Google Inc.

Verily Life Sciences LLC

3M Innovative Properties Company

Waymo LLC

Timothy John Prachar

Peter Joseph Bevelacqua

Pierre-Yves Droz

Gary L Hansen

Gaetan Pennecot

Anupam J Pathak

Albert Philip Van Duren

Mark Thomas Bieberich

Allen Hamid Ziaimehr

Philip G Dion

Ryan J Staab

Elecia White

David R Palchak

Hayes Solos Raffle

Robert Sobecki

Systems and methods for a mosquito fitness tester are disclosed. In one embodiment, a system includes: a rotatable enclosure comprising an enclosed cavity; a powertrain to rotate the rotatable enclosure in one or more axes; and one or more sensors to monitor one or more insects in the enclosed cavity.

Systems and methods for a mosquito fitness tester

A temperature measurement system determines a body temperature. The system includes a first temperature sensor; a first insulation material thermally coupled to the first temperature sensor with a first thermal resistance; a second temperature sensor spaced from the first temperature sensor; a second insulation material thermally coupled to the second temperature sensor with a second thermal resistance that is different from the first thermal resistance; an isothermal plate thermally coupled to the first insulation material and the second insulation material; and an isothermal plate temperature sensor. Heat conduction occurs along a first heat conduction path from the body, through the first insulation material, and to the isothermal plate, and the first temperature sensor measures a first temperature. Heat conduction occurs along a second heat conduction path from the body, through the second insulation material, and to the isothermal plate, and the second temperature sensor measures a second temperature.

Core temperature measurement using asymmetric sensors

A device is provided that includes (a) an antenna that includes at least one conductor, (b) a housing that includes an inner-upper surface and an inner-lower surface separated by a first distance, (c) a battery disposed within the housing, where a base surface of the battery is proximate to the inner-lower surface of the housing, where a first portion of the battery has a height, which is substantially equal to the first distance, and where a second portion of the battery is of lesser height than the first portion of the battery such that space exists between the second portion of the battery and the inner-upper surface of the housing, and (d) where the one conductor is arranged over the second portion of the battery in the space, such that the one conductor and the battery do not contact one another, and where, as arranged, the antenna is capable of a far-field communication.

Antenna assembly utilizing space between a battery and a housing

Embodiments regard nutrition assessment using a handheld device. An embodiment of an apparatus includes a handle with a controller within the handle, an attachment arm extending from the handle, and a user-assistive device coupled with an end of the attachment arm, wherein the apparatus is to determine a mass held by the user-assistive device, the determination being made during a task by a user of the handheld tool including manipulation of the handheld tool.

Assessment of nutrition intake using a handheld tool

A zero-heat-flux, deep tissue temperature measurement system measures internal body temperature by way of a probe having a heater and thermal sensors arranged in a zero-heat-flux construction. The measurement system includes control mechanization that determines heater and skin temperatures based upon data obtained from the probe and uses those temperatures to calculate a deep tissue temperature. The measurement system includes a signal interface cable having a connector where a probe can be releasably connected to the system. The cable and attached connector are a removable and replaceable part of the system, separate from the probe. The measurement system provides an output signal imitating a standard input signal configuration used by other equipment.

Zero-heat-flux, deep tissue temperature measurement system

Herein are described methods and systems for the automatic measurement of the mass of an object. An example method may begin with detecting by a computing device (such as a wearable computing device) an action that corresponds to a mass-measurement mode. In response to detecting the action, the computing device is caused to operate in the mass-measurement mode. The mass-measurement mode may involve receiving a motion-sensor signal from at least one motion sensor, determining a difference between a frequency-component magnitude of at least one given frequency component and a predetermined frequency-component magnitude, determining a mass of an object based on at least the determined difference between the frequency-component magnitude of the at least one given frequency component from the predetermined frequency-component magnitude, and causing an output device to provide an indication of the determined mass of the object.

Mass measurement

In some applications, it may be desirable to position multiple photodetectors at precise locations on a curved focal surface defined by an optical system. To achieve this positioning, the photodetectors may be mounted at desired locations on a flexible substrate that is in a flat configuration. The flexible substrate with mounted photodetectors can then be shaped to substantially conform to the shape of the curved focal surface. This shaping can be accomplished by clamping the flexible substrate between at least two clamping pieces. The curved flexible substrate clamped between the at least two clamping pieces can be positioned relative to the optical system such that the photodetectors are positioned at desired three-dimensional locations on the curved focal surface.

Photodetector array on curved substrate

Embodiments described herein may allow for the use of active capacitive sensing on a head-mountable device. An example method may involve: sending a first signal that has a first frequency from a signal transmitter positioned on a wearable computing device so that when the wearable computing device is worn, the signal transmitter couples to a part of a wearer of the wearable computing device, receiving a second signal at a capacitive sensor located on the wearable computing device, determining whether the second signal has the first frequency, if the second signal has the first frequency, outputting a third signal that is indicative of manual input on the capacitive sensor, and if the second signal does not have the first frequency, refraining from outputting the third signal.

Growing community of inventors

Mountain View, CA, United States of America

Timothy John Prachar