Eaton Intelligent Power Limited

Rentech, Inc.

Cooper Technologies Company

Res Usa, LLC

Eltron Research, Inc.

Eltron Research & Development, Inc.

Jesse Wade Taylor

Harold A Wright

Belma Demirel

Sara L Rolfe

Joseph Michael Manahan

Dawid J Duvenhage

Andrew Francis Scarlata

Charles B Benham

Benjamin Avery Freer

Bahman Rejai

Pandurang V Nikrad

Sergio Mohedas

Olga Ionkina

Deena Ferdous

Richard A Bley

Adam Douglas Ledgerwood

Adikaramge Asiri Jayawardena

Dan Fraenkel

James H White

Ray J Huang

Olga P Ionkina

Stephan P Iannce

Alvah Benjamin Aldrich

Richard E Rothenberger

Eric Cheney

Danny M Dubuisson

Ray Huang

Eric Perry Cheney

Sara Rolfe

A conduit fitting for a hazardous environment includes a main body that has a distal portion and a proximate portion. The main body includes a longitudinal bore with openings at each of the distal portion and the proximate portion. The opening is configured to receive ends of a conduit. The fitting includes a first sealing region that includes a crimp feature configured to be crimped and a second sealing region adjacent the first sealing region. The second sealing region is configured to house a sealing component.

Hazardous environment conduit sealing

An enclosure system can include an enclosure comprising at least one wall forming a first cavity. The enclosure system can further include a moisture control system in communication with the enclosure, wherein the moisture control system controls at least one condition within the cavity of the enclosure, where the at least one condition affects an amount of moisture within the first cavity. The moisture control system can include a sensor that measures an amount of moisture in desiccant disposed within a desiccant vessel. The moisture control system can include a structural filter and a desiccant vessel, where the structural filter is coupled to an enclosure and disposed within a cavity formed by the enclosure, where the desiccant vessel is removably coupled to the structural filter, and where the desiccant vessel is accessible from outside the enclosure.

Moisture control systems for enclosures

An enclosure disposed in an ambient environment can include at least one wall that forms a cavity. The enclosure can also include at least one electrical device disposed within the cavity. The enclosure can further include at least one illuminated viewing system disposed in the at least one wall. The at least one illuminated viewing system can include a window disposed in the at least one wall. The at least one illuminated viewing system can also include at least one light source assembly that directs light within the cavity in which the at least one electrical device is disposed.

Illuminated viewing systems for enclosures

Apparatus, assembly and method for investigating the integrity of a seal and sealant contained in a sealing fitting used in hazardous locations. The apparatus/assembly can include signal transmitters and signal receivers provided on a conduit system on either side of a sealing fitting. The apparatus/assembly can include probes placed on either side of a sealant within a sealing fitting, the probes placed in probe ports provided through the wall of the sealing fitting.

Sealant detection apparatus, method and assembly

Aspects and techniques of the present disclosure relate to a structure for housing an electrical component. The structure can include an explosion-proof enclosure that is rated for use in a hazardous location. The explosion-proof enclosure can include at least one flame path and at least a portion that has a plastic construction that is light transmissive for inspection purposes.

Explosion-proof enclosures including light transmissive portions

A moisture control system for an electrical enclosure can include a control module. The system can also include a drain assembly coupled to the control module, where the drain assembly is disposed, at least in part, within the cavity of the electrical enclosure, where the drain assembly is configured to remove, based on instructions received from the control module, liquid from the cavity to the ambient environment.

Moisture control systems for electrical enclosures

A system for diagnosing integrity of an electrical conductor-carrying system can include an electrical conductor-carrying network having a number of electrical conductor-carrying devices mechanically coupled to each other, where at least a portion of the electrical conductor-carrying network is made of electrically conductive material. The system can also include a number of sensor modules coupled to the electrical conductor-carrying network. The system can further include a control unit communicably coupled to the sensor modules. The sensor modules can measure at least one impedance in the electrical conductor-carrying devices of the electrical conductor-carrying network.

Systems, methods, and devices for diagnosing integrity of electrical conductor-carrying systems

A method of strengthening a precipitated unsupported iron catalyst by: preparing a precipitated unsupported iron catalyst containing copper and potassium; adding a solution comprising a structural promoter to the previously prepared catalyst; drying the mixture; and calcining the dried catalyst. A method for preparing an iron catalyst, the method comprising: precipitating a catalyst precursor comprising iron phases selected from hydroxides, oxides, and carbonates; adding a promoter to the catalyst precursor to yield a promoted precursor; drying the promoted precursor to yield dried catalyst; and calcining the dried catalyst, wherein the catalyst further comprises copper and potassium. A method of preparing a strengthened precipitated iron catalyst comprising: co-precipitating iron, copper, magnesium, and aluminum; washing the precipitate; alkalizing the precipitate; and drying the precipitate to yield a dried catalyst precursor. The dried catalyst precursor may be calcined and treated with a gas comprising carbon monoxide.

Strengthened iron catalyst for slurry reactors

An electrical chamber can include at least one wall forming a cavity, where the at least one wall includes a first end and a wall inner surface. The electrical chamber can also include a first isolation zone disposed on the inner surface at a first distance from the first end, where the first isolation zone is formed by a first proximal wall, a first distal wall, and a first isolation zone inner surface disposed between and adjacent to the first proximal wall and the first distal wall, where the first proximal wall forms a first angle with the first isolation zone inner surface, where the first distal wall forms a second angle with the first isolation zone inner surface, where the first angle is non-perpendicular. The cavity is configured to receive at least one electrical conductor. The cavity and the first isolation zone are configured to receive a potting compound.

Potting compound chamber designs for electrical connectors

A corrosion tracking system within an enclosure can include an electrical circuit through which a first current flows, where the first current creates a magnetic field. The system can also include a target component disposed proximate to the electrical circuit, where the magnetic field induces a number of second currents to flow within the target component. The system can further include a sensor that measures the plurality of second currents flowing within the target component to generate a plurality of measurements. The measurements can indicate whether the target component is experiencing corrosion.

Systems for tracking corrosion within enclosures using sacrificial loop targets

A method of preparing a spray dried catalyst by combining spray dried catalyst particles with wax so the spray dried catalyst particles are coated with wax, yielding wax coated catalyst particles, and shaping the wax coated catalyst to provide shaped wax coated catalyst. A method of activating Fischer-Tropsch catalyst particles containing oxides by contacting the catalyst particles with a reducing gas in an activation vessel to produce an activated catalyst, wherein contacting is performed in the absence of a liquid medium under activation conditions. A system for activating a Fischer-Tropsch catalyst containing an activation reactor configured to introduce an activation gas to a fixed or fluidized bed of the Fischer-Tropsch catalyst in the absence of a liquid medium and at least one separation device configured to separate a gas stream comprising entrained catalyst fines having an average particle size below a desired cutoff size from the activation reactor.

Protected Fischer-Tropsch catalyst and method of providing same to a Fischer-Tropsch process

A method of producing stable ferrous nitrate solution by dissolving iron in nitric acid to form a ferrous nitrate solution and maintaining the solution at a first temperature for a first time period, whereby the Fe(II) content of the ferrous nitrate solution changes by less than about 2% over a second time period. A method of producing stable Fe(II)/Fe(III) nitrate solution comprising ferrous nitrate and ferric nitrate and having a desired ratio of ferrous iron to ferric iron, including obtaining a stable ferrous nitrate solution; dissolving iron in nitric acid to form a ferric nitrate solution; maintaining the ferric nitrate solution at a second temperature for a third time period; and combining amounts of stable ferrous nitrate solution and ferric nitrate solution to produce the stable Fe(II)/Fe(III) nitrate solution. A method of preparing an iron catalyst is also described.

Stable ferrous-ferric nitrate solutions for fischer-tropsch catalyst preparation

Protected fischer-tropsch catalyst and method of providing same to a fischer-tropsch process

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Baldwinsville, NY, United States of America

Jesse Wade Taylor