Johns Hopkins University

Dow Global Technolgoies LLC

Rohm and Haas Company

Arkema Inc.

Adam W Freeman

Konstantinos Gerasopoulos

Spencer A Langevin

Christopher M Hoffman, Jr

Matthew W Logan

Zhiyong Xia

Bing Tan

Hongwei Shen

James J Henry

Robert Baumann

Dawnielle Farrar-Gaines

James K Johnson

David A Seiler

Luke J Currano

Lance M Baird

Marc Schmitz

Adam J Maisano

Felix C Sage

Reid E Messersmith

Philip M Imbesi

Sipei Zhang

Sara E Kubik

Michael H Jin

Evan D Jacque

Nathan J Fairbanks

Stephen A Crescimanno

Ann E Evans

Wei-Wen Tsai

A layered textile energy storage device can include first and second encasing layers, an anode, a cathode, and a flexible separator layer. The first and second encasing layers can each include a nylon fabric coated with a polyurethane. The anode can include a carbon fabric coated with anode active material, carbon nanotubes, and a binder material. The cathode can include a carbon fabric coated with cathode active material, carbon nanotubes, and a binder material. The flexible separator layer can be disposed between the anode and cathode to prevent internal shorting of the layered textile energy storage device. The anode, the cathode and the flexible separator layer can be disposed between the first and the second encasing layers.

Textile and fiber energy storage and power-generating devices

Gel polymer electrolyte compositions including a cross-linked three-dimensional polymer network and an electrolyte composition comprising an electrolyte and water are disclosed. The gel polymer electrolyte compositions can be included in an aqueous electrochemical cell, in which a gel polymer electrolyte can be positioned between an anode and a cathode. Methods of forming a gel polymer electrolyte in the form of a film, and methods of forming an aqueous electrochemical cell including a gel polymer electrolyte, are also disclosed.

Electrochemical cells and electrolytes contained therein

A gel polymer electrolyte (GPE) composition and a method of forming the same are provided. The GPE includes a polymer network and an electrolyte composition comprising a deep eutectic solvent (DES) having a eutectic point of less than or equal to 25&#xb0; C. An electrochemical cell including a GPE and a method of forming the same are also provided.

Deep eutectic solvent-based gel polymer electrolytes

Electrodes including a passivation layer formed prior to receiving an initial charge are provided. The electrodes comprise an electrode-composition including an active electrode species, in which the electrode-composition comprises a first surface. The electrodes also comprise a passivation layer positioned onto at least a portion of the first surface. The passivation layer comprises: (i) a matrix material comprising (a) a cured propoxylated polymer, (b) an uncured hydrophobic glycol ether, or a combination of (a) and (b); and (ii) at least a first electrolyte. The electrodes may be included into an electrochemical cell.

Electrodes including a passivation layer

Gel polymer electrolyte compositions including a cross-linked three-dimensional polymer network and an electrolyte composition comprising an electrolyte and water are provided. The gel polymer electrolyte compositions can be included in an aqueous electrochemical cell, in which a gel polymer electrolyte can be positioned between an anode and a cathode. Methods of forming a gel polymer electrolyte in the form of a film are also provided. Methods of forming an aqueous electrochemical cell including a gel polymer electrolyte are also provided.

Gel polymer electrolyte compositions and electrochemical cells including the same

An anti-fouling coating comprising a polymeric compound, wherein a backbone of the polymeric compound is covalently bonded to a quorum sensing inhibitor, and wherein the anti-fouling coating has substantially no bactericidal activity, the quorum sensing inhibitor is substantially non-leaching from the anti-fouling coating, or both.

Anti-microbial coating for the prevention of biofouling

A surface treatment formulation configured to inhibit scaling or climbing of a surface is provided. The surface treatment formulation may include a base binding material configured to adhere to the surface and a filler material embedded in the base binding material. The filler material may include a dry lubricant having a layered lamellar structure or low inter filler interaction. Furthermore, the surface treatment formulation may be configured to be activated in order to expose the filler material thereby causing formation of a slippery surface to inhibit the scaling or climbing of the surface.

Surface treatment formulation for inhibiting scaling or climbing of a surface

Growing community of inventors

Laurel, MD, United States of America

Adam W Freeman