Luna Labs Usa, LLC

Luna Innovations Inc.

Christopher K Tison

Lauren Anne Costella

Matthew Patterson

Keley Broderick

Lindsay Woodard

Mallory Gasbarre

Kelsey Broderick

Michael J Danilich

David Remer

Patrick Cottler

Blaine Butler

Nikolai Braun

Melissa Skoff

The novel flexible electrodes disclosed herein utilize the low bending stiffness of electrospun nanofiber mats to achieve the material properties required for surgical implantation and sustained bidirectional communication with peripheral nerves without compromising electronic functionality. According to certain embodiments disclosed herein, implantable neural electrode probes are provided which comprise a polymeric substrate having proximal and distal ends, an electrode interface at the proximal end of the substrate; at least one neural contact at the distal end of the substrate; and electrically conductive traces formed on the fibrous substrate providing electrical communication between the at least one neural contact and the electrode interface, wherein the substrate comprises a nonwoven mass of polymeric nanofibers.

Methods of making flexible electrodes

Medical dressings include a non-woven polymeric nanofiber mat embedded within a chitosan hydrogel matrix. The dressings may be obtained by electro spinning of polymeric nanofibers and thereafter incorporating a chitosan hydrogel into interstices of the mat by vacuum or positive pressure assistance. The resulting medical dressings may be optically transparent (e.g., at least about 50% up to about 95% light transmittance), flexible, and mechanically robust. The dressings may also incorporate self-adhesion promoters to allow self-adhesion to biological tissue, e.g., ocular surfaces, and/or therapeutic agents which are capable of delivering therapeutics (e.g. stem cells, drugs and the like) to the tissue surface. The dressings are especially useful as ocular bandages for the treatment and repair of ocular wounds.

Nanofiber-reinforced hydrogel medical dressings

Biologically acceptable surgical barrier materials are comprised of a polyelectrolytic complex of chitosan and sodium alginate. The chitosan is deacetylated in an amount between about 40 to about 60% and has a molecular weight (Mw) between 50,000 and 375,000 g/mol. The barrier materials may be formed by mixing a two-component material system whereby one component comprises the chitosan and a second component comprises the sodium alginate and directing such a mixture (e.g., via air-assisted spray nozzle) toward a surgical site in need of the material. A polyelectrolytic complex of the chitosan and sodium alginate will thereby form in situ. Suitable ionic cross-linkers may be provided in the individual components, e.g., calcium chloride with the chitosan component and sodium tripolyphosphate with the sodium alginate component.

Sprayable barrier and methods for prevention of postoperative adhesions

Biological specimen recovery materials include cellulose acetate nanofibers that are capable of dissolution upon contact with a liquid comprising a dissolution effective amount (e.g., between about 1 to about 10M) guanidinium isothiocyanate (GITC). Kits containing the materials (e.g., in the form of a swab, filtration media or surface wipe) and a dissolution liquid containing the dissolution effective amount of guanidinium isothiocyanate (GITC) are also provided.

Dissolvable nanofiber materials and specimen recovery kits including the same for high efficiency specimen recovery

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Roanoke, VA, United States of America

Christopher K Tison