Other

Tula Health, Inc.

Halo Wearables, LLC

Delta International Machinery Corp.

Hema Metrics, Inc.

Brigham Young University

In-line Diagnostics Corporation

Convergence Biometrics, LLC

Jre Star Investment Holdings, LLC

Ensign Holdings

University of Colorado

Duo-gard Industries, Inc.

Spectra Tracker LLC

Wordtech, Inc.

David R Miller

Devin Warner Miller

Jeffrey Michael Lee

Robert R Steuer

Robert C Davis

Michael Parker Jones

Nick Morrill

David Allen Bell

Federico Calero

Trevor Calero

Rick V Murakami

Matthew W Pettit

David Derrick

Larry V Lunt

Richard Vanfleet

Douglas L Cox

Perry N Law

Frank Kosciolek

Robert R McLeod

Robert Dean Donovan

Arlow Farrell

Delwyn N Pounders

Jerry W Ford

Kim Dewayne Stanford

Richard J Hutcheson

Kristy A Miller

Robert Lovelace

Songbiao Zhang

David Trejo

Peter Derrick

Bruce Hirsch

Joe E Williams

Described herein are apparatuses and methods for measuring a hydration condition with a wearable device. The wearable device may include a housing, a flume integrated into inro the housing, and a sensor array. The housing may include a perimeter wall disposed around a perimeter of the housing between a top wall and a bottom wall, where the top wall, bottom wall, and perimeter wall form an inner cavity. The flume may be disposed in the inner cavity, where a first end of the flume is disposed at the bottom wall and a second end of the flume is disposed at the top wall. The sensor array may include a first vapor pressure sensor located within the flume at a first location and a second vapor pressure sensor located within the flume at a second location.

Wearable hydration monitor sensors

Methods, systems and devices for aligning measurement data sets from different devices. In one embodiment, a synchronization platform includes circuitry configured to establish a first communication link with a first device being worn at a first location on a body of a user, receive a first set of measurement data from a first sensor of the first device indicative of physiological measurements of the user. The circuitry is further configured to: establish a second communication link with the second device, receive a second set of measurement data of the first type from a second sensor of the second device indicative of the physiological measurements of the user, and align the second set of measurement data with the first set of measurement data, wherein the second set of measurement data is a continuation of the first set of measurement data.

Aligning measurement data sets from different devices

Described herein are apparatuses and methods for measuring stress with a wearable device. In one apparatus, a wearable device includes a housing formed and shaped to affix to a user, a sensor integrated into the housing operable to engage a body of the user to take physiological measurements of the user over a threshold period of time to obtain physiological data, and a processing device coupled to the sensor. The processing device may be operable to receive, from the sensor, a first physiological data; receive, from the sensor, a second physiological data; determine a correlation between the first physiological data and the second physiological data; and determine a stress level of a bodily system of the user based on the correlation.

Wearable stress testing device

A method, system, apparatus, and/or device with a miniaturized impedance sensor. The method, system, apparatus, and/or device may include a substrate with locally non-flexible regions interconnected by a flexible material and a miniaturized impedance sensor disposed on the substrate. The miniaturized impedance sensor may include: an array of electrical contacts; an array of miniaturized electrodes disposed on the array of electrical contacts; and an interstitial filler disposed within the array of miniaturized electrodes. The locally non-flexible regions may correspond to subsets of the array of miniaturized electrodes. The locally non-flexible regions may retain shape as the flexible material changes shape.

Miniaturized impedance sensors

A method, system, device, or apparatus for notifying a device of a greater number of safety events associated with the first user. The method includes retrieving safety events associated with a first user of a first electronic device and determining a frequency of safety events. The method includes retrieving safety events associated with a second user of a second electronic device and determining a frequency of safety events. The method includes comparing the frequency of safety events associated with the first user and the number of safety events associated with the second user and determining that there is a greater frequency of safety events associated with the first user than with the second user for the period of time. The method includes determining a cause of the greater frequency of safety events associated with the first user.

Group management for electronic devices

A method, system, apparatus, and/or device with interdigitated miniaturized electrodes. The method, system, apparatus, and/or device may include: a band configured to extend at least partially around a body part of a user, the body part including a dermal layer; a user interface coupled to the band; a processing device coupled to the band; a miniaturized impedance sensor integrated into the band and positioned in the band to be pressed against the dermal layer, the miniaturized impedance sensor comprising a row of interdigitated miniaturized electrodes alternating between a miniaturized electrode of a first set of miniaturized electrodes and another miniaturized electrode of a second set of miniaturized electrodes; and an electrical circuit embedded in the band interconnecting the user interface, the processing device, or the miniaturized impedance sensor.

Interdigitated impedance electrodes of miniaturized impedance sensors

A method, system, apparatus, and/or device to select a depth within a body part to measure an impedance. The method, system, apparatus, and/or device may include: a band configured to extend at least partially around a body part of a user; a user interface coupled to the band; a miniaturized impedance sensor embedded in the band and positioned in the band to be pressed against the body part when the user wears the band, the miniaturized impedance sensor including an array of miniaturized electrodes, where the array of miniaturized electrodes is configured to measure an impedance at a depth within the body part and the depth corresponds to a subdermal feature within the body part; a processing device coupled to the band, where the processing device is configured to select the depth within the body part to measure an impedance; and an electrical circuit embedded in the band.

Methods and devices for selecting miniaturized impedance electrodes of miniaturized impedance sensors

A method, system, apparatus, and/or device to determine a condition of a user using a spectrometer with a collimator on a glass substrate. The method, system, apparatus, and/or device may include: a band comprising a shape, size, and flexibility designed for attaching the band to a body part of a user; a light source embedded in the band that emits light comprising a constituent wavelength that provides an indication of a feature of the body part; an optical sensor positioned in the band to receive the constituent wavelength; and a glass substrate oriented in the band to receive the light, the glass substrate comprising: an optical filter that comprises a passband to isolate the constituent wavelength from other wavelengths of the light; and a carbon nanotube grid structure comprising walls and through-channels, the carbon nanotube grid structure adhered to the glass substrate.

Miniaturized spectrometers on transparent substrates

Methods, systems, apparatuses, and/or devices for determining a baseline for an individual. The methods, systems, apparatuses, and/or devices may include a first memory device for computer storage. The methods, systems, apparatuses, and/or devices may include a processing device coupled to the first memory device, where the processing device is configured to: receive profile information for a user; generate a user profile based on the profile information; query a set of baseline profiles stored at the first memory device or a second memory device to identify a subset of baseline profiles; aggregate baseline profile information from the first baseline profile and baseline profile information from the second baseline profile to obtain an aggregated baseline profile; and set a baseline for a physiological parameter of the user from which to measure against for the physiological parameter, wherein the baseline is based on the physiological parameter of the aggregated baseline profile.

Baselining user profiles from portable device information

A method, system, apparatus, and/or device for adjusting a power consumption level of a device. The method, system, apparatus, and/or device may include: a first sensor interface, a second sensor interface, and a processing device coupled to the first sensor interface and the second sensor interface. The processing device may: measure a first physiological measurement via the first sensor interface within a first period of time; measure a second physiological measurement via the second sensor interface within the first period of time; adjust a power consumption level of the apparatus in view of at least one of the first physiological measurement or the second physiological measurement; measure the physiological measurement via the first sensor interface at the adjusted power consumption level within a second period of time; and measure a second physiological measurement via the second sensor interface at the adjusted power consumption level within the second period of time.

Power management for wearable devices

A method, system, apparatus, and/or device to align a miniaturized impedance sensor over the muscular-walled tube of a user. The method, system, apparatus, and/or device may include: a band comprising a shape, size, and flexibility designed for attaching the band to a body part of a user, where the body part includes a dermal layer and a muscular-walled tube; a miniaturized impedance sensor embedded in the band and positioned in the band to be pressed against a portion of the body part adjacent to the muscular-walled tube as the user wears the band, where the miniaturized impedance sensor may include two or more miniaturized electrode strips or an array of miniaturized electrode pillars; and an alignment device embedded in the band and configured in the band to align the miniaturized impedance sensor over the muscular-walled tube as the user wears the band.

Methods and devices for aligning miniaturized impedance sensors in wearable devices

Systems, methods, and devices of a health device network may include: a non-invasive glucometer that non-invasively measures analyte levels; an invasive glucometer communicatively coupled directly to the non-invasive glucometer; a cloud-based server communicatively coupled to the non-invasive glucometer or the invasive glucometer; a user device communicatively coupled to the cloud-based server; and/or a user interface that displays the invasive glucose measurement, the non-invasive glucose measurement, a data batch, and/or processed data to the user. The non-invasive glucometer and/or the invasive glucometer may aggregate an invasive glucose measurement and a non-invasive glucose measurement into the data batch. A data analytics application on the cloud-based server may be configured to: integrate the invasive glucose measurement and the non-invasive glucose measurement; identify a correlation between the invasive glucose measurement and the non-invasive glucose measurement; and/or generate a predictive model based on the invasive glucose measurement and the non-invasive glucose measurement.

Devices, systems, and methods for measurement validation for chronic health condition management

Devices, systems, and methods for predictive analytics for chronic health condition management

Various embodiments of the present technology generally relate to reflection suppressors. More specifically, some embodiments use elastomeric materials doped with optical absorbers for temporary suppression of Fresnel reflections for multiple substrates spanning wide spectral and angular bandwidth. The refractive index of the elastomer can be tuned to match a substrate and thereby minimize reflection. Some embodiments can use the addition of different absorptive dopants to allow for either broadband or wavelength-selective reflection suppression. As performance is limited only by index mismatch, both spectral and angular performance significantly exceed that of anti-reflection coatings. After use, these light traps may be removed and reused without damaging the substrate. These films have uses in spectroscopic ellipsometry, holography, and lithography.

Elastomeric reflection suppressor

Growing community of inventors

Morgan, UT, United States of America

David R Miller