Honeywell International Inc.

Alliedsignal Inc.

Other

The Garrett Corporation

Cpc Engineering Corporation

Stephen Frederic Yates

Phoebe Henson

Russell W Johnson

Romulus Gaita

Rebecca Kamire

Peter M Michalakos

Ted Bonk

Alexander M Bershitsky

Bijan F Hagh

Rehan Zaki

Jun Isobe

Dacong Weng

Chin-Hsiung Chang

Richard Bryce Fox

Mike S Koerner

Mary L Good

Brian C Krafthefer

Shaojun Zhou

Deanna Pinar Chase

Paul Kurlak

Inara M Brubaker

Glen Aaron Sanders

Chunqing Liu

Ronald Paul Rohrbach

Peter D Unger

Nancy E Iwamoto

Addison Miles Smith

David J Anderson

Steven J Sanders

William B Bedwell

Jeffrey J Chiou

Amanda Childers

Austin Taranta

Robert Henry Sedath

John D Howard, Iii

Tihomir G Tonev

Sean Skomurski

Amber Arzadon

Michael Peter Straszewski

Jian-Kun Shen

Hsueh Sung Tung

Santi Kulprathipanja

Barrett E Cole

George David Green

Richard E Eibeck

Raymond Hilton Thomas

Hermann A Zinnen

Paul S Fechner

Timothy R Demmin

Sunit Kumar Saxena

Timothy J Callaghan

Charles S Lo

Li Wang

Dipak J Shah

Keith A Horn

Allen Kent MacKnight

Robert Christian Parker

Richard George Rateick, Jr

Abraham Clearfield

Sudhir S Kulkarni

Zhongxi Huang

Gary Michael Knopeck

F Stephen Lupton

Willis Hammond

Gary J Seminara

Anatoly I Bortun

A Xavier Swamikannu

Kara L Warrensford

Jason C Grooms

David Loeffelholz

Daniel Franklin Harnish

Henry M Claeys

Gary Joseph Seminara

Mark Poling

Kim L Johnson

Jeffrey Han

Donna M Ruszaj

Lubos Forejt

Robert Morrell

Amar Ramachandra

James F LaCanna

Andrea K Schriver

Amar Anumakonda

Irene C DeFilippi

Gregory Allan Land

Jim Zhou

Arthur F Murphy

Dale Winton

Matthew C McGuirl

Lyudmila Bortun

Irene DeFilippi

Russel W Johnson

Irene C G DeFilippi

Dipak I Shah

Mengshi Lu

Grace Guo

Mike Koerner

Richard George Rateick

Tihomir Tonev

A system configured to be installed in an air flow channel includes a metal surface configured to convert liquid-phase contamination in the air flow channel of a vehicle to vapor-phase contamination; a sensor configured to sense the vapor-phase contamination in the air flow channel; and communication circuitry configured to transmit data indicating sensed levels of the vapor-phase contamination.

Supply air contamination sensor

Mobile apparatus and methods for ultraviolet (UV) light sanitization of an aircraft. The mobile apparatus generally comprises a mobile platform, such as a trolley, that has integrated therewith circuitry and devices that control and actuate ultra-violet C-spectrum (UV-C) light sources that are mechanically coupled to the trolley. The proposed mobile apparatus includes a controller that receives input from an operator and, optionally, from dosimeters mounted on the proposed system and/or within the aircraft. Based on the inputs received, the controller provides guidance to the operator in the form of alerts and messages, as well as automatically adjusting components of the mobile apparatus to adapt itself to a specific aircraft type.

Apparatus and method for ultraviolet (UV) light sanitization of an aircraft

The disclosure describes a system for generating hydrogen gas from a hydrocarbon through pyrolysis with reduced soot formation and increased carbon loading. The system includes one or more pyrolysis reactors configured to generate the hydrogen gas from the hydrocarbon through pyrolysis. Each pyrolysis reactor of the one or more pyrolysis reactors includes one or more fibrous substrates and a concentration sensor downstream of at least one fibrous substrate of the one or more fibrous substrates. Each fibrous substrate of the one or more fibrous substrates defines a deposition surface for carbon generated from the pyrolysis of the hydrocarbon and includes a plurality of fibers configured to maintain chemical and structural stability between 850&#xb0; C. and 1300&#xb0; C. The concentration sensor is configured to measure a concentration of at least one of a hydrocarbon byproduct or a hydrocarbon soot precursor, such as acetylene.

Hydrocarbon byproduct monitoring of fibrous substrates

An environmental control system includes an air conditioning subsystem and a contaminant removal subsystem downstream of the environment to be conditioned. The contaminant removal subsystem includes: a first gas-liquid contactor-separator; a second gas-liquid contactor-separator; and a dehumidifier disposed either upstream of the first gas-liquid contactor-separator or downstream of the second gas-liquid contactor-separator.

Hollow fiber membrane contactor scrubber/stripper for cabin carbon dioxide and humidity control

A spacesuit contaminant removal system includes at least one membrane separator and a liquid sorbent circuit. The at least one membrane separator is configured to receive a spent air stream from a ventilation system of a spacesuit and absorb a contaminant from the spent air stream into a liquid sorbent. The at least one membrane separator is configured to discharge a clean air stream to the ventilation system and discharge the contaminant in a contaminant stream to a space environment using a vacuum of the space environment. The liquid sorbent circuit is configured to circulate the liquid sorbent through the at least one membrane separator.

Spacesuit contaminant removal using liquid sorbent

A carbon dioxide conversion system for an environment includes a first gas-liquid contactor-separator downstream of the environment; an electrochemical conversion cell downstream of the first gas-liquid contactor-separator; and a cleaned ionic liquid storage intermediate the first gas-liquid contactor-separator and the electrochemical conversion cell.

Electrochemical carbon dioxide converter and liquid regenerator

A contaminant removal system for removing a contaminant from an environment includes a gas separator, a scrubber-separator downstream of the gas separator, and a stripper-separator downstream of the scrubber-separator. The gas separator is configured to receive a cabin air stream from the environment and concentrate the contaminant from the cabin air stream to produce a concentrated cabin air stream. The cabin air stream includes the contaminant, and the concentrated cabin air stream has a higher concentration of the contaminant than the cabin air stream. The scrubber-separator is configured to absorb the contaminant from the concentrated cabin air stream into a liquid sorbent and discharge a clean air stream to the environment. The stripper-separator is configured to desorb the contaminant from the liquid sorbent into a contaminant stream.

Contaminant concentration and removal system using liquid sorbent

In some examples, a membrane module includes a fiber bundle. The fiber bundle includes a tubular first region and a tubular second region positioned around the tubular first region. One of the first or second regions includes hollow fibers oriented along an axis of the fiber bundle. Another of the first or second regions includes hollow fibers that are not colinear in a radial direction from the axis of the fiber bundle. A void fraction of the second region is different from a void fraction of the first region.

Hollow fiber membrane module

A gas compression system includes a system inlet to receive a gas stream containing a first component and a second component, a vapor system outlet to discharge the gas stream, and a plurality of compression stages coupled in series between the system inlet and the vapor system outlet. Each of the plurality of compression stages includes a compressor, a condenser coupled to the compressor, and a gravity-independent phase separator coupled to the condenser. The compressor is configured to receive the gas stream from either the system inlet or another of the plurality of compression stages and compress the gas stream. The condenser is configured to condense the second component from the gas stream. The gravity-independent phase separator is configured to remove the second component from the gas stream and discharge the gas stream to either the system outlet or another of the plurality of compression stages.

Multi-stage compression and component removal

An environmental control system includes an air conditioning subsystem; a mix manifold downstream of the air conditioning subsystem and upstream of an environment to be conditioned; and a contaminant removal subsystem downstream of the environment to be conditioned. The contaminant removal subsystem includes a first gas-liquid contactor-separator. The first gas-liquid contactor-separator includes a first rotating porous bed that provides a heat/mass transfer surface for contact between a contaminated air from the environment and a liquid absorbent.

Apparatus and methods for enhancing gas-liquid contact/separation

An environmental control system includes an air conditioning subsystem; a mix manifold downstream of the air conditioning subsystem and upstream of an environment to be conditioned; and a contaminant removal subsystem downstream of the environment to be conditioned. The contaminant removal subsystem includes a first gas-liquid contactor-separator. The first gas-liquid contactor-separator includes a first packed, stationary bed that provides a heat/mass transfer surface for contact between a contaminated air from the environment and a liquid absorbent.

Ionic liquid CO2 scrubber for spacecraft

Growing community of inventors

Arlington Heights, IL, United States of America

Stephen Frederic Yates