Palo Alto Research Center Inc.

Abram Scientific, Inc.

Cornell University

Xerox Corporation

Graftworx, Inc.

Inguran, LLC

Ramkumar Abhishek

Ashish V Pattekar

Scott Albert Uhland

Felicia Linn

David Mathew Johnson

Martin Sheridan

Eric Peeters

Christopher A Paulson

Timothy J Curley

Patrick Yasuo Maeda

Robert Thomas Krivacic

Norimasa Yoshimizu

Amit Lal

Philipp Helmut Schmaelzle

Sourobh Raychaudhuri

David Kalman Biegelsen

Eugene Michael Chow

Gregory Lewis Whiting

Jengping Lu

Alan G Bell

James E Reich

Mandana Veiseh

Frederick Joseph Endicott

Samit Kumar Gupta

Francis Honore

Anthony Flannery, Jr

Peter N Schlegel

Darius A Paduch

Veiseh Mandana

A computer-implemented system and method for entity tracking and identification is provided. A tracker associated with an entity is tracked. Communication is continuously attempted between the tracker and a tracking device associated with an individual in custody of the entity. During one of the attempted communications, an absence of the tracker is determined by identifying a time of the attempted communication and applying a time threshold to the time for the attempted communication. The absence of the tracker is identified when no communication has been established with the tracking device within the time threshold. The entity is classified as missing when the absence of the tracker is determined.

Computer-implemented system and method for entity tracking and identification

Devices, systems, and methods for delivering fluid are provided. Devices include a housing configured for intravaginal deployment and retention, at least one reservoir configured to contain a fluid, and a fluid dispensing mechanism configured to dispense the fluid past the cervix and to the uterus of the subject. Methods include intravaginally deploying and retaining a device in the subject, and dispensing the fluid from the device such that the fluid is driven past the cervix to the uterus of the subject.

Implantable fluid delivery devices, systems, and methods

Disclosed herein are devices for measuring, at one or more time points, one or more properties or changes in properties of a fluid sample. The devices may comprise a chamber defining an internal volume of the device suitable for receiving and retaining the fluid sample; a plurality of layers, the plurality comprising at least a first layer below the chamber, at least a second layer above the chamber, and a substrate layer between the first and second layers, wherein: the substrate layer is linked to at least one suspended element located within the chamber; the suspended element is linked to the substrate layer by at least two compliant structures located within the chamber; and the suspended element is configured to oscillate upon application of an actuating signal to at least one electrically conductive path, which runs across at least two of the compliant structures and the suspended element. Related methods and uses are also disclosed.

Methods, devices, and systems for measuring physical properties of fluid

A computer-implemented system and method for tracking and authenticating interactions is disclosed. A tracking device is associated with an individual responsible for an entity. Information about the entity is recorded on the tracking device. The tracking device interfaces with at least one further tracking device during an interaction between the responsible individual and a further responsible individual. The information recorded by the tracking device is transferred to the further tracking device and further information is recorded on the further tracking device. The recorded information from each of the tracking devices is compiled as a record for the entity and displayed.

Computer-implemented system and method for tracking and authenticating interactions

Systems and methods to non-invasively measure sub-cutaneous processes in a patient are disclosed. Examples of systems may optically detect biological fluid properties. The optical detection techniques described herein may be incorporated into a wearable monitoring system. Examples of wearable monitoring systems may simultaneously measure a plurality of sensory modalities. Systems of the present disclosure may be mounted on the skin of a patient.

Wearable device with multimodal diagnostics

A passive sensor tag system including a passive electronic sensor tag and an external readout. The passive electronic sensor tag including a sensor element configured to sense data in a local environment and to cause a shift in a fundamental electrical resonance frequency characteristic of a sensor circuit based on the sensed data. The external readout including an external readout circuit that is configured to generate a signal having a frequency and a voltage and to transmit the signal through an output antenna. The transmitted signal coupling the sensor circuit and the external readout circuit. The external readout determining a fundamental electrical resonance frequency characteristic of the sensor circuit based on the impedance of the coupled sensor circuit and external readout circuit. The external readout determining the sensed data based the fundamental electrical resonance frequency characteristic of the sensor circuit.

Passive sensor tag system

Retention devices and methods are provided for drug delivery. The device may include a housing configured for intraluminal deployment into a human or animal subject and at least one reservoir contained within the housing. The at least one reservoir may have an actuation end and a release end and contain at least one drug formulation. A plug may be contained within the at least one reservoir and be moveable from the actuation end toward the release end. The device may also include an actuation system operably connected to the actuation end of the at least one reservoir and configured to drive the at least one drug formulation from the reservoir. The device may also include at least one retention member affixed to the housing and movable between a non-stressed position, a deployment position, and a retention position for retaining the device in an intraluminal location in the subject.

Devices and methods for intraluminal retention and drug delivery

A computer-implemented system and method for real-time feedback collection and analysis is provided. An event related to a patient is identified during the patient's visit to a medical care facility. A prompt soliciting feedback is triggered upon identification of the event and the prompt is provided to the patient with at least one inquiry regarding the event. Feedback regarding the event is provided by the patient during the patient's visit to the medical care facility in response to the prompt. The feedback is analyzed and a recommendation for intervention of the patient's care is provided during the patient's visit to the medical care facility based on the feedback analysis.

Computer-implemented system and method for real-time feedback collection and analysis

Devices, systems, and methods for detecting estrus in subjects are provided. Devices include a housing configured for intravaginal/intrauterine deployment and retention and a sensor disposed in or on the housing, and are configured to use condition information sensed by the sensor to determine an estrus condition of the subject. Methods include deploying a device in the subject, sensing the condition information, and determining an estrus condition using the condition information. Systems include a device configured to communicate with a base station and/or with other implanted devices, which are located within a reception radius thereof, regarding the determined estrus condition.

Implantable estrus detection devices, systems, and methods

An elapsed timer device includes a timer element comprising a timer chamber, a timer chamber conditioning material disposed within the timer chamber, and a sensor arranged to sense a timer chemical within the timer chamber. The sensor indicates elapsed time in response to a threshold level of the chemical being present within the timer chamber. The timer chamber, timer chemical adsorption/desorption characteristics of the timer chamber conditioning material, and the sensor are configured so that an amount of the timer chemical within the timer chamber reaches the threshold level within a predetermined time after initialization of the timer element.

Timer based on chemical sensing

A light emitting diode (LED) light bulb includes a thermally conductive base and at least one LED assembly disposed on and thermally coupled to a surface of the base. The LED assembly includes at least one LED configured to generate light. A thermal optical diffuser defines an interior volume and the LED is arranged to emit light into the interior volume and through the thermal optical diffuser. The thermal optical diffuser is disposed on the surface of the base and extends from the base to a terminus on the light emitting side. The thermal optical diffuser is configured to include one or more openings that allow convective air flow between the interior volume of the thermal optical diffuser and ambient environment.

LED bulb with integrated thermal and optical diffuser

An ultrasonic or acoustic viscosity sensor or viscometer is provided that can be used to accurately measure viscosity for fluid samples of less than 1 &#x3bc;l in volume. Methods for measuring viscosity for fluid samples of less than 1 &#x3bc;l in volume are also provided. The viscosity sensor and methods based thereon enable simultaneous measurement of bulk and dynamic (shear-rate dependent) viscosity of a non-Newtonian fluid. Bulk and dynamic viscosity of the non-Newtonian fluid can be measured simultaneously without separating constituents of the fluid, and thus distinguishing the effect of constituents on the viscosity. Dynamic viscosity of the non-Newtonian fluid can be estimated at varying shear rates, to study the deformability of the constituents of the fluid as a function of shear rate.

Ultrasonic horn actuated microprobes based self-calibrating viscosity sensor

An electronic test plate includes a test plate comprising plurality of wells, each well configured to contain a substance to be analyzed. Sensors are arranged to sense characteristics of the substance and to generate sensor signals based on the sensed characteristics over time. The sensors are arranged so that multiple sensors are associated with each well. At least one sensor of the multiple sensors senses a characteristic of the substance that is different from a characteristic sensed by another sensor of the multiple sensors. Sensor select circuitry is arranged on a backplane disposed along the test plate. The sensor select circuitry is coupled to the sensors and enable the sensor signals of selected sensors to be accessed at a data output of the backplane.

Growing community of inventors

Mountain View, CA, United States of America

Ramkumar Abhishek