United Technologies Corporation

Raytheon Technologies Corporation

Vyaire Medical Capital LLC

Carefusion 207, Inc.

Weatherford/lamb, Inc.

Carefusion 303, Inc.

Zoll Medical Corporation

Pratt-whitney Canada Corp

Ratheyon Technologies Corporation

Weatherford Technology Holdings, LLC

Mark John Rogers

Timothy M Davis

Tom Steinhauer

Terry Blansfield

Stephen J Birch

Willis Lam

Paul M Lutjen

Mark Broomer

Jonathan J Earl

Richard K Hayford

Carson A Roy Thill

Craig R McGarrah

Carl S Richardson

Jose R Paulino

Nicholas R Leslie

Clifton Pait

Russell E Keene

Jeffrey D Ponchak

Leonard Mulkowsky

Robert J Murphy

Paul James Wilson

Charles H Warner

Anthony B Swift

Michael G McCaffrey

Dilip M Shah

Alan David Cetel

Philip Robert Rioux

Neil L Tatman

Mark David Ring

Scot Adams Webb

Jeremy Drake

Kurt R Heinemann

Michael J Bruskotter

Kevin J Ryan

Kevin W White

Karl A Mentz

Kenneth E Carman

James R Plante

Eric A Kuehne

Jeffrey M Wittman

Timothy Dale Clapp

Matthew R Willett

Matthew S Verbiscus

Steven D Jenkel

Randall J Butcher

Paul S Bean

Gerald D Cassella

Scot A Webb

Matthew M Zietala

Reese Kincaid

Jessica M Lucier

Timothy A Dunbar

Terence P Tyler, Jr

Timothy Riddle

Thomas George

Glen Gee

Steven R Chabot

Chester D Blackman, Jr

David Hernandez

Richard Massey

Jonathan Earl

Kenneth E Carmen

Eric A Kuehue

Craig Mcgarrah

Jerrod Ullah

A ventilation management system communicatively couples a remote device such as a mobile device to one or more ventilators for monitoring of ventilator data, including ventilator configuration data, patient physiological statistics, and notifications. When a command to modify a configuration parameter of the ventilator is received while the ventilator is unavailable for communication, the command is cached and provided when the ventilator becomes available. When ventilator becomes available, the system receives an indication that the configuration parameter was modified at the ventilator, an operating condition of the ventilator, and a physiological statistic of a patient associated with the ventilator, the operating condition and physiological statistic having been cached by the ventilator while the ventilator is unavailable. The operating condition of the ventilator, the physiological statistic of the patient, and the indication that the configuration parameter was modified is provided to the remote computing device for display.

Ventilation management system

A ventilation system operates in one of a plurality of modes for communicating ventilation information with a computing device, and operating parameters of a ventilation device are remotely modified based on system data. Ventilation data is received from a ventilation device and an alarm associated with the ventilation device or the patient associated with the ventilation device is determined based on at least a portion of the ventilation data. Responsive to determining the alarm, the alarm is transmitted to the computing device before the ventilator data is transmitted to the computing device.

Ventilation system

A ventilator system includes a ventilation device, and is configured to operate in a passive mode configured to transmit ventilation data in response to requests from a ventilation management system, or an active mode configured to automatically transmit ventilation data as the data becomes available. The system receives ventilation system data associated with operation of the ventilation device, modifies one or more operating parameters of the ventilation device based on the received ventilation system data, receives ventilator data associated with the ventilator device, determines an alarm associated with the ventilator device or a patient based on the received ventilator data and, responsive to determining the alarm, sends the alarm to a beginning of a transmission queue for transmitting the ventilation data to the ventilation management system, wherein the alarm is communicated over the network prior to other ventilation data in the transmission queue.

A ventilation management system stores an initial configuration profile including a set of operating parameters for operating one or more respective ventilation devices. The system receives first ventilator data from a first ventilation device at a first location, and second ventilator data from a second ventilation device at a second location, the first and second ventilation devices being configured to operate based on the initial configuration profile, wherein the received first ventilator data comprises one or more current operating parameters of the first ventilation device, or physiological data obtained from a patient associated with the first ventilation device. The system modifies the initial configuration profile for use by the first ventilation device based on the received first ventilation data and provides the modified configuration profile to the first ventilation device. The modified configuration profile is implemented by the first ventilation device when approved by a clinician or the patient.

A brush seal is provided that includes a top plate, a back plate, and a bristle pack. The bristle pack is secured at a joint between the top plate and the back plate. The bristle pack includes a first bristle set extending from the joint, a second bristle set extending from the joint, and a sliding backing plate. The sliding backing plate includes a sliding portion and a support portion. The sliding portion is disposed contiguous with the second bristle set. The support portion has an inner face and a support face. The inner face is in contact with a distal end of the second bristle set. The support face is configured to support at least a portion of the first bristle set. The sliding backing plate is configured to slide relative to the second bristle set.

Brush seal with sliding backing plate

A seal structure may comprise a cavity defined at least partially by an axial surface and a radial surface. A brush seal may be disposed in the cavity. The brush seal may comprise a bristle pack and a backing plate coupled to the bristle pack. A first surface of the backing plate may contact the axial surface, and a second surface of the backing plate may contact the radial surface.

Compact brush seal

Patient information is associated with a respective ventilator device of a medical ventilator devices. Based on the ventilator data and associating the patient information, a ventilation configuration of the respective ventilator device and patient ventilation data related to a ventilation of the respective patient are determined. A current configuration of each of the plurality of medical ventilators is provided for display. In this regard, a display includes the determined ventilation configuration of the respective ventilator device and patient ventilation data of the respective patient. A control may also be displayed for changing a setting associated with the respective ventilator device and, when a change of the setting is received and implemented by the respective ventilator device, an indication of the change of the setting may be provided. Patient orientation may also be sensed and used to determine whether a setting needs to be changed or suction is needed.

Respiratory knowledge portal

A vane seal system includes a first non-rotatable vane segment that has a first airfoil with a first pocket at one end thereof. A second non-rotatable vane segment includes a second airfoil with a second pocket at one end thereof spaced by a gap from the first pocket. A seal member spans across the gap and extends in the first pocket and the second pocket. The seal member includes a seal element and at least one spring portion configured to positively locate the seal member in a sealing direction. Also disclosed is a seal for a vane seal system and a method related thereto for damping relative movement between a first pocket and a second pocket.

Vane seal system and seal therefor

A seal assembly extends along an axis and seals an axial (and/or radial) gap between a first component and a second component. The seal assembly includes a seal carrier and a seal element. The seal element extends axially (and/or radially) between a first portion and a second portion. The first portion of the seal element is slidingly arranged within a slot in an axial end (or a radial side) of the seal carrier. The second portion of the seal element is configured to axially (and/or radially) engage the second component.

Seal assembly for sealing an axial gap between components

A heat shield assembly for a gas turbine engine includes a first heat shield ply assembly defined about an axis; a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly and a band clamp mounted to the second heat shield assembly to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly.

Multi-ply heat shield assembly with integral band clamp for a gas turbine engine

The present disclosure relates to advanced materials, particularly single crystal grain structures including the formation of single crystal grain structures. Single crystal grain structures offer improved mechanical properties when used with individual components. Improving mechanical properties is favorable for components that are used in applications with high temperature, pressure, and stress. In these applications, mechanical failure is extremely undesirable. Individual components, such as seals, can be designed with a single crystal grain structure in a preferred direction. By selecting a preferred direction, and orienting the single crystal grain structure accordingly, the single crystal grain structure can improve the component's mechanical properties. Single crystal grain structure seals and the method of forming the seals, therefore, offer various improvements to individual components, specifically when the components are designed for high temperature, pressure, and stress applications.

Single crystal grain structure seals and method of forming

A vane cluster for a gas turbine engine includes a first end-of-cluster vane, a second end-of-cluster vane, a neighbor vane adjacent to the second end-of-cluster vane at an interface that includes an angled load interface therebetween; and a multiple of base vanes between the first end-of-cluster vane and the neighbor vane, the angled load interface different than an interface between each of the multiple of base vane.

Stator assembly for a gas turbine engine

A seal for sealing a radially outer component of a gas turbine engine stator to a radially inner component thereof includes an axially resilient seal carrier adapted for mounting the seal carrier and including at a radially inner portion thereof, a pair of radially spaced, axially extending, radially resilient jaws adapted to clamp a sealing element such as a rope seal there between in sealing engagement with a radially inner component of the engine stator.

Gas turbine engine seal

Growing community of inventors

Kennebunk, ME, United States of America

Mark John Rogers