University of Washington

Membrion, Inc.

The Boeing Company

Gregory Matthew Newbloom

Lilo Danielle Pozzo

Aaron West

Stephanie Lynn Candelaria

Phillip Reaves Pickett

Olivia Marie Lenz

Yiheng Zhang

Kathryn Lynn Corp

Rachel Alexis Malone

Aditya Ashok Salunkhe

Canfeng Wei

Matthew Jason Canin

Jaime Rodriguez

Lauren Martin

Anthony William Moretti

Eden Rivers

Ryan Kastilani

Marvi A Matos

Arash Ghabchi

Alpana N Ranade

Marc J Froning

William A Thompson

Arash Ghabachi

Nanoporous selective sol-gel ceramic membranes, selective-membrane structures, and related methods are described. Representative ceramic selective membranes include ion-conductive membranes (e.g., proton-conducting membranes) and gas selective membranes. Representative uses for the membranes include incorporation into fuel cells and redox flow batteries (RFB) as ion-conducting membranes.

Nanoporous selective sol-gel ceramic membranes

Anion exchange membranes and materials including silica-based ceramics, and associated methods, are provided. In some aspects, anion exchange membranes that include a silica-based ceramic that forms a coating on and/or within a porous support membrane are described. The anion exchange membranes and materials may have certain structural or chemical attributes (e.g., pore size/distribution, chemical functionalization) that, alone or in combination, can result in advantageous performance characteristics in any of a variety of applications for which selective transport of positively charged ions through membranes/materials is desired. In some embodiments, the silica-based ceramic contains relatively small pores (e.g., substantially spherical nanopores) that may contribute to some such advantageous properties. In some embodiments, the anion exchange membrane or material includes quaternary ammonium groups covalently bound to the silica-based ceramic.

Ceramic anion exchange materials

Cation exchange membranes and materials including silica-based ceramics, and associated methods, are provided. In some aspects, cation exchange membranes that include a silica-based ceramic that forms a coating on and/or within a porous support membrane are described. The cation exchange membranes and materials may have certain structural or chemical attributes (e.g., pore size/distribution, chemical functionalization) that, alone or in combination, can result in advantageous performance characteristics in any of a variety of applications for which selective transport of positively charged ions through membranes/materials is desired. In some embodiments, the silica-based ceramic contains relatively small pores (e.g., substantially spherical nanopores) that may contribute to some such advantageous properties. In some embodiments, the cation exchange membrane or material includes sulfonate and/or sulfonic acid groups covalently bound to the silica-based ceramic.

Ceramic cation exchange materials

A method for forming a hydrophobic coating on a substrate by a thermal spray deposition process is described. The method may comprise feeding a thermal spray apparatus with a coating precursor consisting of particles having an initial particle morphology, and heating the particles with the thermal spray apparatus to cause the particle to at least partially melt. The method may further comprise accelerating the particles towards the substrate, and forming the hydrophobic coating on the substrate by allowing the particles to impact the substrate in a partially melted state in which a fraction of the initial particle morphology of at least some of the particles is retained.

Thermal spray for durable and large-area hydrophobic and superhydrophobic/icephobic coatings

An organic material with a porous interpenetrating network and an amount of inorganic material at least partially distributed within the porosity of the organic material is disclosed. A method of producing the organic-inorganic thin films and devices therefrom comprises seeding with nanoparticles and depositing an amorphous material on the nanoparticles.

Low temperature, thin film crystallization method and products prepared therefrom

Disclosed herein are ceramic selective membranes and methods of forming the ceramic selective membranes by forming a selective silica ceramic on a porous membrane substrate. Representative ceramic selective membranes include ion-conductive membranes (e.g., proton-conducting membranes) and gas selective membranes. Representative uses for the membranes include incorporation into fuel cells and redox flow batteries (RFB) as ion-conducting membranes.

Ceramic proton-conducting membranes

Nanoporous ceramic membranes, membrane structures, and related methods

Methods of forming composites that incorporate networks of conductive polymer nanofibers are provided. Networks of less-than conductive polymers are first formed and then doped with a chemical dopant to provide networks of conductive polymers. The networks of conductive polymers are then incorporated into a matrix in order to improve the conductivity of the matrix. The formed composites are useful as conductive coatings for applications including electromagnetic energy management on exterior surfaces of vehicles.

Composites incorporated a conductive polymer nanofiber network

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Seattle, WA, United States of America

Gregory Matthew Newbloom