Patent classifications
H04W36/06
Enhancement for bandwidth part (BWP) operation towards secondary cell (SCELL) dormancy indication
A method for enhancing Bandwidth Part (BWP) operation towards Secondary Cell (SCell) dormancy indication is proposed. A User Equipment (UE) detects a Downlink Control Information (DCI) format including an SCell dormancy indication that indicates an active BWP change for a serving cell. The UE performs BWP switching for the serving cell in response to the DCI format. The UE stops transmission or reception in the serving cell during a time duration from a slot containing a last symbol of the DCI format, wherein the time duration includes a first period of time of delay for the BWP switching and a second period of time of interruption to other active serving cells.
Enhancement for bandwidth part (BWP) operation towards secondary cell (SCELL) dormancy indication
A method for enhancing Bandwidth Part (BWP) operation towards Secondary Cell (SCell) dormancy indication is proposed. A User Equipment (UE) detects a Downlink Control Information (DCI) format including an SCell dormancy indication that indicates an active BWP change for a serving cell. The UE performs BWP switching for the serving cell in response to the DCI format. The UE stops transmission or reception in the serving cell during a time duration from a slot containing a last symbol of the DCI format, wherein the time duration includes a first period of time of delay for the BWP switching and a second period of time of interruption to other active serving cells.
METHOD FOR CHANNEL SWITCHING IN WIRELESS MESH NETWORK, AND WIRELESS DEVICE
Disclosed is a method for channel switching in a wireless mesh network. The method comprises: any slave node in a wireless mesh network receiving a channel switching command broadcast by a master node to perform channel switching; the slave node determining whether the channel switching is successful; and if successful, searching for the master node or a mesh network containing the master node for networking; otherwise, exiting the current invalid mesh network, and scanning for a mesh network after the channel switching, and joining the detected mesh network. According to the present application, after channel switching is performed, a mesh network for a slave node is automatically configured, thereby making up for the defect of an existing mesh network protocol not supporting switching between different frequency bands, and realizing automatic re-establishment of a mesh connection after the channel switching is successful.
BANDWIDTH ADJUSTMENT METHOD AND RELATED DEVICE
Embodiments of the present invention disclose a bandwidth adjustment method and a related device, configured to adjust a bandwidth of a first payload subarea included in a transmission frame flexibly. The method of embodiments of this application includes the following steps: First, determine the first payload subarea and a second payload subarea from a payload area of the transmission frame; second, determine that a bandwidth of at least one service does not match a bandwidth of the first payload subarea; finally, adjust the bandwidth of the first payload subarea, where an adjusted bandwidth of the first payload subarea matches the bandwidth of the at least one service.
BANDWIDTH ADJUSTMENT METHOD AND RELATED DEVICE
Embodiments of the present invention disclose a bandwidth adjustment method and a related device, configured to adjust a bandwidth of a first payload subarea included in a transmission frame flexibly. The method of embodiments of this application includes the following steps: First, determine the first payload subarea and a second payload subarea from a payload area of the transmission frame; second, determine that a bandwidth of at least one service does not match a bandwidth of the first payload subarea; finally, adjust the bandwidth of the first payload subarea, where an adjusted bandwidth of the first payload subarea matches the bandwidth of the at least one service.
INTERFERENCE REDUCTION IN HETEROGENOUS TERRESTRIAL/AERIAL NETWORKS
Aspects of the subject disclosure may include, for example, an aerial base station determining operating frequencies of terrestrial base stations, and taking one or more actions to reduce the potential for interference between the aerial base station and the terrestrial base stations. Actions taken by the aerial base station may include changing frequency, changing altitude, changing location, and changing transmit power. Other embodiments are disclosed.
INTERFERENCE REDUCTION IN HETEROGENOUS TERRESTRIAL/AERIAL NETWORKS
Aspects of the subject disclosure may include, for example, an aerial base station determining operating frequencies of terrestrial base stations, and taking one or more actions to reduce the potential for interference between the aerial base station and the terrestrial base stations. Actions taken by the aerial base station may include changing frequency, changing altitude, changing location, and changing transmit power. Other embodiments are disclosed.
Wireless access node fault recovery using integrated access and backhaul
A network controller monitors a wireless access node for a fault. The wireless access node experiences the fault and scans for wireless Integrated Access and Backhaul (IAB) service. The network controller detects the fault and directs a neighbor access node to deliver the wireless IAB service. The neighbor access node delivers the wireless IAB service in response to the network controller. The wireless access node detects the wireless IAB service from the neighbor access node and exchanges fault data with the network controller using the wireless IAB service delivered by the neighbor access node. The network controller exchanges the fault data with the wireless access node using the wireless IAB service delivered by the neighbor access node. An Access and Mobility Management Function (AMF) or a User Plane Function (UPF) may detect a lack of signaling or data from the wireless access node to detect the fault.
Wireless access node fault recovery using integrated access and backhaul
A network controller monitors a wireless access node for a fault. The wireless access node experiences the fault and scans for wireless Integrated Access and Backhaul (IAB) service. The network controller detects the fault and directs a neighbor access node to deliver the wireless IAB service. The neighbor access node delivers the wireless IAB service in response to the network controller. The wireless access node detects the wireless IAB service from the neighbor access node and exchanges fault data with the network controller using the wireless IAB service delivered by the neighbor access node. The network controller exchanges the fault data with the wireless access node using the wireless IAB service delivered by the neighbor access node. An Access and Mobility Management Function (AMF) or a User Plane Function (UPF) may detect a lack of signaling or data from the wireless access node to detect the fault.
Methods, systems, and devices for detecting a neighboring base station to perform a handover for an unmanned aerial vehicle in a mobile network
Aspects of the subject disclosure may include, for example, receiving a notification from a serving base station regarding a communication device over a mobile network indicating discovery of a target base station, and obtaining a device type of the communication device and a first cell identifier of the target base station. Further embodiments include providing instructions to the serving base station to request the communication device to obtain a second cell identifier of the target base station, and obtaining the second cell identifier of the target base station from the serving base station over the mobile network. Additional embodiments include providing instructions to the serving base station to generate a communication link between the serving base station and the target base station based on the second cell identifier. Other embodiments are disclosed.