Abstract: Dynamic power class re-registration of wireless devices is provided. A wireless device can exchange data with a communications network. While exchanging data, the device can monitor its usage and based on the usage, generate a power change request. The device can then send the power change request to the communications network, prior to or in conjunction with powering down the device. In this regard, the communications network can receive the power change request, generate instructions for the wireless device, and adjust network resources based on the power change request. The instructions can then be sent to the wireless device. Since the device re-registers its power class with the communications network, handoffs, internetwork thresholds, network resources and other network parameters can be adjusted to compensate for the changed power class resulting into improved service for a user of the wireless device.

Abstract: Inter-carrier scanning is triggered in a mobile device based at least in part on location thereof. Femto access point (AP) that can serve the mobile device can determine location through cell or sector identifier that is extracted via scan(s) of macro wireless environment of the femto AP. Femto AP can rank extracted sector identifier(s) and establish home macro sector (HMS) identifier(s), and also can generate scanning requirements for idle-mode scan(s) by a mobile device that operates in a HMS and is authorized to access wireless coverage through the femto AP. Scanning requirement(s) can force periodic inter-carrier measurements of a HMS wireless environment, and establish HMS-specific radio link quality threshold(s). Wireless network can receive at least one of HMS identifier(s) and scanning requirement(s) and deliver same to mobile device(s) authorized to exploit wireless coverage through femto AP associated with the HMS ID(s) and the scanning requirement(s).

Abstract: Receivers in a mobile device are configured to mitigate receiver overload and fully or nearly-fully utilize available spectrum for communication. Configuration is dictated at least in part by at least one of radio link quality or available receiver specifications, and it can be affected by the mobile device or a base station that serves the mobile device. Receiver configuration includes various spectrally asymmetric receivers that tune respective disparate portions of the available spectrum to maximize utilization thereof in the spectral regions prone to overload conditions. In severe overload conditions, a single receiver can be configured to operate in a frequency band spectrally adjacent to a sub-band that leads to overload conditions when employed for telecommunication. To improve performance, the single receiver configuration can be supplemented with at least one of transmit diversity operation, asymmetric multicarrier spreading, or downlink power boost of asymmetrical multicarrier spreading.

Abstract: Fixed, differentiated quality of service (QoS) is supplied for packetized traffic (e.g., voice and data) intended for femto cell coverage when transmitted concurrently with external broadband traffic. Quality of Service differentiation is supplied without an external implementation. Femto cell coverage is prioritized over concurrent packetized traffic to deliver a rich user experience for delay and jitter sensitive applications. A passthrough configuration for a femto access point (AP) facilitates supplying hard QoS for data packet streams, or flows, intended for femto cell coverage or non-femto-cell coverage. The femto AP receives a consolidated packet stream through backhaul link(s) and distinguishes flow(s) for femto coverage and flow(s) for auxiliary broadband coverage. The femto AP routes the flow(s) intended for femto with hard QoS according to QoS policy which can be determined by a network operator or a subscriber.

Abstract: Concepts and technologies are described herein for a consumer service cloud (“CSC”) for implementing location-based services to control smart devices. According to one aspect disclosed herein, a CSC system can determine a cell identifier (“ID”) associated with a location in which one or more smart devices resides. The smart device(s) can include one or more settings that can be adjusted remotely by the CSC system to control one or more operational aspects of the smart device(s). The CSC system can periodically receive a cell ID update that can include a current cell ID associated with a current cell in which a user equipment (“UE”) is located. When the CSC system determines that the current cell ID matches the cell ID, the CSC system can generate a request to adjust the setting(s) to control the operational aspect(s) of the smart device(s) and can provide the request to the smart device(s).

Abstract: Collection and communication of data are provided on handset attachment procedure, or visitation, to one or more femto cells to provide location information. A mobility component receives actual subscriber and femto access point (AP) attachment signaling and extracts visitation data that facilitates generation of real-time or historical visitation reports. Location information is conveyed through visitation reports which can include mobile device identifier(s), femto AP location, and a timestamp. Visitation reports also can include processed visitation data such as mobility matrices, historical mobility patterns or profiles, and predicted mobility events. Provision of location information occurs without the need for dedicated handset functionality, and associated hardware, or additional battery draw.

Abstract: Wireless communication network access is facilitated via multiple logic-capable storage (MLCS) devices. One method comprises: scanning a record of records stored in a MLCS device to determine whether a communication device associated with a request for communication establishment has a defined functionality; and generating information indicative of the communication device failing to have the defined functionality based on identifying a value range inclusive of an identifier of the communication device and based on determining that the MLCS device is a negative logic storage device, wherein the MLCS device is programmable to have a first type of logic at a first time and a second type of logic at a second time. The first type of logic can be the negative logic type and the second type of logic can be a positive logic type.

Abstract: Data bundling and fast dormancy controls are provided based on application monitoring and classification. Moreover, a balance is enabled between saving battery power of a user equipment (UE) and reducing signaling and processing load in a radio resource controller (RRC). For instance, a system can observe data flow related behavior of applications on the UE. On receiving a first data flow request, an arrival time of a next data flow request is predicted based on an analysis of the behavior, and the system determines whether the two data flows can be bundled together and transmitted over a single connection. Additionally, on completion of the first data flow, the arrival time of the next data flow request is predicted based on the analysis, and the system determines whether a fast dormancy timer can be disabled to transmit the next data flow over the current connection.

Abstract: Inter-carrier scanning is triggered in a mobile device based at least in part on location thereof. Femto access point (AP) that can serve the mobile device can determine location through cell or sector identifier that is extracted via scan(s) of macro wireless environment of the femto AP. Femto AP can rank extracted sector identifier(s) and establish home macro sector (HMS) identifier(s), and also can generate scanning requirements for idle-mode scan(s) by a mobile device that operates in a HMS and is authorized to access wireless coverage through the femto AP. Scanning requirement(s) can force periodic inter-carrier measurements of a HMS wireless environment, and establish HMS-specific radio link quality threshold(s). Wireless network can receive at least one of HMS identifier(s) and scanning requirement(s) and deliver same to mobile device(s) authorized to exploit wireless coverage through femto AP associated with the HMS ID(s) and the scanning requirement(s).

Abstract: Fixed, differentiated quality of service (QoS) is supplied for packetized traffic (e.g., voice and data) intended for femto cell coverage when transmitted concurrently with external broadband traffic. Quality of Service differentiation is supplied without an external implementation. Femto cell coverage is prioritized over concurrent packetized traffic to deliver a rich user experience for delay and jitter sensitive applications. A passthrough configuration for a femto access point (AP) facilitates supplying hard QoS for data packet streams, or flows, intended for femto cell coverage or non-femto-cell coverage. The femto AP receives a consolidated packet stream through backhaul link(s) and distinguishes flow(s) for femto coverage and flow(s) for auxiliary broadband coverage. The femto AP routes the flow(s) intended for femto with hard QoS according to QoS policy which can be determined by a network operator or a subscriber.

Abstract: A potential traffic load imbalance condition associated with sector carriers is detected. The traffic loading for the sector carriers is balanced based, at least, on causing one or more idle mobile devices to select a new sector carrier by adjusting one or more idle mode parameters. Detecting the potential traffic load imbalance condition includes: identifying an overloaded sector carrier; identifying an set of overlaid sector carriers, wherein the set of overlaid sector carriers includes one or more sector carriers in an area surrounding the overloaded sector carrier; and determining a number of idle mobile devices and corresponding signal strengths of mobile devices camping on sector carriers of the set of overlaid sector carriers. Balancing the traffic loading includes: determining the number of mobile devices to shift from the overloaded sector carrier, and initiating the shift by adjusting idle mode parameters.

Abstract: Concepts and technologies are described herein for user equipment (“UE”) near-field communications (“NFC”) gating according to kinetic speed detection and cell visitation history. According to one aspect disclosed herein, a mobile initiator device, such as a UE that includes an NFC hardware component, can determine a mobility state of the mobile initiator device. The mobile initiator device can control, based upon the mobility state, activation of a radio frequency field that is used to activate a passive NFC device. In this manner, detection of the passive NFC device and battery efficiency can each be maximized when appropriate.

Abstract: Dynamic power class re-registration of wireless devices is provided. A wireless device can exchange data with a communications network. While exchanging data, the device can monitor its usage and based on the usage, generate a power change request. The device can then send the power change request to the communications network, prior to or in conjunction with powering down the device. In this regard, the communications network can receive the power change request, generate instructions for the wireless device, and adjust network resources based on the power change request. The instructions can then be sent to the wireless device. Since the device re-registers its power class with the communications network, handoffs, internetwork thresholds, network resources and other network parameters can be adjusted to compensate for the changed power class resulting into improved service for a user of the wireless device.

Abstract: Receivers in a mobile device are configured to mitigate receiver overload and fully or nearly-fully utilize available spectrum for communication. Configuration is dictated at least in part by at least one of radio link quality or available receiver specifications, and it can be affected by the mobile device or a base station that serves the mobile device. Receiver configuration includes various spectrally asymmetric receivers that tune respective disparate portions of the available spectrum to maximize utilization thereof in the spectral regions prone to overload conditions. In severe overload conditions, a single receiver can be configured to operate in a frequency band spectrally adjacent to a sub-band that leads to overload conditions when employed for telecommunication. To improve performance, the single receiver configuration can be supplemented with at least one of transmit diversity operation, asymmetric multicarrier spreading, or downlink power boost of asymmetrical multicarrier spreading.

Abstract: Collection and communication of data are provided on handset attachment procedure, or visitation, to one or more femto cells to provide location information. A mobility component receives actual subscriber and femto access point (AP) attachment signaling and extracts visitation data that facilitates generation of real-time or historical visitation reports. Location information is conveyed through visitation reports which can include mobile device identifier(s), femto AP location, and a timestamp. Visitation reports also can include processed visitation data such as mobility matrices, historical mobility patterns or profiles, and predicted mobility events. Provision of location information occurs without the need for dedicated handset functionality, and associated hardware, or additional battery draw.

Abstract: A potential traffic load imbalance condition associated with sector carriers is detected. The traffic loading for the sector carriers is balanced based, at least, on causing one or more idle mobile devices to select a new sector carrier by adjusting one or more idle mode parameters. Detecting the potential traffic load imbalance condition includes: identifying an overloaded sector carrier; identifying an set of overlaid sector carriers, wherein the set of overlaid sector carriers includes one or more sector carriers in an area surrounding the overloaded sector carrier; and determining a number of idle mobile devices and corresponding signal strengths of mobile devices camping on sector carriers of the set of overlaid sector carriers. Balancing the traffic loading includes: determining the number of mobile devices to shift from the overloaded sector carrier, and initiating the shift by adjusting idle mode parameters.

Abstract: Wireless communication network access is facilitated via multiple logic-capable storage (MLCS) devices. One method comprises: scanning a record of records stored in a MLCS device to determine whether a communication device associated with a request for communication establishment has a defined functionality; and generating information indicative of the communication device failing to have the defined functionality based on identifying a value range inclusive of an identifier of the communication device and based on determining that the MLCS device is a negative logic storage device, wherein the MLCS device is programmable to have a first type of logic at a first time and a second type of logic at a second time. The first type of logic can be the negative logic type and the second type of logic can be a positive logic type.

Abstract: Traffic associated with user equipment that are coupled to a first radio access network is steered to a second radio access network based on an adaptable signal strength criterion. The signal strength criterion is related to real-time network load conditions of the first radio access network and can be broadcasted from a serving access point to the user equipment. Moreover, the signal strength criterion facilitates steering, to the second radio network, traffic associated with user equipment that are located closer to a cell edge of the first radio access network before steering traffic associated with user equipment are located further away from the cell edge. In addition, based on the network congestion within the first radio access network, the signal strength criterion is modified to adjust the number of user equipment that are steered to the second radio network.

Abstract: Concepts and technologies are described herein for traffic steering across radio access technologies and radio frequencies utilizing cell broadcast messages. According to one aspect disclosed herein, a base station can collect load information of the base station. The base station can also generate a cell broadcast message that includes the load information. The base station can also send the cell broadcast message to a target mobile device. The target mobile device can be configured to determine, based at least in part upon the load information, which radio access network of a plurality of radio access networks to connect to.

Abstract: Concepts and technologies are described herein for a consumer service cloud (“CSC”) for implementing location-based services to control smart devices. According to one aspect disclosed herein, a CSC system can determine a cell identifier (“ID”) associated with a location in which one or more smart devices resides. The smart device(s) can include one or more settings that can be adjusted remotely by the CSC system to control one or more operational aspects of the smart device(s). The CSC system can periodically receive a cell ID update that can include a current cell ID associated with a current cell in which a user equipment (“UE”) is located. When the CSC system determines that the current cell ID matches the cell ID, the CSC system can generate a request to adjust the setting(s) to control the operational aspect(s) of the smart device(s) and can provide the request to the smart device(s).