The device of the present disclosure is configured for laparoscopic use, particularly to insert a fastener into a plate at an angle of up to 180° from the plane of insertion. The device is further configured to carry a plurality of fasteners, a tightening tool, a cutting device, and tweezers simultaneously to facilitate a rapid procedure while lessening the chance of infection by limiting the amount of times the device must be removed and re-inserted.

A device for positioning an orthopaedic fixation device includes: a compression attachment mechanism; a fastener guide coupled to the compression attachment mechanism; and a spring member disposed in the fastener guide.

A sternal closure device includes an insertion member, a receiver member and a joint locking mechanism. The joint locking mechanism includes a dual pawl assembly and a dual ratchet assembly. The dual pawl assembly includes a pair of pawl arms that include heads with outward facing teeth. The dual ratchet assembly includes a pair of ratchet arms with inward facing teeth that are configured for an intermeshed engagement with the teeth on the corresponding pawl arms. Alignment tabs on the ratchet arms are captured within guide channels on the receiver member. The configuration and number of the teeth contribute to the strength of the device. The locking mechanism contributes to efficiency, speed, and strength of the closure.

A fastener cartridge can include a body defining a plurality of retention bores that can each extend through the body and can each be configured to retain a fastener therein. The cartridge can also include a boss, a cam, and an actuator. The boss can extend from the body and can be insertable into a connection bore of a bone plate to align each retention bore with a fastener bore of the bone plate. The cam can be connected to the body and can be rotatable between a locked position and an unlocked position. The cam can be operated by the actuator and can be engageable with a body of the plate in the locked position to secure the plate to the cartridge.

An implantable fixation device for rejoining opposed portions of a separated bone. The device including two corresponding plates that are configured to be aligned and coupled to a bone, such as a sternum, pre-resection of the bone or prior to cutting/separating the bone. The placement of the corresponding plates provides a gap between the edges of the plates that face one another allowing for and guiding a cutting tool for separating the bone. After the bone has been cut and the desired surgical procedure performed, the plates also assist in realigning and fixation of the bone portions. At least one plate includes a ratchet mechanism that is configured to tighten a locking element and draw the two plates together and into alignment with one another.

Various embodiments provide an apparatus for treating pectus excavatum. A pectus bar apparatus includes at least one elongated bar having an offset bend between a first end and a second end, at least one aperture near the first end and at least one aperture near the second end, a planar stabilizer extending orthogonally from the elongated bar, and a pair of opposing rib reveals located between the first end and the planar stabilizer. A pectus excavatum treatment kit and a method for utilizing that kit are also provided.

System, including methods, apparatus, and kits, for bone fixation using a fixation device including a mounting portion and a fastener that attaches to the mounting portion. In some embodiments, the fixation device may include first and second mounting portions configured to be disposed across a bone from each other and secured with a fastener that extends from one of the mounting portions, through the bone, and to the other mounting portion. The system also may include a tool to facilitate installation of the fixation device.

Disclosed herein are improved surgical techniques for repairing bone defects in a sternum during a sternotomy procedure and implants adapted for such techniques. In an exemplary embodiment, provided is a fusion strip made of an osteoconductive material and of a dimension that is especially adapted for improved repair of sternal bone defects.

Systems for the minimally invasive repair, stabilization and/or fixation of a fractured bone, such as a rib, are disclosed. The systems include one or more rods/support members that are designed to extend along a dimension of a bone being repaired and secure the fractured bone. The support members can be photodynamic and are formed using an expandable member that is filled with a light-sensitive liquid that is cured to form the rigid support member. Two or more clamps are used to secure the support member(s) to the rib or other bone. Minimally invasive surgical methods for securing the systems to a fractured bone are also disclosed.

A sternum fixation device includes a plate having a first end and a second end, a right lateral edge and a left lateral edge, an inner side configured for placement against the sternum, and an outer side. A first lobe includes a band socket defined as a blind recess in the outer side of the plate. The band socket includes a right lateral stop and a left lateral stop opposite the right lateral stop. A right lateral channel is defined in the first lobe from the right lateral edge to the band socket, the right lateral channel defined above a right side floor in the socket. A left lateral channel opposite the right lateral channel is defined in the first lobe from the left lateral edge to the band socket, the left lateral channel defined above a left floor in the socket.