Depuy Spine, Inc.

Depuy Synthes Products, Inc.

Codman & Shurtleff, Inc.

Medos International Sarl

Depuy Orthopaedics, Inc.

Timothy Beardsley

Connie Marchek

Anthony R Carlone

Douglas Raymond

Thomas W Higginbotham

William J Frasier

Katherine Herard

Sara Dziedzic

Michael Mahoney

Robert E Simonson

Paul Joseph Birkmeyer

Brooke Mastrorio

Matthew J Andrie

Adam LaWare

Dale W Frank

Douglas Bireley

Christopher Rigsby

Ron Naughton

Christopher W Sicvol

Lev Ludin

Michael Zajack

James J Roveda

Douglas Scott Bireley

Hassan A Serhan

Thomas M DiMauro

Shawn D Stad

Jeffrey Karl Sutton

Mohamed Attawia

Michael C Gorhan

John Daniel Malone

Katherine Herard Ray

Paul Gibbons

Terrence Young

Connie Marcheck

This invention includes surgical retractors that comprise an expandable frame that includes at least two base components, a connector, and at least two retractor blades attached to the expandable frame. Also included are surgical retractors that comprise a housing component that includes a cylindrical portion and a contiguous blade portion, assemblies comprising a surgical retractor assembled to at least one obtruator, illuminated surgical cannulas, and methods of using the same during a surgical procedure.

Surgical retractor systems and illuminated cannulae

Disclosed herein are methods and devices for distracting adjacent vertebrae during surgical procedures for implanting spinal prostheses. In an exemplary embodiment, a distractor is disclosed that maintains the empty space between adjacent vertebrae following a discectomy, and that can removably mate with other surgical instruments, such as, for example, a filler bar, an implanting tool, or a funnel. In other embodiments of the present invention a distractor is disclosed having various features to assist in implanting a spinal prosthesis, such as, for example, an angled distal end and/or an expandable paddle. In another embodiment of the present invention, an articulating inserter is disclosed. Moreover, various implants and funnels are also disclosed herein.

Systems and methods for spinal surgery

Various systems and methods are provided for tagging and tracking surgical devices using radio frequency identification (RFID) tags. In general, the systems and methods allow for tracking surgical devices throughout distribution and sterilization thereof. In an exemplary embodiment, the system includes a tray configured to seat a plurality of surgical devices and having a parent RFID tag attached thereto that contains information and/or facilitates access to information about the tray and each of the surgical devices seated therein. Each of the surgical devices seated in the instrument tray can have attached thereto a child RFID tag containing information and/or facilitating access to information about the surgical device.

Systems and methods for tagging and tracking surgical devices and surgical accessories using radio frequency identification tags

A blade extending tower is provided for setting blade depth on retractors having telescoping or extending blades. The blade extending tower features a base, a column extending from the base, and mating features on the column configured to engage the blades of a retractor to extend the blades to a desired blade depth. Blade depth of the retractor is set buy sliding the retractor onto the blade extending tower such that the mating features of the blade extending tower engage the blades or the retractor, stopping the blades progression while the rest of the retractor continues along the length of the column. Thus the blades of the retractor are extended from the retractor to a depth determined by the configuration of the blade extending tower.

Retractor blade extender tower

The present invention provides a non-rigid retractor for providing access to a surgical site, such as a patient's spine, during a surgical process. When used in spinal surgery, the non-rigid retractor allows a surgeon to operate on one or more spinal levels. The non-rigid retractor includes at least one flexible strap anchored at a first end to the spine or other internal body part at the surgical site. The body of the at least one flexible strap extends from a skin incision and is anchored at a second location external to the body to retract skin and muscle from the surgical site, allowing adequate visualization of the surgical site and providing access for implants and surgical instruments to pass through the retractor and into the surgical site.

Non-rigid surgical retractor

A system for minimally invasive spine surgery includes a plurality of bone anchors, a spinal rod, a plurality of dilators of differing lengths and diameters, and a surgical access port. The surgical access port includes a proximal end, a distal end, and a sidewall defining a lumen extending from the proximal end to the distal end. The port may include a first opening formed in the sidewall that defines a passageway for medical hardware from the lumen to external to the port. The system can include first instrument for creating a subcutaneous pathway from the opening in the port.

Instruments and methods for minimally invasive spine surgery

Surgical methods and surgical kits

A minimally invasive surgical method includes inserting a first port that defines a first pathway to a first vertebra, advancing a first anchor through the first port to the first vertebra, inserting a second port that defines a second pathway to a second vertebra, advancing a second anchor through the second port to the second vertebra, positioning a first end of a fixation element in the first port, and advancing the first end of the fixation element subcutaneously through an opening in the first port and an opening in second port to the second anchor. A surgical access port includes a proximal end, a distal end, and a sidewall defining a lumen extending from the proximal end to the distal end. The port may include a first opening formed in the sidewall that defines a passageway for medical hardware from the lumen to external to the port.

An implant comprises a photocatalytic layer on at least one surface and is adapted to act as a sensor. In some embodiments, the photocatalytic layer is a semiconductor oxide that is doped. According to some embodiments, the implant comprises a wave guide. According to some embodiments the implant comprises a light port. According to some embodiments, the implant comprises a reflective material on a surface of the waveguide. According to some embodiments the implant comprises a composite material comprising a first material that has a transmissivity when exposed to a predetermined wavelength of light and a second material that has photocatalytic activity when exposed to the predetermined wavelength of light. According to some embodiments the implant comprises a light source adapted to irradiate the photocatalytic surface.

Photocatalytic implant having a sensor

The present invention provides minimally invasive devices and methods for delivering a spinal connector to one or more spinal anchor sites in a patient's spinal column. In one embodiment, a spinal implant and access device is provided that includes a U-shaped receiver member, a bone-engaging member, and an extension member. The U-shaped receiver member can have a recess formed therein that is adapted to seat a spinal connector. The bone-engaging member can extend distally from the receiver member and it can be adapted to engage bone to thereby mate the receiver member to bone. The extension member can extend proximally from the receiver member and it can include a frangible portion formed thereon that is adapted to break when a predetermined force is applied thereto thereby allowing at least a portion of the extension member to be separated from the receiver member.

Break-off screw extensions

Growing community of inventors

Kingston, MA, United States of America

Timothy Beardsley