Depuy Synthes Products, Inc.

Synthes Usa, LLC

Synthes Gmbh

Eric McDivitt

Joseph Capozzoli

Thomas R Keyer

Robert Frigg

Nicholas A Theodore

Tom Overes

Lawton Laurence

Andreas Appenzeller

David Rathbun

Shaun B Hanson

Edward J McShane, Iii

Joshua McManus

Mark Rossney

Silas Zurschmiede

Boyd A Wolf

William N Woodburn, Sr

Daniel Vennard

Justin Coppes

Ralph C Solitario, Jr

Jamie Manos

Brian Reed Bankoski

Caryn E Bundra

Charles Kuntz

Christoph Meyer

Tom Keyer

Joshua Mcmanus

Shaun Hanson

David S Rathbun

Nicholas Theodore

Edward J Mcshane Iii

Brian Bankoski

Ralph C Solitario

A revision connector that is configured to couple a new spine fixation rod to a previously implanted spine fixation rod that is secured to a plurality of vertebrae. The previously implanted spine fixation rod may be received in a first rod receiving channel of the revision connector. The revision connector may include a linkage that is received in a second rod receiving channel of another revision connector. For example, the another revision connector may couple to the new spine fixation rod such that the revision connector is coupled to the new fixation rod. A bone anchor may not directly connect either of the revision connector or the another revision connector to underlying vertebra. Also, the new spine fixation rod can be implanted and secured to vertebra that are caudal and/or cranial with respect to the previously secured vertebrae.

Revision connector for spinal constructs

The present disclosure includes a polyaxial bone fixation element for use in spinal fixation to interconnect a longitudinal spinal rod with a patient's vertebra. The polyaxial bone fixation element preferably includes a bone anchor, a collet, a body, and a locking cap. The polyaxial bone fixation element preferably enables in-situ assembly. That is, the polyaxial bone fixation element is preferably configured so that in use, the bone anchor may be secured to the patient's vertebra prior to being received within the body. Accordingly, the polyaxial bone fixation element enables a surgeon to implant the bone anchor without the body to maximize visibility and access around the anchoring site. Once the bone anchor has been secured to the patient's vertebra, the body can be snapped-onto the bone anchor. The bone anchor preferably also includes a second tool interface so that a surgical instrument can be directly coupled to the bone anchor.

Polyaxial bone fixation element

A revision connector is configured to couple a new spine fixation rod to a previously implanted spine fixation rod that is secured to a plurality of vertebrae. The new spine fixation rod can be implanted and secured to vertebrae that are caudal and/or cranial with respect to the previously secured vertebrae.

An anchor assembly for use in spinal fixation to interconnect a longitudinal spinal rod, which is integrally formed with a body of the anchor assembly. The anchor assembly includes a bone anchor, a collet, a body portion, a rod portion, and a locking cap. The anchor assembly is preferably configured so that in use, the bone anchor may be secured to the patient's vertebra prior to being received within the body portion. The anchor assembly enables a surgeon to implant the bone anchor without the body portion to maximize visibility and access around the anchoring site. Once the bone anchor has been secured to the patient's vertebra, the rod portion may be inserted into the rod-receiving channel of a second bone fixation element having a rod-receiving channel implanted at a second site and the body portion can be snapped-onto the bone anchor.

Polyaxial bottom-loading screw and rod assembly

A minimally invasive fixation system and method for providing access to a surgical site. The fixation system may include a holding assembly, the holding assembling preferably including a lateral implant holder which may be attached to a pedicle screw and a sleeve positioned in connection with the lateral implant holder to prevent the lateral implant holder from separating from the pedicle screw. The sleeve may further include a tissue protection portion to keep the tissue out of the surgical site. A holding sleeve may be operably connected to the holding assembly and pedicle screw and may be used to insert the pedicle screw into the body. Multiple constructs may be inserted into the body so that a portion of the holding assembly extends from the body and provides access to and visualization of the surgical site. A rod holder may also be used to insert a rod into the head of the screw. The rod may be held by the rod holder so that the rod may be angulated as the rod is inserted into the screw heads. Once the rod is positioned in the screw heads, locking caps and/or set screws may be positioned over the rod and engage the screw heads so that the position of the rod may be fixed with respect to the screws. In some embodiments, a movement mechanism may be used to move the screws relative to each other to compress and/or distract the vertebrae.

Minimally invasive fixation system

An anchor-in-anchor fixation system is provided for securing underlying structure, such as bone. The fixation system includes a first bone anchor having a shaft for fixation to underlying bone, and a head that defines an internal bore. A second bone anchor extends through the bore and into underlying bone. A fixation assembly is also provided that includes one or more fixation systems coupled to an auxiliary attachment member configured for long bone fixation, spinal fixation, or fixation of other bones as desired.

Anchor-in-anchor system for use in bone fixation

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Schwenksville, PA, United States of America

Eric McDivitt