Abstract: A method, a system, and a computer program product for configuring output devices of a wearable device based on a detected orientation and body location of the wearable device. The method includes measuring at least one orientation input from at least one orientation module of a wearable device. The method further includes analyzing, via a processor of the wearable device, the at least one orientation input to determine a body location of the wearable device and a current orientation of the wearable device at the body location. The method further includes configuring at least one output device of the wearable device for operation in the current orientation at the body location.

Abstract: A method includes receiving an incoming biometric identification request on a first device from a user. First location data for the first device is determined. Second location data associated with at least one previous biometric identification request associated with the user is retrieved. A second level identification request is selectively initiated on the first device based on at least the first and second location data. A device includes a location module to determine first location data for the device, a biometric sensor to generate an incoming biometric identification request from a user, and a processor to retrieve second location data associated with at least one previous biometric identification request associated with the user and selectively initiate a second level identification request on the device based on at least the first and second location data.

Abstract: An electronic device includes one or more processors, an audio interface, operable with the one or more processors, and a voice interface engine. The audio interface receives first acoustic signals identifying a control operation for the one or more processors. The one or more processors cause the audio interface to exchange second acoustic signals with at least one other electronic device, thereby negotiating which device will perform the control operation.

Abstract: A method of operating a real time locating system (RTLS) includes: obtaining object gesture pattern data for an RTLS tagged object, in response to a gesture pattern motion of the RTLS tagged object; receiving camera gesture pattern data from a video camera, in response to the gesture pattern motion of the RTLS tagged object; determining that the object gesture pattern data matches the camera gesture pattern data; and sending the RTLS coordinates of the RTLS tagged object to a monitoring device, in response to the object gesture pattern data matching the camera gesture pattern data.

Abstract: A mobile device includes a wireless transceiver operative to establish a wireless connection with a connected device. The connected device may be either a peer-to-peer device or an access point. The mobile device also includes a battery monitor and a processor, operatively coupled to the wireless transceiver and to the battery monitor. The processor is operative to obtain a charge level from the battery monitor, and negotiate with a connected device for a transceiver power output level based on the charge level. The processor is also operative to control the wireless transceiver to reduce the wireless transceiver power output to the negotiated transceiver power output level in response to an acknowledgement message from the connected device.

Abstract: A method includes receiving headset motion data over a headset interface of a device while playing an audio selection on the device. A preference indicator for the audio selection is generated based on the headset motion data. A device includes a headset interface and a processor coupled to the headset interface. The processor is to receive headset motion data over the headset interface while playing an audio selection over the headset interface and generate a preference indicator for the audio selection based on the headset motion data.

Abstract: A method includes storing user information on a first identification tag of a first smart object of a first type to configure the first smart object to communicate with a device. An interrogator of the device is enabled to read a second identification tag attached to a second smart object of the first type. The user information is stored on the second identification tag responsive to determining that the second identification tag comprises default communication information to configure the second smart object to communicate with the device A connection is established between the device and the second smart object based on the user information.

Abstract: A method includes storing user information on a first identification tag of a first smart object of a first type to configure the first smart object to communicate with a device. An interrogator of the device is enabled to read a second identification tag attached to a second smart object of the first type. The user information is stored on the second identification tag responsive to determining that the second identification tag comprises default communication information to configure the second smart object to communicate with the device A connection is established between the device and the second smart object based on the user information.

Abstract: A method and data processing device for detecting and tracking objects in a space. The method includes transmitting an inquiry signal that traverses into the space, which is behind a physical barrier and is pre-configured with a plurality of radio frequency identification (RFID) tags. The method includes transmitting, via a RFID module, a second signal at a second frequency range. The method includes monitoring for a RFID response signal, which is a backscatter signal generated in response to the second signal impinging on the RFID tag and one or more objects in the space. The method includes identifying and extracting an interference reflection signal from the response signal to determine a presence of an unknown object. The method includes tracking the unknown object within the space and providing more specific position data of the unknown object within the space, to a display of an electronic device.

Abstract: A method and data processing device for detecting and tracking objects in a space. The method includes transmitting an inquiry signal that traverses into the space, which is behind a physical barrier and is pre-configured with a plurality of radio frequency identification (RFID) tags. The method includes transmitting, via a RFID module, a second signal at a second frequency range. The method includes monitoring for a RFID response signal, which is a backscatter signal generated in response to the second signal impinging on the RFID tag and one or more objects in the space. The method includes identifying and extracting an interference reflection signal from the response signal to determine a presence of an unknown object. The method includes tracking the unknown object within the space and providing more specific position data of the unknown object within the space, to a display of an electronic device.

Abstract: A method of operating a real time locating system (RTLS) includes: receiving, by an RTLS tagged object, RTLS coordinates of the RTLS tagged object within an RTLS perimeter; tracking inertial measurement unit (IMU) data by the RTLS tagged object; determining, by the RTLS tagged object, RTLS coordinate error in the RTLS coordinates using the IMU data; and determining corrected RTLS coordinates for the RTLS tagged object using the error.

Abstract: A method includes storing a user address associated with a particular user of a device in a first transceiver identification field stored on a first identification tag of a first smart object of a first type. An interrogator of the device is enabled to read a second identification tag attached to a second smart object of the first type. A second transceiver identification field is stored on the second identification tag. The user address is stored in the second transceiver identification field using the interrogator responsive to determining that the second radio identification field has a default value. A connection is established between the device and the second smart object using a first transceiver of the device based on the user address.

Abstract: A method of operating a real time locating system (RTLS) includes: obtaining known RTLS coordinates of a reference point located within an RTLS perimeter; determining, by an RTLS tagged object, a difference between known RTLS coordinates of the reference point, and measured RTLS coordinates at the reference point location; and determining corrected RTLS coordinates for the RTLS tagged object using the difference.

Abstract: A method of operating a real time locating system (RTLS) includes: obtaining object gesture pattern data for an RTLS tagged object, in response to a gesture pattern motion of the RTLS tagged object; receiving camera gesture pattern data from a video camera, in response to the gesture pattern motion of the RTLS tagged object; determining that the object gesture pattern data matches the camera gesture pattern data; and sending the RTLS coordinates of the RTLS tagged object to a monitoring device, in response to the object gesture pattern data matching the camera gesture pattern data.

Abstract: A mobile device includes a wireless transceiver operative to establish a wireless connection with a connected device. The connected device may be either a peer-to-peer device or an access point. The mobile device also includes a battery monitor and a processor, operatively coupled to the wireless transceiver and to the battery monitor. The processor is operative to obtain a charge level from the battery monitor, and negotiate with a connected device for a transceiver power output level based on the charge level. The processor is also operative to control the wireless transceiver to reduce the wireless transceiver power output to the negotiated transceiver power output level in response to an acknowledgement message from the connected device.

Abstract: An electronic device includes a biometric sensor, such as a fingerprint sensor, to identify biometric input. One or more processors are then operable to identify at least one paired device and at least one companion device operating within a wireless communication radius. The paired device then detects and identifies a simple gesture, communicating this in an electronic communication to a wireless communication circuit of the electronic device. The one or more processors then identify at least one authentication agent operating on the at least one companion device and select at least one authentication credential for the at least one authentication agent. The wireless communication circuit then delivers an authentication credential in response to the predefined gesture input.

Abstract: A method, a system, and a computer program product for configuring output devices of a wearable device based on a detected orientation and body location of the wearable device. The method includes measuring at least one orientation input from at least one orientation module of a wearable device. The method further includes analyzing, via a processor of the wearable device, the at least one orientation input to determine a body location of the wearable device and a current orientation of the wearable device at the body location. The method further includes configuring at least one output device of the wearable device for operation in the current orientation at the body location.

Abstract: A method, system, and computer program product for automatically receiving authorization data required to log into a service portal from a second device to a first device, via a validated connection. The method includes the first device submitting a first request to a provider to acquire authorization data required for an authenticated login to an associated online service of the provider. In response to the first device submitting the first request to the provider, the first device automatically receives the authorization data via a validated connection with the second device. In response to receiving the authorization data via the validated connection, the first device transmits a second request, including the authorization data, to the provider to gain access to the online service.

Abstract: A method and electronic device for detecting and recognizing autonomous gestures in a monitored location. The method includes receiving, at a processor, data collected by a user device. The data includes at least one coordinate that is indicative of a geographic location of the user device and corresponds to at least one specific movement of the user device. The method includes determining, by a processor, whether the geographic location of the user device is an identified, monitored location, in which user activities are monitored. In response to the geographic location being an identified, monitored location, the method includes determining which specific movements are presented by the coordinate. From a database, the method includes identifying a performance of a specific operation that correlates to the coordinate. The method further includes performing a second operation, based, in part, on an identified specific operation that is being performed in the geographic location.

Abstract: Apparatuses, methods, and program products are disclosed for tracking physical activity. One apparatus includes a processor, and a memory that stores code executable by the processor. The code is executable by the processor to detect, by use of the apparatus held by a first person, a second person in close proximity to the first person. The code is executable by the processor to track physical activity of the first person. The code is executable by the processor to transmit at least a portion of the tracked physical activity of the first person to an electronic identity corresponding to the second person to enable attaching at least the portion of the tracked physical activity of the first person to the electronic identity corresponding to the second person.