Intel Corporation

Wake Forest University

Intel-ge Care Innovations LLC

Certus Critical Care, Inc.

David I Poisner

Yuri I Krimon

Mark R Francis

Joseph A Bennett

Yevgeniy Y Yarmosh

Ravishankar Iyer

Andrew H Gafken

Reinhard R Steffens

Blanka Vlasak

Glen J Anderson

David W Grawrock

Gregory A Peek

James A Sutton, Ii

Louis A Lippincott

William A Stevens, Jr

Lucas Paul Neff

Timothy K Williams

Richard Paul Crawford

Melanie Mcwade

Balaji Vembu

Gilbert A Neiger

David J Harriman

Richard A Uhlig

Stephen H Gunther

Arvind A Kumar

James P Kardach

Omesh Tickoo

Devadatta V Bodas

Shivnandan D Kaushik

Jeffrey R Wilcox

Darren L Abramson

Lawrence O Smith

Michael A Kozuch

Neil W Songer

Robert T George

Karthi R Vadivelu

Lance E Hacking

Leslie E Cline

Clifford D Hall

Bradley Gene Burgess

John William Horigan

Sung-Soo Cho

Siva Ramakrishnan

Andy Glew

Debra T Cohen

Chaitanya R Gandra

Kuljit Singh Bains

Efraim Rotem

David Wyatt

Michael E Kounavis

Tanay Karnik

Barnes Cooper

Alon Naveh

Jasmin Ajanovic

Eric C Samson

Aditya Navale

Robert J Greiner

Stephen S Pawlowski

Zohar Bogin

Matthew Peterson

Michael N Derr

Tsvika Kurts

Rajeev K Nalawadi

David Lawrence Hill

Jaya L Jeyaseelan

Paritosh Saxena

Nicholas D Triantafillou

Meng Shi

Jorge Pedro Rodriguez

Raymond Scott Tetrick

Frank Binns

Herbert H J Hum

Duane G Quiet

Mohamed A Abdelmoneum

Keshavan K Tiruvallur

Ernest Knoll

Daniel Senatore

Liang Cheng

Shawn S Mceuen

Travis Lee

Ariel Berkovits

Jay J Sturges

Alberto J Martinez

Thomas Birch

Anand K Enamandram

Kevin W Bross

Casey Baron

Gretchen Anderson

Yuval Elad

Sung Soo Cho

Ying Cui

Bernard Lint

William Knolla

Herbert Liondas

Farzin Guilak

Prasanna C Shah

Carl Christian Hansen

Rashed Mahameed

Nevo Idan

Lili Ma

Systems and methods for blood flow control are described herein. In some variations, a blood flow control system may comprise a blood flow control device. The blood flow control device may be placed within a body of a patient and may comprise an expandable member and a sensor. The sensor may be configured to measure at least one of a physiologic condition of the patient and a pressure associated with the expandable member. The blood flow control system may include at least one controller communicably coupled to the sensor to: receive data indicative of at least one of the physiologic condition of the patient and the pressure associated with the expandable member from the sensor, compare the received data with target data, identify at least one error based on the comparison, and in response to identifying the error, inhibit at least one function of the blood flow control system.

Blood flow control devices, systems, and methods and error detection thereof

Blood flow control devices, systems, and methods

The present disclosure is directed to a system for sensor-based objective determination. An example apparatus includes memory, instructions, and processor circuitry to execute the instructions to at least compare time-synchronization data between a first signal and a second signal, the first and second signals received in response to a detected contact between a first participant and a second participant in an event, wherein the first signal is received from a first sensor operably coupled to the first participant, the first sensor to measure at least one first physical parameter of the first participant while the first participant is engaged in the event, and wherein the second signal is received from a second sensor operably coupled to the second participant, the second sensor to measure at least one second physical parameter of the second participant while the second participant is engaged in the event, and determine, based on (a) the time-synchronization data, (b) the at least one first physical parameter, and (c) the at least one second physical parameter, whether the detected contact between the first participant and the second participant exceeds one or more thresholds corresponding to a rules-based infraction associated with the event.

System for sensor-based objective determination

The inventory capture system, method and apparatus (i.e., the inventory capture system) may provide for creating and updating an inventory of clothing for a user. The inventory capture system may use voice and image recognition to capture an inventory of clothing and provide users the ability to enhance the captured details about an inventory of clothing with annotations. Moreover, the inventory capture system may provide a way to facilitate retailers and users to leverage the user's existing inventory of clothing and augment the user's inventory of clothing with shared, purchased and/or rented clothing.

Inventory capture system

Methods and apparatus for determining biological effects of environmental sounds are disclosed. An example apparatus includes a sound characteristic analyzer to identify a sound event based on audio data in an environment. The example apparatus includes a physiological data analyzer to identify a physiological event based on physiological response data collected from a user exposed to the sound event in the environment. The example apparatus includes a correlation identifier to identify a correlation between the sound event and the physiological event and a report generator to generate a report based on the correlation.

Methods and apparatus for determining biological effects of environmental sounds

Systems and methods may provide for determining an amount of physical bend in an electronic device and comparing the amount of physical bend to a threshold. Additionally, a warning may be generated if the amount of physical bend exceeds the threshold. In one example, one or more values representing the amount of physical bend are stored to a nonvolatile memory on the device and retrieved in accordance with one or more of a diagnostic push event or a diagnostic pull event.

Determining device curvature in smart bendable systems

The present disclosure is directed to a system for sensor-based objective determination. In general, sensor data may be used to render objective determinations that were not previously possible due to the unavoidable subjectivity of human-based officiating systems. For example, at least one device may be configured to make objective determinations during the course of a sporting event. Data collection circuitry may receive data from sensor devices coupled to players, equipment, playing surfaces, etc. Data analysis circuitry may categorize the data and input the data into a model to determine if an infraction occurred. For example, categorization may involve determining a type of infraction that may have occurred based on the sensor data. The model may then be selected based on the type of infraction, the model being developed utilizing prior sensor data, rules for the sporting event, etc. Output circuitry may generate a notification based on the infraction determination.

This disclosure pertains to device-monitoring systems, and in particular (but not exclusively) to detecting and deterring unauthorized use of electronic systems at distinct locations and during specific time periods. An apparatus consistent with the present disclosure includes logic, at least partially implemented in hardware, to receive an entrance message. The entrance message may include at least one policy for the manner to which a device is to be operated when present within a device restricted area. The apparatus may also include logic to send an acknowledgement notification to indicate receipt of the entrance message and an agreement to abide by the at least one policy. Furthermore, the apparatus may also include logic to detect an attempt to execute an action contrary to the at least one policy.

Detection and deterrance of unauthorized use of mobile devices

An embodiment of an interactive play apparatus may include a camera to capture a projected image, an image recognizer communicatively coupled to the camera to recognize the captured projection image, and a projection responder communicatively coupled to the image recognizer to respond to the recognized projection image. Other embodiments are disclosed and claimed.

Toys that respond to projections

Methods, apparatus, and system create and execute non-linear interactive programs comprising action stages. During creation of a non-linear interactive program, output devices do not need to be known in advance, but can be defined according to output device criteria. Based on output devices encountered during execution of a non-linear interactive program, input which may be received from the output devices is determined, as well as input-output criteria. When input is received and input-output criteria are satisfied, output may be produced. In this way, execution of the non-linear interactive program may unfold, adaptively, based on participating output devices and input provided by such devices.

Non-linear interactive experience creation and execution methods and systems

Technologies for physical programming include a model compute system to determine one or more physical blocks assembled in a constructed model. The model compute system determines rules associated with the one or more physical blocks in which at least one rule defines a behavior of the constructed model and determines a program stack for execution by the model compute system based on the rules associated with the one or more physical blocks.

Technologies for physical programming

An edge device monitors a mechanical system for changes in vibration state. When an overall vibration state of the mechanical system deviates by at least a threshold from an expected vibration state, the edge device can send the data to a server for diagnostic processing. The edge device can thus monitor for a pre-failure condition that suggests an upcoming failure or a need for service. With selective sending of sensor data, the bandwidth and processing associated with diagnostics can be reserved for situations more likely indicative of a condition needing diagnosing, rather than performing constant diagnostic processing.

Machine diagnostics based on overall system energy state

Growing community of inventors

Folsom, CA, United States of America

David I Poisner