Warsaw Orthopedic, Inc.

Smith & Nephew Pte. Limited

Smith & Nephew Richards Inc.

Medtronic Navigation, Inc.

Surgical Navigation Technologies, Inc.

Proprio, Inc.

Hh Spinal LLC

Sdgi Holdings, Inc.

Warsaw Othopedic, Inc.

3spine Sezc

Thomas Andrew Carls

Eric Christian Lange

Kent M Anderson

Aurelien Bruneau

Anthony J Melkent

Matthew M Morrison

Richard A Hynes

Jonathan M Dewey

Chris E Johnson

John A Cowan

Jean-Pierre Mobasser

D Hal Silcox, Iii

Leo A Whiteside

John K Steele

Tim Vendrely

Jean Taylor

Hai H Trieu

Lindsey Gardner Waugh

Roy K Lim

William David Armstrong

Fred J Molz, Iv

Jeffrey W Beale

Fred J Molz

James P Duncan

Kevin Thomas Foley

Thomas E Drochner

Jonathan E Blackwell

Bret Matthew Wilfong

Jason Eckhardt

Carrie L Gowan

Khosrow Naraghian

Newton H Metcalf, Jr

Randall N Allard

Christopher M Patterson

Richard G Fessler

David Anthnoy Simon

Scott D Hodges

Jeffrey Zhang

Danny H Braddock, Jr

Steven Craig Humphreys

Tom J Francis

Jason Michael May

Julien J Prevost

Richard L Brown

James Andrew Youngquist

David Lee Evans

Adam Gabriel Jones

Robert S Biscup

Richard Earl Simpkinson

Russell P Nockels

Clayton G Leroux

John Durward Pond

Robert B Rice

Steven M Tammi

David Lee Fiorella

Robert Bruce Grupp, Jr

Tony Melkent

Chih-I Lin

Hansen A Yuan

James A Davidson

Harold S Taylor

Nicholas M Benson

Jerald Lamont Redmond

John Stewart Young

Joshua W Simpson

Michael S Veldman

Kevin T Foley

Samuel R Browd

Henry Keith Bonin, Jr

Jennifer J Lackey

Newton Metcalf

Randy N Allard

John D Pond, Jr

Albert J Pothier

Scott Elliott

Laura C Small

William J Albans

J Stewart Young

Philippe J Cartier

Jason D Blain

Arjun Siby Kurian

Scott James Drapeau

Aurelian Bruneau

David Anthony Simon

James Andrews

Carol D Taylor

William Kennedy

Paul Wheeler

Henry Bonin

Matthew Gornet

Erica Gray

Newt H Metcalf, Jr

David W Poley

Patrick Farrell Turner

Michael Allen Ferguson

M D Silcox

Lindsey G Waugh

Jean-Pierre Mobasse

M D Hal Iii Silcox

Zhilong Zhang

Methods and systems for intraoperatively determining alignment parameters of a spine during a spinal surgical procedure are disclosed herein. In some embodiments, a method of intraoperatively determining an alignment parameter of a spine during a surgical procedure includes receiving initial image data of the spine including multiple vertebrae and identifying a geometric feature associated with each vertebra in the initial image data. The geometric features each have a pose in the initial image data and characterize a three-dimensional (3D) shape of the associated vertebra. The method further comprises receiving intraoperative image data of the spine and registering the initial image data to the intraoperative image data. The method can then update the pose of each geometric feature based on the registration and the intraoperative image data, and determine the alignment parameter based on the updated poses of the geometric features associated with two or more of the vertebrae.

Methods and systems for determining alignment parameters of a surgical target, such as a spine

A method facilitates the treatment of the spine of a patient by providing simultaneous access through at least a first opening and a second opening formed in the patient. For example, the method can include the acts of positioning the patient on a surgical table, providing the first opening into a posterior portion of the patient, providing the second opening into a lateral portion of the patient, inserting a first device through the first opening into the patient to contact the spine in a first direction that is transverse to the coronal plane of the patient, and inserting a second device through the second opening into the patient to contact the spine in a second direction that is transverse to the sagittal plane of the patient, where the first and second openings are accessible simultaneously, and, when the first and second devises are inserted into the patient, the position of the patient is stationary with respect to a portion of the table.

Multiple spinal surgical pathways systems and methods

A system for assessing a status of a spinal implant includes a wearable apparatus having an electronics system and one or more spinal implants in communication with the wearable apparatus. The electronics system includes a first short-range receiver, a first short-range transmitter, and an inertial measurement unit. The wearable apparatus is configured to constrain one or more movements of a wearer when worn. The one or more spinal implants include one or more sensors configured to measure one or more characteristics of a fusion status of the spinal implant, a second short-range receiver, and a second short-range transmitter. The one or more spinal implants are configured to communicate one or more of the measured characteristics to the wearable apparatus via the second transmitter.

Motion limiting apparatus for assessing status of spinal implants

A spinal construct includes a first member having a first thread form and an implant cavity configured for disposal of the spinal implant. A second member is engageable with a spinal implant and includes a second thread form configured for engagement with the first thread form. A gauge is coupled to the second member. The gauge is configured to measure a force between the second member and the spinal implant when the second member is engaged with the first member. The second thread form is timed with the first thread form to position the gauge in a selected orientation relative to the spinal implant. Systems and methods are disclosed.

Surgical system and method

A spinal disorder diagnosis and treatment planning system is provided. The diagnosis and treatment planning system includes a mixed reality holographic display including at least one processor, at least one camera, at least one sensor, and being configured to acquire data points corresponding to a surface of a body adjacent to vertebral tissue. A computer database is configured to transmit imaging of the body including the vertebral tissue to the mixed reality holographic display. The mixed reality holographic display is configured to display a first holographic image of the vertebral tissue superimposed with a body image including the surface. Methods are also disclosed.

Clinical diagnosis and treatment planning system and methods of use

A spinal implant comprises an implant body extending between an anterior surface and a posterior surface and includes a first vertebral engaging surface and a second vertebral engaging surface. The implant body includes an inner surface that defines at least one cavity that is oriented to implant a fastener oblique relative to a lateral axis of a subject body and adjacent an intervertebral space of the subject body. At least one indicia is disposed with the implant body to facilitate orientation of the implant body with the subject body. Systems and methods are disclosed.

Spinal implant system and method

A spinal implant comprises an implant body extending between an anterior surface and a posterior surface, and including a first vertebral engaging surface and a second vertebral engaging surface. The implant body includes an inner surface that defines at least a first cavity and a second cavity. The cavities are oriented to implant fasteners in alignment with an oblique surgical pathway relative to a bilateral axis of a subject body and adjacent an anterior portion of an intervertebral space of the subject body. Systems and methods are disclosed.

Spinal implant system and method for lumbar and lumbosacral fusion

A prosthetic system for implantation between upper and lower vertebrae comprises an upper joint component. The upper joint component comprises an upper contact surface and an upper articulation surface. The system further includes a lower joint component. The lower joint component comprises a lower contact surface and a lower articulation surface configured to movably engage the upper articulation surface to form an articulating joint. The articulating joint is adapted for implantation within a disc space between the upper and lower vertebrae, allowing the upper and lower vertebrae to move relative to one another. The system further includes a bridge component extending posteriorly from one of either the upper or lower joint components and from the disc space. The bridge component has a distal end opposite the one of the either upper or lower joint components. The distal end of the bridge component comprises a connection component adapted to receive a fastener.

Posterior total joint replacement

Growing community of inventors

Memphis, TN, United States of America

Thomas Andrew Carls