Abstract: An indication to schedule a first uplink channel can be transmitted, where the first uplink channel can correspond to a first transmission occasion and a first priority. An indication to schedule a second uplink channel can be transmitted, where the second uplink channel can correspond to a second transmission occasion and a second priority, where the first transmission occasion can overlap in time with the second transmission occasion and the first priority can be higher than the second priority. A particular symbol of the second uplink channel from which a transmission of the second uplink channel is cancelled by a user equipment can be determined based on the first transmission occasion overlapping in time with the second transmission occasion. A reception of the second uplink channel can be cancelled based on the determined particular symbol.

Abstract: Apparatuses, methods, and systems are disclosed for video codec aware RAN configuration and unequal error protection coding. An apparatus includes a processor that detects a video coded traffic stream and a video codec specification used to encode the video coded traffic stream, determines an awareness of video coded traffic application data units (“ADUs”) of the video coded traffic stream as video coded network abstraction layer (“NAL”) units of data, aligns the video coded NAL units of the video coded traffic stream to physical layer (“PHY”) transport elements and subsequent channel coding element partitions for a video coded traffic aware PHY transport, determines a channel coding rate allocation of the channel coding element partitions, and applies a forward error correction (“FEC”) coding given at least the determined channel coding rate allocation of the video coded traffic aware PHY transport to channel coding element partitions for protection against radio transmission errors.

Abstract: An apparatuses for radio access network configuration for video approximate semantic communications includes a transceiver that receives from a transmitter a bitstream corresponding to a video coded data transmission wherein the received bitstream includes bitwise transmission errors and a processor that performs FEC decoding and correcting at least one bitwise transmission error of the video coded data transmission whereas at least one bitwise transmission error is left in a bit-inexact reception of the video coded data transmissions post FEC decoding, applies, by a smart video decoder in a video approximate semantic communications mode, semantic error correction to decoded video coded data transmissions to correct and conceal one or more video artifacts in response to the bit-inexact reception of the video coded data transmissions post FEC decoding, and reconstructs a video uncoded representation of concealed approximate semantic content relative to the received bitstream corresponding to the video coded da

Abstract: Apparatuses, methods, and systems are disclosed for video codec importance indication and RAN awareness configuration.

Abstract: A configuration parameter for a CSI resource set can be received. The configuration parameter can indicate a first offset applicable to the CSI resource set. A control channel containing DCI with a downlink DCI format can be received in a first downlink slot. The DCI can indicate a second offset applicable to the CSI resource set. A second downlink slot in which the CSI resource set is transmitted by a network entity for an active BWP can be determined based on the first offset and the second offset.

Abstract: A first indication can be transmitted from at least one first of a first set of TRPs of a network. The first indication can indicate a minimum scheduling offset (Kmin) value between scheduling DCI of the first set of TRPs and a corresponding data communication. A second indication indicating the Kmin value can be received at at least one second TRP of a second set of TRPs of the network. First and second scheduling DCI can be transmitted scheduling respective first and second data communications associated with the respective first and second sets of TRPs. The first and second data communications can be communicated via the respective first and second sets of TRPs of the network such that the offset between the first scheduling DCI and the first data communication is at least the Kmin value and the offset between the second scheduling DCI and the second data communication is at least the Kmin value.

Abstract: A configured grant configuration including resources for uplink data transmissions can be received (310). A PUSCH transmission corresponding to the configured grant configuration can be prepared (320). A transport block of the PUSCH transmission can correspond to a HARQ process and can be prepared to be repeated a number of times in a first set of resources configured for the PUSCH transmission. A first DCI indicating an ACK for the HARQ process corresponding to the transport block can be received (330). A second DCI indicating a second set of resources can be received (340). The first set of resources and the second set of resources overlap in the time domain. A cancellation time associated with the PUSCH transmission can be determined (350) based on both the received first DCI and the received second DCI. The PUSCH transmission can be cancelled (360) according to the cancellation time.

Abstract: A first uplink cancellation configuration for a downlink bandwidth part is received (302). Based on the first uplink cancellation configuration, a first reference time duration associated with a first set of uplink cancellation indications detected in a first set of search spaces is determined (304). A second reference time duration associated with a second set of uplink cancellation indications detected in a second set of search spaces is determined (306). Receipt of an uplink cancellation indication is monitored for (308) in at least one of the search spaces. A particular one of the reference time durations is selectively used (310) in connection with a received uplink cancellation indication dependent upon which one of the first set of search spaces and the second set of search spaces, that is being monitored, is identified as including the uplink cancellation indication.

Abstract: A system and method for D2D discovery is provided. In an embodiment the method includes sending, by a base station, first parameters to a first User Equipment (UE) indicating a set of discovery resources in a discovery cycle, wherein the discovery cycle comprises a plurality of subframes; and sending, by the base station, second parameters to the first UE indicating a first probability for transmitting a first discovery signal to a second UE on a subframe of the plurality of subframes so that the first UE is capable of transmitting the first discovery signal to a second UE in the discovery cycle according to the first parameters when a random number between 0 and 1, selected by the first UE, is equal or larger than the first probability.

Abstract: A configuration can be received that configures a UE with a single configured CSI process for a serving cell. A highest CQI index value can be derived for which a single PDSCH TB with a combination of corresponding modulation scheme and TB size is received with a TB error probability not exceeding a target TB BLER value. The single PDSCH transport block can occupy a CSI reference resource. A CSI request can be received in either a subslot or a subframe. The CSI reference resource can be defined by the subslot in which the CSI request is received if the CSI request is received in the subslot. The CSI reference resource can be defined by the subframe in which the CSI is received if the CSI request is received in the subframe.

Abstract: Control channel candidates can be transmitted in at least one shortened transmission time interval in a subframe and set of resource blocks corresponding to control channel candidates in the at least one shortened transmission time interval. A determination can be made about whether at least one resource block of the set of resource blocks at least partially overlaps with a broadcast control channel or signal. A determination can be made about control resource elements for transmission of a control channel candidate based on the determination about whether the at least one resource block of the set of resource blocks at least partially overlaps with the broadcast control channel or signal. The control channel candidate can be transmitted in the at least one shortened transmission time interval according to the determined control resource elements.

Abstract: Apparatuses, methods, and systems are disclosed for reporting PH information. One apparatus is configured to receive an uplink resource allocation for a first TTI on the first serving cell, wherein the first TTI overlaps in time with multiple second TTIs on the second serving cell, where the apparatus is configured with a first serving cell having a first TTI length and a second serving cell having a second TTI length, and where the second TTI length is smaller than the first TTI length. The apparatus is further configured to calculate PH information for the second serving cell for a third TTI associated with a third TTI length that contains the first TTI on the first serving cell and transmit the PH information in an uplink transmission on the first TTI on the first serving cell.

Abstract: Various aspects relate to a device that receives a configured uplink grant from a base station for semi-persistent uplink transmissions, receives a configuration for a retransmission timer, receives a configuration of a next-generation NodeB (gNB) fixed frame period (FFP) for semi-static channel access in a shared spectrum, detects a downlink transmission burst within gNB-FFP, and obtains a medium access control protocol data unit for a configured uplink transmission that includes a first physical uplink shared channel (PUSCH) transmission. A communications manager establishes that a hybrid automatic repeat request process associated with the first PUSCH transmission is pending so as to preclude performance of the first PUSCH transmission in response to determinations that the first PUSCH transmission is associated with a gNB channel occupancy time (COT), there is a time gap between the downlink transmission burst within the gNB-COT, and the first PUSCH transmission is smaller than a time gap threshold.

Abstract: A configured-grant configuration can be transmitted. The configured-grant configuration can configure periodic plurality of UL repetition bundles, each UL repetition bundle including a number of PUSCH repetitions. The periodic plurality of UL repetition bundles can include a plurality of transmission occasions. A first TB can be received in UL resources corresponding to at least a portion of an UL repetition bundle of the periodic plurality of UL repetition bundles. An indication can be determined and transmitted. A second TB can be received in a transmission occasion. The second TB can include different data from the first TB. The transmission occasion can be determined based on the indication and among the plurality of transmission occasions of the periodic plurality of uplink repetition bundles.

Abstract: DCI can be received. The DCI can include scheduling information for a physical channel carrying a TB. The physical channel can include a plurality of repetitions of the TB. The physical channel can span at least one slot. Each of the plurality of repetitions can be within a slot of the at least one slot. At least one repetition of the plurality of the repetitions can have a different duration than a duration of at least one other repetition of the plurality of the repetitions. A repetition duration of each of the plurality of repetitions can be determined based on a plurality of available symbols for the physical channel. The plurality of available symbols can be determined based on the DCI.

Abstract: A transceiver can receive (210) scheduling information of at least one PUCCH and at least one PUSCH. The scheduling information can schedule the UE to transmit the at least one PUCCH and the at least one PUSCH. The at least one PUCCH can overlap with the at least one PUSCH in time. The at least one PUCCH can include at least one type of UCI. A controller can multiplex (220) the at least one type of UCI in at least one actual repetition of a PUSCH of the at least one PUSCH. The transceiver can transmit (230) the PUSCH including the multiplexed at least one type of UCI. The PUSCH can overlap with a PUCCH of the at least one PUCCH. The at least one actual repetition of the PUSCH can have a number of symbols no less than a predefined number of symbols.

Abstract: Apparatuses, methods, and systems are disclosed for supporting JED model selection and training. One apparatus includes a processor and a transceiver that receives a configuration from a network device, said configuration indicating at least one of: a set of resources for model training, a type of intended model training, and combinations thereof. The processor selects a Joint Channel Equalization and Decoding (“JED”) model from a set of models based on the received configuration. The processor trains the selected JED model using the received configuration.

Abstract: For collision handling between shortened Transmission Time Interval (sTTI) and Transmission Time Interval (TTI) transmissions, a method determines a collision between user equipment (UE) uplink transmission resources in a first TTI 16 of a first TTI length and uplink transmission resources in a second TTI 16 of a second TTI length. The method further transmits a first uplink data transmission block (TB) in the first TTI and a second uplink data TB in the second TTI. The method interrupts the transmission of the first uplink data TB before transmission of the second uplink data TB. The method receives an indication that indicates whether to resume transmission of the first uplink data TB. The method determines to resume the transmission of the first uplink TB based on the indication.

Abstract: Methods and apparatus are provided, in which a downlink (DL) grant is received (902) triggering an aperiodic channel state information (ACSI) report and a physical downlink shared channel (PDSCH) transmission being scheduled. A first physical uplink control channel (PUCCH) resource for ACSI transmission and a second PUCCH resource for hybrid automatic repeat request (HARQ) acknowledgment (ACK) transmission corresponding to the scheduled PDSCH are determined (904). A first PUCCH transmission power for the ACSI transmission using the first PUCCH resource and a second transmission power for the HARQ ACK transmission using the second PUCCH resource are determined (906) based on downlink control information (DCI) of the DL grant.

Abstract: A first control signal can be transmitted in a short PDCCH belonging to a first subset of a set of configured short PDCCH candidates associated with a first set of aggregation levels in a first TTI of a subframe. A second control signal can be transmitted in a short PDCCH belonging to a second subset of the set of short PDCCH candidates associated with a second set of aggregation levels in a second TTI of the subframe. The first subset of the set of short PDCCH candidates and the second subset of the short PDCCH candidates can be different. The first subset of the set of short PDCCH candidates can be based on a first index associated with the first TTI. The second subset of the set of short PDCCH candidates can be based on a second index associated with the second TTI. The subframe can comprise at least the first and the second TTIs.