2.7mm T Plate for Small Fragment Fixation

Description

The 2.7mm T Plate is a specialized orthopedic implant developed to address fixation requirements in small fragment and periarticular fracture patterns. Its T-shaped geometry allows effective load distribution across the metaphyseal region while maintaining stable anchorage along the plate shaft. This design is particularly beneficial in fractures where multidirectional support is essential for maintaining alignment and structural integrity.

Manufactured from high-quality stainless steel and titanium alloy, the plate offers excellent strength, corrosion resistance, and biocompatibility. The smooth surface finish and low-profile contour minimize soft tissue irritation, supporting improved post-operative comfort and reduced risk of complications. The anatomical shape of the T head enables precise positioning, allowing surgeons to secure fragments effectively while maintaining optimal screw orientation.

Each hole is engineered to accept 2.7mm cortical screws, ensuring secure fixation and consistent load transfer. The plate configuration supports stable screw placement within the head and shaft, enhancing resistance to rotational and axial forces. This structural balance makes the plate suitable for a wide range of small bone applications where reliable fixation is critical.

Available in multiple hole configurations, the 2.7mm T Plate allows flexibility in surgical planning. The combination of shaft holes and head holes provides versatility for different fracture lengths and anatomical demands. This adaptability helps surgeons achieve accurate reduction while preserving surrounding tissue integrity.

The 2.7mm T Plate is widely used in orthopedic trauma settings where controlled fixation and anatomical conformity are required. Its refined geometry, material reliability, and compatibility with standard cortical screws make it a dependable choice for consistent surgical outcomes. Designed to meet modern orthopedic standards, the plate supports precise fixation while maintaining structural stability throughout the healing process.