Managing connections to be established between clients and access points for the purposes of accessing wireless services is contemplated. The connections may be managed according to a predictive load balancing strategy where connections may be established and adjusted in anticipation of predicted client demands, such as to achieve an optimized throughput.

A method of establishing one or more links for an integrated access and backhaul for a network, where the network includes a non-terrestrial node and a terrestrial node, includes determining a plurality of links to form between a non-terrestrial node and a number of nodes in the network and causing the plurality of links to be formed. The method also includes determining a plurality of routing paths for backhaul between the non-terrestrial node to a central server, providing instructions for backhaul between the non-terrestrial node and the central server using the plurality of routing paths, and transmitting a first set of data to backhaul via a first routing path of the plurality of routing paths and a second set of data to backhaul via a second routing path of the plurality of routing paths.

The present application discloses an information processing method and device in a baseband processing split architecture, and a computer storage medium. The method includes: receiving, by a distributed unit (DU), load information of a plurality of central units (CUs), and determining, by the DU and according to the load information of the plurality of CUs, a first CU having a load greater than a target threshold value and a second CU having a load less than the target threshold value among the plurality of CUs; and, sending, by the DU, control signaling to the first CU and the second CU respectively to instruct to migrate cell data of the first CU from the first CU to the second CU to balance the load among the plurality of CUs.

Aspects of the present disclosure relate to monitoring a set of operational conditions to establish a dynamic prioritization of a plurality of RATs. Data rates of the plurality of RATs are managed based in part upon the dynamic prioritization. In some designs, the dynamic prioritization is used to determine a data rate tolerance of each of the plurality of RATs, after which a RAT-specific data rate target for each of the plurality of RATs is determined based at least in part on the determined data rate tolerances and a monitored set of operational conditions, whereby the data rates of the plurality of RATs are managed based on the RAT-specific data rate targets. In some designs, the monitored operational conditions relate to a processing system of a vehicle, or an interior or exterior environment of the vehicle.

Managing wireless access points and/or other devices providing wireless signaling to multiple clients is contemplated. The wireless access point may be managed according to a load balancing strategy directed towards achieving desired network throughput using forced disassociation of clients based on traffic type or other service related indicators and/or force disassociation of roaming partners based on neighboring access point capabilities.

A method of sharing of network resources between at least two access gateways, each of the at least two access gateways providing network connectivity to user equipment, includes assessing whether a first access gateway can to share a portion of available network resources, assessing whether a second access gateway requires additional network resources to provide network connectivity to user equipment, and establishing a wireless connection between the first access gateway and the second access gateway. The first access gateway provides the portion of available network resource as additional network resources for the second access gateway. The method also includes collecting information regarding operation of the two access gateways, processing information for identifying assessment rules regarding availability of network resources, exploiting the assessment rules for determining availability of network resources, and providing available network resources from the first access gateway to the second access gateway according to the availability of network resources.

A backhaul bandwidth management method for a wireless network is provided. Firstly, a backhaul connection mode is adjusted by a network device in a backhaul network according to a wireless capability. Then, a backhaul guaranteed bandwidth is guaranteed by the network device according to at least one of a dedicated service set identifier (SSID), a dedicated radio frequency (RF) band and a dedicated wireless mode. Then, a bandwidth allocation algorithm is executed by the network device to ensure that at least one backhaul transmission connection has the backhaul guaranteed bandwidth. Finally, a backhaul SSID is set to a first wireless network standard only mode by the network device to ensure that data transmission will not be interfered with by other network devices transmitting data according to a second wireless network standard in the backhaul network.

The following allows complex control instruction chains to be performed in an (automation) network, in which nodes and/or device nodes and/or blockchain-external devices are networked to one another, in a simple manner even if different operators of the individual nodes and devices do not trust one another.

The present disclosure is directed to methods and systems for adjusting network speed to a gateway. The network speed adjustment system can include a gateway with the ability to manage a consumer-initiated temporary increase in network speed or network bandwidth. The network speed adjustment system can determine whether the provisioning system can support a network speed increase to the gateway. The provisioning system can measure the capacity of the network at the gateway location and determine whether the system can support providing the gateway with an increased network speed or increased bandwidth. When additional bandwidth capacity or network speed is available for a gateway location, a user can request the network increase by submitting a token via the gateway. The gateway can communicate with the provisioning system to increase the network speed according to the characteristics of the token.

Various example embodiments for supporting quasi-stateful load balancing in communication networks are presented herein. Various example embodiments for supporting quasi-stateful load balancing in communication networks may be configured to reduce or minimize the amount of state information that needs to be maintained by a node for supporting load balancing across outgoing links of the node by reducing or minimizing the number of link pinning state entries that need to be maintained by a node for supporting load balancing across outgoing links of the node. Various example embodiments for supporting quasi-stateful load balancing in communication networks may be configured to reduce or minimize the number of link pinning state entries by deactivating those link pinning state entries associated with flows that remain default mapped to outgoing links and retaining only those link pinning state entries associated with flows that are remapped between outgoing links.