Abstract:
Techniques for data-capable band management in an integrated application and network communication data environment are described, including setting a goal, the goal comprising a threshold for an activity, receiving input from one or more sensors coupled to a wearable computing device over a time period, processing the input to generate a signal indicating whether the goal is achieved over the time period, generating a control signal, the control signal configured to initiate execution of an operation if the signal indicates the goal is achieved over the time period, and displaying on a user interface in data communication with the wearable computing device a log indicating the activity associated with the input received over the time period.
Abstract:
Techniques associated with a combination speaker and light source ("speaker-light device") responsive to states of an organism based on sensor data are described, including generating chemical sensor data in response to one or more chemicals sensed by one or more chemical sensors in the same or different speaker-light devices. A scent generator may be activated to counter an odor caused by a chemical detected by the chemical sensor(s). The speaker-light device may activate an air mover operative to circulate ambient air over the chemical sensor. The speaker-light device may take an appropriate action in response to detected chemicals that affect states of the organism. Some or all of the actions taken may be taken by other devices in communication with the speaker-light device(s). An action may include generating and presenting a path or route to be taken by a user to an area of safety or reduced chemical concentration.
Abstract:
Various embodiments relate generally to electrical and electronic hardware, computer software, wired and wireless network communications, and wearable computing and audio devices for monitoring health and wellness. More specifically, disclosed are an apparatus and a method for processing signals representing physiological characteristics sensed from tissue at or adjacent an ear of an organism. In one or more embodiments, a wearable device includes one or more sensor terminals, one or more physiological sensors configured to sense one or more signals originating at the one or more sensor terminals. At least one sensor terminal includes a pressure-sensitive terminal configured to detect a pressure exerted by a portion of tissue of an organism and generate a pressure signal representing a value of the pressure. Further, the wearable device can include a processor configured to cause generation of data representing a physiological characteristic of the organism based on the pressure signal.
Abstract:
Embodiments relate generally to electrical and electronic hardware, computer software, wired and wireless network communications, and wearable computing devices for sensing health and wellness-related physiological characteristics. More specifically, disclosed is a physiological sensor using, for example, acoustic signal energy to determine physiological characteristics in one mode, such as a heart rate, the physiological sensor being disposed in a wearable device (or carried device), and generating data communication signals using acoustic signal energy in another mode. The physiological sensor also can be configured to receive data communication signals. In at least one embodiment, an apparatus includes one or more multimodal physiological sensors configured to receive physiological signals in a first mode and at least generate data communication signals in a second mode. A wearable housing includes the multimodal physiological sensors, and a multimodal physiological sensing device is configured to receive a sensor signal and generate data representing a physiological characteristic.
Abstract:
Embodiments relate generally to electrical and electronic hardware, computer software, wired and wireless network communications, and wearable computing devices in capturing and deriving physiological characteristic data. More specifically, an array of electrodes and methods are configured to determine physiological characteristics using a wearable device (or carried device) that may be subject to motion. In one embodiment, an array of electrodes is disposed substantially in a wearable housing. At least a portion of the array including electrodes configured to either drive a first signal to a target location or receive a second signal from the target location. The second signal includes data representing one or more physiological characteristics. A sensor selector is configured to identify a subset of the electrodes adjacent to the target location and to select the subset of the electrodes from which to receive a sensor signal that includes data representing one or more physiological characteristics.
Abstract:
Techniques for component protective overmolding include selectively applying a protective material substantially over one or more elements coupled to a framework, forming an inner molding substantially over the framework, the one or more electrical elements coupled to the framework, and the protective material. In some examples, the inner molding is formed after the protective material has been selectively applied, forming an outer molding substantially over the inner molding and the outer molding is configured to protect the framework and to provide a surface configured to receive a pattern. Further, the outer molding may be configured to be removable if a defect is found during an inspection performed after the outer molding is formed.
Abstract:
Spatial and temporal vector analysis in wearable devices using sensor data are described, including evaluating a motion to determine motion signals, the motion being evaluated using data provided by one or more sensors in data communication with a wearable device, isolating motion signals into one or more motion sub-signals, determining a spatial vector and a temporal vector associated with each of the one or more motion sub-signals, and transforming the spatial vector and the temporal vector into a data structure to be used by an application configured to analyze the data structure and to generate content associated with the motion.
Abstract:
A personal advisor system using a data-capable band including a personal advisor distributed application comprising a feedback engine configured to process user activity data from a source device, the source device comprising at least one data-capable band; a recommendation module configured to generate a wellness recommendation using the user activity data; a personal offer module configured to generate a personal wellness offer using the user activity data; and a notification module configured to generate a feedback notification comprising one or more of the wellness recommendation and the personal wellness offer. The feedback engine is operable to communicate the feedback notification to the source device, if the source device is active, or to a non-source device upon request from the non-source device.
Abstract:
A wellness application for a personal wearable data-capable band is described, including an aggregation engine configured to aggregate user activity data from a plurality of sources, the aggregation engine comprising one or more modules configured to process the user activity data to determine an aggregate value, and a user interface configured to display a graphical representation using the aggregate value.
Abstract:
A method and apparatus to transfer a data session from one device connected to a residential gateway to another. The transfer is completed within the residential gateway, without routing data through the service provider' s network. In one embodiment, a native address of a communication device engaged in an active data session is stored in a memory as a temporary device address. A session address in memory is set equal to the stored temporary device address and the temporary device address is associated with the session address in memory. When a request to transfer the data session to another device is received, the temporary device address in memory set to the native address of the new communication device and the session history is sent to the new device. Any new data received in the session, intended for the original device, is routed by a data session handling engine to the new communication device.