Abstract: A method is disclosed for performing extension mobility via a headset connection. The method includes receiving a headset identifier from a headset. Also, the method includes, in response to receiving the headset identifier, sending the headset identifier to a device management server. Further, the method includes receiving a call control user identifier from the device management server, and sending, to a call control server, the call control user identifier. Still yet, the method includes receiving, from the call control server, a configuration profile associated with the call control user identifier. One or more settings of a desk phone are configured using the configuration profile.

Abstract: A method is disclosed for performing extension mobility via a headset connection. The method includes receiving a headset identifier from a headset. Also, the method includes, in response to receiving the headset identifier, sending the headset identifier to a device management server. Further, the method includes receiving a call control user identifier from the device management server, and sending, to a call control server, the call control user identifier. Still yet, the method includes receiving, from the call control server, a configuration profile associated with the call control user identifier. One or more settings of a desk phone are configured using the configuration profile.

Abstract: A method is disclosed for performing extension mobility via a headset connection. The method includes receiving a headset identifier from a headset. Also, the method includes, in response to receiving the headset identifier, sending the headset identifier to a device management server. Further, the method includes receiving a call control user identifier from the device management server, and sending, to a call control server, the call control user identifier. Still yet, the method includes receiving, from the call control server, a configuration profile associated with the call control user identifier. One or more settings of a desk phone are configured using the configuration profile.

Abstract: The invention relates to a method for centralized control of multiple active noise cancellation devices. The method includes identifying a trigger event. Also, the method includes identifying at least one zone of a mapped area in response to identifying the trigger event. Further, the method includes identifying two or more devices based on the at least one zone of the mapped area, and transmitting a command to disable active noise cancellation on the two or more devices.

Abstract: A method is disclosed for performing extension mobility via a headset connection. The method includes receiving a headset identifier from a headset. Also, the method includes, in response to receiving the headset identifier, sending the headset identifier to a device management server. Further, the method includes receiving a call control user identifier from the device management server, and sending, to a call control server, the call control user identifier. Still yet, the method includes receiving, from the call control server, a configuration profile associated with the call control user identifier. One or more settings of a desk phone are configured using the configuration profile.

Abstract: A wearable user device is provided, which can be donned and doffed by a user, and which is configured for use in a user authentication system. To enhance the security of a user authentication, the wearable user device comprises a detector device to detect a donned or doffed condition of said wearable user device; and an alert processing module, connected with said detector device. The alert processing module is configured to determine whether said wearable user device is doffed forcefully, and if said wearable user device is doffed forcefully, to transmit an authentication exception corresponding to a forceful doffed condition to an authentication server.

Abstract: The invention relates to a method for centralized control of multiple active noise cancellation devices. The method includes identifying a trigger event. Also, the method includes identifying at least one zone of a mapped area in response to identifying the trigger event. Further, the method includes identifying two or more devices based on the at least one zone of the mapped area, and transmitting a command to disable active noise cancellation on the two or more devices.

Abstract: Methods and apparatuses for addressing open space noise are disclosed. In one example, a method for masking open space noise includes receiving a plurality of mobile device microphone data from a plurality of mobile devices. A location data associated with each mobile device in the plurality of mobile devices is received. A plurality of stationary microphone data is received from a plurality of stationary microphones. A sound masking noise output is adjusted at one or more loudspeakers responsive to the plurality of mobile device microphone data and the plurality of stationary microphone data.

Abstract: The invention relates to a method for centralized control of multiple active noise cancellation devices. The method includes identifying a trigger event. Also, the method includes identifying, in response to identifying the trigger event, two or more zones of a mapped area. Further, the method includes identifying, based on the two or more zones, two or more devices. Still yet, the method includes transmitting a command to disable active noise cancellation on each of the two or more devices.

Abstract: The invention relates to a method for centralized control of multiple active noise cancellation devices. The method includes identifying a trigger event. Also, the method includes identifying, in response to identifying the trigger event, two or more zones of a mapped area. Further, the method includes identifying, based on the two or more zones, two or more devices. Still yet, the method includes transmitting a command to disable active noise cancellation on each of the two or more devices.

Abstract: Disclosed herein is an apparatus and method of use for a hat or head covering. More specifically, the present invention generally relates to an apparatus and method of use for a hat or head covering, which utilizes a material that reflects radiant heat to offer sun protection to a wearer of the apparatus. In one embodiment the apparatus is comprised of a main body component having an internal layer of material that reflects radiant heat. In another embodiment, the main body component is comprised of three layers: an outer layer, a middle layer made of a material that reflects radiant heat, and an inner layer. In embodiments, the apparatus is further comprised of a visor component also having an internal layer of material that reflects radiant heat. In yet other embodiments, the apparatus is further comprised of a brim component also having an internal layer of material that reflects radiant heat.

Abstract: An authentication server, an application device and a probability-based user authentication system and method are disclosed. To simplify authentication while keeping a high level of security, the authentication server comprises at least an authentication probability evaluation module for determining a probability of requestor identification. The authentication server is configured to at least receive an authentication request from an authenticator, said authentication request comprises at least user identification data. The authentication probability evaluation module is configured upon reception of said user identification data to receive user behavior information, corresponding to the received user identification data from a user information database; and to determine a user probability value by comparing at least said user behavior information with authenticator application data. The requestor is authenticated in dependence of said determined user probability value.

Abstract: Wearable electronic communication devices having corresponding methods and computer-readable media comprise: an accelerometer; a don/doff detector; a transmitter; a processor configured to i) determine whether the wearable electronic communication device has experienced a fall based on information produced by the accelerometer, ii) determine whether the wearable electronic communication device was being worn during the fall based on information produced by the don/doff detector, and iii) cause the transmitter to transmit a message from the wearable electronic communication device responsive to the processor determining both i) the wearable electronic communication device has experienced a fall and ii) the wearable electronic communication device was being worn during the fall.

Abstract: A mobile user device, configured to communicate over a wireless medium and a corresponding computer-implemented method is described. The mobile user device in one embodiment may comprise a near field communication interface for at least sending response information to a receiver in one or more near field transmissions; and a communication control module, connected with said near field communication interface. To improve the security of the mobile user device, the communication control module is configured to control whether said response information is sent by said near field communication interface in dependence of at least a communication safety parameter.

Abstract: Methods and apparatuses for displaying private data are disclosed. In one example, data is identified as a private data type or a public data type. The data is output on an arm wearable device first display responsive to identifying the data as the private data type, the first display arranged to display a private data. The data is output on an arm wearable device second display responsive to identifying the data as the public data type, the second display arranged to display a public data.

Abstract: A mobile user device, configured to communicate over a wireless medium and a corresponding computer-implemented method is described. The mobile user device in one embodiment may comprise a near field communication interface for at least sending response information to a receiver in one or more near field transmissions; and a communication control module, connected with said near field communication interface. To improve the security of the mobile user device, the communication control module is configured to control whether said response information is sent by said near field communication interface in dependence of at least a communication safety parameter.

Abstract: A wearable user device is provided, which can be donned and doffed by a user, and which is configured for use in a user authentication system. To enhance the security of a user authentication, the wearable user device comprises a detector device to detect a donned or doffed condition of said wearable user device; and an alert processing module, connected with said detector device. The alert processing module is configured to determine whether said wearable user device is doffed forcefully, and if said wearable user device is doffed forcefully, to transmit an authentication exception corresponding to a forceful doffed condition to an authentication server.

Abstract: An authentication server, an application device and a probability-based user authentication system and method are disclosed. To simplify authentication while keeping a high level of security, the authentication server comprises at least an authentication probability evaluation module for determining a probability of requestor identification. The authentication server is configured to at least receive an authentication request from an authenticator, said authentication request comprises at least user identification data. The authentication probability evaluation module is configured upon reception of said user identification data to receive user behavior information, corresponding to the received user identification data from a user information database; and to determine a user probability value by comparing at least said user behavior information with authenticator application data. The requestor is authenticated in dependence of said determined user probability value.

Abstract: Methods and apparatuses for context assisted noise reduction are disclosed. In one example, noise data associated with background noise detected by a microphone at a mobile device is received. The noise data is processed to identify whether a threshold noise level has been exceeded. An event notification is transmitted, where the event notification is operable to initiate identifying a location having a reduced background noise.

Abstract: Wearable electronic communication devices having corresponding methods and computer-readable media comprise: an accelerometer; a don/doff detector; a transmitter; a processor configured to i) determine whether the wearable electronic communication device has experienced a fall based on information produced by the accelerometer, ii) determine whether the wearable electronic communication device was being worn during the fall based on information produced by the don/doff detector, and iii) cause the transmitter to transmit a message from the wearable electronic communication device responsive to the processor determining both i) the wearable electronic communication device has experienced a fall and ii) the wearable electronic communication device was being worn during the fall.