2.7mm Limited Contact Dynamic Compression Plate for Cortical Screw Fixation

Description

The 2.7mm Limited Contact Dynamic Compression Plate is a precision-engineered orthopedic implant developed to deliver controlled compression and stable fixation in small fragment fracture management. Its limited contact geometry reduces plate-to-bone interface, minimizing vascular disruption while maintaining structural rigidity throughout the healing process. This advanced design supports biological fixation principles, promoting faster recovery and reduced complications.

Manufactured from high-grade stainless steel and titanium alloy, the plate offers excellent mechanical strength, corrosion resistance, and biocompatibility. The low-profile contour allows close anatomical adaptation, reducing soft tissue irritation and improving patient comfort post-surgery. Each hole is strategically shaped to facilitate dynamic compression when used with 2.7mm cortical screws, enabling surgeons to achieve precise fracture alignment and axial stability.

The plate is available in a comprehensive range of hole configurations and lengths, providing flexibility for various anatomical requirements and fracture patterns. From short constructs for localized fixation to longer plates for extended fracture coverage, the system ensures optimal adaptability during surgical planning. The evenly spaced hole pattern supports uniform load transfer, reducing stress concentration and enhancing fixation longevity.

This 2.7mm LC-DCP is widely utilized in orthopedic trauma procedures involving small bones, where precision and stability are critical. The plate’s design allows for secure screw placement while maintaining controlled compression across the fracture site. Its compatibility with standard 2.7mm cortical screws simplifies inventory management and intraoperative workflow.

Designed for consistent performance in demanding clinical environments, the Limited Contact Dynamic Compression Plate supports reproducible surgical outcomes. Its refined geometry, material integrity, and biomechanical efficiency make it a dependable solution for orthopedic professionals seeking reliable fixation with minimal biological compromise.