

Designed to reduce revision risk through patient-specific biomechanics and a growing suite of predictive technologies, including AI-powered outcome modeling currently under development.
Current mandibular reconstruction planning focuses primarily on anatomy. Surgeons can see what the reconstruction will look like, but have limited ability to predict how it will perform after surgery. As a result, mechanical complications, nonunion, and revision procedures remain significant challenges.
Bone-Intelligent Fixation™ combines patient-specific biomechanics with next-generation predictive technologies, including AI-powered modeling under development, to help optimize reconstruction performance before surgery.
Creating a natural partnership between bone and implant.
We envision a future where our Bone Fixation Intelligent Technology helps guide every reconstruction toward more predictable healing outcomes and lasting success.

Large-animal preclinical validation completed. Results demonstrated alignment between predicted and observed biomechanical performance and provided preclinical evidence supporting continued evaluation of personalized porous NiTi fixation hardware..
Publication:
Porous NiTi fixation plates achieved bone-like mechanical properties. Engineered porous architectures reduced implant stiffness into the cortical bone range while maintaining structural integrity and fatigue resistance under cyclic loading. The study demonstrated that engineered porosity can be used to create fixation devices that better match the mechanical behavior of bone while reducing stress shielding and stress concentration.
Publication:
Engineered Porosity for Stiffness-Matched, PBF-LB, Nickel-Titanium Mandibular Graft Fixation Plates
Virtual Surgical Planning enables pre-surgical evaluation of implant location, material selection, and geometry. Computational models can evaluate implant location, material selection, and geometry to help reduce stress shielding and stress concentration while supporting personalized stiffness-matched reconstruction strategies. This work establishes the foundation for biomechanics-driven treatment planning and future personalized implant optimization workflows.
Publications:
Virtual Surgical Planning for Point-of-Care Manufacturing
Investigational Technology Notice: RegenFix technologies are currently under development. Statements regarding potential benefits are based on engineering analyses and preclinical research and have not been established through human clinical studies.
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