Biomet Manufacturing Corporation

Seaspine, Inc.

Other

Ht Medical LLC

Biomet, Inc.

Innovasis Development Partners, LLC

Nicholas Michael Cordaro

Kevin T Stone

Thomas Zink

Colin Matthew Smith

Brian Kieser

Michael Di Lauro

Raymund Woo

Devin Mathios

Aaron P Smith

Nathan A Winslow

Russell F Warren

Robert Alex Hirschl

Robert A Compton

Shahram Shaun Zamani

Frank Kuwamura, Iii

Zeshan Hyder

Christopher W Elkins

Donald H Lee

Andres Talamantes

Michael DiLauro

David Gabriel Malmberg

Don Lee

Disclosed herein is an orthopedic implant device comprising a porous structure, approximating the shape of a bone, and having modulus of elasticity similar to that of said bone. In one embodiment, further disclosed herein is a method of treating injuries or diseases affecting bones or muscles comprising providing an orthopedic implant device, wherein the orthopedic implant device comprising a porous structure, approximating the shape of a bone, and having a modulus of elasticity similar to that of bone, and using the orthopedic implant device to treat injuries and diseases affecting bones and muscles in a mammal. In another embodiment, disclosed herein is a method of manufacturing an orthopedic implant device using an additive manufacturing (AM) method.

Additive manufactured titanium bone device

A spinal alignment system can include a rod and a plurality of uniplanar screw assemblies that include a screw, a cap, and a housing. The screw and cap can be configured such that the relative angular displacement between the screw and the cap is limited to a first limit angle in a first plane and to a second limit angle in a second plane that is perpendicular to the first plane, the second limit angle being larger than the first limit angle. The housing can be coupled to the cap and configured to maintain the cap in proximity with the head of the screw. The housing can have two elongated elements forming a U-shaped saddle. The alignment system can also include a plurality of locking cap assemblies that capture the rod within the U-shaped saddle and are tightened to fixedly couple the rod to the respective uniplanar screw assemblies.

Spinal deformity correction

Encased magnetic bone growth stimulating devices and methods of use are provided herein. An example device includes a magnet and a biocompatible means for enclosing the magnet. The biocompatible means for enclosing the magnet further comprises a means for releasably coupling with the medical implant and a means for coupling the enclosing means to an implantable medical device.

Encased magnetic bone growth stimulating devices and methods of use

An anterior cervical plate system with integrated locks which is additively manufactured as one component is disclosed. The anterior cervical plate system comprises a plate having at least one through hole configured to receive a bone screw for attaching the plate to a patient's bone. The plate includes a lock component adjacent to the at least one through hole. The lock component is connected to the plate such that the lock component is permitted to rotate with respect to the plate. The lock component has an unlocked position in which the locking ends of the lock component do not cover the head of the bone screw inside the through hole, and a locked position in which at least part of the locking ends engage the head portion of the bone screw to prevent the bone screw from backing out of the through hole.

Anterior cervical plate with integrated locks

Disclosed herein is an orthopedic implant device comprising a porous structure, approximating the shape of a bone, and having modulus of elasticity similar to that of said bone. Further disclosed herein is a method of treating injuries or diseases affecting bones or muscles comprising providing an orthopedic implant device, wherein the orthopedic implant device comprising a porous structure, approximating the shape of a bone, and having a modulus of elasticity similar to that of bone, and using the orthopedic implant device to treat injuries and diseases affecting bones and muscles in a mammal. Further disclosed herein is a method of manufacturing an orthopedic implant device using an additive manufacturing method comprising the steps: (a) providing a 3-dimensional model of the orthopedic implant device; (b) inputting the 3-dimensional model to an additive manufacturing device; and (c) using the additive manufacturing device to manufacture the orthopedic implant device.

A structurally encoded implant comprising a pair of endplates movably secured at the posterior end via a slip joint and a wedge component. The wedge component is inserted between the pair of endplates to increase implant height and change the lordotic angle. The pair of endplates may be manufactured together as one integral component using additive manufacturing techniques. During this additive manufacturing process, water-soluble support material may be positioned around the slip joint. Once the pair of endplates is formed, the support material may be dissolved away, allowing the pair of endplates to move independently from one another, but to still remain movably attached via the slip joint, such that the pair of endplates allow for height expansion and lordotic angle change.

Expandable/variable lordotic angle vertebral implant and reading system therefor

An implantable interbody negative pressure device that permits reduced or negative pressure therapies to be applied to a portion of a patient's body. More specifically, the implantable interbody negative pressure device comprises a body portion having a plurality of openings in fluid communication with both an internal passageway and a vacuum source, and that serves as a manifold and permits reduced or negative pressure therapy to be applied to a surgical site, such as a wound or damaged bone. The application of the reduced or negative pressure to the body improves circulation and the disposal of cellular waste, and promotes bone growth and healing.

Negative pressure interbody device, system, and method

A carrier for retaining a plurality of implants each comprising a structurally encoded pin, the structurally encoded pin having a shape or surface characteristics discernable by an imaging modality such as x-ray, fluoroscopy, computed tomography, electromagnetic radiation, ultrasound, visible light, UV light, magnetic resonance imaging, positron emission tomography and neutron imaging, from outside the carrier, the shape or surface characteristics representing structurally encoded data. The invention further discloses a carrier for viewing a plurality of implants, and associated reading systems for reading a plurality of implants. Finally, the invention discloses methods for reading a plurality of implantable devices retained within a carrier.

Elongate implant containing a structurally encoded pin, carrier and reading system therefor

An implant and method for manufacturing an implant comprising an implant body defining a longitudinal axis and a structurally encoded pin contained within the implant body and aligned substantially along the longitudinal axis, the structurally encoded pin having a shape or surface characteristics discernable by an imaging modality such as x-ray, fluoroscopy, computed tomography, electromagnetic radiation, ultrasound, visible light, UV light, magnetic resonance imaging, positron emission tomography and neutron imaging, from outside the implant body, the shape or surface characteristics representing structurally encoded data. The structurally encoded pin is encoded via an electric discharge machining process.

Method of producing an elongate implant containing a structurally encoded pin through electrical discharge machining

An implant containing a structurally encoded region, the implant comprising an implant body defining adjacent first and second encoded regions, the first encoded region comprising a first series of shaped inclusions in a first pattern of relatively differing opacity figures, and the second encoded region comprising a second series of shaped inclusions in a second pattern of relatively differing opacity figures, the first and second encoded regions being disposed such that, when the first encoded region and second encoded regions are viewed by reading illumination from a position wherein the first pattern and second pattern overlap, a third pattern is revealed by the reading illumination, the third pattern being different than the first and second patterns, and comprising shape or surface characteristics representing structurally encoded data. The invention further comprises systems and methods of manufacturing, using and reading the same.

Optical image vertebral implant cage and reading system therfor

A prosthesis may include a stem, a ball stud, an adaptor, and a head. The stem may include a longitudinal axis and a bore having a central axis that is angled relative to the longitudinal axis. The ball stud may include a cylindrical shaft and a ball end. The cylindrical shaft may be received in the bore of the stem. The adaptor may include a tapered outer surface and a ball socket rotatably receiving the ball end of the stud. The head may be rotatably supported by the adaptor and may include a semispherical articulating surface and a female taper rotatably receiving the tapered outer surface of the adaptor.

Shoulder prosthesis

A set of surgical components for use in a joint arthroplasty to reconstruct a head of a joint is provided. The set of surgical components can include a head member having a first articulating surface opposite a first fixation surface. The first fixation surface can define a first portion that extends outwardly from the first fixation surface. The set of surgical components can include a base member having a fixation peg with three generally triangular fins and a second fixation surface defined as a recess within a top surface of the fixation peg. The first portion of the head member can be received within the recess of the base member to couple the head member to the base member.

Growing community of inventors

Vista, CA, United States of America

Nicholas Michael Cordaro