Wright Medical Technology, Inc.

Zachary Korman

Shannon D Cummings

Lewis Pearce Branthover

Robert Michael Carlo

George Matthew Awtrey

Paul Luttrell

David B Kay

Bryan D Den Hartog

Joseph Ryan Woodard

Brian Robert Thoren

Anthony Perera

Gary W Lowery

Jesse G Moore

Erin Muller

Elizabeth J Phelps

John Kent Ellington

David Redfern

Robert Michael Carlo, Iii

Peter George Mangone

John White

John S Lewis, Jr

A system includes a first tool. The first tool includes a first component, a second component, and at least one fastener for coupling the first component to the second component. The first component is coupled to the second component such that a distance between the first component and the second component in a first direction is adjustable. The first tool is configured to provide a controlled adjustment of a first bone relative to a second bone in a second direction that is different from the first direction.

Jigs, systems, and methods for correcting joint deformities

Cutting elements may include points, tips, cutting portions and/or shafts of various geometries depending on requirements of the intended use. Tip geometries described may be used for cutting burrs, k-wires and/or drill bits in many types of applications. In particular, the tip geometries described may be used in medical applications. For example, tip geometries as described herein may be used for drilling bones, cartilage, and similar structures during surgery. Tip geometry may influence cutting ability. Use of the tip geometries described may allow the cutting element to be positioned at varying angles relative to the surface to be cut. In some instances, a tip geometry for a cutting element may be selected such that it reduces and/or inhibits movement of the cutting element during use and/or allows for a predetermined angle of entry into a surface to be cut. Using the designs described herein may reduce and/or inhibit damage, heat, and/or trauma to materials that are to be cut, for example, tissues such as bone and/or cartilage.

Cutting elements

A cut guide includes a first face and an opposed second face. The cut guide further includes a first aperture and a second aperture extending through the cut guide from the first face to the second face. The first and second apertures are configured to guide a surgical tool in cutting a bone. The cut guide further includes a first hole extending through the cut guide from the first face to the second face. The cut guide further includes a second hole extending through the cut guide. A central axis of the second hole is oriented at an acute angle to the second face. The first and second holes are configured to receive a wire to position the guide against the bone.

Surgical tools and methods of use

Disclosed is a method for preferentially removing cartilage from a bone in a joint that is effective at removing the cartilage while minimizing any removal of the cortical bone.

Preferential removal of cartilage

A system, includes a first screw mechanism including: a first block; a first screw threaded through the first block and including a first skin-interfacing portion; and an intramedullary (IM) member extending from and attached to the first block and including an end portion configured to be inserted into an intramedullary canal of a first bone fragment, wherein a first lateral force is generated between the first skin-interfacing portion against a second bone fragment, adjacent to the first bone fragment, and a holding force provided by the end portion when the first screw is rotated and the end portion is located in the intramedullary canal.

Minimally invasive surgery osteotomy fragment shifter, stabilizer, and targeter

A device includes a first arm and a second arm. The first arm includes a first arm body that extends from a first end to a second end and a guide. The guide is rotatably coupled to the second end of the first arm body and is configured to be coupled to a first bone. The second arm includes a second arm body extending from a first end to a second end and is coupled to the first arm body such that it is rotatable with respect to the first arm body. The second arm is configured to engage a second bone. In use, rotation of the second arm body with respect to the first arm body changes the distance between the first bone and the second bone and rotation of the guide with respect to the first arm body rotates the first bone.

Apparatuses and methods for correcting bone deformities

A system includes a base and a targeting guide coupled to the base. The base includes a first member and a second member. The first member defines a first hole for receiving a first fixation element for coupling the first member to a bone. The second member is pivotably coupled to the first member. The second member defines a second hole and a third hole. The second hole is for receiving a second fixation element for coupling the second member to a bone, and the third hole is for receiving an adjustment member for adjusting an angle between the first member and the second member. The targeting guide extends from a first end to a second end and defines a fourth hole adjacent to the second end of the targeting guide. The fourth hole is sized and configured to receive a fixation device therein.

Targeting guide and associated method

A method includes passing a first flexible strand through a tissue section by a first needle coupled to a driver. The driver includes a longitudinal body defining an opening at a distal end. The first needle is positioned in the opening. A first hole is formed through a bone. The first flexible strand is passed through the first hole using a strand retriever. The strand retriever includes a body having a first longitudinal tube extending therefrom and a first snare slideably deployable from the first longitudinal tube. The first longitudinal tube is positioned from a first side of the bone in the first hole and the first snare is deployed on a second side of the bone. The first snare passes the first flexible strand through the first hole in the bone. The tissue section is secured to the bone using the first flexible strand.

Soft tissue repair instruments and techniques

Novel orthopedic staples and related instruments are disclosed. An instrument is an orthopedic drill guide assembly that includes a first arm and a second arm that are retractably connected to the distal end of the instrument's outer housing, where the proximal ends of the arms are retractably connected to the distal end of the outer housing and configured to move in a retractable motion that changes the spacing between the first drill guide sleeve and the second drill guide sleeve, where the proximal end of the outer housing is configured for controlling the retractable motion of the first and second arms.

Orthopedic staple and related instruments

Provided is a nested screw assembly and a related method for fusing a joint between two bones using the nested screw assembly, where the nested screw assembly includes a cannulated outer screw and an inner screw.

Bone fixation implant and method of implantation

Provided is a guide assembly for guiding a bone cutting tool through a small incision in the skin near the bone that allows movement of the cutting tool in the bone in a wide angle while the cutting tool is rotated about a pivot point that is located at the small incision. The guide assembly includes a 2-piece construction that includes a guide component that holds the cutting tool and a track component having a semicircular arc shape on which the guide component is slidably engaged whereby sliding the guide component along the track component guides the movement of the cutting tool to rotate about a pivot point that is the center of curvature of the semicircular arc shape of the track component.

Burr trajectory guide

An assembly includes a first portion including an anchor pivotally attached to a first end of the first portion, the anchor to be inserted into an intramedullary canal of a first bone fragment; a second portion pivotally attached to a second end of the first portion and including a first skin-interfacing portion; a second skin-interfacing portion to interface with and secure the assembly to skin adjacent to the first bone fragment; and an actuation mechanism attached between the first portion and the second portion that actuates pivoting of the second portion to the first portion; wherein a lateral force is generated between the first skin-interfacing portion against a second bone fragment, adjacent to the first bone fragment, and a holding force is provided by the anchor when the actuation mechanism is actuated, so the first portion pivots with respect to second portion, while the anchor is in the intramedullary canal.

Targeting guide

Disclosed are bone screw drill targeting guides and methods for using such targeting guides that are useful in surgical procedures for correcting hallux valgus deformity.

Growing community of inventors

Memphis, TN, United States of America

Zachary Korman