Abstract:
Techniques for providing physiological rate coaching by modifying media content based on sensor data are described. Disclosed are techniques for receiving data representing a target physiological rate, selecting a subset of files having data representing media contents to be presented based on the target physiological rate, processing sensor data received from one or more sensors to determine a difference from the target physiological rate, and modifying a presentation of the subset of files based on the difference. In some examples, the rate of presentation is modified. In some examples, the presentation sequence is modified. In some examples, a fading in of one media content and a fading out of another media content may be presented.
Abstract:
A system, apparatus, or method for controlling access to a network and to the associated network resources or services. The invention may be used to provide a user authentication or authorization process for a computer network, a telecommunications network, or other suitable system, apparatus, device, process, operation, etc. In some embodiments, the present invention uses a combination of device identification data (such as a device identifier or other form of token) and user-specific biometric data (such as a physical characteristic associated with the user or data generated as a result of a signal being altered by a physical characteristic of a user) to identify a user and permit the user to access the network or network resources or services.
Abstract:
Techniques associated with an adaptive optical material and device are described, including a device having a layer, a substrate, and an intermediate layer disposed between the substrate and the layer. The intermediate layer may include a first bladder and a second bladder. Each bladder may have a surface portion associated with an intermediate layer and another surface portion associated with a substrate. A first bladder may receive a first volume of fluid to form a first distance between the surface portions, and a first bladder may receive a second volume of fluid to form a second distance between the surface portions. A portion of a surface of the layer may include a degree of curvature relative to a line perpendicular to the substrate based on a difference between the first distance and the second distance. The degree of curvature may focus a subset of collimated light rays substantially at a point.
Abstract:
Embodiments of the invention relate generally to electrical and electronic hardware, computer software, wired and wireless network communications, and wearable computing devices for facilitating health and wellness-related information. More specifically, disclosed are electrodes and methods to determine physiological states using a wearable device (or carried device) and one or more sensors that can be subject to motion. In one embodiment, a method includes receiving a sensor signal including data representing physiological characteristics in a wearable device from a distal end of a limb and a motion sensor signal. The method includes decomposing at a processor the sensor signal to determine physiological signal components. A physiological characteristic signal is generated that includes data representing a physiological characteristic, which can form a basis to determine a physiological state based on, for example, bioimpedance signals originating from the distal end of the limb.
Abstract:
Microphone arrays (MAs) are described that position and vent microphones so that performance of a noise suppression system coupled to the microphone array is enhanced. The MA includes at least two physical microphones to receive acoustic signals. The physical microphones make use of a common rear vent (actual or virtual) that samples a common pressure source. The MA includes a physical directional microphone configuration and a virtual directional microphone configuration. By making the input to the rear vents of the microphones (actual or virtual) as similar as possible, the real-world filter to be modeled becomes much simpler to model using an adaptive filter.
Abstract:
Embodiments relate generally to wearable electrical and electronic hardware, computer software, wired and wireless network communications, and to wearable/mobile computing devices configured to facilitate communication among electronic devices, including mobile phones and media devices that present audio and/or video content. More specifically, disclosed are wearable systems, platforms and methods for providing stress-tolerant interconnections to enhance signal connectivity reliability in a wearable device. In various embodiments, a wearable electronics platform can include circuit substrates and interconnect portions disposed coextensive with a longitudinal surface between the circuit substrates. An interconnection portion can include conductors having one or more stress-relief features, and an elastic material encapsulating the conductors. In some examples, the longitudinal surface including the interconnects and the circuit substrates can be configured to substantially encircle an axis. The axis can coincide with a body part or an appendage, such as a wrist.
Abstract:
Techniques for communicating using tactile stimuli on wearable devices are disclosed. In some examples, a signal representing a state of a user of a first wearable device is received at a second wearable device. A control signal is generated based on the state, and the control signal is configured to generate a tactile stimulus. Transmission of the tactile stimulus to a region exterior to the second wearable device is caused. In some examples, a signal representing a first attribute of a first force from sensors of a first wearable device is received at a second wearable device. A control signal is generated based on the first attribute, and the control signal is configured to generate a second force that has a second attribute that is substantially similar to the first attribute. Transmission of the second force to a region external to the second wearable device is caused.
Abstract:
A wireless wearable device to detect inflammation may include motion sensors for generating motion signals in response to body motion (e.g., accelerometry), force sensors for generating force signals in response to force exerted by a body portion on the force sensor, and biometric sensors for generating biometric signals indicative of biometric activity in the body (e.g., arousal in the SNS). Processing of the force signals using the motion signals may be used to remove errors in the force signals caused by the body motion. The processing may generate a signal that indicates a state of the body that is an inflammation state (I), a contraction state (C) or a nominal state (N). The inflammation state may be attributed to systemic inflammation, the contraction state may be attributed to dehydration/severe dehydration, and the normal state may be attributed to a normal baseline tissue pressure in the body of a user.
Abstract:
Embodiments relate generally to wearable electrical and electronic hardware, computer software, wired and wireless network communications, and to wearable/mobile computing devices. More specifically, various embodiments are directed to, for example, aligning a flexible substrate and/or components thereof during fabrication to enhance reliability. In one example, a method includes forming a framework that includes, for example, a portion (e.g., an anchor portion) configured to couple to a flexible substrate, the portion having a neutral axis. Also, the method may include forming a flexible substrate that includes a supported flex region including conductors and one or more rigid regions configured to receive one or more components. A rigid region might include an encapsulated rigid region. The method further may also include aligning the encapsulated rigid region at an angle to the neutral axis, and molding over the encapsulated rigid region.