Tosense, Inc.

Sotera Wireless, Inc.

Baxter International Inc.

Baxter Healthcare Sa

Apple Inc.

Andrew S Terry

Matthew J Banet

Marshal Singh Dhillon

Susan Meeks Pede

Kenneth Robert Hunt

Henk Visser, Ii

Zhou Zhou

Gregory Kent Feld

Adolfo Meza-Guinea

Robert James Kopotic

Michael James Thompson

Adam Michael Fleming

Pierre-Olivier J Martel

Richard L Hagy

Kelly B Yancey

Timothy P Hannon

Alastair Kenneth Fettes

Wade Benson

Jeremy C Andrus

Ananthakrishna Ramesh

Marshal Singh Dillon

This invention provides a system adapted to be worn entirely on a patient's body for measuring a pulse oximetry (SpO) parameter and an electrocardiogram (ECG) parameter. The system includes first and second ECG electrodes that adhere to a patient's chest. The system further includes a flexible component to transmit the ECG parameter from the first and second ECG electrodes to an electronics module. The electronics module includes an electronic circuit, a microprocessor, a temperature sensor, and a wireless transmitter. The system further includes a pulse oximetry system for measuring the pulse oximetry (SpO) parameter.

Necklace-shaped physiological monitor

The invention provides a neck-worn sensor (referred to herein as the 'necklace') that is a single, body-worn system that measures the following parameters from an ambulatory patient: heart rate, pulse rate, pulse oximetry, respiratory rate, temperature, thoracic fluid levels, stroke volume, cardiac output, and a parameter sensitive to blood pressure called pulse transit time. From stroke volume, a first algorithm employing a linear model can estimate the patient's pulse pressure. And from pulse pressure and pulse transit time, a second algorithm, also employing a linear algorithm, can estimate systolic blood pressure and diastolic blood pressure. Thus, the necklace can measure all five vital signs along with hemodynamic parameters. It also includes a motion-detecting accelerometer, from which it can determine motion-related parameters such as posture, degree of motion, activity level, respiratory-induced heaving of the chest, and falls.

Techniques are disclosed relating to securely storing data at a computing device that is managed by an external entity. In some embodiments, a computing device maintains a first file system volume having data that is accessible to a user of the computing device and that is not managed by an entity external to the computing device. The computing device receives, from the entity external, a first request to configure the computing device to store data that is accessible to the user and managed by the external entity. In response to the first request, the computing device creates a second distinct file system volume to store the data managed by the external entity. In response to a second request from the external entity, the computing device subsequently removes the second file system volume.

Separation of managed and unmanaged data in a computing device

Some embodiments provide a method for a device having multiple users. The method identifies a process installed on the device that requires an isolated storage in a file system of the device. For each of a set of the users of the electronic device, the method assigns at least one container for use by the process within a user-specific section of the file system. The containers assigned to the process in a section of the file system specific to a particular user are only accessible by the process when the particular user is logged into the device. The method assigns at least one container for use by the process within a non-user-specific section of the file system. The containers assigned to the process within the non-user-specific section of the file system are accessible by the process irrespective of which user is logged into the device.

Multi-user device

Containers shared by multiple users of a device

The invention features a vital sign monitor that includes: 1) a hardware control component featuring a microprocessor that operates an interactive, icon-driven GUI on an LCD; and, 2) a sensor component that connects to the control component through a shielded coaxial cable. The sensor features: 1) an optical component that generates a first signal; 2) a plurality electrical components (e.g. electrodes) that generate a second signal; and, 3) an acoustic component that generates a third signal. The microprocessor runs compiled computer code that operates: 1) the touch panel LCD; 2) a graphical user interface that includes multiple icons corresponding to different software operations; 3) a file-management system for storing and retrieving vital sign information; and 4) USB and short-range wireless systems for transferring data to and from the device to a PC.

Hand-held vital signs monitor

The invention features a vital sign monitor that includes: 1) a hardware control component featuring a microprocessor that operates as interactive, icon-driven GUI on an LCD; and, 2) a sensor component that connects to the control component through a shielded coaxial cable. The sensor features: 1) an optical component that generates a first signal; 2) a plurality electrical components (e.g. electrodes) that generate a second signal; and, 3) an acoustic component that generates a third signal. The microprocessor runs compiled computer code that operates: 1) the touch panel LCD; 2) a graphical user interface that includes multiple icons corresponding to different software operations; 3) a file-management system for storing and retrieving vital sign information; and 4) USB and short-range wireless systems for transferring data to and from the device to a PC.

The present invention provides an improved, Internet-based system that seamlessly collects cardiovascular data from a patient before, during, and after a procedure for EP or an ID. During an EP procedure, the system collects information describing the patient's response to PES and the ablation process, ECG waveforms and their various features, HR and other vital signs, HR variability, cardiac arrhythmias, patient demographics, and patient outcomes. Once these data are collected, the system stores them on an Internet-accessible computer system that can deploy a collection of user-selected and custom-developed algorithms. Before and after the procedure, the system also integrates with body-worn and/or programmers that interrogate implanted devices to collect similar data while the patient is either ambulatory, or in a clinic associated with the hospital. A data-collection/storage module, featuring database interface, stores physiological and procedural information measured from the patient.

Internet-based system for evaluating T waves within ECG waveforms to determine the presence of cardiac abnormalities

The invention provides a system for evaluating a patient featuring: 1) an ECG-measuring system connected to the patient and configured to sense ECG information from the patient; 2) a data-acquisition system interfaced to a vital sign-monitoring system configured to sense vital sign information from the patient during an electro-physiology (EP) procedure; and 3) an external software system interfaced to both systems. The external software system includes a first software interface that receives ECG information measured from the patient by the ECG-measuring system, and a second software interface that receives vital sign and EP-related information from the data-acquisition system measured from the patient during an EP procedure. A database stores physiological and EP-related information measured from the patient before, during, and after the EP procedure. And an algorithm interfaced with the database determines an efficacy of the EP procedure by collectively analyzing information measured during each of these phases.

Internet-based system for characterizing patients undergoing an electrophysiology procedure

Database and algorithm for evaluating efficacy of an electrophysiology procedure

Internet-based system for evaluating ECG waveforms to estimate the degree of coronary blockage

Internet-based system for evaluating ECG waveforms to determine the presence of p-mitrale and p-pulmonale

Growing community of inventors

San Jose, CA, United States of America

Andrew S Terry