Abstract: A method and apparatus operate a device on a licensed spectrum and an unlicensed spectrum. The device can operate on a Wireless Wide Area Network (WWAN) band via a WWAN base station using a WWAN Radio Access Technology (RAT). The device can connect to a Wireless Local Area Network (WLAN) base station using the WWAN RAT on a WWAN RAT WLAN band operating on a WLAN frequency and can connect to a WLAN access point using a WLAN RAT on a WLAN RAT band operating on a WLAN frequency. The WWAN RAT WLAN band can be determined to be the same band as the WLAN RAT band. A signal metric of the WWAN RAT WLAN band or the WLAN RAT band can be compared to a threshold. Whether to disable communications on the WWAN RAT WLAN band or the WLAN RAT band can be determined based on comparing the signal metric of the WWAN RAT WLAN band or the WLAN RAT band to a threshold. Communications of the WWAN RAT WLAN band or the WLAN RAT band can be disabled if the communications on the WWAN RAT WLAN band or the WLAN RAT band should be disabled.

Abstract: A method and apparatus operate a device on a licensed spectrum and an unlicensed spectrum. The device can operate on a Wireless Wide Area Network (WWAN) channel using a WWAN base station using a WWAN Radio Access Technology (RAT). At least one Wireless Local Area Network (WLAN) base station that uses the WWAN RAT operating on a WLAN frequency can be detected. WLAN frequencies can be scanned. Information including information about the at least one WLAN base station using the WWAN RAT, the results of scanning the WLAN frequencies, and device specific information to a base station can be sent. A WLAN channel of the WLAN frequencies with a WLAN base station of the at least one WLAN base station using the WWAN RAT can be communicated on in response to sending the information.

Abstract: Various embodiments provide a user device that dynamically initiates a change to its connectivity configuration. Some embodiments of the user device determine its current connectivity configuration and, based upon its current connectivity configuration, obtains one or more metrics associated with its current operating environment and/or current operating configuration. In turn, the user devices analyzes the metrics to determine whether to alter its current connectivity configuration. Responsive to the analysis, some embodiments modify the current connectivity configuration by modifying a connection type to a wireless networking device.

Abstract: A method is performed by a first communication device for directing an antenna beam based on a location of a second communication device. The method includes receiving first location data that indicates the location of the second communication device. The first location data is received over a first communication channel. The method further includes determining, based on the first location data, first antenna beam parameters for directing an antenna beam in order to communicate with the second communication device over a second communication channel.

Abstract: Various embodiments transmit targeted beacon frames using beamforming techniques. Using a first beam-formed wireless connection to a user device, a wireless networking device dynamically learns directional and/or spatial location information associated with the user device, such as transmission and/or reception angles. In turn, the wireless networking device stores the directional information in a location database to track successful connections to user devices. Some embodiments target the transmission of beacon frames to a predefined coverage area by using the stored directional information to determine transmission parameters for a second beam-formed wireless signal. Alternately or additionally, some embodiments use pre-programmed values to determine the transmission parameters of the second beam-formed wireless signal.

Abstract: A method for controlling multiple-input and multiple-output operation in a communication device includes communicating data using multiple-input and multiple-output operation, determining a set of parameters that indicate quality of service associated with communicating the data to another device, and comparing the set of parameters to a set of thresholds. When one or more parameters in the set of parameters exceed one or more thresholds in the set of thresholds, the multiple-input and multiple-output operation is disabled.

Abstract: Various embodiments provide dynamic reconfiguration of a connectivity configuration associated with a wireless networking device. The wireless networking device maintains multiple wireless connections with multiple user devices using a combination of beam-formed wireless signals and omnidirectional wireless signals. The wireless network device generates a list of connected or associated user devices that are capable of beam-formed wireless communications, and obtains metrics for each respective user device. The wireless networking device prioritizes the list based upon the respective metrics, and determines whether a current connectivity configuration differs from the prioritization. Responsive to determining a difference, the wireless networking device can dynamically reconfigure the connectivity configuration by modifying a connection type associated with at least one user device.

Abstract: A communication device, method and computer program product provide improved performance of one radio frequency (RF) conduction path using an antenna tuner of another RF conduction path while dynamically reducing current drain by the antenna tuner. A determination is made that a first RF conduction path is active in using a first portion of a multiple band antenna system for at least one of: (i) transmitting; and (ii) receiving a signal. An antenna tuner of a second RF conduction path that uses a second portion of the multiple band antenna system is activated. The antenna tuner is configured to tune the second portion of the multiple band antenna system to isolate the second portion from the first portion used by the first RF conduction path. The antenna tuner is deactivated in response to determining that both the first and second RF conduction paths are inactive.

Abstract: A communication device, method and computer program product provide improved performance of one radio frequency (RF) conduction path using an antenna tuner of another RF conduction path while dynamically reducing current drain by the antenna tuner. A determination is made that a first RF conduction path is active in using a first portion of a multiple band antenna system for at least one of: (i) transmitting; and (ii) receiving a signal. An antenna tuner of a second RF conduction path that uses a second portion of the multiple band antenna system is activated. The antenna tuner is configured to tune the second portion of the multiple band antenna system to isolate the second portion from the first portion used by the first RF conduction path. The antenna tuner is deactivated in response to determining that both the first and second RF conduction paths are inactive.

Abstract: A first communication device performs a method that includes detecting a common network connection with a second communication device. The method further includes determining to perform neighborhood awareness networking scanning on behalf of the second communication device. When the first communication device detects a neighborhood awareness networking transmission while performing the neighborhood awareness networking scanning, it notifies the second communication device and discontinues the scanning on behalf of the second communication device.

Abstract: Various embodiments transmit targeted beacon frames using beamforming techniques. Using a first beam-formed wireless connection to a user device, a wireless networking device dynamically learns directional and/or spatial location information associated with the user device, such as transmission and/or reception angles. In turn, the wireless networking device stores the directional information in a location database to track successful connections to user devices. Some embodiments target the transmission of beacon frames to a predefined coverage area by using the stored directional information to determine transmission parameters for a second beam-formed wireless signal. Alternately or additionally, some embodiments use pre-programmed values to determine the transmission parameters of the second beam-formed wireless signal.

Abstract: A device and method for determining a master device in a neighborhood aware network (NAN). The method includes identifying a number of peer devices located within communication range of a first device and that are capable of communicating via the NAN. A master rank value associated with a corresponding peer device is retrieved from each received response. A first master rank value is calculated for the first device, at least partially based on the number of responding peer devices. The first master rank value is compared with the received master rank values of the responding peer devices. In response to the first master rank value being greater than each of the received master rank values, the first device assumes a role of a master device within a NAN cluster that includes the first device and the responding peer devices.

Abstract: A method and apparatus operate a device on a licensed spectrum and an unlicensed spectrum. The device can operate on a Wireless Wide Area Network (WWAN) channel using a WWAN transceiver via a WWAN Radio Access Technology (RAT) base station using a WWAN RAT. The device can communicate with a WWAN RAT Wireless Local Area Network (WLAN) base station using the WWAN RAT via a WWAN RAT WLAN receiver on a WWAN RAT WLAN channel operating on a WLAN frequency. A personal access point WLAN channel of a WLAN frequency-based personal access point can be selected that provides the least desense of the WWAN RAT WLAN channel on the WWAN RAT WLAN receiver.

Abstract: Various embodiments provide dynamic reconfiguration of a connectivity configuration associated with a wireless networking device. The wireless networking device maintains multiple wireless connections with multiple user devices using a combination of beam-formed wireless signals and omnidirectional wireless signals. The wireless network device generates a list of connected or associated user devices that are capable of beam-formed wireless communications, and obtains metrics for each respective user device. The wireless networking device prioritizes the list based upon the respective metrics, and determines whether a current connectivity configuration differs from the prioritization. Responsive to determining a difference, the wireless networking device can dynamically reconfigure the connectivity configuration by modifying a connection type associated with at least one user device.

Abstract: A method and apparatus operate a device on a licensed spectrum and an unlicensed spectrum. The device can operate on a Wireless Wide Area Network (WWAN) channel using a WWAN transceiver via a WWAN Radio Access Technology (RAT) base station using a WWAN RAT. The device can communicate with a WWAN RAT Wireless Local Area Network (WLAN) base station using the WWAN RAT via a WWAN RAT WLAN receiver on a WWAN RAT WLAN channel operating on a WLAN frequency. Activation of WLAN frequency-based personal access point using a WLAN personal access point transceiver on the device can be detected. A personal access point WLAN channel of the WLAN frequency-based personal access point can be selected that provides the least desense of the WWAN RAT WLAN channel on the WWAN RAT WLAN receiver.

Abstract: A method and apparatus operate a device on a licensed spectrum and an unlicensed spectrum. The device can operate on a Wireless Wide Area Network (WWAN) channel via a WWAN base station using a WWAN Radio Access Technology (RAT). The device can detect at least one WWAN RAT Wireless Local Area Network (WLAN) base station using the WWAN RAT operating on a WLAN frequency. The device can communicate with the WWAN RAT WLAN base station on a WWAN RAT WLAN channel operating on the WLAN frequency. The device can scan WLAN frequencies. A WLAN access point load on the WWAN RAT WLAN channel can be calculated based on scanning the WLAN frequencies, where a WLAN access point uses a WLAN RAT. The device can disable communication using the WWAN RAT WLAN channel when the WLAN access point load exceeds a threshold and allow communication on the WWAN channel when the WLAN access point load exceeds a threshold.

Abstract: Various embodiments provide dynamic reconfiguration of a connectivity configuration associated with a wireless networking device. The wireless networking device maintains multiple wireless connections with multiple user devices using a combination of beam-formed wireless signals and omnidirectional wireless signals. The wireless network device generates a list of connected or associated user devices that are capable of beam-formed wireless communications, and obtains metrics for each respective user device. The wireless networking device prioritizes the list based upon the respective metrics, and determines whether a current connectivity configuration differs from the prioritization. Responsive to determining a difference, the wireless networking device can dynamically reconfigure the connectivity configuration by modifying a connection type associated with at least one user device.

Abstract: Various embodiments provide a user device that dynamically initiates a change to its connectivity configuration. Some embodiments of the user device determine its current connectivity configuration and, based upon its current connectivity configuration, obtains one or more metrics associated with its current operating environment and/or current operating configuration. In turn, the user devices analyzes the metrics to determine whether to alter its current connectivity configuration. Responsive to the analysis, some embodiments modify the current connectivity configuration by modifying a connection type to a wireless networking device.

Abstract: A method and apparatus operate a device on a licensed spectrum and an unlicensed spectrum. The device can operate on a Wireless Wide Area Network (WWAN) band via a WWAN base station using a WWAN Radio Access Technology (RAT). The device can connect to a Wireless Local Area Network (WLAN) base station using the WWAN RAT on a WWAN RAT WLAN band operating on a WLAN frequency and can connect to a WLAN access point using a WLAN RAT on a WLAN RAT band operating on a WLAN frequency. The WWAN RAT WLAN band can be determined to be the same band as the WLAN RAT band. A signal metric of the WWAN RAT WLAN band or the WLAN RAT band can be compared to a threshold. Whether to disable communications on the WWAN RAT WLAN band or the WLAN RAT band can be determined based on comparing the signal metric of the WWAN RAT WLAN band or the WLAN RAT band to a threshold. Communications of the WWAN RAT WLAN band or the WLAN RAT band can be disabled if the communications on the WWAN RAT WLAN band or the WLAN RAT band should be disabled.

Abstract: A method and apparatus includes a NAN communication device suppressing NAN scanning and scanning using an alternate scanning protocol while suppressing NAN scanning. The method additionally includes detecting a transmission from another communication device while scanning using the alternate scanning protocol and determining the detected transmission is a NAN transmission. The method further includes discontinuing suppressing NAN scanning in response to detecting the NAN transmission.