Abstract: An example method is provided in one example embodiment and includes receiving a handover request from a first radio network to handover a user equipment (UE) to a second radio network, wherein the handover request includes an international mobile subscriber identity (IMSI) for a user associated with the UE and a pseudo cell identifier (ID); determining a target channel configuration for the UE using the pseudo cell ID; querying a third radio network using the user IMSI to determine a location of the UE, wherein at least one access point in the third radio network is in communication with the UE; and selecting a particular target access point in the second radio network for handover of the UE based, at least in part, on the location of the UE, the target channel configuration for the UE and a location of the particular target access point.

Abstract: Communication parameter selection techniques are presented to reduce interference in small cells of wireless networks. A list of neighboring radio access points with respect to a particular radio access point in a wireless network is obtained. The list includes a unique identifier for each neighboring radio access point. A set of candidate communications parameters are obtained for use in the wireless network by the particular radio access point. A prediction is made of candidate communications parameters in the set of candidate communications parameters which can be used by the neighboring radio access points. The communication parameters in the set of candidate communication parameters which are available for use by the particular access point are determined based on the predicted set of communications parameters. A communication parameter is selected for use by the particular radio access point based on the communication parameters determined to be available for use.

Abstract: A network management system for managing communications in a cellular communication network comprising an access point operably coupled to an access controller. The network management system comprises an access controller configuration logic module arranged to configure the access controller with configuration information. The network management system further comprises an access point configuration logic module arranged to configure the access point with configuration information comprising, at least in part, configuration information intended for the access controller.

Abstract: In accordance with an example embodiment, there is disclosed herein an apparatus comprising an interface, and processing logic coupled with the interface. The processing logic receives via the interface a list of location area codes detected by an access point associated with a site group to be provisioned with a location area code (LAC). The processing logic removes from a predefined list of location area codes the location area codes detected by the access point. The processing logic selects a LAC from the predefined list for the site group after removing the location area codes detected by the access point. The processing logic provisions the access point with the selected LAC via the interface.

Abstract: Techniques are provided to streamline the distribution of global positioning system (GPS) assistance data to a plurality of devices, such as radio access point devices. A provisioning server generates GPS assistance data from satellite positioning data obtained by periodically querying a satellite positioning data server for the satellite positioning data for a plurality of satellites. The provisioning server assigns the GPS assistance data a configurable expiration time. The provisioning server automatically refreshes the GPS assistance data prior to its expiration and makes it available through for download by the radio access point devices.

Abstract: Techniques are provided to detect when a radio access point device in a wireless cellular communication network is operating at a location other than its expected location. Roaming history data is obtained for wireless user devices in a wireless cellular communication network with respect to base transceiver stations each configured to serve a corresponding coverage area at a fixed known location and with respect to radio access point devices each configured to serve a corresponding relatively smaller coverage area in the wireless cellular communication network than a macro base transceiver station. Radio access point devices are also readily movable from one location to another location. The roaming history data of wireless user devices is analyzed against expected locations of radio access point devices to determine when a radio access point device is operating at a location other than its expected location.

Abstract: Techniques are provided to set the timezone of a wireless user device in a wireless cellular communication network when the wireless user device is being served by a radio access point device rather than a macro base transceiver station. At a provisioning server configured to provision radio access point devices to operate in a wireless cellular communication network, a determination is made as to which timezone sub-region a radio access point device configured to operate in the wireless cellular communication network is located and selects a set of location area codes among the plurality of sets of location area codes assigned to the sub-region in which the radio access point device is determined to be located based on which of a plurality of radio access point gateway devices serves that radio access point device. The provisioning server sends the selected set of location area codes to the radio access point device.

Abstract: Systems and methods for managing radio access point infrastructure such as picocells. A user equipment registration request is received at a node that manages a plurality of radio access points and enables connectivity with macro mobile communication services supplied by a service provide. In response to the user equipment request, a user equipment policy request is generated and sent to a policy database. A user equipment policy associated with the user equipment is received from the policy database, and thereafter user equipment traffic is treated in accordance with the user equipment policy.

Abstract: Techniques are provided to allow more than a fixed number of radio access point devices to be deployed within a macro cell. At a controller apparatus, a registration request is received from a radio access point device configured to operate in a wireless network to serve one or more wireless client devices in the wireless network in respective relatively small coverage areas. The registration request comprises a macro cell identifier associated with a macro cell base station configured to operate in the wireless network to serve one or more wireless client devices in a relatively large coverage area, a radio access point cell identifier associated with the radio access point device, and a particular primary scrambling code selected for use by the radio access point device. When the particular primary scrambling code is not available for use, methods are provided to allocate it in a shared manner but without degrading handover service.

Abstract: Methods and systems for providing access class based picocell policy enforcement includes determining whether user equipment registered with a radio access point is known to an enterprise other than a macro telecommunications service provider and eligible for differentiated services, recovering an internet protocol (IP) address associated with communication traffic from the user equipment, confirming that the IP address associated with communication traffic from the user equipment is within a predetermined range, determining whether the IP address associated with communication traffic from the user equipment uniquely identifies an enterprise context, as opposed to a macro telecommunications service context, and when the IP address associated with communication traffic from the user equipment uniquely identifies an enterprise context, causing IP packets received from the Internet to be routed to an enterprise controller that services the user equipment via the radio access point.

Abstract: Techniques are provided for coordinated neighbor discovery in a wireless network served by radio access point devices that provide service in relatively small coverage areas in the wireless network. A controller apparatus sends to radio access point devices, data identifying a group of radio access point devices to which each radio access point device is assigned. The controller apparatus sends coordinating data for a neighbor discovery session during which a particular radio access point device in the group is configured to transmit a signal at maximum power during a time interval while all other radio access point devices in the group are configured to attempt to receive the signal, and to repeat the same during other time intervals during the neighbor discovery session when a different particular radio access point is configured to transmit a signal at maximum power until all of the radio access point devices in a group have transmitted.

Abstract: Techniques are provided to allow more than a fixed number of radio access point devices to be deployed within a macro cell. At a controller apparatus, a registration request is received from a radio access point device configured to operate in a wireless network to serve one or more wireless client devices in the wireless network in respective relatively small coverage areas. The registration request comprises a macro cell identifier associated with a macro cell base station configured to operate in the wireless network to serve one or more wireless client devices in a relatively large coverage area, a radio access point cell identifier associated with the radio access point device, and a particular primary scrambling code selected for use by the radio access point device. When the particular primary scrambling code is not available for use, methods are provided to allocate it in a shared manner but without degrading handover service.

Abstract: In accordance with an example embodiment, there is disclosed herein an apparatus comprising an interface, and processing logic coupled with the interface. The processing logic receives via the interface a list of location area codes detected by an access point associated with a site group to be provisioned with a location area code (LAC). The processing logic removes from a predefined list of location area codes the location area codes detected by the access point. The processing logic selects a LAC from the predefined list for the site group after removing the location area codes detected by the access point. The processing logic provisions the access point with the selected LAC via the interface.

Abstract: Techniques are provided herein to allow more than a fixed number of radio access point devices to be deployed within a macro cell. At a controller apparatus, a registration request is received from a radio access point device configured to operate in a wireless network to serve one or more wireless client devices in the wireless network in respective relatively small coverage areas. The registration request comprises a macro cell identifier associated with a macro base station apparatus configured to operate in the wireless network to serve one or more wireless client devices in a relatively large coverage area, a radio access point cell identifier associated with the radio access point device, and a particular primary scrambling code selected for use by the radio access point device. When the particular primary scrambling code is not available for use, methods are provided to allocate it in a shared manner but without degrading handover service.

Abstract: Techniques are provided to detect cloning of network device identity when network device is seeking registration for service in a network. A control server manages access to the network in which a plurality of network devices are configured to communicate and serve client devices. The network devices require registration with the service gateway in order to provide services. When network devices register with the service gateway, the service gateway performs local clone detection by looking for active registrations from devices with the same identity and by further communicating with the control server.

Abstract: Methods and systems for providing access class based picocell policy enforcement includes determining whether user equipment registered with a radio access point is known to an enterprise other than a macro telecommunications service provider and eligible for differentiated services, recovering an internet protocol (IP) address associated with communication traffic from the user equipment, confirming that the IP address associated with communication traffic from the user equipment is within a predetermined range, determining whether the IP address associated with communication traffic from the user equipment uniquely identifies an enterprise context, as opposed to a macro telecommunications service context, and when the IP address associated with communication traffic from the user equipment uniquely identifies an enterprise context, causing IP packets received from the Internet to be routed to an enterprise controller that services the user equipment via the radio access point.

Abstract: Systems and methods for managing radio access point infrastructure such as picocells. A user equipment registration request is received at a node that manages a plurality of radio access points and enables connectivity with macro mobile communication services supplied by a service provide. In response to the user equipment request, a user equipment policy request is generated and sent to a policy database. A user equipment policy associated with the user equipment is received from the policy database, and thereafter user equipment traffic is treated in accordance with the user equipment policy.

Abstract: Techniques are provided herein to allow more than a fixed number of radio access point devices to be deployed within a macro cell. At a controller apparatus, a registration request is received from a radio access point device configured to operate in a wireless network to serve one or more wireless client devices in the wireless network in respective relatively small coverage areas. The registration request comprises a macro cell identifier associated with a macro base station apparatus configured to operate in the wireless network to serve one or more wireless client devices in a relatively large coverage area, a radio access point cell identifier associated with the radio access point device, and a particular primary scrambling code selected for use by the radio access point device. When the particular primary scrambling code is not available for use, methods are provided to allocate it in a shared manner but without degrading handover service.

Abstract: Techniques are provided for coordinated neighbor discovery in a wireless network served by radio access point devices that provide service in relatively small coverage areas in the wireless network. A controller apparatus sends to radio access point devices, data identifying a group of radio access point devices to which each radio access point device is assigned. The controller apparatus sends coordinating data for a neighbor discovery session during which a particular radio access point device in the group is configured to transmit a signal at maximum power during a time interval while all other radio access point devices in the group are configured to attempt to receive the signal, and to repeat the same during other time intervals during the neighbor discovery session when a different particular radio access point is configured to transmit a signal at maximum power until all of the radio access point devices in a group have transmitted.

Abstract: Techniques are provided to detect cloning of network device identity when network device is seeking registration for service in a network. A control server manages access to the network in which a plurality of network devices are configured to communicate and serve client devices. The network devices require registration with the service gateway in order to provide services. When network devices register with the service gateway, the service gateway performs local clone detection by looking for active registrations from devices with the same identity and by further communicating with the control server.