Systems and methods for securing a soft tissue graft to bone are provided herein. In one embodiment, a surgical implant can include an elongate body having a longitudinal axis extending therealong and having first and second through-holes that are offset to a first side of the longitudinal axis and a third through-hole that is offset to a second side of the longitudinal axis and that is positioned between the first and second through-holes. The implant can also include a suture length extending through the first, second, and third through-holes such that a self-locking knot is formed on a first side of the body and a plurality of suture loops are formed on a second side of the body opposite the first side.

A bone suture assembly including a flexible generally cylindrical sleeve, a plurality of lengths of suture extending through the generally cylindrical sleeve, and at least one sleeve securing thread associated with the generally cylindrical sleeve. A bone suture retaining method including engaging a suture with a bone engaging sleeve, inserting the suture and the bone engaging sleeve engaged thereby into a transosseous tunnel formed into a bone by pulling the bone engaging sleeve into the transosseous tunnel and retaining the suture and the bone engaging sleeve in the transosseous tunnel by virtue of the bone engaging sleeve being unable to fit through an aperture in the bone.

Methods and devices for tissue graft fixation include fixation devices attached to an adjustable fixation loop of suture without compromising the graft or requiring additional material to complete the repair. Other fixation devices are attachable to an independent adjustable suture system. Adjustable fixation loops minimize slip/creep of the suture within the loop.

This disclosure relates to surgical fixation systems and methods. The surgical fixation systems may include one or more loops and one or more reinforcement materials. The surgical fixation systems can be used in various knotless tissue repair procedures.

A ligament fixation device for fixing a ligament to a bone tunnel includes: a fixation device body having a flat surface, wherein the fixation device body has a mounting section for mounting the ligament or a pulling member thereto and a torque application portion configured to apply torque about an axis orthogonal to the flat surface, the pulling member being provided for mounting the ligament, and wherein the mounting section includes a pair of through-holes provided in the noncircular flat surface.

Soft tissue retention devices, instrumentation and related methods are disclosed. The devices include a first member having a first head portion and a first shaft portion, the first head portion and the first shaft portion defining a cannulated opening that extends at least partially through the first member, and a second member having a second head portion and a second shaft portion extending from an inner side of the second head portion, the second head portion and the second shaft portion defining a cannulated opening that extends at least partially through the second member.

A method of reinforcing a biological construct according to an exemplary aspect of the present disclosure includes, among other things, attaching a suture loop/needle construct to a reinforcement material and stitching the reinforcement material to a biological construct to form a reinforced biological construct. The reinforcement material is attached to the suture loop/needle construct prior to approximating the reinforcement material to the biological construct.

An implantable suspension device (1) for fixing an elongated flexible implant (G) or tissue (B) in a desired position, comprising a suspension plate (100) and a single suture element (200) engaging with the suspension plate (100) such that the suture element (200) forms an adjustable suspension loop (300) for connecting said implant (G) or tissue (B) to the suspension plate (100), wherein the single suture element (200) comprises a free first end section (201) and a second end section (202), and wherein the single suture element (200) comprises a stopper (20) arranged on the second end section (202), and wherein the suture element (200) forms a locking loop (40) for pressing the first end section (201) against the suspension plate (100) and thereby locking the first end section (201) of the suture element (200) with respect to the suspension plate (100).

A minimally invasive surgical drill guide includes an elongated drill jig having at least one drill guide opening for defining a location and drill element guide axis for placement of a surgical drill element. The drill jig can have an engagement end with engagement structure. A positioning arm includes an elongated shaft with an axis and a locating end portion shaped to engage a bony part of a patient. The elongated shaft can have engagement structure for engaging to the engagement structure of the drill jig to support the drill jig crosswise relative to the position arm and to support the drill guide opening of the drill jig at a location remote from the axis of the elongated shaft of the positioning arm. The drill jig can be detachable from the positioning arm. A method for minimally invasive surgical drilling is also disclosed.

Systems, devices, and methods are provided for attaching and supporting a bone suture. In particular, described herein are embodiments of implantable bracing apparatuses comprising one or more curved tubes configured to be implanted in one or more bone tunnels, and further configured to pass one or more sutures therethrough. Embodiments of methods of creating a bracing apparatus in situ by injecting a fluidic agent into a bone tunnel and inducing a phase transition are also described. Furthermore, described herein are embodiments of tunneling devices for creating a bone tunnel, which can be used with any of the bracing apparatuses described herein.