General Electric Company

Other

University of Cincinnati

Andrew Jacob Gorton

Vesselin N Shanov

Mark J Schulz

Stephen Duane Sanborn

Yeo-Heung Yun

Glen Peter Koste

Vitali Victor Lissianski

Mahadevan Balasubramaniam

A method of forming a carbon nanotube array substrate is disclosed. One embodiment comprises depositing a composite catalyst layer on the substrate, oxidizing the composite catalyst layer, reducing the oxidized composite catalyst layer, and growing the array on the composite catalyst layer. The composite catalyst layer may comprise a group VIII element and a non-catalytic element deposited onto the substrate from an alloy. In another embodiment, the composite catalyst layer comprises alternating layers of iron and a lanthanide, preferably gadolinium or lanthanum. The composite catalyst layer may be reused to grow multiple carbon nanotube arrays without additional processing of the substrate. The method may comprise bulk synthesis by forming carbon nanotubes on a plurality of particulate substrates having a composite catalyst layer comprising the group VIII element and the non-catalytic element. In another embodiment, the composite catalyst layer is deposited on both sides of the substrate.

Composite catalyst and method for manufacturing carbon nanostructured materials

A sensor deployment system for positioning within a well casing is provided. The sensor deployment system includes a deployment shuttle comprising a first end, a second end, and an inner surface and an outer surface extending between the first end and the second end. The inner surface is configured to define a channel between the first end and the second end. A sleeve is coupled to the outer surface and configured to move relative to the well casing. A wire support is coupled to the inner surface and extending into the channel.

Sensor deployment system for a wellbore and methods of assembling the same

An apparatus and method for delivering a thickened fluid mixture, including a COrecapture system. The apparatus including a proppant storage vessel and a fracturing fluid storage vessel providing a continuos supply of a proppant material and a fracturing fluid to a mixing apparatus. The mixing apparatus configured to output and deliver a thickened fluid mixture of the proppant, the fracturing fluid and a thickener agent at or above the fracturing fluid blending pressure to a high pressure pump assembly. The high pressure pump assembly configured to deliver a high pressure thickened fluid mixture to one or more downstream components at an injection pressure. The apparatus including a COrecapture system configured to recapture an exhaust stream from the one or more downstream components and/or other COoutput sources, and provide a purified and liquefied COfluid stream to the fracturing fluid storage vessel. The apparatus configured for continual operation.

[object Object]

A method of forming a carbon nanotube array on a substrate is disclosed. One embodiment of the method comprises depositing a composite catalyst layer on the substrate, oxidizing the composite catalyst layer, reducing the oxidized composite catalyst layer, and growing the array on the composite catalyst layer. The composite catalyst layer may comprise a group VIII element and a non-catalytic element deposited onto the substrate from an alloy. In another embodiment, the composite catalyst layer comprises alternating layers of iron and a lanthanide, preferably gadolinium or lanthanum. The composite catalyst layer may be reused to grow multiple carbon nanotube arrays without additional processing of the substrate. The method may comprise bulk synthesis by forming carbon nanotubes on a plurality of particulate substrates having a composite catalyst layer comprising the group VIII element and the non-catalytic element. In another embodiment, the composite catalyst layer is deposited on both sides of the substrate.

Growing community of inventors

Saratoga Springs, NY, United States of America

Andrew Jacob Gorton