Depuy Products, Inc.

Warsaw Orthopedic, Inc.

Sdgi Holdings, Inc.

Mark Pelo

Jeffrey H Nycz

Steven M Tethrake

Prasanna Malaviya

Herbert Eugene Schwartz

Pamela Lynn Plouhar

Robert Varner

Paul Elliott

Terrence David Whalen

Amit K Singla

Jerry L Lower

Philip Joseph Jenks

Systems and methods for identifying surgical instruments by use of radio-frequency identification tags (RFID) are disclosed. In the systems and methods, each of a plurality of surgical instruments is provided with at least one RFID transponder tag storing identification information associated with the corresponding instrument. The tag may be adhered to, embedded, or potted within a portion of the instrument. Using an RFID reading device, a user may interrogate the tag, thereby identifying the particular instrument. This identification information may be used to index a database and retrieve a data record unique to that instrument. The systems and methods allow a user to track, inspect, and verify inbound and outbound surgical instruments, to assess, for example, the surgical instruments' duty life cycle usage.

Method and apparatus for surgical instrument identification

Orthopaedic devices are disclosed. The devices include a part that is made of extracellular matrix material that has been hardened. One method of hardening the extracellular matrix is to comminute naturally occurring extracellular matrix and dry the comminuted material. The hardened extracellular matrix material can be machined to form a variety of orthopaedic devices.

Device from naturally occurring biologically derived materials

Methods and devices are provided for regenerating a meniscus. The devices comprise a layer of toughened naturally occurring extracellular matrix. The devices may, optionally, further comprise a biologic material to provide a framework for meniscus regeneration. The methods comprise the steps of removing a portion of a meniscus to provide a space, and inserting a device comprising a layer of toughened naturally occurring extracellular matrix into the space.

Meniscus regeneration device

An apparatus and method for interrogating and automatically identifying a radio-frequency tagged surgical instrument tray and its contents of RFID-tagged surgical instruments are disclosed. The surgical instrument tray and its contents come into contact with an RF signal transmitted by the RFID reader, and as a result, the RFID tags affixed on the instrument tray and the surgical instruments respond by transmitting back to the RFID reader data pertaining to the history of the surgical instruments. A data terminal, which is connected to the RFID reader, may contain data pertaining to the radio frequency tagged surgical instruments during packaging, and during the return of the surgical instrument trays to the packager, identifies the surgical instruments.

Automated pass-through surgical instrument tray reader

A method of making an implantable scaffold for repairing damaged or diseased tissue includes the step of suspending pieces of an extracellular matrix material in a liquid. The extracellular matrix material and the liquid are formed into a mass. The liquid is subsequently driven off so as to form interstices in the mass. Porous implantable scaffolds fabricated by such a method are also disclosed.

Porous extracellular matrix scaffold and method

Unitary surgical devices () are disclosed. One group of the illustrated devices has a pair of biocompatible, bioresorbable anchors () connected to fixed lengths suture. The anchors () and fixed length of suture are connected to each other prior to surgery. Another group of unitary surgical devices has a pair of fixating mechanisms () connected to a base () prior to surgery. The second group of illustrated devices generally includes extracellular matrix material either as part of the base () or supported on the base (). The extracellular matrix material serves as tissue regenerating material. In the second group of unitary surgical devices, the fixating mechanisms illustrated generally comprise suture, anchors or pre-formed holes in the base. All of the illustrated unitary surgical devices are useful in repairing a damaged meniscus. The first group of unitary surgical devices can be used to approximate inner surfaces of a tear in the meniscus. The second group of devices can be used either as an insert to be placed between and approximated to the inner surfaces of the tear or as an insert to replace a void in the meniscus left after a meniscectomy.

Unitary surgical device and method

A method and apparatus for automatically identifying surgical implants by use of a radio-frequency tag (RFID) is disclosed. The method, apparatus, and system enable a radio-frequency tagged implant to receive an interrogation signal from a reader and to respond to the interrogation signal with identifying information about the tagged implants. The interrogation signal interrogates the implant to ascertain its information, and the RFID tag affixed on the implant in turn transmits a signal back to the reader. The method, apparatus, and system can track, inspect, and verify surgical implants, to assess, for example, any wear and tear on implants, and/or positional displacement of components of the implant.

Method and apparatus for implant identification

An orthopaedic device for repairing and regenerating cartilage includes a plug configured to be positioned in a hole formed in the cartilage and an anchor configured to support the plug. One or both of the plug and the anchor may be formed from naturally occurring extracellular matrix such as small intestine submucosa. A method for repairing and regenerating cartilage is also disclosed.

Cartilage repair apparatus and method

Disclosed are exemplary implementations of an instrument having an RFID tag formed in or on the material of its handle. One or more antenna segments of the RFID tag may be formed from conductive material printed on or otherwise applied to a surface of the material or they may be formed from a conductive foil or other preformed material applied to the surface of the elastic material of the instrument handle. The antenna segments may be configured to represent at least a portion of a graphic, such as a company logo, for viewing by a user or handler of the instrument. At least a portion of the RFID tag and surrounding of the instrument handle may be covered by a protective material to prevent damage to the RFID tag as a result of repeated handling or subjection of the instrument to autoclaving, sterilization or caustic materials.

RFID tag for instrument handles

A method and apparatus for automatically identifying the contents of an instrument tray by use of a radio-frequency tag (RFID) is disclosed. The method, apparatus, and system enable the instrument tray to receive an interrogation signal from a reader and to respond to the interrogation signal with a code comprised of its identifying information as well as its contents of radio frequency tagged instruments. Both the instrument tray and/or the reader may be coupled by a proximity electromagnetic field, an inductive coupling, or may be units of a wireless LAN system such as a wireless fidelity local area network. The interrogation signal interrogates the tray to ascertain its contents, and the tray in turn transmits a signal to the reader to inform the reader of its contents. The method, apparatus, and system can track, inspect, and verify inbound and outbound surgical instrument trays and kits, to assess, for example, the surgical instruments' and trays' duty life cycle usage.

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Macy, IN, United States of America

Mark Pelo