The University of Texas System

Alafair Biosciences, Inc.

Sarah Mayes

Christine E Schmidt

Scott Zawko

A biocompatible membrane comprised of alginate and hyaluronate. The membrane may be used to prevent unwanted scarring after surgery. The tissue adherence and the rate of bioresorption of the membrane may be modified through an external stimulus comprising a sequestering agent and a viscosity modifier.

Hydrogel membrane for adhesion prevention

An embodiment includes therapeutic compositions that include a hydrogel medium and a plurality of tissue segments dispersed within the medium. The hydrogel medium preserves and stores the tissue through processing, transport, and storage. The embodiment addresses an identified problem of preserving a tissue, whether such tissue is fresh, cryopreserved, or sterile. The therapeutic compositions may be placed on or within the body to cover and protect wounds, provide a scaffold for reconstruction, repair, or replacement, and reduce surgical complications as a result of inflammation and scar tissue formation. Other embodiments are described herein.

Hydrogel medium for the storage and preservation of tissue

The application of a highly controlled, micron-sized, branched, porous architecture to enhance the handling properties and degradation rate of hydrogels is described in the instant invention. A previously described pattern created through one-step nucleated crystallization in a hydrogel film creates tunable mechanical properties and/or chemical stability for use in tissue engineering applications. The bulk mechanical properties and the degradation rate of the material can be tuned easily by the addition or subtraction of crystalline structure or by the addition and subtraction of backfill material, making this useful for a variety of applications. Relevant mechanical properties that can be tuned through the application of this unique porosity are moduli, elasticity, tensile strength, and compression strength. The method of the present invention can be applied to biopolymers and natural materials as well as synthetic materials.

One-step processing of hydrogels for mechanically robust and chemically desired features

A non-synthetic, hydrophilic, biodegradable, biocompatible polysaccharide based non-toxic anti-adhesion hydrogel barrier is disclosed herein. The barrier of the present invention is formed by constructing a unique interpenetrating, crosslinked network with a unique porosity. Furthermore, the barrier of the present invention is comprised of tunable biopolymers for controllable mechanical robustness and degradation. The barrier of the present invention effectively reduces unwanted adhesions using non-synthetic components.

Growing community of inventors

Austin, TX, United States of America

Sarah Mayes