Abstract: The described technology is generally directed towards adaptive spectrum as a service, in which spectrum can be dynamically allocated to adapt to demand for wireless capacity. The demand for wireless capacity can be based on monitoring system state, and/or proactively predicted based on other system state such as time of day. Reallocated spectrum can be monitored for performance, to converge spectrum allocation to a more optimal state. Allocated spectrum can be relocated, increased or decreased, including by the use of citizens band radio service spectrum or other spectrum. Currently allocated spectrum can be adapted into modified allocated spectrum by an application program (xApp) coupled to a radio access network intelligent controller (RIC), a citizens broadband radio service device, a domain proxy service, and/or a user device. A user device can determine and request bandwidth, with spectrum allocated in response.

Abstract: A client-initiated low-latency network edge spectrum-as-a-service controller is described herein. A method as described herein can include transmitting, by a system comprising a processor to a first spectrum access system, a request for first access rights to a first spectrum band, wherein the first spectrum band is wholly contained within a second spectrum band for which the first spectrum access system is granted second access rights from a second spectrum access system, distinct from the first spectrum access system; obtaining, by the system, the first access rights to the first spectrum band from the first spectrum access system in response to the request; and, in response to obtaining the first access rights, initiating, by the system via the first spectrum band, a point-to-point communication link between the system and a user equipment.

Abstract: An information handling system of a management and orchestration module (MANO) may comprise a processor configured to determine user equipment device (UE) connectivity requirements for multiple UEs managed by the MANO, including a first UE transceiving via a first secure wireless link and a Wireless Local Area Network (WLAN) antenna with a non-cellular Access Point (AP), determine enterprise profile requirements for the UEs and detected network conditions of radio access networks (RANs) and cores of an enterprise mobile network, generate an optimal wireless link distribution across UEs that prioritizes access for the first UE to links with RANs, and determine a wireless link configuration adjustment for the first UE instructing termination of the first secure wireless link and establishment of a second secure wireless link with a RAN, according to the optimal wireless link distribution. A network interface device may transmit the wireless link configuration adjustment to the first UE.

Abstract: The described technology is generally directed towards adaptive spectrum as a service, in which spectrum can be dynamically allocated to adapt to demand for wireless capacity. The demand for wireless capacity can be based on monitoring system state, and/or proactively predicted based on other system state such as time of day. Reallocated spectrum can be monitored for performance, to converge spectrum allocation to a more optimal state. Allocated spectrum can be relocated, increased or decreased, including by the use of citizens band radio service spectrum or other spectrum. Currently allocated spectrum can be adapted into modified allocated spectrum by an application program (xApp) coupled to a radio access network intelligent controller (RIC), a citizens broadband radio service device, a domain proxy service, and/or a user device.

Abstract: A low-latency network edge spectrum-as-a-service controller is described herein. A method as described herein can include acquiring, by a system comprising a processor from a spectrum access system, first access rights to a first spectrum band; determining, by the system, availability of a second spectrum band, wholly contained within the first spectrum band, in response to a request, received from network equipment of a radio access network, for second access rights to the second spectrum band; and, in response to the second spectrum band being determined to be available, granting, by the system, the second access rights to the second spectrum band to the network equipment.

Abstract: A method of adaptively adjusting infrastructure of an enterprise mobile network may comprise inputting into a neural network performance metrics and performance requirements describing a performance gap between processing capabilities and requirements at an enterprise mobile network comprising a Multi-Access Edge Computing platform, Radio Access Networks, cellular network cores, and non-cellular access points, connectivity metrics and requirements describing a connectivity gap between measured and required minimum Quality of Service values for wireless links between a pool of user equipment devices (UEs), and the enterprise mobile network, outputting an adjusted infrastructure component configuration and an adjusted internetwork connectivity configuration predicted to minimize the performance gap and the connectivity gap, adjusting a distribution of computing resources across the enterprise mobile network, according to the adjusted infrastructure component configuration, and adjusting a distribution of commun

Abstract: Aspects of the subject disclosure may include, for example, authenticating a user device based on communication over a data plane of a network, generating a decryption key, transmitting the decryption key to the user device, and transmitting encrypted content to the user device. The encrypted content may be accessible at the user device via the encryption key, potentially as a function of location and/or time. Other embodiments are disclosed.

Abstract: Location-aware software defined antenna management is described herein. A method as described herein can include generating, by a system comprising a processor, positioning data associated with movement of a vehicle, associated with the system, through an environment; obtaining, by the system from network equipment of a communication network operating in the environment, network data associated with the communication network; and altering, by the system, a configuration of antennas, associated with the vehicle, from a first configuration to a second configuration, distinct from the first configuration, based on the positioning data and the network data.

Abstract: Disclosed are various embodiments for intelligently selecting private radio-based networks or communication service provider (CSP)-operated radio-based networks. In one embodiment, it is determined that a particular application executed in a user equipment (UE) device requests to send data via a wireless network connection. It is determined to switch the wireless network connection in the UE device from a CSP-operated radio-based network to a private radio-based network based at least in part on the particular application or the data to be sent by the particular application. The wireless network connection is switched from the CSP-operated radio-based network to the private radio-based network. The data is sent via the wireless network connection using the private radio-based network.

Abstract: Disclosed are various embodiments for integrating communication service provider (CSP)-operated radio-based networks with existing private networks. In one embodiment, one or more parameters for provisioning a private radio-based network for an organization are received via an interface. Network information regarding an existing network of the organization is received via the interface. A configuration for a network element in the existing network is generated in order to interconnect the private radio-based network with the existing network.

Abstract: Disclosed are various embodiments for mobility between radio-based networks operated by communication service providers and private radio-based networks. In one embodiment, first data is sent or received via a private radio-based network using a wireless network connection in a user equipment (UE) device. It is determined to switch the wireless network connection in the UE device from the private radio-based network to a communication service provider (CSP)-operated radio-based network. The private radio-based network and the CSP-operated radio-based network utilize a cellular network standard. The wireless network connection switches from the private radio-based network to the CSP-operated radio-based network. Second data is sent or received via the CSP-operated radio-based network using the wireless network connection in the UE device.

Abstract: Disclosed are various embodiments for managing simultaneous use of private wireless local area networks (WLANs) and cellular radio-based networks. In one embodiment, a user equipment (UE) device authenticates for access to a cellular radio-based network using a profile in an electronic subscriber identity module (eSIM). The UE device determines to transfer data via a WLAN rather than the cellular radio-based network. The UE device requests an access credential for the WLAN from the cellular radio-based network. The UE device uses the access credential to connect to the WLAN to transfer the data.

Abstract: A cooperative intelligent traffic system is provided for use between bicycles, motorcycles, and other vehicles. Sensor data from mobile devices and other sensor devices associated with the vehicle can be sent to an edge network computing device (e.g., a multi-access edge computing device) and be processed at the edge network to identify threats and hazards, and then transmit the threat assessment data to other bicycles, motorcycles, and vehicles nearby. The threat assessment data can be used by the operators of the other vehicles to warn them of upcoming threats, hazards, road conditions, and other pertinent conditions.

Abstract: Aspects of the subject disclosure may include, for example, computing a first location of a processing system, receiving first data via a unicast transport technology at a first rate, computing a first corrected location of the processing system in accordance with the first location and the first data, receiving second data via a broadcast transport technology, a multicast transport technology, or a combination thereof, at a second rate that is less than the first rate, and computing a second corrected location of the processing system in accordance with the second data. Other embodiments are disclosed.

Abstract: An information handling system executing an on-demand network slice overlay optimization system includes a processor executing the on-demand network slice overlay optimization system to receive wireless network load profile metrics from a regional edge device and the endpoint load profile metrics; receive core metrics from a radio access network (RAN) service provider descriptive of the load capacity of a core network to provide data throughput at a given time; determine whether the real-time data load demand of the grouped plurality of endpoint devices can be provisioned to the load capacity described in the core metrics; and provide instructions to dynamically adjust network slices at the regional edge device to provide for any changes in the real-time data load demand based on an elastic client business policy enforced at the regional edge device for wireless connectivity data for the grouped plurality of endpoint devices.

Abstract: The described technology is generally directed towards adaptive spectrum as a service, in which spectrum can be dynamically allocated to adapt to demand for wireless capacity. The demand for wireless capacity can be based on monitoring system state, and/or proactively predicted based on other system state such as time of day. Reallocated spectrum can be monitored for performance, to converge spectrum allocation to a more optimal state. Allocated spectrum can be relocated, increased or decreased, including by the use of citizens band radio service spectrum or other spectrum. Currently allocated spectrum can be adapted into modified allocated spectrum by an application program (xApp) coupled to a radio access network intelligent controller (RIC), a citizens broadband radio service device, a domain proxy service, and/or a user device. A user device can determine and request bandwidth, with spectrum allocated in response.

Abstract: Aspects of the subject disclosure may include, for example, computing a first location of a processing system, receiving first data via a unicast transport technology at a first rate, computing a first corrected location of the processing system in accordance with the first location and the first data, receiving second data via a broadcast transport technology, a multicast transport technology, or a combination thereof, at a second rate that is less than the first rate, and computing a second corrected location of the processing system in accordance with the second data. Other embodiments are disclosed.

Abstract: The described technology is generally directed towards adaptive spectrum as a service, in which spectrum can be dynamically allocated to adapt to demand for wireless capacity. The demand for wireless capacity can be based on monitoring system state, and/or proactively predicted based on other system state such as time of day. Reallocated spectrum can be monitored for performance, to converge spectrum allocation to a more optimal state. Allocated spectrum can be relocated, increased or decreased, including by the use of citizens band radio service spectrum or other spectrum. Currently allocated spectrum can be adapted into modified allocated spectrum by an application program (xApp) coupled to a radio access network intelligent controller (RIC), a citizens broadband radio service device, a domain proxy service, and/or a user device.

Abstract: The described technology is generally directed towards adaptive spectrum as a service, in which spectrum can be dynamically allocated to adapt to demand for wireless capacity. The demand for wireless capacity can be based on monitoring system state, and/or proactively predicted based on other system state such as time of day. Reallocated spectrum can be monitored for performance, to converge spectrum allocation to a more optimal state. Allocated spectrum can be relocated, increased or decreased, including by the use of citizens band radio service spectrum or other spectrum. Currently allocated spectrum can be adapted into modified allocated spectrum by an application program (xApp) coupled to a radio access network intelligent controller (RIC), a citizens broadband radio service device, a domain proxy service, and/or a user device. A user device can determine and request bandwidth, with spectrum allocated in response.

Abstract: A system and method for establishing a bootstrap bridge via a network interface device at an information handling system to provide a transitive bootstrapping process for an untrusted (new) information handling system, wherein the bootstrap bridge comprises a temporary network enabler for communicating with the untrusted (new) information handling system and a secure gateway for communicating with a trusted core network, and wherein the bootstrap bridge receives an authentication request from the untrusted (new) information handling system via the temporary network enabler, wherein the authentication request includes an untrusted (new) information handling system identification (ID) with temporary authentication data loaded to the untrusted (new) information handling system upon manufacture, and the network interface device to transmit a request for challenge for the untrusted (new) information handling system ID to the trusted core network via the secure gateway on behalf of the untrusted (new) information h