Abstract: The present invention describes an intramedullary nail for use in orthopedic surgery for the fixation of bone fractures and fusion sites. The nail employs one or more internal loaded springs, biocompatible elastic or rubber bands, or other mechanism that provides continuous dynamic compression across the healing site throughout the healing process. By altering the size, tension and/or number of the internal compression devices, the amount of compression may be customized on a case-by-case basis. Further, the slots within the nail for its attachment can be utilized to create a torsional force when desired. The nail can have a cross-sectional shape that prevents its rotation. A system and method of use is also described.

Abstract: The present invention describes an intramedullary nail for use in orthopedic surgery for the fixation of bone fractures and fusion sites. The nail employs one or more internal loaded springs, biocompatible elastic or rubber bands, or other mechanism that provides continuous dynamic compression across the healing site throughout the healing process. By altering the size, tension and/or number of the internal compression devices, the amount of compression may be customized on a case-by-case basis. Further, the slots within the nail for its attachment can be utilized to create a torsional force when desired. The nail can have a cross-sectional shape that prevents its rotation. A system and method of use is also described.

Abstract: The present invention includes a surgically implantable device, system, and method of use thereof for the internal compression or distraction of, for example, bone fractures, fusions, and osteotomies. More specifically, the surgical device comprises a bridge with one or more adjustable anti-reversing portions. The adjustable anti-reversing portion(s) may be located in a symmetrical or asymmetrical manner on the bridge between the device's legs. The adjustable anti-reversing portion(s) allow for stronger compression of the bone at a known amount of compression. The adjustable anti-reversing portion(s) can also maintain the device's legs in closer proximity to one another for greater compression or maintain the device's legs apart from one another for distraction. The surgical device can also comprise cannulated or grooved legs. A system and method of use is also described.

Abstract: The present invention describes an intramedullary nail for use in orthopedic surgery for the fixation of bone fractures and fusion sites. The nail employs one or more internal loaded springs, biocompatible elastic or rubber bands, or other mechanism that provides continuous dynamic compression across the healing site throughout the healing process. By altering the size, tension and/or number of the internal compression devices, the amount of compression may be customized on a case-by-case basis. Further, the slots within the nail for its attachment can be utilized to create a torsional force when desired. The nail can have a cross-sectional shape that prevents its rotation. A system and method of use is also described.

Abstract: The present invention includes a surgically implantable compression staple, system, and method of use thereof for the internal fixation of bone fractures, fusions, and osteotomies. The staple has a grooved construction along the outside edge of each of its legs and cannulated tabs are aligned above the grooves. The grooves and cannulated tabs of the staple are sized to fit and align with guide wires. Once holes are drilled over the guide wires with a specialized cannulated drill, the appropriately sized staple can be inserted over the guide wires and the guide wires are subsequently removed. The compression feature of the staple is activated and the staple provides stability across the desired fractured site. The system and method allows for easy alignment and precise placement of surgically implantable staples.

Abstract: The present invention describes an intramedullary nail for use in orthopedic surgery for the fixation of bone fractures and fusion sites. The nail employs one or more internal loaded springs, biocompatible elastic or rubber bands, or other mechanism that provides continuous dynamic compression across the healing site throughout the healing process. By altering the size, tension and/or number of the internal compression devices, the amount of compression may be customized on a case-by-case basis. Further, the slots within the nail for its attachment can be utilized to create a torsional force when desired. The nail can have a cross-sectional shape that prevents its rotation. A system and method of use is also described.

Abstract: The present invention includes a surgically implantable device, system, and method of use thereof for the internal compression or distraction of, for example, bone fractures, fusions, and osteotomies. More specifically, the surgical device comprises a bridge with one or more adjustable anti-reversing portions. The adjustable anti-reversing portion(s) may be located in a symmetrical or asymmetrical manner on the bridge between the device's legs. The adjustable anti-reversing portion(s) allow for stronger compression of the bone at a known amount of compression. The adjustable anti-reversing portion(s) can also maintain the device's legs in closer proximity to one another for greater compression or maintain the device's legs apart from one another for distraction. The surgical device can also comprise cannulated or grooved legs. A system and method of use is also described.

Abstract: The present invention includes a surgically implantable compression staple, system, and method of use thereof for the internal fixation of bone fractures, fusions, and osteotomies. The staple has a grooved construction along the outside edge of each of its legs and cannulated tabs are aligned above the grooves. The grooves and cannulated tabs of the staple are sized to fit and align with guide wires. Once holes are drilled over the guide wires with a specialized cannulated drill, the appropriately sized staple can be inserted over the guide wires and the guide wires are subsequently removed. The compression feature of the staple is activated and the staple provides stability across the desired fractured site. The system and method allows for easy alignment and precise placement of surgically implantable staples.