
The MyImplant engineering team works closely with surgeons to understand clinical needs, integrating feedback into each stage of the design process. The engineers design patient-specific implants and instruments that aim to restore the native condition while prioritizing bone preservation.
Medacta’s preoperative planning tools leverage advanced software and imaging techniques to construct highly detailed 3D bone models. These tools enable precise pre-surgical planning and simulation, helping to achieve a satisfying implant fit and accurate positioning.

The patient-specific solution is meticulously engineered aiming to maximize the contact surface between the implant and the existing bone. This allows for a good compromise between load distribution and preservation of the native bone structure.
This approach minimizes the need for bone resection, thus prioritizing preservation of the native bone. This preservation is crucial for maintaining the biomechanical integrity and for facilitating a more stable initial fixation, which is essential for potential long-term implant success.

3D Metal implants are engineered with an advanced outer surface designed to achieve intrinsic high friction and a precise scratch-fit[1] with the surrounding bone, contributing to maximized primary stability.
By replicating the natural properties of the bone, the 3D Metal porous structure supports bone ingrowth, allowing for a seamless integration between the implant and the native bone over time, potentially enhancing the long-term stability of the implant.

Medacta’s offering includes a comprehensive range of preoperative and intraoperative tools designed to enhance the biomechanical reconstruction of each patient’s unique anatomy.
The patient-specific implants are seamlessly compatible with Medacta Hip and Shoulder implants, establishing a versatile synergy between patient-specific and standard implant options. This compatibility provides surgeons with invaluable intraoperative flexibility, enabling them to select the ideal combination of components to achieve joint alignment, stability, and function.