Cardiac Pacemakers, Inc.

Boston Scientific Scimed, Inc.

Other

Jeffrey E Stahmann

Andrew P Kramer

Jesse W Hartley

Keith R Maile

John D Hatlestad

Kent Lee

Rene H Wentkowski

Quan Ni

Michael John Kane

William J Linder

James Kalgren

Yinghong Yu

Qingsheng Zhu

Krzysztof Z Siejko

Imad Libbus

Pramodsingh Hirasingh Thakur

Yi Zhang

Ramesh Wariar

Paul J Huelskamp

Qi An

Julio Cesar Spinelli

Brendan Early Koop

David J Ternes

James O Gilkerson

Allan Charles Shuros

Jiang Ding

Joseph M Pastore

Rodney W Salo

Julie A Thompson

Bin Mi

Viktoria A Averina

Douglas R Daum

Jacob M Ludwig

David B Krig

Gerrard Merrill Carlson

Scott A Meyer

Scott R Stubbs

Scott R Vanderlinde

Stephen B Ruble

Aaron R McCabe

Donald Lee Hopper

Carlos Alberto Ricci

Jonathan T Kwok

Kenneth L Baker

Par Lindh

Benjamin J Haasl

Shantha Arcot-Krishnamurthy

David L Perschbacher

Arthur J Foster

Abhilash Patangay

Kenneth C Beck

Lance Eric Juffer

Robert J Sweeney

Randy W Westlund

Bruce Alan Tockman

Deepa Mahajan

Howard D Simms, Jr

Jay A Warren

Marina V Brockway

Yachuan Pu

Andres Belalcazar

Bruce H KenKnight

Dan Li

Bryan Allen Clark

Yanting Dong

Jason J Hamann

Steven D Girouard

Veerichetty A Kadhiresan

Elizabeth Mary Annoni

Binh C Tran

Richard Fogoros

Jan Weber

Avram Scheiner

Joseph M Bocek

Brian L Schmidt

Ron A Balczewski

Paul Allan Haefner

Yunlong Zhang

Gary Thomas Seim

Eyal Doron

Yingbo Li

James M Peck

Victor T Chen

Jaeho Kim

Barun Maskara

Brian D Soltis

Mark W Boden

Xuan K Wei

Juan Gabriel Hincapie Ordonez

Michael J Lyden

Craig Michael Stolen

Kyle Harish Srivastava

David Arthur Casavant

George Wilfred Duval

Sandra Nagale

Amy Jean Brisben

Avi Penner

Nicholas J Stessman

Yousufali H Dalal

Moira B Sweeney

A medical system for monitoring a left atrial pressure in a heart of a patient may include an implantable device including an expandable framework and a first sensor secured to the expandable framework and an external component configured to communicate wirelessly with the implantable device. The first sensor may be configured to detect a first measurement. The first sensor may be a pressure sensor and the first measurement may be the left atrial pressure. The implantable device or the external component may include a processor configured to create a first trend for the first measurement. The processor may be configured to use the first trend to modify the first measurement prior to outputting a corrected result.

Medical system for treating a left atrial appendage

An implantable pressure sensor includes a housing and a sensing component that is housed by the housing and exposed to an external pressure that is exterior to the housing. In response to the external pressure, the sensing component is configured to undergo a physical transformation that is representative of a mean pressure of the external pressure over a period of time of at least one minute. The pressure sensor includes circuitry that is operatively coupled to the sensing component and that is responsive to the physical transformation of the sensing component to produce a mean pressure signal that is representative of the mean pressure of the external pressure over the period of time.

Implantable passive mean pressure sensor

Systems and methods for monitoring patients with a chronic disease such as heart failure are disclosed. The system may include a physiological sensor circuit to sense physiological signals and generate signal metrics from the physiological signals. The system may include a health status analyzer circuit to use the signal metrics to generate one or more stability indicators of patient health status, such as stability of heart failure status. The system may additionally generate one or more health status indicators indicating patient health status such as heart failure progression. A patient disposition decision may be generated using the health status indicators and the stability indicators to provide an indication of readiness for patient discharge from or a risk of admission to a hospital.

Systems and methods for patient monitoring

This document discusses, among other things, systems and methods to determine an indication of contractility of a heart of a patient using received physiologic information, and to determine blood pressure information of the patient using the heart sound information and the determined indication of contractility of the heart. The system can include an assessment circuit configured to determine an indication of contractility of a heart of the patient using first heart sound (S) information of the patient, and to determine blood pressure information of the patient using second heart sound (S) information of the patient and the determined indication of contractility of the heart.

Chronic monitoring of blood pressure using heart sounds

Embodiments include medical device systems, medical devices, including accelerometers and chemical sensors, and methods of using the same to determine the posture of a patient. In an embodiment, a medical device system herein includes an accelerometer configured to generate a signal reflecting a position of a patient, a chemical sensor configured to generate a signal reflecting physiological analyte data of the patient and a controller in electrical communication with the accelerometer and the chemical sensor. The controller can be configured to determine a posture of the patient using the position signal generated by the accelerometer and the signal generated by the chemical sensor. Other embodiments are also included herein.

Systems and methods for disambiguation of posture

An example of a system for monitoring and treating respiratory distress in a patient may include one or more non-invasive monitoring devices to acquire patient condition signals and a respiratory distress monitoring circuit to monitor a state of the respiratory distress using the patient condition signals. The respiratory distress monitoring circuit may include a signal processing circuit to generate patient condition parameters using the patient condition signals and a respiratory distress analyzer, which may include a parameter analysis circuit and a notification circuit. The parameter analysis circuit may be configured to produce a patient condition metric being a function of the patient condition parameters and to perform prediction and/or detection of an exacerbation of the respiratory distress based on the patient condition metric. The notification circuit may be configured to produce an alert notifying a result of the performance of the prediction and/or detection.

Non-invasive system for monitoring and treating respiratory distress

A medical system may include a left atrial appendage closure device including an expandable framework and a proximal hub centered on a central longitudinal axis of the framework. An insert may be disposed within the proximal hub and include a collar configured to engage the proximal hub, a recess extending into the insert from a proximal end, and a post member disposed within the recess. The post member may be radially spaced apart from the collar and may extend proximally from a distal end of the recess to a proximal surface. The insert may include a first connection structure disposed distal of the proximal surface. The medical system may include a delivery catheter having a second connection structure configured to engage the first connection structure in a delivery configuration. The distal end of the delivery catheter includes a hollow portion configured to receive the post member in the delivery configuration.

Various aspects of the present subject matter relate to an implantable device. Various device embodiments comprise at least one port to connect to at least one lead with at least electrode, stimulation circuitry connected to the at least one port and adapted to provide at least one neural stimulation therapy to at least one neural stimulation target using the at least one electrode, sensing circuitry connected to the at least one port and adapted to provide a sensed signal, and a controller connected to the stimulation circuitry to provide the at least one neural stimulation therapy and to the sensing circuitry to receive the sensed signal. In response to a triggering event, the controller is adapted to switch between at least two modes. Other aspects and embodiments are provided herein.

Implantable neural stimulator with mode switching

Systems and methods for monitoring patients with respiratory diseases are described. A system may include a sensor circuit configured to sense one or more physiological signals indicative of respiratory sounds, and a spectral analyzer to generate first and second spectral contents at respective first and second frequency bands. The system may produce a respiratory anomaly indicator using the first and second spectral contents, or additionally with other physiological parameters. The system may detect an onset or progression of a target respiratory condition such as asthma or chronic obstructive pulmonary disease using the respiratory anomaly indicator, or to trigger or adjust a therapy.

Systems and methods to detect respiratory diseases using respiratory sounds

Systems and methods to determine a composite respiration phase of a patient are disclosed, including a signal receiver circuit to receive first and second physiologic information of a patient, and an assessment circuit to determine first respiration phase information of the first physiologic information and to determine the composite respiration phase of the patient using the determined first respiration phase information and the second physiologic information.

Respiratory phase determination

A ventricularly implantable medical device that includes a sensing module that is configured to detect an atrial fiducial and identify an atrial contraction based at least on part on the detected atrial fiducial. Control circuitry in the implantable medical device is configured to deliver a ventricular pacing therapy to a patient's heart based at least in part on the identified atrial contraction, and can automatically switch or revert the ventricular pacing therapies on the fly.

Leadless cardiac pacemaker with reversionary behavior

Systems and methods to determine an indication of patient dehydration are disclosed, including receiving first and second physiologic information of a patient, the first physiologic information including heart sound information of the patient and the second physiologic information different than the first physiologic information, and determining the indication of patient dehydration using the received first and second physiologic information.

Ambulatory dehydration monitoring during cancer therapy

A hospitalization management system including a heart failure analyzer that receives diagnostic data including at least sensor data representative of one or more physiological signals sensed from a hospitalized patient using one or more sensors and assesses risk of rehospitalization for the patient using the diagnostic data. The outcome of the risk assessment is used during and following the patient's hospitalization for reducing the risk of rehospitalization.

Method and apparatus for management of heart failure hospitalization

An example of a system for monitoring and treating respiratory distress in a patient may include signal inputs, a signal processing circuit, and a respiratory distress analyzer. The signal inputs may be configured to receive patient condition signals indicative of autonomic balance of the patient. The signal processing circuit may be configured to process the patient condition signals and to generate patient condition parameters indicative of the autonomic balance using the processed patient condition signals. The respiratory distress analyzer may be configured to determine a state of the respiratory distress using the patient condition parameters, and may include a parameter analysis circuit configured to analyze the autonomic balance of the patient and to determine the state of the respiratory distress using an outcome of the analysis.

Method and apparatus for monitoring respiratory distress based on autonomic imbalance

An implantable antibacterial barrier device for an elongated medical device, the elongated medical device configured to extend from a first site, through a second site, to a third site. The implantable antibacterial barrier device includes a housing configured to be disposed at the first site, a working electrode configured to be disposed at the second site, and a reference electrode configured to be disposed at the first site. The housing includes barrier circuitry. The working electrode electrically is coupled to the barrier circuitry. The reference electrode is electrically coupled to the barrier circuitry. The barrier circuitry is configured to selectively maintain the working electrode at a negative electrical potential relative to the reference electrode to form an antibacterial barrier.

Implantable devices and methods for control of bacterial infections

Growing community of inventors

Ramsey, MN, United States of America

Jeffrey E Stahmann