Parker-hannifin Corporation

Alstom Technology Limited

Ansaldo Energia Switzerland Ag

Kenneth W Cornett

Paul A Dudzinski

Dominick Greg More

Jeremy Payne

Amitava Datta

Stephen S Stone

Robert R Pelletier

Jonas Hurter

Ian William Boston

Douglas Schenk

Stephen J Coppola

Peter Graham Amos

Julian Kamibayashiyama

D Gregory More

Alexander Zagorskiy

Markus Stemann

Christopher D Mahoney

Daniel J Funke

Dan Funke

James E Beach

Ravi Gudiapti

Hans-Martin Hocke

Don Bowman

Dominick Gregory More

Jeff Navarro

Stephen W Jordan

Donald J Peterson

Jeremy M Payne

Dominick G Morre

An example plug assembly includes: a cone; a seal mounted to the cone; an anchoring ring comprising a plurality of anchoring ring segments disposed in a circular array, wherein a respective receptacle is formed between each two adjacent anchoring ring segments of the plurality of anchoring ring segments; and a support ring that is interposed between the seal and the anchoring ring, wherein the support ring comprises a plurality of support ring segments disposed in a respective circular array, such that each support ring segment partially overlaps two adjacent anchoring ring segments, and wherein each support ring segment of at least a subset of the plurality of support ring segments has a protrusion that is received within the respective receptacle.

Fracking plug with a support ring

An example plug assembly includes: a telescopic cone comprising a sealing cone and an anchoring cone, wherein the sealing cone and the anchoring cone are configured to move together in a distal direction, while the sealing cone is allowed to move relative to the anchoring cone in a proximal direction; a seal mounted to the sealing cone; and an anchoring ring mounted to the anchoring cone and comprising a plurality of segments disposed in a circular array, wherein during deployment of the plug assembly, the telescopic cone is driven in the distal direction, thereby expanding the anchoring ring and the seal, and wherein as the seal is allowed to relax after deployment, the seal pulls the sealing cone away from the anchoring cone, which remains in position relative to the anchoring ring.

Fracking plug with a telescopic cone configuration

A bridge plug assembly includes a tee bushing including a base and a stem, a coned bushing having a conical section and defining a bore that is configured to receive the stem, a molded assembly that is moveable over the conical section from an initial position to a set position, and a seal. The conical section is configured as a wedge such that when the stem is forced into the conical section during a setting process, the molded assembly and the seal move over the conical section from the initial position to the set position and expand radially outward by a wedge action of the conical section against a well casing. The molded assembly includes a slip assembly having a plurality of slip segments, over-molded with an elastomer. All components are made of dissolvable materials so as to reopen the well casing over time to its original inner diameter.

Dissolvable bridge plug assembly

High strength, degradable ball sealer for temporarily sealing off lower zones in a wellbore from the flow of a fluid injected into the well. The degradable ball sealer may also seal openings formed through slidable packers or sleeves received within a tubing string in the well, from the flow of a fluid injected into the well. The ball sealer includes an aluminum-based alloy matrix containing gallium, with graphitic carbon particulate and salt particulate homogeneously distributed within the aluminum-based alloy matrix.

Degradable ball sealer

A seal has a first endplate and has a second endplate. A first bellow spring spans first lateral portions of the first and second endplates. A second bellow spring spans second lateral portions of the first and second endplates.

Seal

A seal for sealing an interface between a container and a lid of a process chamber. The seal comprises a first seal element and a second seal element that are arranged to seal the interface in series, with the second seal element being situated to encounter processing activity upstream of the fist seal element. The first seal element has a deflectable portion and a protrusion extending radially from the deflectable portion. The second seal element has a radially extending recess in which the protrusion of the first seal element is received. The protrusion and recess interlock to restrict separation and/or rotation of the first and second seal elements. Inclined surfaces of the first seal element interact with the second seal element to apply axial sealing forces to sealing surfaces of the second seal member.

Substrate processing apparatus with composite seal

A composition and process for forming an electrodeposited coating comprising a co-deposit of a metal and MCrAlY particles. The composition includes a metal and a MCrAlY particles, and the electrodeposited coating comprises a metal matrix and MCrAlY particles dispersed in the matrix. In one aspect, a coating is provided that exhibits excellent oxidation resistance and tribological characteristics at high temperatures, including up to at least about 1350&#xb0; F. A high temperature coating may comprise a nickel/cobalt alloy matrix comprising MCrAlY particles and chromium carbide particles dispersed in the nickel/cobalt matrix.

Protective coating for metallic seals

A fuel injector for a gas turbine engine comprises a housing stem and a nozzle, the nozzle including an internal wall in heat transfer relation with fuel flowing through the nozzle, and an external wall in heat transfer relation with ambient air. The internal and external walls have downstream tip ends that are relatively moveable at an interface due to relative thermal growth during operation of the engine. An internal insulating gap is disposed between the internal and external walls to provide a heat shield for the internal wall, and a bellows internal to the injector has an upstream end sealingly attached to an upstream portion of one of the internal and external walls, and a downstream end sealingly attached to a downstream portion of the other wall to fluidly separate the insulating gap from any fuel entering into the nozzle through the interface.

Fuel injector nozzles for gas turbine engines

An engine exhaust system comprises duct pieces and a thermally expandable sealing joint for interconnecting their adjoining ends. The sealing joint comprises a tubular body including a first axial end portion, a second axial end portion, and a bridge portion extending therebetween. The first end portion is at least partially positioned within a female recess of the first duct piece and the second end portion is at least partially positioned with a female recess of the second duct piece. The bridge portion can extend across a gap and/or it can be positioned partially within female recesses. Upon thermal activation, the sealing joint radially expands permanently to engage the inner radial surfaces of the duct pieces.

Sealing joint for connecting adjoining duct pieces in an engine exhaust system

An engine exhaust system comprises duct pieces () and a sealing joint () for interconnecting their adjoining ends. The sealing joint () comprises a one-piece tubular body () including a first axial end portion (), a second axial end portion (), and a bridge portion () extending therebetween. The first end portion () is at least partially positioned within a female recess () of the first duct piece () and the second end portion () is at least partially positioned within a female recess () of the second duct piece (). Depending upon the thermal expansion-contraction conditions in the exhaust system, the bridge portion () can extend across a gap () and/or it can be positioned partially within female recesses () and ().

A process chambercomprising a container (), a lid (), and a sealed interface () therebetween. The container's interface surface () and/or the lid's interface surface () includes at least one groove () in which a seal () is situated. The seal () comprises an elastomeric element () and a metallic element (). The elastomeric element () and the metallic element () can be arranged and adapted to seal the chamber's interface () sequentially during its conversion to a sealed condition. And/or the elastomeric element () and the metallic element () can be arranged and adapted to seal the chamber's interface in series once the lid () is in its sealed condition.

Semiconductor process chamber

A spring seal for sealing in high temperature applications includes a jacket and a spring member disposed within the jacket. The spring member is constructed to control a sealing load or spring rate of the spring seal relative to opposing flanges while the jacket is constructed to provide a sealing surface relative to the opposing flanges. The spring member is manufactured from a cast blade alloy, thereby allowing the spring member to maintain its spring back characteristics at relatively high temperatures of about 1300&#xb0; F. and greater. Accordingly, the spring member minimizes the formation of a leak path between the spring seal and the opposing flanges. In one embodiment, the spring member is manufactured with a substantially U-shaped cross-section. With such a configuration, the spring seal provides substantially balanced, opposing forces on the jacket to minimize the formation of gaps between the spring seal and the flanges.

High temperature spring seals

A seal assembly () for sealing first and second static parts (A,B) with opposed slots (A,B) together forming a pocket (). The seal assembly () comprises a floor strip () positioned adjacent the pocket's floor () and a ceiling strip () positioned adjacent the pocket's ceiling (). A connection () of the strips' central portions () provides a flat hinge between cooperating hinge portions (). A first set of the hinge portions (A-A) converge for insertion into the first slot (A) and a second set of hinge portions (B-B) converge for insertion into the second slot (B). After such slot insertion and pocket installation, the converged hinge portions (A-A,B-B) resiliently diverge within the pocket to seat the floor strip's end portions (A,B) against the pocket's floor () and to seat the ceiling strip's end portions (A,B) against the pocket's ceiling ().

Seal assembly

The present invention relates to a sealing body for sealing an outer component with respect to an inner component, in particular for a combustion chamber of a gas turbine. The outer component has a passage opening, through which the inner component projects out of the outer component. In the installed state, the sealing body is arranged in the region of the passage opening, surrounds the inner component in a circumferentially continuous manner, bears in a circumferentially continuous manner, by means of an inner sealing zone, against an outer sealing surface of the inner component and bears in a circumferentially continuous manner, by means of an outer sealing zone, against an inner sealing surface of the outer component. The sealing body is produced by deformation from at least one metal sheet that is in strip form and is circumferentially continuous. The inner sealing zone and the outer sealing zone are formed at a profiled section of the sealing body along the entire circumference.

Profiled sealing body with spring section

A seal has first and second spring elements each having first and second surfaces along a bellows cross-section and extending between first and second edges. A spreader is secured to an endplate between the first edges of the first and second elements to capture first edge portions of the first and second elements.

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Ivoryton, CT, United States of America

Kenneth W Cornett