Biomet Manufacturing Corporation

Depuy Orthopaedics, Inc.

Biomet Sports Medicine, LLC

Biomet C.v.

Bepuy Products, Inc.

Zimmer Gmbh

Depuy Products, Inc.

Michael A Wack

Nathan A Winslow

Thomas M Vanasse

John M McDaniel

Michael Francis Kovacs

Christopher J Hess

Rudolph Henry Nobis

Gary W Knight

Dale R Schulze

Michael F Clem

Ronald John Kolata

Arnold-Peter C Weiss

D Steven Block

Kevin T Stone

Gregory J Denham

Austin Wyatt Mutchler

Clinton E Kehres

Pamela C Guzman

Pamela C Guzmán

Ronald J Kolata

A glenoid implant is provided and may include a body portion and a stem portion. The stem portion may extend from the body portion along a longitudinal axis. The body portion may include an articular side and a bone-engaging side opposite the articular side. At least a portion of the bone-engaging side may be disposed at a non-parallel angle relative to at least a peripheral edge of the articulation side.

Glenoid implant

An apparatus can include a tensioning member having a body defining a first bone engaging surface, a second opposite suture receiving surface, and an outer perimeter. First and second suture attachment members can be positioned relative to the second surface and spaced apart from each other, and can be configured to be coupled to a suture. First and second suture engaging members can extend from the second surface and can be positioned in spaced relation to the first and second suture attachment members. Rotation of the tensioning member in a first direction can selectively engage the first and second suture receiving members with the suture, thereby forming a non-linear path of travel of the suture relative to the first and second suture attachment members and suture engaging members and increasing the tension in the suture.

Method and apparatus for tensioning a suture

A system includes a flexible member and a tissue engaging member fixed to the flexible member. The tissue engaging member includes a barb preformed to extend rearward from a distal end of the flexible member at an acute angle relative to the flexible member.

Tissue engaging member

Apparatus and methods for use in the performance of minimally invasive orthopaedic procedures, including apparatus and methods for use in the performance of such procedures under the visualization of an endoscope, are herein disclosed. Such procedures include a minimally invasive intramedullary nailing procedure, a minimally invasive bone graft harvesting procedure, a minimally invasive pelvic osteotomy procedure, an orthopaedic implant revision procedure, and a minimally invasive percutaneous bone plating procedure.

Minimally invasive orthopaedic apparatus and methods

Apparatus () and methods for use in the performance of minimally invasive orthopedic procedures, including apparatus and methods for use in the performance of such procedures under the visualization of an endoscope (), are herein disclosed. Such procedures include a minimally invasive intramedullary nailing procedure, a minimally invasive bone graft harvesting procedure, a minimally invasive pelvic osteotomy procedure, an orthopedic implant revision procedure, and a minimally invasive percutaneous bone plating procedure.

A bone plating apparatus includes a handle having extending therefrom a tissue expander for insertion through a skin incision and through the subcutaneous tissue surrounding a fractured bone. A bone plate may be secured to the handle during advancement of the tissue expander so as to deliver the bone plate to a desired location proximate to the fractured bone. Both the tissue expander and the bone plate may be advanced to the desired location proximate to the fractured bone under the visualization of an endoscope. A screw alignment jig is secured to the handle and has a guide hole which aligns with an access hole of the tissue expander. The alignment of the guide hole and the access hole allow for percutaneous screw insertion into the delivered bone plate. A method for plating a fractured bone is also disclosed.

Method and apparatus for endoscopic minimally invasive orthopaedic plating procedures

A modular elbow prosthesis includes a humeral and ulnar components and three bearing components. The ulnar component includes a stem and a body including a slot. Two of the three bearing components include flanges that mate with the slot of the ulnar component. The humeral component includes a stem and two arms extending from one end of the stem. An opening is formed in each arm and in two of the three bearing components. The modular elbow may be used in an unconstrained mode by attaching one bearing component to the ulnar component and the other to the humeral component by inserting a pin through the openings in the arms and the bearing component. The two bearing components are then placed adjacent each other such that they articulate about their bearing surfaces. Alternatively, the prosthesis can be utilized in a constrained mode by positioning the flange of the third bearing component in the slot on the ulnar component and positioning the third bearing component between the arms of the humeral component and inserting a pin through the openings in the arms of the third component. In another alternative embodiment, one bearing component may surround a portion of the other bearing component. The components may be joined by a pin to form a constrained elbow prosthesis. In one embodiment, two of the bearing surfaces are configured to permit axial rotation without becoming disengaged. In other embodiments, the various components may be held together by a taper lock.

Modular elbow

A modular elbow prothesis includes a humeral component, an ulnar component and three bearing components. The ulnar component includes a stem for implantation in the intramedullary canal of an ulna and a body including a slot. Two of the three bearing components include flanges that mate with the slot of the ulnar component. The humeral component includes a stem for implantation in the intramedullary canal of the humerus and two arms extending from one end of the stem. An opening is formed in each arm and in two of the three bearing components. The modular elbow may be used in an unconstrained mode by attaching one bearing component to the ulnar component and the other to the humeral component by inserting a pin through the openings in the arms and the bearing component. The two bearing components are then placed adjacent each other such that they articulate about their bearing surfaces. Alternatively, the prosthesis can be utilized in a constrained mode by positioning the flange of the third bearing component in the slot on the ulnar component and positioning the third bearing component between the arms of the humeral component and inserting a pin through the openings in the arms of the third component. In one embodiment, two of the bearing surfaces are configured to permit axial rotation without becoming disengaged.

An instrument and method are provided for compacting bone chips into a prepared metaphyseal portion of a femur, in order to conform the femur to receive a femoral implant stem. The instrument comprises a tamping stem having a shape and size corresponding to the implant stem. The instrument also comprises a plurality of wedge-shaped enlarging portions ranging from largest to smallest. The method involves selecting appropriate sized enlarging portions, attaching the largest wedges to the instrument, placing the instrument into the femur, supplying bone chips, impacting the instrument to compact bone chips, and repeating compaction with successively smaller wedges until the femur is conformed to receive the femoral implant stem. Once inserted into the femur, the distal end of the instrument remains in contact with the diaphysis throughout the bone chip compaction process. Thus, bone chips cannot enter the diaphysis, and the instrument remains in proper alignment throughout the process.

Impaction instruments

A modular elbow prothesis includes a humeral component, an ulnar component and three bearing components. The ulnar component includes a stem for implantation in the intramedullary canal of an ulna and a body including a slot. Two of the three bearing components include flanges that mate with the slot of the ulnar component. The humeral component includes a stem for implantation in the intramedullary canal of the humerus and two arms extending from one end of the stem. An opening is formed in each arm and in two of the three bearing components. The modular elbow may be used in an unconstrained mode by attaching one bearing component to the ulnar component and the other to the humeral component by inserting a pin through the openings in the arms and the bearing component. The two bearing components are then placed adjacent each other such that they articulate about their bearing surfaces. Alternatively, the prosthesis can be utilized in a constrained mode by positioning the flange of the third bearing component in the slot on the ulnar component and positioning the third bearing component between the arms of the humeral component and inserting a pin through the openings in the arms of the third component.

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Warsaw, IN, United States of America

Michael A Wack