Momentive Performance Materials Gmbh

General Electric Company

The Carborundum Company

Other

Stemcor Corporation

Victory Elements, LLC

Intellectual Property Holdings, LLC

Metaullics Systems Co., L.p.

Dan T. Moore Company

Volt Research, LLC

Therm-x of California, Inc.

Ajit Sane

Jeffrey Lennartz

Alison W Gee

Joseph W Tereshko

Arthur Moore

Thomas Fox

David Lodyga

John T Mariner

Wei Fan

Jon Leist

Thomas E Devan

Marc Schaepkens

Dan T Moore

Robert Howard

David Michael Rusinko, Jr

Paulo Meneghetti

Toshiki Ebata

Xiang Liu

Steven J Waisala

Premachandran Krishnaswamy

Terry Joseph Mazanec

Thomas L Cable

Carl H McMurtry

Jonathan J Kim

Victor Emmanuel Bergsten

Prasad Shrikrisnna Apte

Joel D Katz

James Eric White

Viswanathan Venkateswaran

Thomas Gilbert Halvorson

Douglas Alan Longworth

Charles M Milliren

Timothy J Hejl

David J Eichenmiller

Bruce O Budinger

James L Eucker

David J Eichermiller

Gary Zayas

Tae Won Kim

Annendra Lal

Andrew John Macey

Jeff Lennartz

Thomas Devan

Embodiments disclosed herein include dissolvable and intentionally degradable objects that are useful for hydraulic fracking operations. Such objects are at least in part manufactured using materials that are soluble in certain fluids including water. The dissolvable and intentionally degradable fracking objects can be manufactured from one or more materials, including composite materials. In one embodiment, dissolvable fracking objects are manufactured from ceramic materials that are soluble in fluids such as water. Such dissolvable fracking objects include fracking balls and plugs. These fracking balls and plugs are arranged to seal a well for a predetermined period of time and dissolve over that predetermined period of time until the well is no longer sealed. In another embodiment, tools generally useful in fracking operations are manufactured to have desirable elastomeric properties. Such tools can be manufactured from a combination of materials that are soluble in fluids and generally dispersible in fluids.

Objects and tools for use in hydraulic fracturing and methods of manufacturing same

Embodiments of an electric heater apparatus are disclosed. In one embodiment, an electric heater apparatus includes: (a) a first thermally conductive layer comprising an electrically insulating material; (b) one or more electrically conductive heating elements disposed in one or more grooves arranged on the top side of the first thermally conductive layer; and (c) a second thermally conductive layer disposed on the top side of the first thermally conductive layer over the one or more heating elements. The one or more heating elements include one or more refractory hard metals doped with at least one of carbon, nitrogen, aluminum, yttrium, or oxygen. The doped one or more refractory hard metals include a temperature insensitive electrical resistance over operational temperatures ranging from ambient temperature to about 850° C. as compared to undoped refractory hard metals. The one or more heating elements are independently controllable to provide one or more heating zones.

High temperature aluminum nitride heater pedestal with multi-zone capability

A low viscosity filler boron nitride agglomerate particles having a generally spherical shape bound together by an organic binder and to a process for producing a BN powder composition of spherically shaped boron nitride agglomerated particles having a treated surface layer which controls its viscosity.

Low viscosity filler composition of boron nitride particles of spherical geometry and process

A heating apparatus for regulating/controlling the surface temperature of a substrate is provided. At least a thermal pyrolytic graphite (TPG) layer is embedded in the heater to diffuse the temperature difference of the various components in the heating apparatus and provide temporal and spatial control of the surface temperature of the substrate, for a relatively uniform substrate temperature with the difference between the maximum and minimum temperature points on the substrate of less than 10&#xb0; C.

Heating apparatus with enhanced thermal uniformity and method for making thereof

Boron nitride particles of spherical geometry and process of making

A membrane for use in a high temperature gas processing system and method for making the same. The membrane includes a dense, gas impermeable layer and a first and second porous layer, wherein each of the first and second porous layers is a ceramic oxide material having a non-symmetrical load bearing skeleton of a plurality of pores having a graded porosity. Each porous layer provides a reduction of an oxygen partial pressure gradient across the dense layer and reduces resultant stresses in the dense layer that are small compared to its strength thereby improving long term mechanical durability of the dense layer.

High temperature gas processing system and method for making the same

Boron nitride particles of spherical geometry and process for making thereof

A composite armor including a disrupting layer and a backing layer provides protection against blast and ballistic threats. The disrupting layer includes ceramic particles or tiles that disrupt the incoming projectile, while the backing layer prevents penetration past the armor by the disrupted projectile. The disrupting layer may include a layer of polygonal ceramic tiles with a deflecting front surface, encased by a retaining polymer, and may also include fire-retarding particles.

Encapsulated ceramic composite armor

A refractory container for evaporating metals, having improved useful life and corrosion resistance properties, the evaporation surface of the container having a plurality of grooves formed at the bottom surface. The grooves have either a depth of at least 1.2 mm, a width of at least 1.75 mm, or an interval spacing of at least 2.2 mm between adjacent grooves (or centers of adjacent grooves), and combinations thereof.

Container for evaporation of metal and method to manufacture thereof

A wafer processing apparatus is fabricated by depositing a film electrode onto the surface of a base substrate, the structure is then overcoated with a protective coating film layer comprising at least one of a nitride, carbide, carbonitride or oxynitride of elements selected from a group consisting of B, Al, Si, Ga, refractory hard metals, transition metals, and combinations thereof. The film electrode has a coefficient of thermal expansion (CTE) that closely matches the CTE of the underlying base substrate layer as well as the CTE of the protective coating layer.

Etch resistant wafer processing apparatus and method for producing the same

A wafer processing device or apparatus, i.e., a heater or an electrostatic chuck, comprises a planar support platen, a support shaft having centrally located bore, and a pair of electrical conductors located in the shaft. In one embodiment, the electrical conductors are concentrically located within the bore of the shaft, with the first electrical lead being in the form of a pyrolytic graphite rod and separated from the outer second graphite electrical lead by means of a pyrolytic boron nitride (pBN) coating. In a second embodiment, the support platen and the support shaft are formed from a single unitary body of graphite. In yet another embodiment of the device of the invention, the connection posts comprise a carbon fiber composite and the exposed ends of the electrical connectors are coated with a protective ceramic paste for extended life in operations.

Wafer handling apparatus and method of manufacturing thereof

A refractory container for evaporating metals, having significantly improved useful life and corrosion resistance properties, said container consists essentially of a refractory boride, boron nitride, and about 0.10 to 10 wt. % of a rare earth metal compound selected from one of an oxide, a nitride, a carbide, or mixtures thereof.

A method of forming a pyrolytic boron nitride (PBN) article and an article having layers of PBN separated by layers of PBN having a dopant of sufficient concentration to induce peeling, the steps of introducing vapors of ammonia and a gaseous boron halide in a suitable ratio into a heated furnace reactor to cause boron nitride to be deposited in layers on a substrate, with at least one gaseous dopant injected into furnace at controlled periodic interval(s) such that at least two selected layers of boron nitride are doped with said gaseous dopant(s) at a minimum average concentration of 0.1 atomic wt % at a depth ranging from 1000 to 2000 angstroms in each selected layer, and with the selected layers spaced apart about 0.1 micron to 100 microns.

Pyrolytic boron nitride crucible and method

Growing community of inventors

Medina, OH, United States of America

Ajit Sane