The present invention provides a storage system for so called “sharps”, in particular but not limited to needles, used in surgical and medical procedures and comprising a body defining a first storage area for one or more packaged sharps; a second storage area for one or more empty sharps packages; and a third storage area for securing one or more used sharps.

In various embodiments, a tissue thickness compensator can comprise a compressible extracellular matrix and a bioabsorbable material dispersed within the extracellular matrix, wherein the bioapsorption of the bioabsorbable material is configured to leave behind channels in the extracellular matrix. The tissue thickness compensator can also comprise generation means for generating the ingrowth of tissue into the channels. In at least one embodiment, the tissue thickness compensator can comprise dissolvable wicking members which, when dissolved, can leave behind channels in the tissue thickness compensator. In certain embodiments, the tissue thickness compensator can comprise at least one rupturable capsule.

The medical device holder can be attached to a plurality of different support structures to retain a medical device at a convenient location near a patient. The medical device holder includes an elongated housing which defines a pair of storage areas for a medical device. The housing is formed of a first planar member fixed to a second concave member. The concave member defines first and second chambers, the first being generally L-shaped.

A temperature-protective package includes a rigid container configured to receive a temperature-sensitive product. A flexible liner is attached to the rigid container such that a pocket is formed between the rigid container and the flexible liner. Phase change material (PCM) is situated in the pocket. The PCM conforms to a contoured surface of the rigid container. In an alternative implementation, a temperature-sensitive package includes a pocket of PCM within a flexible liner. The flexible liner defines a preferred shape of the temperature-protective package. The flexible liner also defines an opening for receiving a product. The opening corresponds to the preferred shape. In one implementation, multiple flexible liners can be utilized to define the preferred shape and the opening.

An orthopaedic instrument system including an instrument caddy is disclosed. The instrument caddy is configured to receive one or more cutting broaches to house the cutting broaches between orthopaedic surgical procedures. The instrument caddy is also configured to be used during a surgical procedure to assist a user in assembling the cutting broach with another surgical instrument. A method of assembling a surgical instrument is also disclosed.

A system is provided for aligning an intramedullary nail for implantation when the intramedullary nail has an intramedullary nail body having a first end having a first interlocking profile and the intramedullary nail body has a first through hole extending therethrough about a first axis. The system comprises an alignment device adapted and configured to be separable from the intramedullary nail. The system also comprises a holding fixture comprising a channel and a projection adapted and configured to cooperatively receive the intramedullary nail in the channel such that the projection extends within the first through hole and the first axis aligns with a through hole of the alignment device when the first interlocking profile is engaged with an interlocking profile of the alignment device.

A staple cartridge comprising a cartridge body comprising a longitudinal slot, a deck surface, and a plurality of staple cavities defined in the cartridge body is disclosed. The cartridge body further comprises a plurality of projections extending from the deck surface. A surface of each projection is flush with one of a proximal end wall and a distal end wall of each staple cavity. The staple cartridge further comprises staples removably stored in the staple cavities.

Disclosed are devices, systems and methods for modifying, cutting and/or shaping surgical fixation components of various configurations, including spinal fixation rods and related components.

An apparatus for inserting implants in a bone comprising a frame having a cartridge receiving chamber and a barrel. A cartridge defining a plurality of chambers is positioned in the cartridge receiving chamber so the chambers are selectively alignable with a longitudinal passage of the barrel. At least one instrument is positioned in one of the chambers, and a plurality of implants is positioned in the other chambers. A drive assembly is engageable with the instrument and the implants. The drive assembly is slidably and rotatably disposed in the frame and is moveable between a retracted position, an engaging position wherein the distal end of the drive assembly is positioned to engage the selected one of the instrument and the implants, and an extended position wherein the drive assembly extends through the chamber to transport the selected one of the instrument or the implant from the chamber to the distal end of the barrel.

An instrument manipulator may comprise a frame comprising an outer shell and an inner frame, the inner frame being movably coupled to the outer shell. The instrument manipulator may also include a plurality of actuator outputs protruding in a distal direction from the frame and an instrument support feature coupled to the outer shell. The instrument manipulator may further comprise a latching mechanism, the latching mechanism being configured to move the inner frame, the outer shell, or both relative to one another, so as to operably engage the plurality of actuator outputs with a plurality of actuator inputs of an instrument supported by the instrument support feature.