Ecovative Design LLC

Microrganic Technologies Inc.

Microganic Technologies, Inc.

Ecovative LLC

Alex Carlton

Gavin Reim McIntyre

Eben Bayer

Jacob Michael Winiski

Gregory John Tudryn

Courtney Elizabeth Hart

Brent A Solina

Matthew Lucht

Sarah Araldi

Sue Van Hook

Lucy Elaine Greetham

Ian Bonesteel

Jessica Kaplan-Bie

Gavin Mcintyre

Jessie Kaplan-Bie

Provided is a microbial fuel cell including a cathode and an anode, wherein the cathode includes a waterproof gas diffusion layer including a siloxane and a catalyst layer including a binder, wherein a surface of the gas diffusion layer opposite the catalyst layer contacts air, and the anode includes electrogenic bacteria. Also provided is a method for making a microbial fuel cell, including fabricating a cathode, wherein fabricating includes disposing a siloxane solution onto a surface of a substrate, wherein the siloxane solution includes a siloxane and a solvent, drying the siloxane solution to form a waterproof gas diffusion layer, and placing the gas diffusion layer on a catalyst layer including a binder, and facing an anode with the cathode whereby the gas diffusion layer faces away from the anode and contacts air.

Microbial fuel cell cathode and method of making same

A mycological biopolymer material is subjected to treatment in one or more solutions that work to enhance and/or retain the inherent material properties of the material. In one embodiment, the solution is an organic solution; in another embodiment, the solution is an organic solvent with a salt; in another embodiment, the solution is an organic solvent phenol and/or polyphenol; and in another embodiment, a series of such solutions is used.

Solution based post-processing methods for mycological biopolymer material and mycological product made thereby

The process of making a mineralized mycelium scaffolding requires obtaining a scaffold of fungal biopolymer having a network of interconnected mycelia cells, functionalizing the biopolymer to create precursor sites and thereafter mineralizing the scaffold with one of silicates, apatites and carbonates. The mineralized mycelium scaffolding may be used for medical applications in place of mineralized collagen membranes and collagen/hydroxyapatite composite scaffolds.

Process for making mineralized mycelium scaffolding and product made thereby

The process aseptically inoculates a liquid media with a vegetativefungal species to form a culture; statically incubates the culture in a vessel for a time sufficient to begin initiation of fruit body development and asexual sporulation and halts incubation at maximum conidia production prior to the beginning of sexual sporulation. Thereafter, the entire culture contents of the incubation vessel are macerated to homogenize the fungal biomass and conidia therein and form an inoculum.

[object Object]

A method of producing an absorbent biocompatible material which comprises mixing at least one mycological material, such as a fungus or fungal tissue, with at least one lignocellulosic material to provide a biocomposite material comprising the at least one mycological material and the at least one lignocellulosic material. The biocomposite material then is contacted with at least one substance that increases the hydrophilicity of the biocomposite material, thereby providing an absorbent biocomposite material that has a variety of uses, such as absorbent materials for use in vegetation propagation and preservation, animal bedding, animal litter, filler in diapers, cold chain materials for temperature regulation, ice packs, absorbent foams and mats, such as decorative floral arrangement foams, carpet mats, and absorbent booms applied to chemical spills.

Chemically modified mycological materials having absorbent properties

Growing community of inventors

Troy, NY, United States of America

Alex Carlton