Abstract: Various aspects of the present disclosure relate to a user equipment (UE) that maintains a set of skipping durations that includes multiple subsets of skipping durations. The base station transmits to the UE a first control signaling indicating to activate one of the subsets of skipping durations. At a subsequent time, the base station transmits to the UE a second control signaling indicating that the UE can skip physical downlink control channel (PDCCH) monitoring in some time resources (e.g., slots). The second control signaling includes an identifier of a skipping duration and the UE selects the identified skipping duration in the active subset of skipping duration values. The UE then skips or terminates monitoring of the PDCCH for the selected skipping duration.

Abstract: A configuration of a set of subslots within a slot can be received, each of one or more subslots of the set of subslots can have a time interval within the slot. An indication of a first PUCCH resource for transmitting HARQ-ACK information during the slot can be received, the first PUCCH resource overlapping in time with at least one uplink channel resource scheduled for transmission during the slot, the indication indicating that transmission of the HARQ-ACK information ends within a subslot of the set of subslots, and a last symbol of the first PUCCH resource being within the subslot. The HARQ-ACK information can be multiplexed on a second PUCCH resource, the second PUCCH resource being in the subslot of the set of subslots within the slot.

Abstract: Apparatuses, methods, and systems are disclosed for uplink power control. One method includes: receiving a message that configures a set of resources that each includes a downlink resource or an uplink sounding resource and is associated with an uplink transmission beam pattern; receiving scheduling information for an uplink transmission that is associated with a resource of the set of resources; determining an uplink transmission beam pattern associated with the resource; determining a configured maximum output power for the uplink transmission beam pattern that is based on an antenna array property associated with the uplink transmission beam pattern; determining a transmit power for the uplink transmission based on the configured maximum output power; and performing the uplink transmission using the uplink transmission beam pattern based on the transmit power.

Abstract: Various aspects of the present disclosure relate to a UE that receives an indication of one or more system information transmission repetition periodicity values corresponding to a respective subset of synchronization signal blocks (SSBs) within a burst of SSBs. The UE selects at least one SSB from the burst of SSBs, and receives a system information message via one or more physical downlink control channel (PDCCH) monitoring occasions in a search space set for the system information message. The one or more PDCCH monitoring occasions, for instance, are determined based on a system information transmission repetition periodicity value of the one or more system information transmission repetition periodicity values, and the system information transmission repetition periodicity value corresponds to the selected SSB. The UE can implement wireless communication using system information determined from the received system information message.

Abstract: A method and apparatus are provided, in which information of a feedback time for transmitting a feedback message from the user equipment for a physical shared channel message is received (402). A maximum allowed feedback time delay associated with the feedback message for the physical shared channel message is determined (404). A physical channel occasion available to be used by the user equipment for transmitting the feedback message is identified (406). The feedback message is transmitted when the identified available physical channel occasion, which is available to be used for the feedback message, allows for the feedback message to be transmitted within the maximum allowed feedback time delay, otherwise the feedback message is not transmitted, when the identified available physical channel occasion does not allow for the feedback message to be transmitted within the maximum allowed feedback time delay (408).

Abstract: At least one common PUCCH resource set configuration can be received (1310) for a 2-step random access procedure. At least one common PUCCH resource set can be determined (1320) based on the at least one common PUCCH resource set configuration. A PRACH and a corresponding MsgA PUSCH can be transmitted (1330). A MsgB PDSCH can be received (1340) in response to the transmitted PRACH and MsgA PUSCH. The received MsgB PDSCH can be decoded (1350). A successRAR intended to the UE can be identified (1360) from the decoded MsgB PDSCH. A common PUCCH resource set of the at least one common PUCCH resource set and a PUCCH resource of the common PUCCH resource set can be determined (1370) based on the successRAR. At least HARQ-ACK feedback information for the MsgB PDSCH can be transmitted (1380) on the PUCCH resource.

Abstract: Various aspects of the present disclosure relate to network-assisted cell selection. In some embodiments, a network employs a cell within a location to coordinate access between the UE and other cells (e.g., neighbor cells) that are candidates to be a serving cell for the UE within the location but may be in an energy saving state of operation when a UE initiates an access procedure.

Abstract: Various aspects of the present disclosure relate to network-assisted cell selection. In some embodiments, a network employs a cell within a location to coordinate access between the UE and other cells (e.g., neighbor cells) that are candidates to be a serving cell for the UE within the location but may be in an energy saving state of operation when a UE initiates an access procedure.

Abstract: Apparatuses, methods, and systems are disclosed for configuring a sensing reference signal. One method includes receiving, at a first device, configuration information from a second device. The configuration includes: a set of sensing reference signal sequence generation parameters; a set of sensing reference signal resource pattern parameters, wherein a pattern corresponding to the set of sensing reference signal resource pattern parameters includes time domain locations of symbols within a sensing reference signal, frequency domain locations of resource elements within the sensing reference signal, or a combination thereof; and information indicating to map a generated sequence based on the pattern on at least one antenna to create a sensing reference signal pattern. The method includes generating a sensing reference signal. The method includes transmitting and/or receiving the sensing reference signal according to the configuration information.

Abstract: Apparatuses, methods, and systems are disclosed for semi-static channel access with directional FFP. One method (800) includes receiving (805) a configuration for a plurality of FFPs, where each FFP is associated with a separate transmit beam for transmission within that FFP. The method (800) includes identifying (810) an initiated FFP and performing (815) communication activity during the initiated FFP using a beam corresponding to the initiated FFP, where the communication activity includes a transmission, a reception, or a combination thereof.

Abstract: Disclosed herein are apparatuses, systems, and methods using or implementing dynamic beamforming in control channels, by transmitting downlink control channels to user equipment (UEs) in a number of orthogonal frequency division multiplexing (OFDM) symbols of a downlink subframe. A first OFDM symbol of the number of OFDM symbols can be transmitted using first beamforming parameters in a first direction, and a second OFDM symbol of the number of OFDM symbols can be transmitted using second beamforming parameters different from the first beamforming parameters and in a second direction different from the first direction. The number of OFDM symbols used, as well as other parameters, can be dynamically adjusted in subsequent subframes. Other embodiments are described.

Abstract: Apparatuses, methods, and systems are disclosed for uplink power control. One method includes: operating a network entity with multiple antenna arrays; determining a first closed-loop power control process for a first set of uplink beam patterns based on a first antenna array of the multiple antenna arrays, wherein at least one receive beam pattern of the first antenna array is used to receive a first uplink transmission using at least one uplink beam pattern; determining a second closed-loop power control process for a second set of uplink beam patterns based on a second antenna array of the multiple antenna arrays, wherein the second antenna array is different from the first antenna array; and indicating to the device in a configuration message the first closed-loop power control process and the second closed-loop power control process.

Abstract: A downlink channel transmission can be received. The downlink channel transmission can carry a DCI format that schedules a first uplink channel transmission. An overlap between the first uplink channel transmission and a second uplink channel transmission can be determined. The first uplink channel transmission can be associated with a first priority and the second uplink channel transmission can be associated with a second priority different than the first priority. The second uplink channel transmission can be cancelled before a symbol associated with the overlap between the first uplink channel transmission and the second uplink channel transmission.

Abstract: A RACH configuration including a MsgA PUSCH configuration can be received. An association between a PRACH preamble of a plurality of PRACH preambles and a PUSCH of a plurality of PUSCHs can be determined. A first PRACH preamble can be randomly selected from the plurality of PRACH preambles. The first PRACH preamble and a PUSCH associated with the first PRACH preamble can be transmitted. The PUSCH can be transmitted according to the MsgA PUSCH configuration. A PDSCH can be received in response to transmission of the first PRACH preamble and the PUSCH. A MAC PDU of the PDSCH can include a plurality of RARs of a plurality of different RAR formats. Each of the plurality of RARs can correspond to a MAC-subPDU of the MAC PDU.

Abstract: A number of repetitions equal to a first number and a number of spatial relations equal to a second number can be determined (210) to transmit an uplink channel with a plurality of uplink channel repetitions and with a plurality of spatial relations. A total number of the plurality of uplink channel repetitions can be the first number of repetitions and a total number of the plurality of spatial relations can be the second number of spatial relations. The plurality of spatial relations for transmission of the plurality of uplink channel repetitions can be determined (220) based on a plurality of quasi-co-location assumptions associated with downlink reception. The plurality of uplink channel repetitions can be transmitted (230) based on the determined plurality of spatial relations.

Abstract: Apparatuses, methods, and systems are disclosed for communicating based on an SSB burst configuration. One method includes receiving a plurality of synchronization signal/physical broadcast channel block (“SSB”) burst configurations of a cell. Each SSB burst configuration of the plurality of SSB burst configurations comprises information indicating SSB positions in an SSB burst. The method includes communicating with a network node of the cell based on a default SSB burst configuration. The default SSB burst configuration is selected from the plurality of SSB burst configurations.

Abstract: Apparatuses, methods, and systems are disclosed for reporting power headroom for a serving cell configured with multiple uplink carriers. One apparatus includes a processor and a transceiver that receives a configuration of a first uplink carrier and a second uplink carrier for a serving cell. The processor determines the basis of a first power headroom for the first uplink carrier and determines the basis of a second power headroom for the second uplink carrier. The processor reports a power headroom report (“PHR”) for the serving cell, the PHR comprising the first power headroom based on an actual first transmission on the first uplink carrier of the serving cell in response to the basis of the first power headroom being the actual first transmission and the basis of the second power headroom being a reference second transmission.

Abstract: A configuration of a set of subslots within a slot can be received, each of one or more subslots of the set of subslots can have a time interval within the slot. An indication of a first PUCCH resource for transmitting HARQ-ACK information during the slot can be received, the first PUCCH resource overlapping in time with at least one uplink channel resource scheduled for transmission during the slot, the indication indicating that transmission of the HARQ-ACK information ends within a subslot of the set of subslots, and a last symbol of the first PUCCH resource being within the subslot. The HARQ-ACK information can be multiplexed on a second PUCCH resource, the second PUCCH resource being in the subslot of the set of subslots within the slot.

Abstract: A command can be received (910) from a network entity. The command can initiate a random access procedure and can include information of a type of random access procedure. The type of random access procedure can be selected from a 2-step random access procedure and a 4-step random access procedure. A MsgA transmission can be transmitted (920) in response to receiving the command when the type of random access procedure is the 2-step random access procedure.

Abstract: Apparatuses, methods, and systems are disclosed for uplink power control. One method includes receiving uplink power control parameters. The method includes determining a first transmit power for the first uplink transmission based on a corresponding first set of uplink power control parameters. The method includes determining a second transmit power for the second uplink transmission based on a corresponding second set of uplink power control parameters. The method includes performing the first uplink transmission using a first uplink transmission beam pattern or a first spatial domain transmission filter based on the first transmit power. The method includes performing the second uplink transmission using a second uplink transmission beam pattern or a second spatial domain transmission filter based on the second transmit power.