Abstract: A wireless device transmits a multiple consecutive slots transmission (MCSt) via consecutive slots, wherein a quantity of the consecutive slots is based on a channel occupancy time (COT) duration of a COT.

Abstract: A first wireless device receives, during at least one of a plurality of consecutive slots, indications of assignment of sidelink resources for a physical sidelink shared channel (PSSCH), and a hybrid automatic repeat request (HARQ) feedback being enabled. The first wireless device receives a transport block (TB) in the PSSCH. The first wireless device determines, in response to the HARQ feedback being enabled, to transmit a first PSFCH comprising a first HARQ feedback of the TB. The first wireless device transmits, during a PSFCH slot, the first PSFCH via: at least one RB of the one or more RBs; and a plurality of common RBs of a first common interlace.

Abstract: A first wireless device receive a radio resource control (RRC) message comprising a configuration parameter for a sidelink resource pool. The first wireless device determine a number of sidelink slots configured in the sidelink resource pool. The first wireless device determine a second reservation period in units of slots based on a first reservation period and the number of sidelink slots. The first wireless device select one or more transmission resources based on the second reservation period. The first wireless device transmits a transport block via the one or more transmission resources.

Abstract: A wireless device receives one or more radio resource control (RRC) messages comprising configuration parameters of a cell that indicate: a bandwidth part (BWP) inactivity timer; a plurality of downlink BWPs comprising a first downlink BWP and a second downlink BWP; and a sidelink BWP. The wireless device performs sidelink communication on the sidelink BWP. The wireless device determines whether to switch from the first downlink BWP to the second downlink BWP, based on: expiry of the BWP inactivity timer; and a priority of the sidelink communication.

Abstract: A wireless device receives, via a search space, a downlink control information (DCI). The DCI includes a cancellation indication (CI) for cancelling uplink signals via uplink resources of an uplink cell. The wireless device determines that one or more sidelink resources, of a scheduled sidelink transmission via a sidelink bandwidth part (BWP) on the uplink cell, overlap with the uplink resources. The wireless device drops a scheduled sidelink transmission, via one or more sidelink resources of a sidelink bandwidth part (BWP), based on a first priority of the scheduled sidelink transmission and a second priority of the CI.

Abstract: A first wireless device receives, from a base station, a message comprising configuration parameters of a resource pool for one or more first sidelink transmissions. The first wireless device determines, based on a channel access priority class (CAPC) value of the one or more first sidelink transmissions, a first quantity of consecutive time slots for multi-consecutive slots transmission (MCSt) of the one or more first sidelink transmissions, wherein the first quantity of consecutive time slots are within a maximum channel occupancy time (COT) duration, and the maximum COT duration is based on the CAPC value. The first wireless device selects one or more resources comprising the first quantity of consecutive time slots for the MCSt of the one or more first sidelink transmissions, and transmits, to a second wireless device and via the one or more resources, the one or more first sidelink transmissions.

Abstract: A first wireless device receives, from one or more second wireless devices, a plurality of sidelink control information (SCIs). The plurality of SCIs indicate physical sidelink shared channel (PSSCH) receptions and physical sidelink feedback channel (PSFCH) transmissions. Each of the PSFCH transmissions is associated with a respective sidelink reference signal. The first wireless device determines: a sidelink reference signal associated with a first PSFCH transmission with a smallest priority value among priority values of the PSFCH transmissions; and one or more first PSFCH transmissions, comprising the first PSFCH transmission, associated with the sidelink reference signal from the PSFCH transmission. The first wireless device transmits, in a PSFCH occasion of a sidelink slot, at least one of the one or more first PSFCH transmissions.

Abstract: A first wireless device receives first sidelink control information comprising one or more parameters indicating a reserved resource for a second sidelink transmission. The first wireless device initiates a channel occupancy for a first sidelink transmission before the reserved resource, wherein initiating the channel occupancy is based on: a first type of channel access procedure; and an energy detection threshold for channel occupancy sharing. The first wireless device transmits a second sidelink control information indicating sharing the channel occupancy with the second wireless device for the second sidelink transmission in the channel occupancy. The first wireless device transmits, using a second type of channel access procedure and based on sharing the channel occupancy with the second wireless device, a third sidelink transmission within the channel occupancy and after the second sidelink transmission.

Abstract: A wireless device receives a radio resource control (RRC) message comprising a configured grant (CG) configuration indicating a plurality of CGs. The CG configuration comprises an unused CG occasion uplink control information (UCI) configuration that comprises a parameter used to determine a size of a bitmap of an unused CG occasion UCI. Based on the CG configuration comprising the unused CG occasion UCI configuration, the wireless device determines that a first CG, of the plurality of CGs, is to be unused for a physical uplink shared channel (PUSCH) transmission. The wireless device transmits the unused CG occasion UCI using a second CG of the plurality of CGs. The unused CG occasion UCI comprises the bitmap with the size and the bitmap indicates that the first CG is to be unused for the PUSCH transmission.

Abstract: A wireless device receives a sidelink control information (SCI) that may schedule a transport block and may also indicate a first repetition value. The wireless device may also receive a transport block via a physical sidelink shared channel (PSSCH). Based on a comparison of the first repetition value received via the SCI and a repetition threshold, the wireless device may determine to transmit an acknowledgment for the received transport block. The wireless device may then transmit the acknowledgment for the received transport block.

Abstract: A wireless device receives a first configured grant (CG) configuration, associated with a first CG index, comprising one or more parameters indicating to disable: monitoring for retransmissions corresponding to the first CG configuration; and starting a discontinuous reception (DRX) hybrid automatic repeat request (HARQ) round trip time (RTT) timer for a HARQ process associated with a transport block (TB) transmitted via a CG resource indicated by the first CG configuration. The wireless device receives a second CG configuration not associated with the first CG index. Based on the first CG configuration, the wireless device does not start a first DRX HARQ RTT timer for a first HARQ process, and based on the second CG configuration, the wireless device starts a second DRX HARQ RTT timer for a second HARQ process.

Abstract: Wireless resources may be determined for communications between wireless devices. A wireless device may select resources based on measuring one or more channels (e.g., associated with sidelink transmission, feedback transmission, etc.). Resource selection may comprise exclusion of certain resources being used for other communications and/or exclusion or selection of resources based on one or more priorities.

Abstract: A first wireless device selects first radio resources for a first sidelink transmission of the first wireless device. The first wireless device receives, from a second wireless device, sidelink control information (SCI) reserving second radio resources for a second sidelink transmission of the second wireless device. The first wireless device determines a collision between the first radio resources and the second radio resources. The first wireless device performs a comparison of a first priority of the first sidelink transmission and a second priority of the second sidelink transmission. The first wireless device selects, based on the comparison and the collision, third radio resources for the first sidelink transmission. The first wireless device transmits the first sidelink transmission via the third radio resources.

Abstract: A method can include determining, by a wireless device, a first plurality of repetitions of a first preamble scheduled for transmission for a random-access procedure. The method can also include suspending, by a wireless device, a power-ramping counter of a random-access procedure based on not transmitting each repetition of a first plurality of repetitions of a first preamble of the random-access procedure. The method can further include transmitting, by the wireless device, a second preamble with a transmit power that is determined based on the power-ramping counter for the random-access procedure.

Abstract: A wireless device selects, based on a sidelink (SL) selection window for SL resource selection, a first multi-slot resource from among a set comprising multi-slot candidate resources in a SL resource pool. The first multi-slot resource comprises a plurality of SL slots. The wireless device determines a random number, between zero and a value of a contention window, as an initial value of a counter for a type 1 channel access procedure. The wireless device senses, after a value of the counter is zero, a channel to be idle. The wireless device transmits, to a second wireless device and via the first multi-slot resource, a second stage SL control information (SCI) comprising an SCI format 2-A. The SCI format 2-A indicates a duration of a channel occupancy time (COT). The COT is initiated, by the wireless device, based on sensing the channel to be idle.

Abstract: A first wireless device receives configuration parameters indicating a first reference signal received power (RSRP) threshold value for selecting a non-preferred resource set for inter-UE coordination, and a second RSRP threshold value for selecting a sidelink resource for sidelink transmission by the first wireless device. The first wireless device transmits, to a second wireless device, a medium access control (MAC) control element (CE) indicating a first non-preferred resource set for the second wireless device, wherein the first non-preferred resource set is selected based on the first RSRP threshold value. The first wireless device transmits, to a third wireless device, a sidelink transmission via a first sidelink resource, wherein the first sidelink resource is selected based on the second RSRP threshold value.

Abstract: A first wireless device receives sidelink control information (SCI) via one or more sidelink resource pools configured for a shared spectrum channel access. The SCI comprises: one or more fields indicating one or more sidelink slots that are in a channel occupancy time (COT) initiated by the second wireless device, and a first value indicating a first channel access priority class (CAPC) for a first sidelink transmission of the second wireless device. The first wireless device transmits, via a first sidelink resource in the one or more sidelink slots, a second sidelink transmission comprising sidelink data. The second sidelink transmission is transmitted based on: a second value, of a second CAPC of the sidelink data, being lower than the first value, and the first sidelink resource being selected, by the first wireless device, based on a second priority value of the second sidelink transmission.

Abstract: A wireless device receives configuration parameters indicating: a sidelink resource pool of a sidelink bandwidth part configured in a shared spectrum, one or more resource blocks for a physical sidelink feedback channel transmission via the sidelink resource pool, and a first common interlace index, among a plurality of common interlace indexes, configured for the PSFCH transmission via the sidelink resource pool. The wireless device determines multiple common RBs of a first common interlace corresponding to the first common interlace index. An index of each of the multiple common RBs is based on: an interlaced RB index corresponding to the first common interlace index, and a first common RB index indicating a starting RB of the sidelink BWP. The wireless device transmits, during a PSFCH slot, one or more sidelink transmissions via at least one RB of the one or more RBs, and via the multiple common RBs.

Abstract: The present disclosure relates to the technology field of acoustic product. Disclosed are a diaphragm for miniature sound generation device and a miniature sound generation device. The diaphragm includes a rubber film layer formed by cross-linking reaction of an acrylate polymer, wherein the acrylate polymer contains carboxylic acid group, the cross-linking agent is an amine cross-linking agent. The present disclosure effectively improves the degree of cross-linking by using the acrylate polymer containing carboxylic acid group and the amine cross-linking agent, resulting in excellent resilience and temperature resistance of the diaphragm; At the same time, it allows the diaphragm forming method to be unrestricted and reduces preparation cost; It also improves the low-frequency performance of the miniature sound generation device, such that it has a full bass and a comfortable listening experience.

Abstract: A diaphragm for a miniature sound generating device, wherein the diaphragm is made of a polyacrylate copolymer, a plasticizer is mixed in the polyacrylate copolymer, the polyacrylate copolymer is 100 parts by mass, and the plasticizer comprises at least one of aliphatic dibasic acid esters, phthalic acid esters, benzene polyacid esters, benzoic ethers, polyol esters, chlorinated hydrocarbons, epoxides, citrate esters and polyesters. The diaphragm possesses excellent sound performance.