Wright Medical Technology, Inc.

Howmedica Osteonics Corporation

Jesse G Moore

Joseph Ryan Woodard

Erin Muller

Murray John Penner

Daniel E Free

Paul Luttrell

Bryan D Den Hartog

Jean Chaoui

Sergii Poltaretskyi

Brian Robert Thoren

Shawn E McGinley

Gary W Lowery

Damien Cariou

Gregory Charles Berlet

Bruce E Cohen

Zachary Korman

Terrance W Strohkirch

Julia C Alspaugh

John White

William Bragg

Steven L Haddad

A guide for use in cutting a bone is disclosed. The guide includes a bone contacting surface contoured to conformably mate with a first bone surface when placed against the first bone surface, and a guide surface that is spaced apart from the bone contacting surface. At least one prescribed patient-specific depth of cut information is provided on the guide surface that corresponds to the desired depth of cut being made using the guide.

Surgical guide with cutting depth information

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

The disclosed subject matter relates to a system and method for preparing a surface of a bone proximate a joint, in which the preparation includes boring a plurality of arced channels/troughs in the bone surface using an arch drill assembly guided by plural guide bores along a predetermined longitudinal arc. The bored troughs create a scalloped surface on the bone to which an inverse contoured joint insert/implant having cooperating convex ridges engages. The plural guide bores are also defined by the predetermined longitudinal arc which may be circular or helical. The disclosed subject matter minimizes bone removal and allows greater access options for preparing the bone surface.

Methods and apparatus for joint repair

Various embodiments of a surgical instrument are disclosed. The surgical instrument includes a handle, a working element extending from the handle configured to be positioned internal of a target site while the handle is external to the target site, and a laser guide configured to generate at least one emitted marker. The emitted marker corresponds to movement of the working element internal of the target site. Various embodiments of methods using the surgical instrument are also disclosed.

Minimally invasive surgery laser guide

In one aspect, an implant configured to attach a first bone section to a second bone section comprises an intramedullary portion and an extramedullary portion. The intramedullary portion is configured for insertion into the first bone section. The extramedullary portion is configured to abut a surface of the second bone section and includes a first fastener aperture configured to receive a bone fastener inserted in the second bone section. The intramedullary portion and the extramedullary portion are coupled such that the extramedullary portion is rotatable with respect to the intramedullary portion.

Implant with intramedullary portion and variable angle extramedullary portion

A method for syndesmotic repair includes forming a bone tunnel through a first bone and a second bone. A partial anchoring construct is inserted through the bone tunnel. The partial anchoring construct includes a first flexible strand defining a first adjustable loop and a first anchor coupled to a first end of the first adjustable loop. A second end of the first adjustable loop is coupled to a first pull-through strand. A second anchor is coupled to the second end of the first adjustable loop after the first adjustable loop is inserted through the bone tunnel by the first pull-through strand. The length of the first adjustable loop is adjusted to position the first bone and the second bone in a predetermined spacing.

Partially assembled knotless suture construct

In some examples, a simulator system may simulate one or more minimally invasive surgery (MIS) procedures associated with bone removal. The simulator system comprises an input device configured to detect a position of a portion of a user tool relative to an operation envelope, a simulation device defining one or more surfaces that define one or more boundaries for a movement of the user tool relative to the operation envelope during a simulated surgical procedure, and processing circuitry. The processing circuitry is configured to receive, from the input device, information indicative of the position of at least the portion of the user tool relative to the operational envelope, generate a performance metric based on the position of at least the portion of the user tool relative to the operational envelope over a period of time, and output, for display to a user, the performance metric.

Simulation of minimally invasive surgery procedures

A guide for a bone cut comprises a guide base having an inner wall defining an opening. The inner wall has a plurality of detents distributed around the opening. The guide base has a proximal surface adapted to contact a skin of a person. An inner collar has one or more spring loaded devices extending outward from the inner collar in opposite directions. The inner collar is mountable with the spring loaded devices fitting within one or more of the plurality of detents. The inner collar has an inner wall defining a bore for receiving a cutting tool. The inner collar is configured to pivot the cutting tool about an axis, for cutting a bone. The axis lies along or parallel to a line along which the spring loaded devices lie.

Osteotomy guide

A method includes forming a bone tunnel through a first bone and a second bone and inserting a flexible construct through the bone tunnel. The flexible construct includes a first anchoring element and a second anchoring element coupled by at least one flexible strand defining an adjustable loop. The at least one flexible strand includes a first end extending from the first anchoring element in an opposite direction from the adjustable loop. A length of the adjustable loop is adjusted to position the first bone and the second bone in a selected spacing. The first end of the at least one flexible strand is coupled to a tissue section using a third anchoring element.

Augmented suture construct for syndesmotic stabilization

An example method includes obtaining, a virtual model of a portion of an anatomy of a patient obtained from a virtual surgical plan for an orthopedic joint repair surgical procedure to attach a prosthetic to the anatomy; identifying, based on data obtained by one or more sensors, positions of one or more physical markers positioned relative to the anatomy of the patient; and registering, based on the identified positions, the virtual model of the portion of the anatomy with a corresponding observed portion of the anatomy.

Growing community of inventors

Germantown, TN, United States of America

Jesse G Moore