Zimmer Spine, Inc.

Pioneer Surgical Technology, Inc.

Theracell, Inc.

Other

Spinal Concepts, Inc.

Warsaw Orthopedic, Inc.

Alphatec Spine, Incorporated

Osteotech, Inc.

Spineology Inc.

Frontier Medical Devices, Inc.

Stephen H Hochschuler

Michael E Landry

Richard D Guyer

Margaret E Mitchell

Matthew N Songer

Erik J Wagner

Andrew James Carter

Nelson L Scarborough

Thomas S Kilpela

Frank M Phillips

Thomas R Hektner

Wesley D Johnson

Larry Wales

Erik O Martz

David Chow

Daniel E Rosenthal

Kevin L Nickels

Perry Geremakis

Steven Annunziato

Ali Araghi

Ronald C Todd

Richard K Grant

Larry C Johnston

E Skott Greenhalgh

Joshua Butters

Robert J Jones

Brian Patrick Janowski

Bradley E Patt

Tyler Lipschultz

Qi-Bin Bao

Michael R Jackson

Michael Paul Igoe

David J Krueger

Robert A Kiefer

Greta Jo Hays

Jeffrey A Hoffman

Russell M Pietila

Wade Kevin Trexler

John Paul Romano

Tyler Lipschults

A spinal stabilization system may include a pair of structural members coupled to at least a portion of a human vertebra with connectors. Connectors may couple structural members to spinous processes. Some embodiments of a spinal stabilization system may include fasteners that couple structural members to vertebrae. In some embodiments, a spinal stabilization system, provides three points of fixation for a single vertebral level. A fastener may fixate a facet joint between adjacent vertebrae and couple a stabilization structural member to a vertebra. Connectors may couple the structural members to the spinous processes of the vertebrae. Use of a spinal stabilization system may improve the stability of a weakened or damaged portion of a spine. When used in conjunction with an implant or other device, the spinal stabilization system may immobilize vertebrae and allow for fusion of the implant or other device with vertebrae.

Spinal stabilization system and method

An encapsulated three-dimensional (3-D) bone matrix composition for inducing bone growth includes a 3-D bone matrix, an oxygen carrier incorporated into the 3-D bone matrix, and an encapsulation material which encapsulates the 3-D bone matrix incorporated with the oxygen carrier. Methods are disclosed for preparing an encapsulated 3-D bone matrix that can be maintained in packaging.

Oxygenated three-dimensional matrix for bone growth

A method and apparatus for stabilizing first and second adjacent bone portions. The method includes the steps of: providing a spacer; providing a stabilizer, with the spacer and stabilizer configured to be movable guidingly, one relative to the other, between a pre-assembly relationship and an operative relationship; and placing the spacer and stabilizer into an operative relationship with the first and second adjacent bone portions. As an incident of the spacer and stabilizer being changed from their pre-assembly relationship into the operative relationship with each other and the first and second bone portions, the spacer, stabilizer and first bone portion cooperate to cause the first bone portion and spacer to be urged towards each other. The method may be carried out by moving the stabilizer and spacer, and all auxiliary parts and handling and assembling instruments, substantially in a single plane along one line or parallel lines.

Apparatus and method for stabilizing adjacent bone portions

An improved composition for inducing bone growth is provided that is a mixture of DBM and a perfluorocarbon oxygen carrier. Injection/implantation of a composition of DBM and a perfluorocarbon results in enhancement of bone formation.

Oxygenated demineralized bone matrix for bone growth

Expandable support devices for tissue repair are disclosed. The devices can be used to repair hard or soft tissue, such as bone or vertebral discs. A method of repairing tissue is also disclosed. Surgical devices and methods for adjusting (e.g., removing, repositioning, resizing) deployed orthopedic expandable support devices are also disclosed. The expandable support devices can be engaged and surgically implanted by an engagement device and affixed to bone to provide stability and support for the devices. The expandable support devices are attachable to spinal fixation devices such as screws or plates, and may be used to support such devices when placed in weakened or damaged areas of bone.

Expandable spinal support device with attachable members and methods of use

A spinal stabilization system includes a first engagement member and a support structure. The first engagement member is adapted to be disposed between a first vertebra and a second vertebra. The engagement member generally includes a seating surface for accommodating at least a portion of a laminar region of the first vertebra. The support structure engages a portion of the second vertebra. The structural cooperation of the first engagement member and the support structure is such that the engagement member restricts reduction of the intervertebral spacing between the first and second vertebrae.

Interlaminar stabilizing system

A bone fastener for stabilizing bone fragments includes a single or multiple components coupleable with one another and displaceable to a locked position of the bone fastener.

Bone fasteners and method for stabilizing vertebral bone facets using the bone fasteners

An implant device includes a pair of hook devices and an elongate guide device. The hook devices are configured to be disposed between and engage adjacent vertebral bodies. The elongate guide device is connected to the hook devices and allows for relative movement of at least one of the hook devices to adjust for the geometries of the vertebral surfaces to be engaged by the hook devices.

Intervertebral implant devices and methods for insertion thereof

A spinal stabilization system may include a pair of structural members coupled to at least a portion of a human vertebra with connectors. Connectors may couple structural members to spinous processes. Some embodiments of a spinal stabilization system may include fasteners that couple structural members to vertebrae. In some embodiments, a spinal stabilization system provides three points of fixation for a single vertebral level. A fastener may fixate a facet joint between adjacent vertebrae and couple a stabilization structural member to a vertebra. Connectors may couple the structural members to the spinous processes of the vertebrae. Use of a spinal stabilization system may improve the stability of a weakened or damaged portion of a spine. When used in conjunction with an implant or other device, the spinal stabilization system may immobilize vertebrae and allow for fusion of the implant or other device with vertebrae.

A spinal stabilization system includes vertebral engagement members and an intermediate structure. The vertebral engagement members are configured to be disposed between a first vertebra and a second vertebra. The vertebral engagement members generally include seating surfaces for accommodating at least a portion of a laminar region of adjacent vertebra and are adjustable between an operable and inoperable configuration. The intermediate structure extends between the vertebral engagement members. The structural cooperation of the vertebral engagement members and the intermediate structure is such that the engagement members distract the adjacent vertebrae.

Interlaminar stabilization system

An instrumentation set may include insertion instruments for forming an implant between bone structures. The insertion instruments may include a spreader and a separator. The bone structures may be vertebrae. Implant members may be attached to the spreader and positioned between the bone structures. The separator may be inserted into the spreader to establish a desired separation distance between the implant members. Connectors may be inserted into the implant members to join the implant members together and form the implant. The insertion instruments may be removed. A seater may be used to set the position of the connectors relative to the implant members to inhibit disassembly of the implant.

Instrumentation and procedure for implanting spinal implant devices

Growing community of inventors

Paradise Valley, AZ, United States of America

Stephen H Hochschuler