The Hoover Comapny

Lifeline Scientific, Inc.

Gojo Industries, Inc.

Techtronic Floor Care Technology Limited

Other

Healthy Gain Investments Limited

Lifescience Scientific, Inc.

Jeffrey S Louis

Christopher P Steinman

David Pettinato

Brian L Otts

Rick W Walker

Matthew Copithorne

Jeffery A Morgan

Kirk C Palmerton

Sameer Kalghatgi

Tsung-Chan Tsai

Jeffrey T DeBord

Kevin E Scheifele

Ryan Scott Crisp

Peter Demuylder

Oren Shai

Robert L Gray

James V Guarrera

Daphne Pappas Antonakas

Ryan R Berger

Kevin L Thomas

Evan A Gordon

Edgar A Maurer

Adam C Sclafani

David B Rennecker

David L O'Neal

Siu Wai Hui

Harald Krondorfer

Robert A Salo

David C Kravitz

Steven J Paliobeis

Charles A Lang

Kurt D Harsh

David Chaney

Peter DeMuylder

Patrick Quinn

Douglas G Schaefer

Jeffrey A Morgan

David P Parks

David Petrak

Abhishek Juluri

Jay F Perkins

Paul E Hsu

Ronald J Stephens

Rodney Hal Monson

Sean D Montag

Douglas C Barker

Lynn A Frederick

Ross Lockwood

Vincent L Weber

Darwin S Crouser

Ronald Rich

Kevin Michael Vail

Michael A Durbin

John Bantum

Glenn E Specht

Kenneth L Symensma

Gregg A McAllise

Aaron Randall Ferber

William H Theiss, Jr

Evan David Shapiro

Douglass A King

John Stark

Jerry L Balzer

Carl Behrend

Thomas G Diamond

Frank D Fowler

Sleiman A Abdallah

Deborah R Tucker

James M Bednar

Raymond L Lawer

Anson W Telford

Patrick J Quinn

Oren Shal

Ben O Arrington

Michael J Reiter

Kevin Vail

Ron Rich

Harald Krondofer

An apparatus for perfusing an organ or tissue includes a perfusion circuit for perfusing the organ or tissue; a controller configured to control the apparatus; and a detector configured to detect an optional component of the apparatus, and provide a signal to the controller indicative of the presence of the optional component, wherein the controller is configured to control the perfusion circuit in a first mode when the optional component is detected and to control the perfusion circuit in a second mode when the optional component is not detected.

Organ perfusion apparatus with downstream flow control

Exemplary methods of and system for generating an antimicrobial wipe to clean and disinfect a surface contaminated with bacteria, viruses, spores, fungi, or combinations thereof. In some embodiments, the method includes applying non-thermal plasma to a moistened wipe to activate a liquid in the wipe. In some embodiments, the method includes applying non-thermal plasma to a liquid and then applying the activated liquid to a wipe. In one embodiment of a system for generating an antimicrobial wipe the system includes a housing having an opening; a supply of wipes disposed within the housing; a non-thermal plasma generator disposed within the housing; a power supply electrically coupled to the non-thermal plasma generator; and a feed system disposed within the housing, wherein the feed system moves one or more wipes from the supply of wipes past the plasma generator and out of the opening. As the feed system moves the wipes past the plasma generator, the plasma generator applies non-thermal plasma to the wipes.

Methods of and system for generating antimicrobial wipes

Exemplary embodiments of energy efficient foam pumps and dispensers are disclosed herein. An exemplary foam dispenser included a housing, a reservoir for holding a foamable liquid, a motor, a motor shaft, and a turbine air pump. The turbine air pump is connected to the motor shaft. A cam is also attached to the motor shaft and is used for driving a liquid pump. Liquid from the liquid pump and air from the turbine air pump are mixed in a mixing chamber and dispensed through an outlet nozzle. The touch-free foam dispenser further includes a sensor for sensing an object, circuitry for receiving a signal from the sensor indicative of an object being present and circuitry for energizing the motor to dispense fluid in the form of a foam.

Foam dispensers having turbine air/liquid displacement pump combination

A wobble plate for a sequentially activated multi-diaphragm foam pump includes three or more wings, a wobble plate shaft, and an aperture located in each of the three or more wings. A first wing is configured to have a first distance from first contact surface of a first pump diaphragm. A second wing is configured to have a second distance from a first contact surface on a second pump diaphragm, and a third wing is configured to have substantially the second distance from a first contact surface on a third pump diaphragm.

Sequentially activated multi-diaphragm foam pumps, refill units and dispenser systems having a non-uniform wobble plate

Exemplary systems and methods associated with activating fluids using indirect plasma. In particular, liquid can be activated to high concentrations and at high volumes by thinning and mixing the liquid as it is exposed to the plasma, resulting more efficient activation. Further increases in activation can be reached by re-circulating fluid for additional exposure to the plasma. High flow rates can be achieved with integrated systems that utilize multiple activation systems with coordinated control.

Methods and systems for generating plasma activated liquid

Exemplary systems and methods associated with trans-tissue substance delivery using non-thermal plasma to porate skin or tissues using contoured dielectrics/electrodes and grounding techniques. In some embodiments, a substance delivery system may be incorporated into the plasma generating device for automatically controlled skin treatments. In other embodiments, a skin treatment patch may include the electrode and the treatment substance.

Methods and systems for trans-tissue substance delivery using plasmaporation

A cleaning, sanitizing or disinfecting scrubbing device includes a body, a non-thermal plasma generator and damp wipe. Generated plasma activates fluid in the wipe. The device may include spacer posts between the body and wipe and a conductive mesh between the body and wipe or embedded in the wipe. Another embodiment includes a reservoir for holding a water-based fluid, a fluid delivery element connected to the reservoir by a tube through which the fluid can flow and a non-thermal plasma generator. The non-thermal plasma generator activates the fluid. In one embodiment the scrubbing device is a mitt. In another embodiment the scrubbing device is a glove.

Scrubbing device for cleaning, sanitizing or disinfecting

A cleaning, sanitizing or disinfecting scrubbing device includes a body, a non-thermal plasma generator and damp wipe. Generated plasma activates fluid in the wipe. The device may include spacer posts between the body and wipe and a conductive mesh between the body and wipe or embedded in the wipe. Another embodiment includes a reservoir for holding a water-based fluid, a fluid delivery element connected to the reservoir by a tube through which the fluid can flow and a non-thermal plasma geneator. The non-thermal plasma generator activates the fluid. In one embodiment the scrubbing device is a mitt. In another embodiment the scrubbing device is a glove.

An organ perfusion apparatus may include at least two tubes connected to an organ or tissue. A method of perfusing an organ or tissue may include connecting a first end of each of the at least two tubes to an organ or tissue, applying a fluid motive force to a perfusion fluid in the two tubes to force the fluid through the two tubes into the organ or tissue, and perfusing the organ or tissue through the at least two tubes such that the fluid motive force, provided by, e.g., a pump, and backpressure generated by the organ or tissue, establishes a flow balance between the at least two tubes. The flow balance may be altered without altering the fluid motive force that is applied.

A filter for filtering perfusate is integrated with an exterior portion of an organ container. The filter may be used in an apparatus for perfusing an organ. The perfusion apparatus may include an organ container configured to contain an organ, the filter integrated with an exterior portion of the organ container, and another filter. At least the filter integrated with an exterior portion of the organ container may be provided in a sterilized disposable kit.

Filtration in organ perfusion apparatus

An apparatus for separating gas bubbles that may be entrained in perfusate flow prevents such bubbles from continuing downstream and entering an organ or tissue. The apparatus may include a chamber having a top wall, a bottom wall and side walls. The chamber may include an inlet configured to allow at least one of gas and liquid to enter the chamber, an air opening configured to allow at least gas to exit the chamber and a first liquid opening configured to allow at least liquid to exit the chamber. The apparatus may function as an accumulator that reduces or eliminates pulsatility of the liquid flow and pressure. The apparatus may include a minimum volume of gas, initially or through the accumulation of gas, such that flow and pressure fluctuations in the liquid are dampened or eliminated. The apparatus may include a sampling port in a wall of the chamber.

Perfusion apparatus with reduced pressure fluctuations, and bubble trap

A perfusion apparatus includes a coolant container having a basin-receiving recess that is at least partly surrounded by an inner chamber; a basin that is shaped to fit within the basin-receiving recess of the coolant container; and a cradle that is shaped to accept an organ and fit within the basin. The basin-receiving recess of the coolant container, the basin and the cradle each have positioning elements that are oriented such that the cradle is keyed to fit within the basin and the basin is keyed to fit within the coolant container, each in a single predetermined orientation. The plurality of positioning elements on the basin may include a plurality of protrusions on an outer surface of the basin.

Organ transporter

Growing community of inventors

Akron, OH, United States of America

Jeffrey S Louis