Abstract: A method for a base station which communicates with a user equipment (UE) in a bandwidth including a plurality of channel access sub-bands in a serving cell is described. The method may comprise sensing each of the plurality of the channel access sub-bands. The method may also comprise transmitting downlink signal after sensing. A counter and a contention window size may be managed per sub-band for channel access.

Abstract: A terminal apparatus receives a DCI format used for scheduling of a PDSCH, and transmits HARQ-ACK information in a slot n. In a case that a higher layer parameter is given, for a PDSCH group g, a monitoring occasion for PDCCH corresponding to a DCI format satisfying a condition is included in a set of monitoring occasions for PDCCH for the slot n. Based at least on the set of monitoring occasions for PDCCH for the slot n, the HARQ-ACK information is generated. The condition includes the following: condition 1 is that the HARQ-ACK information corresponding to the PDSCH scheduled by the DCI format is triggered to be transmitted in the lot n, and condition 2 is that the PDSCH group g is indicated by a PGI field included in the DCI format.

Abstract: Terminal device receives a SS/PBCH block and a high-layer parameter and determines a point A. A common resource block is determined at least based on a subcarrier 0 of the SS/PBCH block. The point A is determined at least based on a subcarrier 0 of the common resource block and an offset provided by the high-layer parameter. The offset is expressed in units of resource blocks assuming 120 KHz for FR2-2.

Abstract: A terminal apparatus includes a receiver configured to receive a PDCCH including a DCI format indicating transmission of a PUCCH, and a transmitter configured to transmit the PUCCH. In a case that a higher layer parameter InterSlotFrequencyHopping is configured for a PUCCH format corresponding to the PUCCH to perform frequency hopping and a length of a time domain window is configured by a higher layer parameter, a hopping interval for the frequency hopping is the same as the length of the time domain window.

Abstract: A terminal device includes encoding circuitry configured to encode a code block and output coded bits for the code block, and rate-matching circuitry configured to perform bit-selection procedure for the coded bits, wherein the rate-matching circuitry is configured to determine a starting coded bit index for the bit-selection procedure based on a rate-matching sequence length or an index of an instance of a PUSCH in which the coded bits are mapped.

Abstract: A terminal apparatus includes a reception circuitry that receives a PDCCH where a DCI format is mapped; and a transmission circuitry that transmits a PUCCH corresponding to a PUCCH resource indicated based on the DCI format. A first higher layer parameter is configured for a PUCCH format corresponding to the PUCCH. In a case that a second higher layer parameter is configured for the PUCCH resource, the number of repetitions of the PUCCH is a value of the second higher layer parameter, and in a case that the second higher layer parameter is not configured, the number of repetitions of the PUCCH is a value of the first higher layer parameter.

Abstract: A wireless terminal communicates across a radio interface with a radio access network. The wireless terminal comprises receiver circuitry and processor circuitry. The receiver circuitry is configured to receive from the radio access network (1) slot format information comprising transmission direction configuration for each symbol in a slot for an uplink (UL) subband; and (2) validation information. The processor circuitry is configured to use the validation information to perform validation or invalidation of the transmission direction configuration for at least a portion of the UL subband.

Abstract: A wireless terminal comprises receiver circuitry and processor circuitry. The receiver circuitry is configured to receive, over the radio interface, information upon which determination of allocation type determination formula(e) is dependent. The processor circuitry configured to: (1) use the received information to determine which allocation type determination formula(e) is to be used to determine an allocation type; (2) use the allocation type determination formula(e) to determine the allocation type, a type of the allocation type being determined depending on location of an allocated resource block for the uplink channel relative to channel bandwidth; and (3) use the allocation type to determine a parameter for a configured maximum transmission power for an uplink channel upon which an uplink transmission is transmitted.

Abstract: A wireless terminal which communicates with a radio access network comprises processor circuitry configured to make a selection between different formulae for determining an allocation type for an uplink transmission on an uplink channel. The allocation type is a parameter utilized by the processor to determine a parameter for a configured maximum transmission power for a carrier for the uplink channel upon which the uplink transmission is transmitted. A type of the allocation type is determined depending on location of an allocated resource block for the uplink channel relative to channel bandwidth. The wireless terminal may also comprise transmitter circuitry configured to transmit the uplink transmission over the radio interface using transmission power determined by the configured maximum transmission power parameter.

Abstract: A terminal apparatus includes a receiver configured to receive a PDCCH including a DCI format indicating transmission of a PUCCH, and a transmitter configured to transmit the PUCCH. The number of slots NrepeatPUCCH is configured by a higher layer parameter NrofSlots, the PUCCH is repeated in the NrepeatPUCCH slots, a first PRB is configured by a higher layer parameter StartingPRB, a second PRB is configured by a higher layer parameter SecondHopPRB, one hopping pattern is determined based on the DCI format, and whether repetition of the PUCCH in each of the NrepeatPUCCH slots is allocated at least in the first PRB or at least in the second PRB is determined based on the one hopping pattern.

Abstract: The PUSCH is scheduled by a random-access response grant included in the random-access response, ML interlaces are configured for the active UL BWP, ILth interlace in the ML interlaces includes a set of resource blocks with index IVRB each of which satisfies relationship lL=mod(IVRB+Nstart,uBWP,i, ML), the Nstart,uBWP,i is a starting common resource block of the active UL BWP with index i, resource block assignment information in the random-access response grant indicates one or more interlaces from the ML interlaces, a first resource blocks assigned for the PUSCH in a case that the active UL BWP is different from an initial UL BWP are resource blocks in the one or more interlaces in the initial UL BWP, and a second resource blocks assigned for the PUSCH in a case that the active UL BWP is the initial UL BWP are same as the first resource blocks.

Abstract: A terminal apparatus and a method are provided. The terminal apparatus includes a receiver configured to receive at least a channel state information-reference signal (CSI-RS) in a bandwidth part (BWP), a measurer configured to measure and evaluate one or more values of a channel quality indicator (CQI) by using at least the CSI-RS, the CQI including a wideband CQI or a subband CQI, and to measure and update a value of the wideband CQI in a case that an indicator, corresponding to the BWP, indicates the wideband CQI, and at least one of a first condition and a second condition is not satisfied, and a transmitter configured to transmit a CSI report including the value of the wideband CQI.

Abstract: A terminal device is described. The terminal device includes transmission circuitry configured to transmit a PRACH of a first subcarrier spacing; and reception circuitry configured to receive a DCI format with CRC scrambled by a RA-RNTI in response to the PRACH transmission; wherein the RA-RNTI is calculated at least based on a predetermined second subcarrier spacing.

Abstract: A terminal device comprising: transmission circuitry configured to transmit multiple instances numbered from 0 to Krep?1 for a repetition of a PUSCH, and higher layer processing circuitry configured to perform processes of a RRC layer, wherein a redundancy version for the nth instance is determined by mod(n,Ns) where Ns is a length of the redundancy version sequence, the multiple instances are determined based on a slot configuration provided through the RRC layer and the Krep, and the multiple instances are mapped on Krep slots which don't include a slot where a set of OFDM symbols allocated for an instance in a slot overlap with a downlink region for the slot configuration.

Abstract: A terminal apparatus includes a processing circuitry configured to determine one or multiple first indexes of one or multiple physical resource blocks (PRBs) to which a physical uplink control channel (PUCCH) is mapped, and a transmitting circuitry configured to transmit the PUCCH in a bandwidth part (BWP). In a case that the PUCCH is transmitted using an interlace, the one or multiple first indexes are determined based on a resource block (RB) used for the interlace, the number of interlaces, and the number of the one or multiple PRBs from zero to a starting PRB of the BWP in a common resource block (CRB) index.

Abstract: A network controlled repeater (NCR) is described. The NCR may include receiving circuitry configured to receive NCR configured grant (CG) configurations by radio resource control (RRC) signaling on a control link from a gNodeB (gNB).

Abstract: A user equipment (UE) is described. The UE may comprise high-layer processing circuitry configured to acquire a RRC parameter and transmission circuitry configured to transmit a PUSCH in multiple slots. The RRC parameter may indicate that the multiple slots are determined according to slots which are available for transmission(s) of the PUSCH. If the RRC parameter is not provided, processing time for canceling a transmission of the PUSCH may be required to be shorter than or equal to a first length. If the RRC parameter is provided, the processing time for canceling a transmission of the PUSCH may be required to be shorter than or equal to a second length. The second length is longer than the first length.

Abstract: A network controlled repeater (NCR) is described. The NCR includes receiving circuitry configured to receive a radio resource control (RRC) configuration from a gNodeB (gNB) on a control link for a configured grant (CG), including resource allocation with beam indication, and uplink (UL) forwarding delay information.

Abstract: A network controlled repeater (NCR) is described. The NCR includes receiving circuitry configured to receive a radio resource control (RRC) configuration from a gNodeB (gNB) on a configured grant (CG), including resource allocation with beam indication, an uplink (UL) forwarding delay information and an NCR configured scheduling-radio network temporary identifier (CS-RNTI).

Abstract: A wireless terminal communicates across a radio interface with a radio access network. The wireless terminal comprises receiver circuitry and processor circuitry. The receiver circuitry is configured to receive a downlink signal from the radio access network. The processor circuitry is configured to determine a resource assignment (mapping) of the downlink signal to a resource grid of time/frequency radio resources in a SubBand Full Duplex, SBFD, region of the grid in a case that a SBFD uplink, UL, resource set overlaps with a synchronization signal/physical broadcast, SS/PBCH, block in a time domain of the SBFD region.