In a communication system comprising user equipment (UE) and a radio access network (RAN) comprising a plurality of cells is configured for receiving, by the UE, a radio resource control (RRC) information element (IE) indicating a high speed scenario (HST); and monitoring, by the UE in response to receiving the RRC IE indicating HST, a first number of frequency carriers that is reduced relative to a second number of frequency carriers monitored by the UE during a non-HST.

A method of wireless communication by a user equipment (UE) includes receiving an indication that the UE has been added to a group. The method also includes receiving group common signaling informing the UE of a configuration change. A method of wireless communication by a base station includes defining a group of user equipments (UEs). The method also includes notifying each UE of the group of inclusion into the group of UEs. The method still further includes transmitting, to the group of UEs, group common signaling including a configuration change for the group of UEs.

A method for controlling access to wireless communications includes generating an overlay to a portion of an existing wireless network by controlling radio frequency (RF) equipment to establish a defined geographical volume as the overlay; receiving an indication of wireless devices within the volume, the indication including three-dimensional positions of the wireless devices within the boundary; establishing identities for the wireless devices, the identities selected from the group consisting of allowed, unknown, and restricted; generating a private network encompassing at least a portion of the volume; locking and maintaining locked unknown and restricted wireless devices to the processor; and directing allowed wireless devices to access the private network for wireless communications within the volume.

This application relates to a communications method. The method in this application includes: receiving, by the wireless backhaul device, a message that is sent by a first network device and that is used to indicate the wireless backhaul device to be handed over to a second network device; and sending, by the wireless backhaul device to the second network device in a process in which the wireless backhaul device is handed over to the second network device or in a case in which the wireless backhaul device completes being handed over to the second network device, a message carrying information about a resource of a first link. This application is applicable to a handover procedure of the wireless backhaul device.

A resource allocation method for IoV in a high-density in-vehicle communication environment. Establishing a channel model in the high-density in-vehicle communication environment, establishing allocation matrix A and reuse matrix for resource allocation, and calculating signal-to-noise ratio (SINR) γ.sub.n.sup.v at a receive end of a vehicular user equipment (VUE) and SINR γ.sub.m.sup.c at a receive end of a cellular user equipment (CUE); constructing a resource allocation model with constraints that γ.sub.m.sup.c is less than specified SINR threshold γ.sub.th.sup.c and γ.sub.n.sup.v is less than maximum outage probability threshold p.sub.o and an optimization objective of maximizing the number of VUEs that can successfully communicate in the coverage of the base station; driving and simplifying the constraints in the resource allocation model by using a series theorem; and finally heuristically solving the simplified resource allocation model, determining transmit power of VUEs, and obtaining a resource allocation method.

Provided are a drive testing method and apparatus, a driving test control method and apparatus, a device, and a storage medium. The drive testing method includes: receiving sidelink driving test configuration information sent by a configuration side; performing driving test on an environment where a terminal is located according to the sidelink driving test configuration information, and obtaining sidelink driving test information; and reporting the obtained sidelink drive testing information to the configuration side.

Multiple mobile cellular network (MCN) communication systems can be networked together to form a network of MCN communication systems (NOM). Each MCN communication system within the NOM can operate as an independent cellular network to provide communications between user equipment within a covered area. The MCN can be managed by a network management control center (NMCC). The NMCC can be configured generate coverage maps of the NOM and NMC system coverage areas.

Various applications for use of mass estimations of a vehicle, including to control operation of the vehicle, sharing the mass estimation with other vehicles and/or a Network Operations Center (NOC), organizing vehicles operating in a platoon and/or partially controlling the operation of one or more vehicles operating in a platoon based on the relative mass estimations between the platooning vehicles. When vehicles are operating in a platoon, the relative mass between a lead and a following vehicle may be used to scale torque and/or brake commands generated by the lead vehicle and sent to the following vehicle.

An operation method of a terminal including a first relay and a second relay, in a communication system, may include: measuring, by the first relay, a first received signal quality of a first base station connected to the first relay; measuring, by the second relay, a second received signal quality of a second base station connected to the second relay; transmitting, by the first relay, a first PDU to the first base station based on the first received signal quality and the second received signal quality through a first bearer established in the first relay; and transmitting, by the second relay, a second PDU to the second base station based on the first received signal quality and the second received signal quality through a second bearer established in the second relay.

A swarm communication system. Each of a plurality of transceivers determines a transmission cycle duration, and transmits one packet per transmission cycle, each packet being transmitted at a random point in time within the transmission cycle. The duration of the transmission cycle of a first transceiver may be adjusted according to the number of other transceivers within range of the first transceiver, or according to the number of other transmitters within range of each of the other transmitters that are within range of the first transceiver.