The State University of New York

Magnus Bergkvist

Alison Gracias

Ioannis Danias

Nathaniel C Cady

Sara Brenner

Yubing Xie

Susan Sharfstein

Karen Y Torrejon

The present invention relates to methods of manufacture and utility of an artificial trabecular meshwork [TM] that utilizes micro- and nanofabricated materials bioengineered to mimic the structure and function of native outflow system of the eye.

Bioengineered human trabecular meshwork for biological applications

A method for solvent-less adhesive bonding is provided comprising depositing thin, functional, polymeric films on one or more substrates and bonding the substrates to each other or to other substrates. Depositing the polymeric films, including, for example, chemically reactive polymers and thermoplastics with adhesive qualities, may be accomplished using an initiated chemical vapor deposition technique compatible with a variety of monomers, including monomers with chemically functional moieties such as amine and epoxy groups. The technique allows for deposition of polymeric films on a wide variety of substrates/devices and provides an alternative for other coating/deposition methods that are incompatible with certain substrates/devices and/or do not provide adequate control over the resulting polymeric film. The provided method is advantageous in that it is applicable to fabrication of hybrid devices and is compatible with microfabrication technology, including that in clean-room settings.

Solvent-less adhesive bonding

Polymer-based micro-cantilevers for depositing material onto a surface include, in one embodiment, a body portion, an elongated beam portion sized smaller than and extending from the body portion and having a length greater than about 500 microns. The body portion includes a reservoir and the elongated beam portion having a passageway disposed therein. The passageway has an inlet opening in fluid communication with the reservoir and an outlet opening at a distal end of the elongated beam portion. The passageway comprises a width greater than 10 microns to about 100 microns, and a height of about 25 microns to about 100 microns. Methods for delivering fluid and living cells using the polymer-based micro-cantilevers are also disclosed.

Polymeric micro-cantilevers for ultra-low volume fluid and living cell deposition

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Albany, NY, United States of America

Magnus Bergkvist