Abstract: Disclosed herein are systems, methods, and non-transitory computer-readable storage media for providing on-demand quality of service guarantees in a wireless network environment. The system determines an on-demand quality of service for a segment of a communication path between a user equipment communicating with a radio access network connected to a core network and an external network connected to the core network. The system then determines if the on-demand quality of service for the segment meets a quality of service requirement. If the on-demand quality of service for the segment does not meet the quality of service requirement, the system identifies an alternate communication path between the user equipment and the external network, wherein the alternate communication path differs from the communication path. The system can then setup the alternate communication path for traffic between the user equipment and the external network.

Abstract: Performance issues of wireless equipment (WE) or a wireless network are diagnosed through an alternative communication channel enabled by an alternative wireless network available to the WE. A service platform (SP) probes performance condition of the WE through a mobility control node (MCN) and, in response to a fault condition, collects data related to operation of the WE. Based at least on part of the data, the SP diagnoses the fault condition and related performance issue(s). To probe performance, the SP requests the MCN to collect data related to performance metric(s) of the WE. The alternative communication channel is established, and such data is collected therefrom, in response to low-grade connectivity amongst the MCN and the WE. The SP notifies the WE of at least the fault condition through the MCN or, in case of network fault condition, via the alternative communication channel.

Abstract: Devices, systems, and methods are disclosed for routing data to mobile devices that undergo handovers from one access point to another. In one embodiment, a processor performs operations including obtaining a network location of a mobile device, updating a mapping table with the network location of the mobile device, obtaining a request to transfer a data packet to the mobile device, routing the data packet to the mobile device according to the mapping table, and forwarding the network location to a source of the data packet. Additional embodiments are disclosed.

Abstract: A system for providing content delivery network selection is disclosed. In particular, the system may include receiving a request for content from a user device and determining a location of the user device based on the request for the content. Based on the location of the user device and based on one or more desired parameters, the system may include selecting a suitable content delivery network from a plurality of content delivery networks to service the request for the content. Once the suitable content delivery network is selected, the system may include providing the content to the user device by using the suitable content delivery network that was selected by the system.

Abstract: Aspects of the subject disclosure may include, for example, a method in which first performance data and second performance data are obtained for a first virtual machine and a second virtual machine on a network, the performance data is analyzed, performance of the first virtual machine is predicted, and a performance trend for the first virtual machine is determined. Performance of the second virtual machine is predicted in accordance with analyzing of the second performance data and a potential transfer of execution of an application from the first virtual machine to the second virtual machine. Execution of the application is transferred to the second virtual machine after determining an expected improvement in execution of the application relative to the first virtual machine. Other embodiments are disclosed.

Abstract: Aspects of the subject disclosure may include, for example, a method in which first performance data and second performance data are obtained for a first virtual machine and a second virtual machine on a network, the performance data is analyzed, performance of the first virtual machine is predicted, and a performance trend for the first virtual machine is determined. Performance of the second virtual machine is predicted in accordance with analyzing of the second performance data and a potential transfer of execution of an application from the first virtual machine to the second virtual machine. Execution of the application is transferred to the second virtual machine after determining an expected improvement in execution of the application relative to the first virtual machine. Other embodiments are disclosed.

Abstract: An architecture that can redirect communications upon detection of a handover failure in a Long Term Evolution (LTE) network is described. The architecture can obtain information indicative of a handover failure that is available in a first portion of the LTE network (e.g., a serving gateway) that has no control over the communication path. The architecture can utilize the information to instruct a second portion of the LTE network (e.g., a mobility management entity), one that can control the communication path but conventionally has no access to the handover information, to reroute the communication path to avoid unresponsive or failing network entities.

Abstract: Aspects of the subject disclosure may include, for example, a method in which first performance data and second performance data are obtained for a first virtual machine and a second virtual machine on a network, the performance data is analyzed, performance of the first virtual machine is predicted, and a performance trend for the first virtual machine is determined. Performance of the second virtual machine is predicted in accordance with analyzing of the second performance data and a potential transfer of execution of an application from the first virtual machine to the second virtual machine. Execution of the application is transferred to the second virtual machine after determining an expected improvement in execution of the application relative to the first virtual machine. Other embodiments are disclosed.

Abstract: A system and method for forwarding calls is disclosed. A system that incorporates teachings of the present disclosure may include, for example, a communication device having a controller element to receive a call from a communication system, retrieve a caller ID from information associated with the call, present a caller ID, receive a request to forward the call, present one or more communication identifiers responsive to the forwarding request, receive a selection corresponding to one of the one or more communication identifiers, and submit to the communication system a request to forward the call to the selected communication identifier. Additional embodiments are disclosed.

Abstract: A system that incorporates teachings of the present disclosure may include, for example, an interactive television network element having a wireless transceiver, a wireline transceiver, and a controller. The controller can be adapted to process multimedia signals received from an upstream network element, transmit the processed multimedia signals to one or more downstream network elements, monitor communications on a wireline interface capable of accessing a fault management system (FMS), and cause the wireless access transceiver to wirelessly transmit to the FMS telemetry information collected responsive to detecting one or more faults in the wireline interface. The controller can also cause the wireline transceiver to transmit to the FMS over the wireline interface the telemetry information responsive to detecting no fault in the wireline interface that impedes communication with the FMS over the wireline interface. Other embodiments are disclosed.

Abstract: Devices, systems, and methods are disclosed for routing data to mobile devices that undergo handovers from one access point to another. In one embodiment, a processor performs operations including obtaining a network location of a mobile device, updating a mapping table with the network location of the mobile device, obtaining a request to transfer a data packet to the mobile device, routing the data packet to the mobile device according to the mapping table, and forwarding the network location to a source of the data packet. Additional embodiments are disclosed.

Abstract: Devices, systems, and methods are disclosed to directly connect a node of a Radio Access Network (RAN) with an Internet Protocol (IP) network. The node is provided with an interface to a broadband local loop network. Access to the local loop network or last mile enables the node to communicate directly with an IP network, including an IP Multimedia System (IMS) core. The node need not access a packet-switched core network via a controller. Embodiments include a Node B with an IP interface in a UMTS system and a Base Transceiver Station (BTS) with an IP interface in a GSM system.

Abstract: A system that incorporates teachings of the present disclosure may include, for example, an Internet Protocol Television (IPTV) network element can have a wireless transceiver, a wireline transceiver, and a controller. The controller can be adapted to process multimedia signals received from an upstream IPTV network element, transmit the processed multimedia signals to one or more downstream IPTV network elements, monitor communications on a wireline interface capable of accessing a fault management system (FMS), and cause the wireless access transceiver to wirelessly transmit to the FMS telemetry information collected responsive to detecting one or more faults in the wireline interface. The controller can also cause the wireline transceiver to transmit to the FMS over the wireline interface the telemetry information responsive to detecting no fault in the wireline interface that impedes communication with the FMS over the wireline interface. Other embodiments are disclosed.

Abstract: Devices, systems, and methods are disclosed for routing data to mobile devices that undergo handovers from one access point to another. In one embodiment, a processor performs operations including obtaining a network location of a mobile device, updating a mapping table with the network location of the mobile device, obtaining a request to transfer a data packet to the mobile device, routing the data packet to the mobile device according to the mapping table, and forwarding the network location to a source of the data packet. Additional embodiments are disclosed.

Abstract: The disclosed subject matter relates to an architecture that can detect a potential fault condition in a wireless communication network. In particular, the architecture can reference handover transaction failures in order to identify issues, e.g., before such issues escalate to more severe fault situations. In addition, the architecture can dynamically query a set of devices or components potentially responsible for the handover failure and/or take appropriate actions aimed at remedying the issue in an expeditious manner.

Abstract: Performance issues of wireless equipment (WE) or a wireless network are diagnosed through an alternative communication channel enabled by an alternative wireless network available to the WE. A service platform (SP) probes performance condition of the WE through a mobility control node (MCN) and, in response to a fault condition, collects data related to operation of the WE. Based at least on part of the data, the SP diagnoses the fault condition and related performance issue(s). To probe performance, the SP requests the MCN to collect data related to performance metric(s) of the WE. The alternative communication channel is established, and such data is collected therefrom, in response to low-grade connectivity amongst the MCN and the WE. The SP notifies the WE of at least the fault condition through the MCN or, in case of network fault condition, via the alternative communication channel.

Abstract: An architecture that can redirect communications upon detection of a handover failure in a Long Term Evolution (LTE) network is described. The architecture can obtain information indicative of a handover failure that is available in a first portion of the LTE network (e.g., a serving gateway) that has no control over the communication path. The architecture can utilize the information to instruct a second portion of the LTE network (e.g., a mobility management entity), one that can control the communication path but conventionally has no access to the handover information, to reroute the communication path to avoid unresponsive or failing network entities.

Abstract: A method includes, in response to determining that a data communication measure for a plurality of mobile devices served by a base station exceeds a first data communication threshold for a first data communication path between the base station and a network providing data for the plurality of mobile devices, establishing, at the base station, a second data communication path between the base station and the network via a wireless access point based on an access control list. The method includes receiving, at the base station, a portion of the data from the network via the second data communication path.

Abstract: Performance issues of wireless equipment (WE) or a wireless network are diagnosed through an alternative communication channel enabled by an alternative wireless network available to the WE. A service platform (SP) probes performance condition of the WE through a mobility control node (MCN) and, in response to a fault condition, collects data related to operation of the WE. Based at least on part of the data, the SP diagnoses the fault condition and related performance issue(s). To probe performance, the SP requests the MCN to collect data related to performance metric(s) of the WE. The alternative communication channel is established, and such data is collected therefrom, in response to low-grade connectivity amongst the MCN and the WE. The SP notifies the WE of at least the fault condition through the MCN or, in case of network fault condition, via the alternative communication channel.

Abstract: An architecture that can redirect communications upon detection of a handover failure in a Long Term Evolution (LTE) network is described. The architecture can obtain information indicative of a handover failure that is available in a first portion of the LTE network (e.g., a serving gateway) that has no control over the communication path. The architecture can utilize the information to instruct a second portion of the LTE network (e.g., a mobility management entity), one that can control the communication path but conventionally has no access to the handover information, to reroute the communication path to avoid unresponsive or failing network entities.