Ethicon, Gmbh

Biomerix Corporation

Shifamed Holdings, LLC

Indigo Medical, Inc.

Arindam Datta

Dennis D Jamiolkowski

Shawn Thayer Huxel

Yufu Li

Craig Friedman

Aisa Sendijarevic

J Jenny Yuan

Daniel Klempner

Balakrishna Haridas

Scott Evans Fitzgerald

Tom Saul

Ivan Sepetka

Claudio Argento

Maria G Aboytes

Kevin L Cooper

Murty Narayan Vyakarnam

Syed Hasan Askari

Emil Richard Skula

Hugh D Newman, Jr

Kevor S TenHuisen

Rohit Tandon

E Richard Skula

Jie Jenny Yuan

Maybelle Jordan

Lawrence P Lavelle

Lawrence R Lavelle, Jr

Jacob Raquet

Bethany A Canterberry

I-Jen Chen

An accommodating intraocular lens (AIOL) for implantation within a capsular bag of a patient's eye comprises first and second components coupled together to define an inner fluid chamber and an outer fluid chamber. The inner region of the AIOL provides optical power with one or more of the shaped fluid within the inner fluid chamber or the shape of the first or second components. A surface treatment or coating may be applied to one or more surfaces of the first and second components. The surface treatment is expected to decrease the roughness of the machined surfaces of the boundary surfaces of the first and second components, and thereby reduce the mass of water coalescing at such boundary surfaces. The disclosed surface treatments are also expected to increase the hydrophobicity (i.e., decrease the surface energy) of the corresponding surface(s), thereby decreasing the 'wettability' of these surfaces.

Surface treatments for accommodating intraocular lenses and associated methods and devices

The present disclosure relates to reticulated elastomeric matrices, and more particularly to at least partially degradable elastomeric elements that are compressible and exhibit resilience in their recovery and that can be employed in diverse applications including, without limitation, biological implantation, especially in humans.

At least partially resorbable reticulated elastomeric matrix elements and methods of making same

An aneurysm treatment device for in situ treatment of aneurysms comprises a collapsible member having a first shape wherein the first shape is an expanded geometric configuration, and a second shape, wherein the second shape is a collapsed configuration that is loadable into a catheter. The aneurysm treatment device is capable or returning to the first shape in the sac of an aneurysm upon deployment, where it occludes the aneurysm. In another embodiment an occlusion device comprises a flexible, longitudinally extending elastomeric matrix member that assumes a non-linear shape to conformally fill a targeted vascular site.

Aneurysm treatment devices and methods

This invention relates to biodurable, reticulated elastomeric matrices that are resiliently-compressible, their manufacture and uses including uses for implantable devices into or for topical treatment of patients, such as humans and other animals, for therapeutic, nutritional, or other useful purposes.

Reticulated elastomeric matrices, their manufacture and use in implantable devices

The invention relates to the repair of spinal annular defects. An appartatus comprises a scaffold comprised of a biodurable, resiliently compressible, elastomeric reticulated composition to obliterate spinal/vertabral connective tissue defects, to obliterate spinal-annular nuclear tissue defects, and for spinal annulo-nucleoplasty regeneration. The apparatus comprises an at least partially cylindrical member.

Repair of spinal annular defects and annulo-nucleoplasty regeneration

The present invention is directed to stents that are formed into a helical structure having a plurality of coils, a longitudinal axis, an internal longitudinal passage, a distal section and a proximal section having different diameters; where the structure is made from a fiber having a cross-section and including an inner core having an exterior surface made from a biodegradable polymer having a first degradation rate and an outer section made from a blend of a first biodegradable polymer component and a second biodegradable polymer component covering the exterior surface of the inner core and having a second degradation rate; where the second degradation rate is lower than the first degradation rate.

Biodegradable stent

A biodegradable stent for implantation into a lumen in a human body. The stent in one embodiment is made from a biodegradable fiber having an inner core and an outer layer. The outer layer is a blend of two polymer components. The inner core has a first degradation rate, and the outer layer has a second degradation rate. The second degradation rate is slower than the first degradation rate. The fiber softens in vivo such that the stent is readily passed from the lumen as a softened fragment or filament after a pre-determined period of time through normal flow of body fluids passing through the lumen.

A removable stent for implantation into a lumen in a human body. The stent is made from a soft, flexible fiber having an outer surface. An outer bioabsorbable/degradable coating is applied to the outer surface of the filament causing it to become rigid. The coating softens in vivo through absorption and/or degradation such that the stent is readily passed or removed from the lumen as a softened filament after a pre-determined period of time through normal flow of body fluids passing through the lumen or by manual removal.

Removable stent for body lumens

A biodegradable stent for implantation into a lumen in a human body. The stent in one embodiment is made from a biodegradable fiber having an inner core and an outer layer. The outer layer is a blend of two polymer components. The inner core has a first degradation rate, and the outer layer has a second degradation rate. The second degradation rate is slower than the first degradation rate. The fiber softens in vivo such that the stent is readily passed from the lumen as a softened fragment or filament after a predetermined period of time through normal flow of body fluids passing through the lumen.

Growing community of inventors

Hillsborough, NJ, United States of America

Arindam Datta