Basic Information
The Euloc® is a simple, minimal invasive system for the treatment of displaced radius and ulna fractures with moderate degree of comminution.
The basic principle is that of intra focal Kapandji pinning i.e. the distal fragment is supported by pins inserted through the fracture line into the proximal fragment of the radius. The original method has been modified and improved with the Euloc:
- Pins are inserted into the medullary canal of the proximal fragment
- Pins are pre shaped to fit the natural shape of the bone
- Screw fixation through double eyelets
This is the second generation of the Euloc Wrist Fixation system. The first generation has been
used in approximately 1500 patients.
The present collection of pins and screws is a result of our efforts and the experience of:
- Carl Ekholm, M.D., Ph.D. Assoc. Prof. and
- Michael Ullman M.D., Ph.D.,
- Dept. Orthopaedics, Sahlgrenska University Hospital,
- Göteborg, Sweden.
Self-reducing fracture fixation
The Euloc Wrist Fixation system has been designed to overcome the weakness of isolated K-wires. It allows the surgeon to reduce the fracture by inserting the pins intra- focally. Screws are inserted through the eyelets of the pins to secure the reduction, creating a stable fixation.
- Minimally invasive
The whole operative procedure is carried out through two 20-25 mm skin incisions, facilitating early mobilization. - Simple, timesaving procedure
The operation is straight forward and easy to learn. - Complement to other implants or as a single-use reduction tool
The Euloc pins can also be used for more complex fractures in combination with other implants to simplify fracture reduction and improve fixation. - Can reach very distal fractures
The Euloc can reach fractures close to the joint surface both from the radial and/or dorsal aspect.
Key Features
- Doubled wire for improved support minimises the risk of cutting into osteoporotic bone
- 7 mm double eyelets designed to accept screws and to prevent rotation
- Cold worked flattened double wire (1.6 mm 1.2 mm) for increased torsional rigidity and reduced risk of soft tissue irritation
- Round design of the proximal eyelet prevents penetration and irritation of tendons
- Contoured to fit anatomy
- Extra cortical extension to straddle proximal cortex, thereby preventing migration
- “Step” corresponding to cortical thickness
- The long shank will facilitate insertion and stabilize the fragment by tension between the cortex and the proximal medullary canal
- Electropolished for increased smoothness and corrosion resistance
- The diameter of the pin is 1.6 mm
- Curved proximal end and blunt tip for easy insertion
