Alliance for Sustainable Energy, LLC

Forge Nano, Inc.

University of Colorado

Uchicago Argonne, LLC

Arrelaine Allen Dameron

Ryon Tracy

Steven McClellan George

Joseph Jonathan Berry

Matthew O Reese

Michael D Kempe

Chris Gump

Jessica Burger

Christopher P Nicholas

Jeffrey W Elam

Paul T Barger

Kai Zhu

Marinus Franciscus Antonius Maria Van Hest

Joseph Matthew Luther

Chunmei Ban

Christopher L Marshall

David M King

Thomas Gennett

Chaiwat Engtrakul

Martha Leigh Abrams

Wade A Braunecker

Paul Lichty

Philip Schulz

Markus Daniel Groner

David Jackson

Nghi Nguyen

Adam Lyon

Jose Villagomez

Garrett Curry

Andrew Broerman

Nicole Marie Adamczyk Keaner

Kyle Ingham

James Ragonesi

Kyle Bourgois

Andrew Argo

James Trevey

Zheng Lu

Beau B Burton

Byunghoon Yoon

Adewole Philip Schulz

Paul Francois Ndione

Nicole Marie Adamczyk

Markus D Groner

The present invention relates to the field of coatings on high-energy materials, devices or products that comprise the coated high-energy materials, functional coating materials and methods for producing and using the same. In particular, the present invention relates to energetic materials having initiated release coatings to improve the performance and shelf-life of the devices, products and/or raw materials, suitable for use as energetics or propellants for munitions, rockets, pyrotechnics, flares or other devices or components.

Coatings on particles of high energy materials and methods of forming same

A system, apparatus and method are provided for processing articles. The system includes subsystems for synthesizing, pre-treating, conducting a vapor phase coating process and post-treating articles in the form of powders and solid or porous workpieces. The apparatus permits vapor phase synthesis, treatment and deposition processes to be performed with high efficiency and at high overall throughput. The methods include converting solids, liquids or gases into gaseous and solid streams that can be separated or exchanged with or without treatment and/or coating steps, and produce optimized composite articles for specific applications.

Manufacturing processes to synthesize, functionalize, surface treat and/or encapsulate powders, and applications thereof

Provided herein is an alkane dehydrogenation catalyst, a method of manufacturing an alkane dehydrogenation catalyst, and a method of converting alkanes to alkenes.

Alkane dehydrogenation catalyst and methods of converting alkanes to alkenes

The present application discloses devices that include a perovskite layer, a first layer that includes an oxide, and an interface layer, where the interface layer is positioned between the first layer and the perovskite layer, the interface layer is in physical contact with both the first layer and the perovskite layer, and the interface layer consists essentially of the oxide.

Oxide layers and methods of making the same

An aspect of the present disclosures is a method that includes applying a perovskite precursor solution to a first solid conductor and treating the perovskite precursor solution such that a first portion of the perovskite precursor solution is converted to a first solid perovskite, where the first solid conductor comprises a first charge transport characteristic, which is predominantly p-type or predominantly n-type, and the treating results in the first solid perovskite having a second charge transport characteristic that is substantially the same as the first charge transport characteristic.

Heterojunction perovskite photovoltaic devices and methods of making the same

The present disclosure relates to a mixture that includes a mediator having a first redox potential, a non-liquid active material having a second redox potential that is less than the first redox potential, and a cation. In addition, the non-liquid active material has a first condition that includes a first oxidation state, where the cation is intercalated within the non-liquid active material, and the non-liquid active material has a second condition that includes a second oxidation state that is higher than the first oxidation state, where the non-liquid active material is substantially free of the cation. In addition, the mediator has a first condition that includes a third oxidation state and a second condition that includes a fourth oxidation state that is higher than the third oxidation state. In addition, the non-liquid active material is capable of being reversibly cycled between its first condition and its second condition, and the mediator is capable of being reversibly cycled between its first condition and its second condition.

Materials for flow battery energy storage and methods of using

Ultrathin layers of organic polymers or organic-inorganic hybrid polymers are deposited onto a substrate using molecular layer deposition methods. The process uses vapor phase materials which contain a first functional group and react only monofunctionally at the surface to add a unit to the polymer chain. The vapor phase reactant in addition has a second functional group, which is different from the first functional group, or a blocked, masked or protected functional group, or else has a precursor to such a functional group.

Molecular layer deposition process for making organic or organic-inorganic polymers

A permeation standard is provided. The permeation standard may include a substrate that is impermeable to an analyte, an orifice disposed in the substrate, and a permeable material filling the orifice. The orifice and the permeable material are configured to provide a predetermined transmission rate of the analyte through the permeation standard. Also provided herein are methods for forming the permeation standard.

Calibrated permeation standards

Coatings are applied on a flexible substrate using atomic layer deposition and molecular layer deposition methods. The coatings have thickness of up to 100 nanometers. The coatings include layers of an inorganic material such as alumina, which are separated by flexibilizing layers that are deposited with covalent chemical linkage to the inorganic material and which are one or more of silica deposited by an atomic layer deposition process; an organic polymer that is deposited by a molecular layer deposition process, or a hybrid organic-inorganic polymer that is deposited by an molecular layer deposition process.

Protective coatings for organic electronic devices made using atomic layer deposition and molecular layer deposition techniques

A test device for measuring permeability of a barrier material. An exemplary device comprises a test card having a thin-film conductor-pattern formed thereon and an edge seal which seals the test card to the barrier material. Another exemplary embodiment is an electrical calcium test device comprising: a test card an impermeable spacer, an edge seal which seals the test card to the spacer and an edge seal which seals the spacer to the barrier material.

Test device for measuring permeability of a barrier material

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Boulder, CO, United States of America

Arrelaine Allen Dameron