Perry Equipment Corporation

Other

Clarcor Inc.

Pecofacet (us), Inc.

Parker-hannifin Corporation

Pecofacet, Inc.

John A Krogue

David Jack Burns

Timothy L Holmes

Marney Dunman Perry, Jr

Dan Cloud

Daniel M Cloud

Tomas Borjon

James G McQuaid

Christine Krogue

Stephen A Von Phul

Thomas B Green

Lei Li

Michelle Hewitt

Philip J McKibbin

Mick Glasscock

Abu Salim

Marney Dunman Perry

Tomas I Borjon

Body for enrichment toy

Cap for enrichment device

The present disclosure provides for an enrichment device. The enrichment device may comprise a body, a cap, a retaining mechanism, a release mechanism, an attachment mechanism. The body may comprise a hollow cavity within the enrichment device that may allow for objects to pass through the body. The release mechanism may comprise an external attached device. In some embodiments, the release mechanism may operate electronically. The attachment mechanism may allow a plurality of orientations of the enrichment device. The body may comprise external tracks that may allow for one or more attachment locations via the attachment mechanism. The release mechanism may exert a passive retention force that may be overcome through a sufficient volume of material applying force on the retaining mechanism from within the enrichment device. In some implementations, one or more enrichment devices may be used in unison.

Enrichment device

A non-pleated depth filter element in the form of a tubular ring of depth filter media is provided. Multiple wraps of sheets, some including fine fibers, are employed. The depth filter element has particular applications to liquid filtration applications.

Non-pleated tubular depth filter having fine fiber filtration media

A coreless and spirally wound non-woven filter element is provided. The filter element includes at least one band of base media having a selected porosity and an interlay having a different porosity within at least one band of base media. The presence of the interlay in the filter element can create additional surface area within the contiguous construction of a filter element for filtration. This interlay can also create the ability to change direction of flow and to increase the deposition of specifically sized contaminants.

Filter element and methods of manufacturing and using same

A contaminant adsorption is provided that includes a self-assembled monolayers on mesoporous supports (SAMMS) on a lattice support structure such as sintered metal wire mesh. Individual wire fibers of the sintered wire mesh may have a film coating of mesoporous material that is functionalized for a target metal. The mesh material is formed into filtration elements with or without particulate filtration media. Systems employing such filtration elements in one or multiple stages are also disclosed with an optional acid was stripping system for regenerating SAMMS and to facilitate reclamation of contaminants that can be refined into usable commercial materials.

Contaminant adsorption filtration media, elements, systems and methods employing wire or other lattice support

A contaminant adsorption filter element is provided that includes a self-assembled monolayers on mesoporous supports (SAMMS) contained in a filter element having a plurality of pockets such as a fluted filter media. The plurality of pockets are filled with mesoporous material that is functionalized for a target contaminant. A method of making a filter element having mesoporous material filled flutes is also provided.

Contaminant adsorbent fluted filter element

An apparatus for use in the treatment of contaminated fluid is provided. The apparatus includes an outer element into which contaminated fluid flows and an inner element positioned in substantial axial alignment within the outer element and in spaced relations thereto. The apparatus also includes, between its ends, a pathway defined by an interior surface of the inner element and along which treated fluid may be directed out from the apparatus. A waste nanoadsorbent material can be provided between the outer element and the inner element, for use in removing contaminants within the fluid flowing through the apparatus. A method for the treatment of contaminated fluid is also provided.

Method for treatment of contaminated fluids

A system for use in the treatment of contaminated fluid is provided. The system includes a source from which contaminated fluid may be introduced into the system, and a reservoir for an adsorbent material designed to remove contaminants from the fluid. The system also includes a reactor within which the adsorbent material and the contaminated fluid may be accommodated for treatment. A separation device may further be included for removing spent adsorbent materials from the system. A method for treating contaminated fluid is also provided.

Systems and methods for flow-through treatment of contaminated fluids

An apparatus for use in the treatment of contaminated fluid is provided. The apparatus includes a body portion, made from a mixture of a waste adsorbent material and a binder material, for use in the removal of contaminants. The adsorbent material may be a nanosorbent material manufactured from self-assembled monolayers on mesoporous supports (SAMMS). The binder material, on the other hand, may include any thermoplastic material capable of binding the adsorbent material together to subsequently provide a composite material that can be shaped into a block. A method for treatment of contaminated fluid is also provided.

Treatment of contaminated fluids

Canister for treatment of contaminated fluids

Composite adsorbent block for the treatment of contaminated fluids

Growing community of inventors

Mineral Wells, TX, United States of America

John A Krogue