Abstract: An orthopedic instrument or inserter arranged and configured to insert, position (e.g., align), and remove, if necessary, an orthopedic implant (e.g., a femoral stem or implant). In one embodiment, the inserter and femoral stem are configured to enable the inserter to be quickly and easily coupled to the femoral stem via, for example, a quick-connect, non-threaded connection. Moreover, in one or more preferred embodiments, the inserter is configured to be angularly adjustable relative to the femoral stem. For example, the angular position of the inserter may be adjusted relative to the position of the femoral stem to accommodate different patient anatomy and/or various surgical approaches. In one embodiment, the inserter includes a ball-shaped head portion for coupling to a cavity formed in the femoral stem.

Abstract: Orthopaedic implants and corresponding instrumentation are disclosed. More particularly, a femoral implant and a corresponding broach are presented for surgically repairing a hip joint. The femoral implant includes an elongated stem configured to be inserted within an intramedullary canal of a patient's femur. The femoral implant configured to maximize “fit” within the intramedullary canal. The orthopedic broach may include differential tooth patterns. For example, the broach may include first, second, and third separate and unique tooth patterns. In use, the various tooth patterns are located in specific locations on the broach to achieve a specific purpose to thereby optimize engagement between the patient's intramedullary canal and the femoral implant. In various embodiments, the broach is specifically matched to mimic the femoral implant, and specifically the teeth (compaction teeth) formed on the proximal region of the broach are matched to the porous coating formed on the implant.

Abstract: Orthopaedic implants and corresponding instrumentation are disclosed. More particularly, a femoral implant and a corresponding broach are presented for surgically repairing a hip joint. The femoral implant includes an elongated stem configured to be inserted within an intramedullary canal of a patient's femur. The femoral implant configured to maximize “fit” within the intramedullary canal. The orthopedic broach may include differential tooth patterns. For example, the broach may include first, second, and third separate and unique tooth patterns. In use, the various tooth patterns are located in specific locations on the broach to achieve a specific purpose to thereby optimize engagement between the patient's intramedullary canal and the femoral implant. In various embodiments, the broach is specifically matched to mimic the femoral implant, and specifically the teeth (compaction teeth) formed on the proximal region of the broach are matched to the porous coating formed on the implant.

Abstract: An orthopedic instrument or inserter arranged and configured to insert, position (e.g., align), and remove, if necessary, an orthopedic implant (e.g., a femoral stem or implant). In one embodiment, the inserter and femoral stem are configured to enable the inserter to be quickly and easily coupled to the femoral stem via, for example, a quick-connect, non-threaded connection. Moreover, in one or more preferred embodiments, the inserter is configured to be angularly adjustable relative to the femoral stem. For example, the angular position of the inserter may be adjusted relative to the position of the femoral stem to accommodate different patient anatomy and/or various surgical approaches. In one embodiment, the inserter includes a ball-shaped head portion for coupling to a cavity formed in the femoral stem.

Abstract: An implementation of a system disclosed herein provides a method of deferring decoding of a data sector received at a read channel of a storage device, in response to determining that a data sector cannot be decoded by a first decoder and storing the data sector for further processing by a second decoder.

Abstract: An implementation of a system disclosed herein provides a method of deferring decoding of a data sector received at a read channel of a storage device, in response to determining that a data sector cannot be decoded by a first decoder and storing the data sector for further processing by a second decoder.

Abstract: An implementation of a system disclosed herein provides a method of deferring decoding of a data sector received at a read channel of a storage device, in response to determining that a data sector cannot be decoded by a first decoder and storing the data sector for further processing by a second decoder.

Abstract: An implementation of a system disclosed herein provides a method of deferring decoding of a data sector received at a read channel of a storage device, in response to determining that a data sector cannot be decoded by a first decoder and storing the data sector for further processing by a second decoder.

Abstract: In a computer data storage system configured for patching Read Only Memory (ROM) by remapping data sections, the ROM containing a token to define the start of each one of the data sections and a patch existing for at least one of the data sections, the patch providing additional data at the start of the data section; whereby the patch is included in one of the data sections when an access to one of the data sections is initiated at the token. The patch further optionally replaces at least a part of one of the data sections. The patch may be in writeable memory and if so, the ROM appears writeable thereby. The indicator will normally be a software No Operation or non-destructive instructive, since a No Operation instruction (NOP) causes a one cycle pause in the processor and allows time for the patch to be smoothly integrated.