There is provided a terminal apparatus configured to communicate with a base station apparatus. The terminal apparatus is configured to: receive information indicating a subframe of a first subframe set and a subframe of a second subframe set by using a higher layer signaling.

Abstract: An Integrated Access and Backhaul (IAB) node that communicates over a radio interface, the IAB node comprising: receiving circuity configured to receive first bitmap information used for indicating which synchronization signal and physical broadcast channel block (SS/PBCH block) is transmitted in a SS/PBCH block transmission(s), the receiving circuity configured to receive second information used for indicating whether the SS/PBCH transmission is muted or not, and transmitting circuitry configured to perform, based on the first bitmap information and the second information, the SS/PBCH transmission(s).

Abstract: A mobile station (MS) communicates with a base station (BS) by a carrier aggregation using a plurality of downlink component carriers (DCCs). The MS receives on one or more activated DCCs. The MS receives using a PDCCH on one of activated DCCs, from the BS, first information including an information field for requesting a transmission of channel state information (CSI), the first information being used for scheduling of a PUSCH. The MS transmits using the PUSCH in a first subframe on an uplink component carrier, to the BS, first CSI for more than one activated DCCs. The MS transmits using the PUSCH in a second subframe on the uplink component carrier, to the BS, second CSI for only one activated downlink component carrier. The transmission of the second CSI is scheduled by the first information received using the PDCCH on the only one activated downlink component carrier.

Abstract: The terminal apparatus 1 receives an uplink grant to be used for scheduling a PUSCH in the serving cell and an uplink grant to be used for scheduling a sPUSCH in the serving cell, transmits a periodic channel state information report using a PUCCH in the serving cell, transmits the periodic channel state information report using the PUSCH in a subframe in which the PUSCH is scheduled, and does not transmit the periodic channel state information report using the sPUSCH in a subframe in which the sPUSCH is scheduled. According to the present invention, the terminal apparatus 1 can efficiently transmit the uplink control information. Also, the base station apparatus 3 can efficiently receive the uplink control information.

Abstract: A terminal apparatus includes a coding unit configured to divide a transport block into one or more code blocks and generate coded bit(s) by coding the one or more code blocks; and a transmitter configured to transmit the coded bit(s) by using a channel, wherein multiplex bit(s) are given based on at least coupling of the coded bit(s) generated by coding of the one or more code blocks, the coding unit maps the multiplex bit(s) to a matrix in a first-axis prioritized manner and reads the multiplex bit(s) from the matrix in the first-axis prioritized manner or in a second-axis prioritized manner, and whether the first axis or the second axis is prioritized in a case that the multiplex bit(s) are read from the matrix is given based on at least whether a signal waveform applied to a prescribed channel is an OFDM.

Abstract: A terminal apparatus and a base station apparatus can efficiently communicate with each other through downlink. A terminal apparatus is configured to: acquire synchronization with a cell through cell search; and receive system information associated at least with (i) an operation of NB-IoT and (ii) a raster offset. The raster offset is an offset of downlink carrier frequency from a channel raster of prescribed spacing. The downlink carrier frequency is a carrier frequency of the NB-IoT.

Abstract: An access node of a radio access network (RAN) that communicates over a radio interface with a wireless terminal. The access node comprises processor circuitry, transmitting circuitry, and receiving circuitry. The processor circuitry is configured to generate an indication of access node capability to support the wireless terminal when the wireless terminal operates in a restricted mode. The transmitting circuitry is configured to transmit the indication to the wireless terminal. The receiving circuitry is configured to receive an indication from the wireless terminal that the wireless terminal is in the restricted mode. The processor circuitry is further configured to make a determination, upon receipt of the indication from the wireless terminal, that a connection with the wireless terminal can be maintained in the restricted mode and to generate a responsive message based on the determination.

Abstract: A user equipment (UE) is described. The UE includes a processor and memory in electronic communication with the processor. Instructions stored in the memory are executable to determine a HARQ-ACK codebook size for multiple slots on a single carrier (CC) or one or more slots on multiple carriers. The instructions are also executable to send a single HARQ-ACK report for the multiple slots based on the HARQ-ACK codebook size.

Abstract: A terminal apparatus communicates with a base station apparatus. The terminal apparatus includes: a determination unit that determines the number of modulation symbols for channel state information transmitted on a physical uplink shared channel based on a value of an offset; and a transmission unit that transmits the channel state information to the base station apparatus on the physical uplink shared channel. When two subframe sets are configured by higher layers, the value of the offset is determined depending on the subframe set to which subframes for transmission on the physical uplink shared channel belong. Thus, the communication can be performed efficiently in a radio communication system in which the channel state information is used.

Abstract: Uplink communication is efficiently performed in non-allocated frequencies. The terminal apparatus includes: a reception unit configured to receive downlink control information on a PDCCH; and a transmission unit configured to transmit a random access preamble. For a first frame structure type, the downlink control information is used to configure a subframe number of a first uplink subframe in which transmission of the random access preamble is allowed. For a second frame structure type, the downlink control information is used to configure a subframe number of a second uplink subframe in which transmission of the random access preamble is allowed and a symbol number of an uplink symbol in the second uplink subframe.

Abstract: A user equipment (UE) is described. The UE receives, from a base station apparatus, a radio resource control message including first information used for configuring a number of repetitions for transmission of a transport block. The UE also receives, from the base station apparatus, a radio resource control message including second information used for configuring a pattern of redundancy version for the repetitions for the transmission of the transport block. The pattern of the redundancy version is any one of a first pattern and a second pattern. The UE also performs, based on the first information and the second information, to the base station apparatus, the repetition for the transmission of the transport block. The same redundancy version used for the repetitions for the transmission for the transport block is a redundancy version “zero.

Abstract: A terminal apparatus and a base station apparatus efficiently continue communication with each other. A terminal apparatus is configured to perform a handover from a source cell to a target primary cell, the terminal apparatus includes: a receiver configured to receive a handover command; and a transmitter configured to transmit an RRC complete message after starting synchronization with a downlink of the target primary cell, in which, in a case that a parameter MobilityControlInfo included in the handover command includes a parameter associated with a TA and in a case of detecting, in the target primary cell, a PDCCH to which a CRC parity hit scrambled by a C-RNTI is attached, a T304 timer is stopped.

Abstract: A terminal apparatus communicates with a base station apparatus by using a plurality of cells including at least a primary cell and a secondary cell. The terminal apparatus decodes a PDCCH with downlink control information format in which at least a transmission power control command field is included, transmits a PUCCH on the primary cell, and determines transmission power of the PUCCH on the primary cell based on at least a PUCCH power control adjustment parameter. The PUCCH power control adjustment parameter is calculated by accumulating at least a value indicated by the transmission power control command field, and in a case where the terminal apparatus receives a random access response message for the primary cell, the transmission power control circuitry is configured to and/or programmed to reset the PUCCH power control adjustment parameter.

Abstract: Processing relating to transmit power is efficiently performed. A terminal device includes a reception unit configured to receive a first parameter and a second parameter, and a first MAC processing unit configured to acquire a type 2 power headroom. The first MAC processing unit acquires a value of the type 2 power headroom for a primary cell, in a case that the first parameter is configured and that simultaneous transmissions on a Physical Uplink Control CHannel (PUCCH) and on a Physical Uplink Shared CHannel (PUSCH) are configured, and acquires a value of the type 2 power headroom for the primary cell, regardless of whether simultaneous transmissions on the Physical Uplink Control CHannel (PUCCH) and on the Physical Uplink Shared CHannel (PUSCH) are configured in a case that the second parameter is configured.