Abstract:
A network device may determine a sequence. The sequence may identify an order in which particular unlicensed bands, of a plurality of unlicensed bands in an unlicensed spectrum, are to be assigned for the transmission of data flows. The network device may provide information identifying the sequence via a licensed band to a user device to cause the user device to transmit or receive the data flows via the particular unlicensed bands identified in the sequence in the order in which the particular unlicensed bands are to be assigned; and transmit or receive, to or from the user device, the data flows via the particular unlicensed and the licensed bands.
Abstract:
A network device may determine a sequence. The sequence may identify an order in which particular unlicensed bands, of a plurality of unlicensed bands in an unlicensed spectrum, are to be assigned for the transmission of data flows. The network device may provide information identifying the sequence via a licensed band to a user device to cause the user device to transmit or receive the data flows via the particular unlicensed bands identified in the sequence in the order in which the particular unlicensed bands are to be assigned; and transmit or receive, to or from the user device, the data flows via the particular unlicensed and the licensed bands.
Abstract:
A radio access network (RAN) may comprise at least one transmission-reception point (TRP) configured to provide wireless connections to one or more User Equipment devices (UEs) in an area. The area is not predefined by a cell boundary. The RAN may be configured to: broadcast Scheduling and Synchronization Relation (SSR) information to a UE; and establish with the UE a transmission mode for the TRP.
Abstract:
Systems and methods allow access stations to save power when no user equipment (UE) devices require service from the access station. The access station may enter a low power-consumption mode (or “sleep mode”) when the access station is inactive. The access station transmits a beacon signal when in the low power-consumption mode to indicate to UE devices in a coverage area of the access station that the access station is in the low power-consumption mode. The access station receives a wake-up signal from a device and, in response, exits the low power-consumption mode.
Abstract:
Examples are provided that enable a cellular network location assist to confirm a position determined using a sensor of a mobile device. As a result of global positioning system signals becoming unavailable due to the mobile device traveling indoors, the mobile device implements a sensor-based position determination that provides a position of the mobile device as the mobile device travels about a location. In order to confirm the reliability of the sensor-based position determination, the mobile device, after passage of time or after traveling some estimated distance, requests location assistance indications from the cellular network. A processor of the mobile device receives the location assistance indications and generates a directional vector based on several of the location assistance indications. Using the directional vector, the processor confirms the reliability of the dead reckoning position.
Abstract:
A user equipment (UE) device may include a processor configured to attempt to connect to a wireless network; detect a base station signal from a terrestrial network (TN) base station; and determine that a connection attempt to the TN base station was not successful. The processor may be further configured to designate the UE device as an interfering UE device, based on detecting the base station signal from the TN base station and determining that the connection attempt to the TN base station was not successful and connect to a non-terrestrial (NTN) base station using a sub-band mode, in response to designating the UE device as an interfering UE device.
Abstract:
A method, a device, and a non-transitory storage medium are described in which a network slice-based admission and congestion control service is provided. The congestion control service monitors for congestion in a network slice. When congestion is detected, the congestion control service may adjust an allotment of a resource of a network device or the resource of the network slice from end-to-end. When neither of these adjustments can be made, the congestion control service may use a network slice-based access control barring.
Abstract:
A base station may include logic configured to determine system throughput values for a plurality of modulation and coding schemes based on data throughput values and based on a number of user equipment (UE) devices serviced by the base station; determine a modulation and coding scheme, of the plurality of coding schemes, that is associated with a highest system throughput; and determine radio frequency (RF) conditions associated with the base station. The logic may further be configured to define a Multimedia Broadcast Multicast Service (MBMS) area based on the determined RF conditions and the selected modulation and coding scheme and provide an update to the UE devices serviced by the base station, wherein UE devices located within the defined MBMS area are sent the update using MBMS and UE devices located outside the defined MBMS area are sent the update using unicast.
Abstract:
A base station may establish a wireless connection with a mobile device. The base station may determine an index value for each of a plurality of carriers that may be used for the wireless connection. The index value for a respective carrier may be determined based on a quantity of idle mode devices using the respective carrier in an idle mode. The base station may generate a carrier order that indicates a priority for each of the plurality of frequencies. The carrier order may be generated based on sorting the plurality of carriers based on the index values for the plurality of carriers. The base station may send order information indicating the carrier order to the mobile device via the wireless connection.
Abstract:
Examples are provided that enable a cellular network location assist to confirm a position determined using a sensor of a mobile device. As a result of global positioning system signals becoming unavailable due to the mobile device traveling indoors, the mobile device implements a sensor-based position determination that provides a position of the mobile device as the mobile device travels about a location. In order to confirm the reliability of the sensor-based position determination, the mobile device, after passage of time or after traveling some estimated distance, requests location assistance indications from the cellular network. A processor of the mobile device receives the location assistance indications and generates a directional vector based on several of the location assistance indications. Using the directional vector, the processor confirms the reliability of the dead reckoning position.