Abstract: A cut guide includes a first face and an opposed second face. The cut guide further includes a first aperture and a second aperture extending through the cut guide from the first face to the second face. The first and second apertures are configured to guide a surgical tool in cutting a bone. The cut guide further includes a first hole extending through the cut guide from the first face to the second face. The cut guide further includes a second hole extending through the cut guide. A central axis of the second hole is oriented at an acute angle to the second face. The first and second holes are configured to receive a wire to position the guide against the bone.

Abstract: A cut guide includes a first face and an opposed second face. The cut guide further includes a first aperture and a second aperture extending through the cut guide from the first face to the second face. The first and second apertures are configured to guide a surgical tool in cutting a bone. The cut guide further includes a first hole extending through the cut guide from the first face to the second face. The cut guide further includes a second hole extending through the cut guide. A central axis of the second hole is oriented at an acute angle to the second face. The first and second holes are configured to receive a wire to position the guide against the bone.

Abstract: In various embodiments, a surgical instrument, systems including the surgical instrument, and methods of use of the surgical instrument are disclosed. The surgical instrument includes a handle body extending from a proximal end to a distal end substantially along a longitudinal axis. The handle body defines a first channel sized and configured to receive a guide element therein. A plurality of indicators are formed on the handle body. Each of the plurality of indicators correspond to a size of one of a plurality of fixation elements sized and configured for insertion into a bone. A countersink element is coupled to a distal end of the body. The countersink element defines a second channel sized and configured to receive the guide element therethrough that is circumferentially located with and coupled to the first channel. The countersink element includes a head sized and configured to form a countersink in the bone.

Abstract: A method includes passing a first flexible strand through a tissue section by a first needle coupled to a driver. The driver includes a longitudinal body defining an opening at a distal end. The first needle is positioned in the opening. A first hole is formed through a bone. The first flexible strand is passed through the first hole using a strand retriever. The strand retriever includes a body having a first longitudinal tube extending therefrom and a first snare slideably deployable from the first longitudinal tube. The first longitudinal tube is positioned from a first side of the bone in the first hole and the first snare is deployed on a second side of the bone. The first snare passes the first flexible strand through the first hole in the bone. The tissue section is secured to the bone using the first flexible strand.

Abstract: A cut guide includes a first face and an opposed second face. The cut guide further includes a first aperture and a second aperture extending through the cut guide from the first face to the second face. The first and second apertures are configured to guide a surgical tool in cutting a bone. The cut guide further includes a first hole extending through the cut guide from the first face to the second face. The cut guide further includes a second hole extending through the cut guide. A central axis of the second hole is oriented at an acute angle to the second face. The first and second holes are configured to receive a wire to position the guide against the bone.

Abstract: A method includes passing a first flexible strand through a tissue section by a first needle coupled to a driver. The driver includes a longitudinal body defining an opening at a distal end. The first needle is positioned in the opening. A first hole is formed through a bone. The first flexible strand is passed through the first hole using a strand retriever. The strand retriever includes a body having a first longitudinal tube extending therefrom and a first snare slideably deployable from the first longitudinal tube. The first longitudinal tube is positioned from a first side of the bone in the first hole and the first snare is deployed on a second side of the bone. The first snare passes the first flexible strand through the first hole in the bone. The tissue section is secured to the bone using the first flexible strand.

Abstract: An intramedullary implant has opposite ends inserted into bores in abutting phalanges for correcting hammer toe and for similar arthrodesis procedures. A rear end of the implant may be threaded and is received in a bore in the proximal phalanx. A front end has an asymmetric pointed shape with longitudinally and/or angularly spaced rear-facing gripping flukes. The pointed front end is received in the middle phalanx. The asymmetric pointed shape is self-aligning, enabling entry to begin without first longitudinally aligning the bones. The rear end when screwed into place can be rotated to select the orientation of the asymmetric pointed shape. The pointed front end is inserted and pushed to bring the phalanges into abutment where the implant holds them against retraction or rotational displacement.