Qualcomm Incorporated

Aniket Arun Vartak

Robert S Tartz

Charles Wheeler Sweet, Iii

Prince Gupta

Virginia Walker Keating

Somdeb Majumdar

Ted Ray Gooding

Mark Stirling Caskey

Richard Oliver Farley

Jay King

Sachin Subhash Talathi

Charles Wheeler Iii Sweet

Robert Scott Tartz

Jay Steven King

Mark S Caskey

An electronic device is operated by determining its location on a body of a human or an animal, as an ending point of a path from another electronic device. The path is predetermined by measuring at multiple frequencies, a property indicative of loss of an AC signal that propagates through the body along the path between the pair of electronic devices, to obtain measurements. The multiple measurements are thereafter used to select a particular path through the body, from among a group of paths through the body which are characterized in one or more training phases, e.g. by use of a classifier. After a particular path through the body is identified, based on an ending point of the particular path, an electronic device at that ending point is configured, e.g. by turning on or turning off a specific sensor, or by setting a rate of transmission of data.

Using intrabody signal propagation to infer wearable device location on the body for sensor optimization and configuration

A method for improving performance of a trained machine learning model includes adding a second classifier with a second objective function to a first classifier with a first objective function. Rather than minimizing a function of errors for the first classifier, the second objective function is used to directly reduce the number errors of the first classifier.

Method for improving performance of a trained machine learning model

Methods, systems, and devices are described for identifying noisy regions in a skin conductance signal. The signal is divided into a plurality of windows. Two or more features of the signal within a first window are computed. At least one of the two or more features being in a frequency domain. At least two of the features are combined to obtain at least a first metric. The first metric is compared to a corresponding threshold. The first window is identified as a noisy region of the skin conductance signal based on the comparison.

Processing of skin conductance signals to mitigate noise and detect signal features

Various arrangements for delivery of relevant content to a mobile device of a user are presented. Physiological state data and image data related to the user of the mobile device may be received by a host computer system from a mobile device. The image data may be analyzed to identify a characteristic of the image. The physiological state data may also be analyzed. Content to deliver to the mobile device of the user may be selected at least partially based on the physiological state data of the user and the characteristic of the image. The content may be transmitted to the mobile device.

Relevant content delivery

A biometric security method and apparatus for a capacitive sensor system is provided herein, where the method may include capturing a set of raw capacitive frames for a body part via the capacitive sensor system, wherein each raw capacitive frame includes a distribution of a plurality of capacitance levels measured from the body part; creating a capacitive profile based on the set of raw capacitive frames; comparing a first value in the capacitive profile to a second value in a biometric template generated from an enrolled body part, wherein the first value and the second value are located at a similar location with respect to the capacitive profile; and, generating an authentication signal based on a difference between the first value and the second value.

Method and apparatus for biometric-based security using capacitive profiles

Systems, methods, devices, and apparatuses for associating a user emotion with electronic media are described. Contact between a user of a device and a biopotential electrode array that is integrated with the device is detected. Electrodermal data of the user is acquired via the biopotential electrode array. The user emotion is derived based at least in part on the acquired electrodermal data. The user emotion is then associated with the electronic media.

Associating user emotion with electronic media

Methods, systems, and devices are described for collecting physiological data using a configurable biopotential array. The array is embedded on a surface area of a handheld device. The array includes a number of electrode tiles. The electrodes include biosensors to collect the physiological data of a user. The electrodes are polled to detect contact with the user's skin. Electrodes in contact with the skin are electrically coupled to form an active electrode area. The coupled electrodes collect the physiological data relating to the user via the biosensors. The electrodes are decoupled after contact with the user's skin is terminated. The physiological data is analyzed and an emotional state or health state of the user is determined from the analyzed data.

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San Diego, CA, United States of America

Aniket Arun Vartak