USA As Represented by Secretary of the Navy

Other

Syed B Qadri

Teddy M Keller

Edward P Gorzkowski, Iii

Bhakta B Rath

Matthew Laskoski

Manoj K Kolel-Veetil

Andrew P Saab

Charles R Eddy, Jr

Earl F Skelton

Neeraj Nepal

Ramasis Goswami

Michael J Mehl

Joseph Perrin

Henry F Gray

Jianping P Yang

Nadeemmullah A Mahadik

Banhalli R Ratna

Jasbinder Singh Sanghera

Guillermo R Villalobos

Raymond M Gamache

Douglas B Chrisey

David S Y Hsu

James S Horwitz

Alberto Pique

David S Hsu

M Ashraf Imam

Louis F Aprigliano

Arne W Fliflet

Nadeemullah A Mahadik

Heungsoo Kim

Peter Lubitz

David J Godbey

Charles M Gilmore

Ame W Fliflet

M Ashraf Iman

Noam Bernstein

An aluminum magnesium alloy with reduced Samson phase at grain boundaries made from the method of providing aluminum in a container, adding boron to the container, providing an inert atmosphere, arc-melting the aluminum and the boron, and mixing the aluminum and the boron in the container to form an alloy mixture. A method of suppressing the Samson phase, AlMg, at grain boundaries in Aluminum, comprising providing aluminum in a container, adding boron to the container, providing an inert atmosphere, arc-melting the aluminum and the boron, and mixing the aluminum and the boron in the container to form an alloy mixture.

Suppression of Samson phase formation in Al&#x2014;Mg alloys by boron addition

Nano-structures of Aluminum Nitride and a method of producing nano-structures of Aluminum Nitride from nut shells comprising milling agricultural nuts into a fine nut powder, milling nanocrystalline AlOinto a powder, mixing, pressing the fine nut powder and the powder of nanocrystalline AlO, heating the pellet, maintaining the temperature of the pellet at about 1400&#xb0; C., cooling the pellet, eliminating the residual carbon, and forming nano-structures of AlN. An Aluminum Nitride (AlN) product made from the steps of preparing powders of agricultural nuts using ball milling, preparing powders of nanocrystalline AlO, mixing the powders of agricultural nuts and the powders of nanocrystalline AlOforming a homogenous sample powder of agricultural nuts and AlO, pressurizing, pyrolyzing the disk, and reacting the disk and the nitrogen atmosphere and forming AlN.

Aluminum nitride synthesis from nut shells

Described herein is a method for growing indium nitride (InN) materials by growing hexagonal and/or cubic InN using a pulsed growth method at a temperature lower than 300&#xb0; C. Also described is a material comprising InN in a face-centered cubic lattice crystalline structure having an NaCl type phase.

Plasma-assisted atomic layer epitaxy of cubic and hexagonal InN films and its alloys with AIN at low temperatures

A method of suppressing the Samson phase, AlMg, at grain boundaries in Aluminum, comprising providing aluminum in a container, adding boron to the container, providing an inert atmosphere, arc-melting the aluminum and the boron, and mixing the aluminum and the boron in the container to form an alloy mixture. An aluminum magnesium alloy with reduced Samson phase at grain boundaries made from the method of providing aluminum in a container, adding boron to the container, providing an inert atmosphere, arc-melting the aluminum and the boron, and mixing the aluminum and the boron in the container to form an alloy mixture.

Suppression of samson phase formation in Al&#x2014;Mg alloys by boron addition

Described herein is a method for growing InN, GaN, and AlN materials, the method comprising alternate growth of GaN and either InN or AlN to obtain a film of InGaN, AlGaN, AlInN, or AlInGaN.

Epitaxial growth of cubic and hexagonal InN films and their alloys with AlN and GaN

SiNnanotubes and nanorods wherein the nanotubes and nanorods of silicon nitride are pure &#x3b1;-SiNformed by carbothermal reduction of SiOfrom reacting agricultural husk material in heat and forming the silicon nitride nanotubes and nanorods.

Nanostructured silicon nitride synthesis from agriculture waste

A method of making Nanostructured Zinc Silicate from renewable sources comprising preparing powders of husks, preparing powders of ZnO, mixing the powders of husks and the powders of ZnO and forming a homogenous sample powder, pressing the homogenous sample and forming pellets, heating the pellets and forming nanostructured zinc silicate. The nanostructured zinc silicate from renewable sources product of the process of preparing powders of husks, preparing powders of ZnO, mixing the powders of husks and the powders of ZnO and forming a homogenous sample powder, pressing the homogenous sample and forming pellets, heating the pellets and forming nanostructured zinc silicate.

Synthesis of nanostructured zinc silicate from renewable sources

A method of making Aluminum Nitride (AlN) from nut shells comprising preparing powders of agricultural nuts, preparing powders of nanocrystalline AlO, mixing the powders and thereby forming a homogenous sample powder of agricultural nuts and AlO, pressurizing the homogenous sample powder into a disk, heat treating or pyrolyzing the disk in a nitrogen atmosphere, reacting the disk and the nitrogen atmosphere and forming AlN, and wherein the AlN is nano-structured AlN and in a pure form and in the wurtzite phase of AlN. A method of producing Aluminum Nitride comprising milling nuts into a powder, milling a powder of nanocrystalline AlO, mixing, pressing into a pellet, providing nitrogen, heating, and forming AlN. An Aluminum Nitride product from preparing powders of nuts and AlO, mixing, and forming a powder, pressurizing into a disk, pyrolyzing in nitrogen, and forming AlN.

A method of making SiNnanotubes and nanorods comprising adding agricultural husk material powder to a container, wherein the container is a covered boron nitride crucible, creating an inert atmosphere of nitrogen inside the container, applying heat, heating the agricultural husk material, and reacting the agricultural husk material and forming silicon nitride, wherein the silicon nitride is nanotubes and nanorods.

A method and resulting composition made by: providing boron carbide and a dopant selected from silicon, aluminum, magnesium, and beryllium; and ball milling the boron carbide with the dopant until at least one out of fifteen of the boron and/or carbon atoms of the boron carbide are substituted with the dopant.

Insertion of elements within boron carbide

Plasma-assisted atomic layer epitaxy of cubic and hexagonal InN and its alloys with AIN at low temperatures

This disclosure concerns a method of making silicon carbide involving adding agricultural husk material to a container, creating a vacuum or an inert atmosphere inside the container, applying conventional heating or microwave heating, heating rapidly, and reacting the material and forming silicon carbide (SiC).

Silicon carbide synthesis

This disclosure concerns a method of making silicon carbide involving adding one from the group of rice husk material, sorghum, peanuts, maple leaves, and/or corn husk material to a container, creating a vacuum or an inert atmosphere inside the container, applying conventional heating or microwave heating, heating rapidly, and reacting the material and forming silicon carbide (SiC).

Silicon carbide synthesis from agricultural waste

A composition comprising india stabilized gadolinia wherein the india stabilized gadolinia is an oxide with a direct substitution of the indium ion for the gadolinia ion resulting in a compound with the formula InGdO.

Monoclinic india stabilized gadolinia

A composition having nanoparticles of a refractory-metal boride and a carbonaceous matrix. The composition is not in the form of a powder. A composition comprising a metal component, boron, and an organic component. The metal component is nanoparticles or particles of a refractory metal or a refractory-metal compound capable of decomposing into refractory metal nanoparticles. The organic component is an organic compound having a char yield of at least 60% by weight or a thermoset made from the organic compound. A method of combining particles of a refractory metal or a refractory-metal compound capable of reacting or decomposing into refractory-metal nanoparticles, boron, and an organic compound having a char yield of at least 60% by weight to form a precursor mixture. A composition having nanoparticles of a refractory-metal boride that is not in the form of a powder.

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Fairfax Station, VA, United States of America

Syed B Qadri