Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive a first downlink control information (DCI) communication for scheduling a first physical downlink shared channel (PDSCH). The first PDSCH may be associated with at least a first transmit receive point (TRP). The UE may receive a second DCI communication for scheduling a second PDSCH. The second PDSCH may be associated with a second TRP and at least one of the first TRP or a third TRP. The UE may receive downlink communications based at least in part on the first DCI communication and the second DCI communication. Numerous other aspects are provided.

Abstract: Certain aspects of the present disclosure provide techniques for adapting cross-slot scheduling based on carrier groups. For example, certain aspects provide techniques for receiving a time-domain configuration comprising one or more offset values of time-domain resources relative to reception of physical downlink control channel (PDCCH), determining which at least one offset value of the one or more offset values are greater than or equal to a minimum offset value of the corresponding carrier, and for each carrier of the group of carriers, one or more of transmitting over a physical uplink shared channel (PUSCH) or monitoring a physical downlink shared channel (PDSCH).

Abstract: A method for transmitting a discovery burst according to an exemplary embodiment of the present disclosure may comprise performing first channel-sensing with respect to a shared band to transmit the discovery burst through first window of discovery pattern first duration including the first window to N-th window; in case that the shared band is determined to be not-occupied based on the first channel-sensing, transmitting the discovery burst through the first window of the discovery pattern first duration; performing second channel-sensing with respect to the shared band to transmit the discovery burst through second window of discovery pattern second duration including first window to N-th window; and in case that the shared band is determined to be not-occupied based on the second channel-sensing, transmitting the discovery burst through the second window of the discovery pattern second duration.

Abstract: Examples herein disclose via use of a physical processor, detecting a specific application programming interface (API) call to interact with an application running on a production server. Based on the detection of the specific API call, die examples assist, using the physical processor, a scanning session based on the specific API call Using the physical processor, the examples identify a modification to the application based on the scanning session.

Abstract: A method of radio link monitoring (RLM) can include performing a physical sidelink shared channel (PSSCH) transmission over a radio link between a Tx UE and a Rx UE in sidelink communications, receiving a HARQ feedback status corresponding to the PSSCH transmission from a physical layer, incrementing a count of a number of consecutive HARQ failure indications (e.g., represented by HARQ DTX) received for PSSCH transmissions over the radio link between the Tx UE and the Rx UE by 1 when the received HARQ feedback status is a HARQ failure indication, declaring a radio link failure (RLF) for the radio link between the Tx UE and the Rx UE when the count of the number of consecutive HARQ failure indications reaches a threshold, and resetting the count of the number of consecutive HARQ failure indications to 0 when the received HARQ feedback status is not a HARQ failure indication.

Abstract: A wireless device receives one or more messages. The one or more messages comprise configuration parameters of the cell. The configuration parameters indicate a first reference signal set for a first type of beam switching. The configuration parameters indicate a second reference signal set for a second type of beam switching. A beam switching type indication is transmitted. The beam switching type indication indicates one of the first type of beam switching or the second type of beam switching. A command confirming the beam switching type indication is received. One of the first reference signal set and the second reference signal set is selected as a selected reference signal set based on the command. A spatial domain transmission filter is determined based on at least one reference signal of the selected reference signal set. An uplink transport block is transmitted based on the spatial domain transmission filter.

Abstract: Examples herein describe systems and methods for Physical Uplink Control Channel (PUCCH) reallocation. Interference can be detected on a Physical Resource Block (PRB) corresponding to a time-frequency unit of a resource allocated to PUCCH by a base station. The impact the interference has on a subscriber service can be quantified. The quantified services impact can be compared to a threshold. Upon determining that the service impact exceeds the threshold, PRBs of other resources on the base station can be analyzed. The analysis can predict how reallocating the other resources to PUCCH can improve the quality of the subscriber service. One of the other resources can be selected, and instructions can be provided to reallocate the selected resource to PUCCH.

Abstract: Methods and apparatuses for MDT measurement are provided. In one aspect, a method for MDT measurement includes: obtaining MDT measurement configuration information for one or more preset types of network devices, the MDT measurement configuration information including at least a signal strength threshold for the preset type of network device; sending the MDT measurement configuration information to user equipment (UE), such that the UE performs MDT measurement upon detecting that signal strength of the preset type of network device exceeds the signal strength threshold; receiving information on the MDT measurement of the preset type of network device from the UE.

Abstract: A user equipment including: a selection unit that selects, based on a result of sensing performed in a first time window and on a transmission interval of a signal, one or more resource candidates in a second time window after the first time window; and a transmission unit that selects a resource for transmitting a signal from the selected one or more resource candidates, and transmits the signal.

Abstract: A relay device includes a receiving unit that receives image data from an image processing apparatus and a control unit that controls an update unit that updates log-in information to be generated in a cloud service device in a case where the received image data is transferred to the cloud service device, and the log-in information for the cloud service device is held.

Abstract: A method for transmitting feedback information, a terminal device, and a network device are provided. The method includes: a terminal device determines a target feedback mode used for transmitting feedback information, wherein the feedback information is feedback information for a transport block (TB) sent by a network device and received by the terminal device; and the terminal device uses the target feedback mode to transmit the feedback information.

Abstract: A method for replying with an acknowledgement frame includes: calculating, by an access point (AP), sending duration of a physical layer service data unit (PSDU) in a to-be-sent downlink physical layer protocol data unit (downlink PPDU) based on a format and a sending rate that are of the downlink PPDU and based on only that a length of each block acknowledgement bitmap field in a block acknowledgement frame in the downlink PPDU is a maximum quantity of bytes that is of each respective block acknowledgement bitmap field of the plurality of stations (STAs), to generate an legacy signal field of a second preamble; and generating, by the AP, the block acknowledgement frame, where each STA information subfield in a block acknowledgement information field of the block acknowledgement frame includes an association identifier traffic identifier field, a block acknowledgement starting sequence control field, and a block acknowledgement bitmap field.

Abstract: A flat data center network includes a plurality of switches each including a first plurality of server facing ports connected to a first set of servers, and a plurality of network facing ports connected to other switches of the plurality of switches, wherein the plurality of switches are interconnected via corresponding network facing ports in a semi-structured random network architecture that enables additional servers to be added to the flat data center network during operation while maintaining random interconnect.

Abstract: This application provides an NR uplink codebook configuration method and a related device. The method may include: receiving, by a network device, reference transmission unit configuration information reported by a terminal, where the reference transmission unit configuration information includes: a quantity N of transmission units of the terminal, a quantity M of groups into which the N transmission units are divided, and a quantity of transmission units included in each group; determining transmission port configuration information of the terminal based on the reference transmission unit configuration information; receiving reference codebook configuration information reported by the terminal; determining a codebook type of the terminal based on the reference codebook configuration information; and sending the transmission port configuration information and the codebook type to the terminal.

Abstract: A service fault locating method and apparatus for precisely locating a network fault problem in a multi-layer OAM architecture network. The method includes: receiving a service fault locating request message; determining, an IPS, and an IPD, that a service fault is between a first layer-3 device and a second layer-3 device; obtaining a first network topology between the first layer-3 device and the second layer-3 device; determining a first forwarding path of the service packet between the first layer-3 device and the second layer-3 device according to the first network topology; configuring a forwarding entry of a forwarding device in the first forwarding path, and triggering the first layer-3 device to generate an extended layer-2 OAM packet; and obtaining a first path parameter of the first forwarding path, and determining a specific location of the service fault according to the first path parameter.

Abstract: Techniques for generating a network topology are provided. For example, a method comprises: sending, at an edge node of a network, first exploration data to a first node of the network. The method also comprises receiving from the first node first feedback information for the first exploration data. The first feedback information includes identity information of the first node and first associated node list information, and the first associated node list information includes identity information of nodes associated with the first node in the network. In addition, the method comprises: determining latency between the first node and the second node based on the first latency information and the second latency information. Then, the method further comprises updating the network topology based on the latency between the first node and the second node. Through the method, the present disclosure can provide accurate data support for path optimization.

Abstract: The described technology is generally directed towards using demodulation reference signal (DMRS)-based channel state information (CSI) reporting in a wireless communications network with multiple transmit-receive points (TRPs). A user equipment computes joint CSI based on received DMRS data, e.g., received with downlink data traffic from two TRPs, such as co-located or backhaul connected TRPs. The DMRS-based joint CSI is reported to the multiple TRPs for use in scheduling subsequent data traffic, which can increase data throughput, and can reduce the frequency of CSI-RS reporting, increasing overall efficiency. The network can activate and deactivate DMRS-based CSI reporting.

Abstract: In an aspect, the present disclosure includes a method, apparatus, and computer readable medium for wireless communications for transmitting, by a network entity to a user equipment (UE), a first sidelink control message (CCH-1), wherein the CCH-1 includes at least control information that indicates a resource allocation of data and decoding information for decoding a second sidelink control message (CCH-2); transmitting, by the network entity to the UE, the CCH-2, wherein the CCH-2 includes one or more of control information for decoding data and one or more channel state information (CSI) reports; and transmitting, by the network entity to the UE, the data based on the CCH-1 and CCH-2.

Abstract: An information handling system operating a mesh network link aggregation optimization system may comprise a plurality of mesh access points, and one or more client devices connected via a plurality of wireless links forming a mesh wireless network. A processor may execute code instructions to generate a congestion score for each of the links based on measured traffic and quality of service of each of the links, determine the congestion score for a congested link does not meet a preset congestion threshold value, determine a location within the mesh wireless network in which to aggregate links between two mesh access points, based on availability of one or more radios, and transmit an instruction to one of the plurality of mesh access points to aggregate two or more links at the network layer at the determined location for simultaneous transmission on a single band.

Abstract: The disclosure provides a method and a device in a node for wireless communication. A first node transmits a target radio signal, and transmits a first signaling and a first radio signal; the target radio signal includes Q index group(s), the Q index group(s) comprises(comprise) Q first-type index(es) respectively, and each of the Q index group(s) includes at least one second-type index associated with a corresponding first-type index; the first signaling schedules the first radio signal, the first signaling includes one second-type index, a first-type index included in a first index group is used for generating the first radio signal, and the first index group is one of the Q index group(s) that includes a same second-type index as the first signaling. By designing the Q index group(s) and the first index group.