In general, various aspects of the techniques described in this disclosure provide a sequence number checksum for link state protocols. In one example, the disclosure describes an apparatus, such as a network device, having a control unit operative to obtain link state information describing links between pairs of the network devices in a network topology, the link state information being fragmented into a plurality of link state protocol (LSP) fragments; compute a sequence number checksum from sequence numbers of the link state protocol (LSP) fragments; receive an LSP data unit from another network device in the network; determine whether a sequence number checksum in the LSP data unit matches a sequence number checksum computed from the link state information; and configure a delay for processing the LSP data unit in response to determining a mismatch between the sequence number checksum of the LSP data unit and the sequence number checksum computed from the link state information.

A method and apparatus for flushing a hybrid automatic repeat request (HARQ) buffer in a wireless communication system is provided. A user equipment (UE) receives information on multiple resource pools from a network, selects a first resource pool among the multiple resource pools, and stores a media access control (MAC) protocol data unit (PDU) in the HARQ buffer for transmission via the first resource pool. When the UE reselects a second resource pool among the multiple resource pools, the UE flushes the HARQ buffer.

A method and apparatus for flushing a hybrid automatic repeat request (HARQ) buffer in a wireless communication system is provided. A user equipment (UE) receives information on multiple resource pools from a network, selects a first resource pool among the multiple resource pools, and stores a media access control (MAC) protocol data unit (PDU) in the HARQ buffer for transmission via the first resource pool. When the UE reselects a second resource pool among the multiple resource pools, the UE flushes the HARQ buffer.

A communication apparatus communicates an Extremely High Throughput (EHT) Multi-User (MU) Physical Layer Protocol Data Unit (PPDU) including an Extremely High Throughput-Signal-B (EHT-SIG-B) including a resource unit (RU) allocation subfield including N×8 bits, where N=8 holds in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth.

A communication apparatus communicates an Extremely High Throughput (EHT) Multi-User (MU) Physical Layer Protocol Data Unit (PPDU) including an Extremely High Throughput-Signal-B (EHT-SIG-B) including a resource unit (RU) allocation subfield including N×8 bits, where N=8 holds in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth.

A user equipment (UE) that performs unicast sidelink communication with the second UE and methods therefor are disclosed. A method of a first UE that performs direct sidelink communication with a second UE includes the steps of: receiving a first indication comprising sidelink signalling; in response to receiving the first indication, performing at least one of: updating a configuration for performing a transmission/reception procedure of the first UE in order to update a key based on the updated configuration for performing a transmission/reception procedure; suspending at least one data transmission/reception procedure; and resuming at least one data transmission/reception procedure.

A user equipment (UE) that performs unicast sidelink communication with the second UE and methods therefor are disclosed. A method of a first UE that performs direct sidelink communication with a second UE includes the steps of: receiving a first indication comprising sidelink signalling; in response to receiving the first indication, performing at least one of: updating a configuration for performing a transmission/reception procedure of the first UE in order to update a key based on the updated configuration for performing a transmission/reception procedure; suspending at least one data transmission/reception procedure; and resuming at least one data transmission/reception procedure.

A PDCP status report can be transmitted with reduced radio resources by transmitting the reception success or failure of a series of PDCP service data units (SDUs) in the form of a bitmap when configuring the PDCP status report. A PDCP control packet data unit (PDU) is generated to communicate a status report to a transmitting node for one or more PDCP SDUs transmitted from the transmitting node. The PDCP control PDU includes a data/control (D/C) bit field to indicate the PDCP control PDU is a control PDU, a control PDU type field to indicate a type of corresponding control information, a sequence number field to indicate a first missing PDCP SDU, and a bitmap field for a variable length bitmap. A bit in the variable length bitmap indicates whether a corresponding one of the one or more PDCP SDUs has been successfully been received.

A random access response method, a random access response device, a base station and UE are provided. The method includes: transmitting a random access response message to UE, where a medium access control protocol data unit (MAC PDU) of the random access response message includes at least one medium access control sub-protocol data unit (MAC subPDU), each MAC subPDU includes an MAC subheader and possibly a medium access control random access response (MAC RAR) corresponding to the MAC subheader; in case that there are at least two MAC subPDUs, the at least two MAC subPDUs are sequentially arranged in the MAC PDU.

A random access response method, a random access response device, a base station and UE are provided. The method includes: transmitting a random access response message to UE, where a medium access control protocol data unit (MAC PDU) of the random access response message includes at least one medium access control sub-protocol data unit (MAC subPDU), each MAC subPDU includes an MAC subheader and possibly a medium access control random access response (MAC RAR) corresponding to the MAC subheader; in case that there are at least two MAC subPDUs, the at least two MAC subPDUs are sequentially arranged in the MAC PDU.