H01M8/1041

pH buffering region in a flow battery rebalancing cell

The present invention is directed to novel membrane electrode assemblies, and devices and systems incorporating them. Representative membrane electrode assemblies comprise (a) a first, porous electrode; (b) a buffer layer optionally comprising an aqueous solution comprising a pH buffer; (c) a membrane; and (d) a second, porous electrode comprising a catalyst for the generation of oxygen (O2); wherein the membrane is interposed between the first electrode and the second electrode, and the buffer layer is interposed between the membrane and the first electrode.

Fuel Cell and Method of Forming the Same
20230327161 · 2023-10-12 ·

In an embodiment, a fuel cell includes: a flexible substrate including a first fuel-tolerant material; a fitting on the flexible substrate, the fitting including first openings extending through an outer portion of the fitting; a primer coating on the outer portion of the fitting, the primer coating including a second fuel-tolerant material; first yarns strung through the first openings of the fitting, the first yarns stitched into the flexible substrate; and an encapsulant encapsulating the first yarns, the primer coating, and the outer portion of the fitting, the encapsulant disposed on the flexible substrate, the encapsulant including a third fuel-tolerant material, the third fuel-tolerant material chemically bonded to the second fuel-tolerant material and the first fuel-tolerant material.

Battery and membrane electrode assembly
11799111 · 2023-10-24 · ·

To provide a battery or a membrane electrode assembly having high durability. A battery (100) having a multilayer structure containing layers of a pair of electrodes (1), the battery (100) including a reinforcing material (20) provided in one or more layers or between layers.

Battery and membrane electrode assembly
11799111 · 2023-10-24 · ·

To provide a battery or a membrane electrode assembly having high durability. A battery (100) having a multilayer structure containing layers of a pair of electrodes (1), the battery (100) including a reinforcing material (20) provided in one or more layers or between layers.

Carbon foam, assembly and manufacturing method

A carbon foam formed of carbon fibers, where, at 90% or more of any 20 locations, the carbon fibers have a fiber diameter that is within ±20% of an average fiber diameter.

Carbon foam, assembly and manufacturing method

A carbon foam formed of carbon fibers, where, at 90% or more of any 20 locations, the carbon fibers have a fiber diameter that is within ±20% of an average fiber diameter.

BATTERY AND MEMBRANE ELECTRODE ASSEMBLY
20220293987 · 2022-09-15 ·

To provide a battery or a membrane electrode assembly having high durability.

A battery (100) having a multilayer structure containing layers of a pair of electrodes (1) , the battery (100) including a reinforcing material (20) provided in one or more layers or between layers.

BATTERY AND MEMBRANE ELECTRODE ASSEMBLY
20220293987 · 2022-09-15 ·

To provide a battery or a membrane electrode assembly having high durability.

A battery (100) having a multilayer structure containing layers of a pair of electrodes (1) , the battery (100) including a reinforcing material (20) provided in one or more layers or between layers.

Self-assembled surfactant structures

Stabilized surfactant-based membranes and methods of manufacture thereof. Membranes comprising a stabilized surfactant mesostructure on a porous support may be used for various separations, including reverse osmosis and forward osmosis. The membranes are stabilized after evaporation of solvents; in some embodiments no removal of the surfactant is required. The surfactant solution may or may not comprise a hydrophilic compound such as an acid or base. The surface of the porous support is preferably modified prior to formation of the stabilized surfactant mesostructure. The membrane is sufficiently stable to be utilized in commercial separations devices such as spiral wound modules. Also a stabilized surfactant mesostructure coating for a porous material and filters made therefrom. The coating can simultaneously improve both the permeability and the filtration characteristics of the porous material.

CATALYTIC PROTON TRANSPORT MEMBRANES AND METHODS OF MAKING AND USE THEREOF
20220293965 · 2022-09-15 ·

Disclosed herein are catalytic proton transport membranes and methods of making an use thereof. The catalytic proton transport membranes comprising a two-dimensional (2D) material having a top surface and a bottom surface, wherein the top surface further comprises a catalytic material deposited thereon, wherein the membrane allows for proton transport through the membrane.