Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening, creating a cavity in a disc space between the adjacent vertebra, without retraction, inserting an expandable implant into the cavity, the implant configured to fit through the access opening into the cavity, and expanding the implant within the cavity.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening, creating a cavity in a disc space between the adjacent vertebra, without retraction, inserting an expandable implant into the cavity, the implant configured to fit through the access opening into the cavity, and expanding the implant within the cavity.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening, creating a cavity in a disc space between the adjacent vertebra, without retraction, inserting an expandable implant into the cavity, the implant configured to fit through the access opening into the cavity, and expanding the implant within the cavity.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening, creating a cavity in a disc space between the adjacent vertebra, without retraction, inserting an expandable implant into the cavity, the implant configured to fit through the access opening into the cavity, and expanding the implant within the cavity.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening, creating a cavity in a disc space between the adjacent vertebra, without retraction, inserting an expandable implant into the cavity, the implant configured to fit through the access opening into the cavity, and expanding the implant within the cavity.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening, creating a cavity in a disc space between the adjacent vertebra, without retraction, inserting an expandable implant into the cavity, the implant configured to fit through the access opening into the cavity, and expanding the implant within the cavity.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening via neural monitoring, creating a cavity in a disc space between the adjacent vertebra, without retraction, evaluating the created cavity, inserting a container sized and configured to fit through the access opening into the cavity and filling the container with fill material.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening via neural monitoring, creating a cavity in a disc space between the adjacent vertebra, without retraction, evaluating the created cavity, inserting a container sized and configured to fit through the access opening into the cavity and filling the container with fill material.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening via neural monitoring, creating a cavity in a disc space between the adjacent vertebra, without retraction, evaluating the created cavity, inserting a container sized and configured to fit through the access opening into the cavity and filling the container with fill material.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating a percutaneous access opening on the patient, using indirect visualization to establish a surgical path through the access opening via neural monitoring, creating a cavity in a disc space between the adjacent vertebra, without retraction, evaluating the created cavity, inserting a container sized and configured to fit through the access opening into the cavity and filling the container with fill material.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating an access opening on the patient, the access opening being less than 10 mm wide, using indirect visualization: establishing a surgical path through the access opening via neural monitoring, creating a cavity in a disc space between the adjacent vertebra, evaluating the created cavity, inserting a container sized and configured to fit through the less than 10 mm access opening into the cavity and filling the container with fill material.

Abstract: The present invention is a kit and a method of using a kit for treating bone including a fill material mixture made of osteoconductive material, osteoinductive material and a lubricating carrier, a porous container to receive the fill material mixture and a tool that flowably introduces the fill material mixture into the porous container.

Abstract: A stainless steel bristled surgical brush for removing nucleus material from the intervertebral space and cartilage from vertebral endplates is provided herein. The surgical brush of the present invention may be dimensioned to be placed through a minimally invasive and/or percutaneous access through an access portal. In certain embodiments, the surgical brush may be straight or bent, may include a cap to contain the tines and may include a depth stop. The brush may be manually operated, powered by a wire driver or powered by other suitable means.

Abstract: Implants comprising a plurality of separate cortical bone units, which have been at least partially demineralized and are osteoinductive, are described herein. The implants can be used in methods for treating bone. Also, disclosed are methods for treating spinal conditions using these implants. The spinal conditions include but are not limited to repairing damage to or defects in the spine, such as fractures in a vertebral body or degeneration of spinal discs.

Abstract: Disclosed is a method and device for treating a tissue defect, disease or abnormality. The device includes an absorbent container adapted to be placed at a tissue site, the container constructed and arranged to absorb a bioactive solution prior to the placement at the tissue site and to carry the solution to the tissue site such that the solution interacts with the tissue and wherein the absorbent container is substantially free of a metal support structure. The method includes providing an absorbent container substantially free of a metal support structure, soaking the container in a bioactive solution such that the solution is absorbed by the container and placing the container at the tissue site such that the solution interacts with the tissue.

Abstract: A composition for spinal disc repair comprising a plurality of uniformly shaped demineralized cancellous bone pieces ranging in size from about 2.0 mm to about 4.0 mm loaded into a porous mesh container with the cancellous bone pieces being treated so that they are not osteoinductive and are packed in the porous mesh container under compression forces.

Abstract: A method of performing percutaneous interbody spinal fusion on adjacent vertebrae in a patient including the steps of: creating an access opening on the patient, the access opening being less than 10 mm wide, using indirect visualization: establishing a surgical path through the access opening via neural monitoring, creating a cavity in a disc space between the adjacent vertebra, evaluating the created cavity, inserting a container sized and configured to fit through the less than 10 mm access opening into the cavity and filling the container with fill material.

Abstract: The present invention is a kit and a method of using a kit for treating bone including a fill material mixture made of osteoconductive material, osteoinductive material and a lubricating carrier, a porous container to receive the fill material mixture and a tool that flowably introduces the fill material mixture into the porous container.

Abstract: The device of the invention includes a flexible container that may be filled with fill material either before or after placement at the insertion site. It is one object of the present invention to provide a flexible container filled with morselized cortico-cancellous bone graft. According to one aspect of the present invention, a filled flexible container may be placed at the insertion site and then molded to the local anatomy. In an embodiment, a filled flexible container may be placed between two spinous processes.

Abstract: The present invention is a method and device for treating a tissue defect, disease or abnormality. The device includes an absorbent container adapted to be placed at a tissue site, the container constructed and arranged to absorb a bioactive solution prior to the placement at the tissue site and to carry the solution to the tissue site such that the solution interacts with the tissue and wherein the absorbent container is substantially free of a metal support structure. The method includes providing an absorbent container substantially free of a metal support structure, soaking the container in a bioactive solution such that the solution is absorbed by the container and placing the container at the tissue site such that the solution interacts with the tissue.