Abstract: Aspects of the subject disclosure may include, for example, a method that includes providing, by a processing system including a processor, a controller function for a user plane function (UPF) of a communication network; the controller function facilitates automated procedures for authentication, deployment, configuration, testing, and/or controlling availability of the UPF, independent of a source of the UPF. The method also includes providing, by the processing system, an interface to facilitate communication between the controller function and the UPF; the controller function uses the interface to facilitate the procedures. Other embodiments are disclosed.

Abstract: Aspects of the subject disclosure may include, for example, a method that includes providing, by a processing system including a processor, a controller function for a user plane function (UPF) of a communication network; the controller function facilitates automated procedures for authentication, deployment, configuration, testing, and/or controlling availability of the UPF, independent of a source of the UPF. The method also includes providing, by the processing system, an interface to facilitate communication between the controller function and the UPF; the controller function uses the interface to facilitate the procedures. Other embodiments are disclosed.

Abstract: Facilitating flexible maximum transmission unit packet core design in a communications network is provided herein. A system can comprise a processor and a memory that stores executable instructions that, when executed by the processor, facilitate performance of operations. The operations can comprise receiving a first transmission unit setting from a first network device. The first transmission unit setting can indicate a size of a largest network layer protocol data unit that is able to be communicated in a single network transaction by the first network device. The operations can also comprise setting, at the device, a configuration of the first network device to the first transmission unit setting. Further, the operations can comprise sending first communication packets to the first network device using the first transmission unit setting and second communication packets to a second network device using a second transmission unit setting different from the first transmission unit setting.

Abstract: A network aware data driven Internet of things (IoT) service engine is presented herein. A method can comprise receiving a policy rule from a network device of respective network devices—the policy rule corresponding to a sensor of a group of sensors that have been configured to transmit information of respective services to the respective network devices using an Internet protocol, and the policy rule defining an action to be performed by the system in response to a behavior of the sensor being determined to satisfy a defined condition specified by the policy rule with respect to a service of the respective services; based on the policy rule, monitoring the behavior of the sensor; and in response to determining that the behavior of the sensor satisfies the defined condition, performing the action on behalf of the network device.

Abstract: A network aware data driven Internet of things (IoT) service engine is presented herein. A method can comprise receiving a policy rule from a network device of respective network devices—the policy rule corresponding to a sensor of a group of sensors that have been configured to transmit information of respective services to the respective network devices using an Internet protocol, and the policy rule defining an action to be performed by the system in response to a behavior of the sensor being determined to satisfy a defined condition specified by the policy rule with respect to a service of the respective services; based on the policy rule, monitoring the behavior of the sensor; and in response to determining that the behavior of the sensor satisfies the defined condition, performing the action on behalf of the network device.

Abstract: Facilitating flexible maximum transmission unit packet core design in a communications network is provided herein. A system can comprise a processor and a memory that stores executable instructions that, when executed by the processor, facilitate performance of operations. The operations can comprise receiving a first transmission unit setting from a first network device. The first transmission unit setting can indicate a size of a largest network layer protocol data unit that is able to be communicated in a single network transaction by the first network device. The operations can also comprise setting, at the device, a configuration of the first network device to the first transmission unit setting. Further, the operations can comprise sending first communication packets to the first network device using the first transmission unit setting and second communication packets to a second network device using a second transmission unit setting different from the first transmission unit setting.

Abstract: Facilitating flexible maximum transmission unit packet core design in a communications network is provided herein. A system can comprise a processor and a memory that stores executable instructions that, when executed by the processor, facilitate performance of operations. The operations can comprise receiving a first transmission unit setting from a first network device. The first transmission unit setting can indicate a size of a largest network layer protocol data unit that is able to be communicated in a single network transaction by the first network device. The operations can also comprise setting, at the device, a configuration of the first network device to the first transmission unit setting. Further, the operations can comprise sending first communication packets to the first network device using the first transmission unit setting and second communication packets to a second network device using a second transmission unit setting different from the first transmission unit setting.

Abstract: Facilitating flexible maximum transmission unit packet core design in a communications network is provided herein. A system can comprise a processor and a memory that stores executable instructions that, when executed by the processor, facilitate performance of operations. The operations can comprise receiving a first transmission unit setting from a first network device. The first transmission unit setting can indicate a size of a largest network layer protocol data unit that is able to be communicated in a single network transaction by the first network device. The operations can also comprise setting, at the device, a configuration of the first network device to the first transmission unit setting. Further, the operations can comprise sending first communication packets to the first network device using the first transmission unit setting and second communication packets to a second network device using a second transmission unit setting different from the first transmission unit setting.

Abstract: Aspects of the subject disclosure may include, for example, receiving, from an application server, a data transfer request associated with delivery of data from the application server to a wireless communication device that is connected to a mobile communication network, determining a priority score for the data transfer request associated with the wireless communication device according to status information in a subscription profile associated with the wireless communication device, comparing the priority score for the data transfer request associated with the wireless communication device to a plurality of priority scores associated with a plurality of data transfer requests associated with deliver of data to a plurality of wireless communication devices that are connected to the mobile communication network to generate a transfer order mapping of a set of requests comprising the data transfer request and the plurality of data transfer requests, and transferring the data from the application server to the

Abstract: Aspects describe using a Policy Access Gateway that can facilitate scalability within a communication network and that can provide a solution to deploy an enhanced policy gateway. The Policy Access Gateway can enhance standard defined Diameter Routing Agent (DRA) functions with session binding mechanisms. Further, the Policy Access Gateway is scalable and can be deployed in a very large network that supports hundreds of millions of users. Further, the Policy Access Gateway can provide additional policy information to enable policy information consolidation and caching capabilities.

Abstract: A network aware data driven Internet of things (IoT) service engine is presented herein. A method can comprise receiving a policy rule from a network device of respective network devices—the policy rule corresponding to a sensor of a group of sensors that have been configured to transmit information of respective services to the respective network devices using an Internet protocol, and the policy rule defining an action to be performed by the system in response to a behavior of the sensor being determined to satisfy a defined condition specified by the policy rule with respect to a service of the respective services; based on the policy rule, monitoring the behavior of the sensor; and in response to determining that the behavior of the sensor satisfies the defined condition, performing the action on behalf of the network device.

Abstract: Aspects of the subject disclosure may include, for example, receiving, from an application server, a data transfer request associated with delivery of data from the application server to a wireless communication device that is connected to a mobile communication network, determining a priority score for the data transfer request associated with the wireless communication device according to status information in a subscription profile associated with the wireless communication device, comparing the priority score for the data transfer request associated with the wireless communication device to a plurality of priority scores associated with a plurality of data transfer requests associated with deliver of data to a plurality of wireless communication devices that are connected to the mobile communication network to generate a transfer order mapping of a set of requests comprising the data transfer request and the plurality of data transfer requests, and transferring the data from the application server to the

Abstract: A new deployment model enables a seamless migration to LTE (long term evolution)/EPC (Evolved packet core). In addition, an intelligent edge gateway (IEG) supports future distributed architecture and a converged network for service providers. Specifically, the model supports existing data services (e.g. UMTS) and the delivery of LTE services does not affect the existing data services. Moreover, a distributed architecture is employed, such that, local traffic is optimally routed at the edge and backhaul is minimized. The system can also provide support for enhanced Femto cell 3GPP access to a home network.

Abstract: Aspects describe using a Policy Access Gateway that can facilitate scalability within a communication network and that can provide a solution to deploy an enhanced policy gateway. The Policy Access Gateway can enhance standard defined Diameter Routing Agent (DRA) functions with session binding mechanisms. Further, the Policy Access Gateway is scalable and can be deployed in a very large network that supports hundreds of millions of users. Further, the Policy Access Gateway can provide additional policy information to enable policy information consolidation and caching capabilities.

Abstract: Aspects describe using a Policy Access Gateway that can facilitate scalability within a communication network and that can provide a solution to deploy an enhanced policy gateway. The Policy Access Gateway can enhance standard defined Diameter Routing Agent (DRA) functions with session binding mechanisms. Further, the Policy Access Gateway is scalable and can be deployed in a very large network that supports hundreds of millions of users. Further, the Policy Access Gateway can provide additional policy information to enable policy information consolidation and caching capabilities.

Abstract: A new deployment model enables a seamless migration to LTE (long term evolution)/EPC (Evolved packet core). In addition, an intelligent edge gateway (IEG) supports future distributed architecture and a converged network for service providers. Specifically, the model supports existing data services (e.g. UMTS) and the delivery of LTE services does not affect the existing data services. Moreover, a distributed architecture is employed, such that, local traffic is optimally routed at the edge and backhaul is minimized The system can also provide support for enhanced Femto cell 3GPP access to a home network.

Abstract: A new deployment model enables a seamless migration to LTE (long term evolution)/EPC (Evolved packet core). In addition, an intelligent edge gateway (IEG) supports future distributed architecture and a converged network for service providers. Specifically, the model supports existing data services (e.g. UMTS) and the delivery of LTE services does not affect the existing data services. Moreover, a distributed architecture is employed, such that, local traffic is optimally routed at the edge and backhaul is minimized. The system can also provide support for enhanced Femto cell 3GPP access to a home network.

Abstract: A new deployment model enables a seamless migration to LTE (long term evolution)/EPC (Evolved packet core). In addition, an intelligent edge gateway (IEG) supports future distributed architecture and a converged network for service providers. Specifically, the model supports existing data services (e.g. UMTS) and the delivery of LTE services does not affect the existing data services. Moreover, a distributed architecture is employed, such that, local traffic is optimally routed at the edge and backhaul is minimized. The system can also provide support for enhanced Femto cell 3GPP access to a home network.

Abstract: A policy application server and methods for use are described. The policy application server is a logical element of a policy-based control and charging system for a mobile data service network. The policy application server is configured to manage policies including creating, revising, formatting, and provisioning of policies. The policy application server is configured to assemble policy rules from policies and context data. Context data includes subscriber and service information needed to make a particular policy rule. The policy application server gathers context data from one or more network databases. The policy application server is configured to send policy rules to select ones of a plurality of policy decision engines. The policy application server manages the storing of policies, policy rules and formatted context data in select ones of a plurality of policy repositories.

Abstract: Aspects describe using a Policy Access Gateway that can facilitate scalability within a communication network and that can provide a solution to deploy an enhanced policy gateway. The Policy Access Gateway can enhance standard defined Diameter Routing Agent (DRA) functions with session binding mechanisms. Further, the Policy Access Gateway is scalable and can be deployed in a very large network that supports hundreds of millions of users. Further, the Policy Access Gateway can provide additional policy information to enable policy information consolidation and caching capabilities.