Applied Thin Films, Inc.

Other

Sankar Sambasivan

Kimberly Ann Steiner

Francis Richard Chapman

Scott A Barnett

Jeffrey William Donelan

Vikram Sharad Kaul

Ilwon Kim

John Rechner

Krishnaswamy Kasthuri Rangan

Christopher J Garcia

Transport of a vaporizable liquid containing at least one solute through a material containing nanochannels is performed by contacting material with at least one vaporizable liquid component and inducing liquid transport along nanochannel interior wall surfaces, wherein the material contains nanochannels having an average diameter up to about 300 nm, preferably up to about 100 nm, and liquid transport is induced by partial liquid vaporization. A film of solid material is deposited onto an Interior nanochannel wall surface by removing the transport liquid.

Transport of liquids and solute materials in nanochannels

A material contains open pores in which the channels and pores that are internally coated with at least one layer of phosphorus-containing alumina. Such material is formed by infiltrating a porous material one or more times with a non-colloidal, low-viscosity liquid coating precursor, drying, and curing the coating precursor to form a phosphorus-containing alumina layer within pores of the material.

Protective internal coatings for porous substrates

Transport of a vaporizable liquid containing at least one solute through a material containing nanochannels is performed by contacting material with at least one vaporizable liquid component and inducing liquid transport along nanochannel interior wall surfaces, wherein the material contains nanochannels having an average diameter up to about 300 nm, preferably up to about 100 nm, and liquid transport is induced by partial liquid vaporization. A film of solid material is deposited onto an interior nanochannel wall surface by removing the transport liquid.

A solid amorphous silica-rich aluminosilicate composition is stable at temperatures up to 1500&#xb0; C. or above and is capable of sustained use as a coating under high to extreme temperature conditions.

High temperature stable amorphous silica-rich aluminosilicates

Aluminophosphate compounds, compositions and/or materials as can be used for substrate coatings.

Aluminum phosphate compounds, compositions, materials and related metal coatings

Composites comprising an aluminum phosphate-based coating component and methods for sealing porous substrate surfaces.

Aluminum phosphate compounds, coatings, related composites and applications

High temperature composites and thermal barrier coatings, and related methods, using anisotropic ceramic materials, such materials as can be modified to reduce substrate thermal mismatch.

Highly anisotropic ceramic thermal barrier coating materials and related composites

Aluminum phosphate-based microspheres and related compositions and methods of use.

Aluminum phosphate based microspheres

Composites and methods relating to the use of inventive aluminophosphate compounds and films thereof with glass, ceramic and non-oxide ceramic substrates.

Aluminum phosphate compounds, compositions, materials and related composites

Aluminophosphate compounds and compositions as can be used for substrate or composite films and coating to provide or enhance, without limitation, planarization, anti-biofouling and/or anti-microbial properties.

Aluminum phosphate coatings

The present invention relates to oxides on suitable substrates, as converted from nitride precursors.

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Chicago, IL, United States of America

Sankar Sambasivan