Savannah River Nuclear Solutions, LLC

Battelle Savannah River Alliance, LLC

Simona E Hunyadi Murph

George K Larsen, Iii

Henry T Sessions

Paul S Korinko

Michael A Brown

Vahid Majidi

Vehicle structural components and additive manufacturing methods for forming the components are described. The structural components incorporate hydrogen storage materials for use in conjunction with hydrogen fuel cells in electric-powered vehicles such as unmanned aerial vehicles. The hydrogen storage materials can be in the form of a 3D printed metal foam that includes a metal hydride and an inert structural metal. The material can exhibit a very low weight density able to store hydrogen in a low pressure solid-state form at a high energy density. The structural components that carry the hydrogen storage materials can be exchangeable components of a vehicle, and the vehicle can be refueled by merely exchanging an exhausted component for a replacement component that is fully-charged with hydrogen.

Structural vehicle components for hydrogen storage

Methods and systems for high-speed production of nanoparticles with very high product yields are described. Systems utilize concentric micro-scale capillaries arranged to define nanoparticle formation regions that lie along predetermined length(s) of the capillaries. Flow through the formation regions can be laminar during a formation protocol. The system can include on-line analytical tools for real time characterization of products or intermediates. Systems include an additive manufacturing-type deposition at the terminus of the formation section. The deposition area includes a print head and a print bed and provides for random or patterned deposition of nanoparticles. The print head and/or the print bed can be capable of motion in one or more degrees of freedom relative to one another.

Systems and methods for manufacturing nano-scale materials

Automated apparatuses for use in examining gas sorption materials are described. Devices utilize a noncontact magnetic induction heating approach for controlling the temperature of tested materials. The apparatuses can be used to generate single or multiple isotherms simultaneously. The apparatuses can examine nanogram or microgram-scale quantities of materials of interest and can do so automatically and unattended. Pressure-composition isotherms can be provided through use of disclosed apparatuses in a period of a few hours.

Automatic gas sorption apparatus and method

Radiation detectors and methods of using the radiation detectors that provide a route for surface decontamination during use are described. The detectors utilize light illumination of an internal surface during use. Light is in the longer UV-to-near-infrared spectra and desorbs contamination from internal surfaces of radiation detectors. The methods can be carried out while the detectors are in operation, preventing the appearance of the negative effects of radioactive and non-radioactive contamination during a detection regime and following a detection regime.

Radiation detectors employing contemporaneous detection and decontamination

Radiation detectors and methods of using the radiation detectors that provide a route for surface decontamination during use are described. The detectors utilize light illumination of an internal surface during use. Light is in the longer UV to near-infrared spectra and desorbs contamination from internal surfaces of radiation detectors. The methods can be carried out while the detectors are in operation, preventing the appearance of the negative effects of radioactive and non-radioactive contamination during a detection regime and following a detection regime.

The present invention is directed to multifunctional nanomaterials for photothermal heating and catalytic applications. The present invention discloses a method of photothermally heating a solution. The present method also discloses a method of catalyzing a reaction. Both methods require a step of exposing a solution to at least one wavelength of the electromagnetic spectrum. A gold-iron oxide nanomaterial comprising an iron oxide substrate and discrete gold particles deposited on the substrate is also disclosed.

Multifunctional nanomaterials and methods of photothermal heating and catalysis using the same

A method of trapping or capturing zinc is disclosed. In particular, the method comprises a step of contacting a zinc vapor with a zinc getter material. The zinc getter material comprises nanoparticles and a metal substrate.

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North Augusta, SC, United States of America

Simona E Hunyadi Murph