Intelivation Technologies has announced the first clinical use of its Advantage-C Ti3D Cervical Interbody Device, a 3D-printed titanium cervical cage designed to support cervical fusion.
The first implantation marks an early commercial and clinical milestone for the company’s spine portfolio. The device was first implanted by Dr Victor Hsu of Rothman Orthopaedics in Philadelphia, with additional surgeon feedback cited from Dr Ripul Panchal of American NeuroSpine Institute in Frisco, Texas.
This is relevant because cervical interbody devices are used in procedures where surgeons need to support spinal stability and fusion after disc removal or decompression. Device design can influence graft placement, imaging visibility, bony integration and the surgeon’s ability to restore alignment.
Advantage-C Ti3D uses a scalloped wall architecture intended to provide high graft volume while reducing overall metal content. The lower metal structure may help reduce imaging artefact, which is important for post-operative assessment and monitoring of fusion progress.
The device also incorporates a nanolattice structure with micropores engineered to support both bony on-growth and through-growth. This is relevant in cervical fusion because long-term success depends on stable integration between the implant, graft material and surrounding bone.
The range of lordotic options is another practical feature. Cervical spine cases can vary in alignment and anatomy, and surgeons often need implant options that help restore or maintain lordosis while fitting patient-specific requirements.
Intelivation positioned the device as part of its broader focus on spine innovation and post-market evidence generation. The company said it plans to work with surgeon partners while generating post-market clinical data to further evaluate performance.
The development reflects continuing innovation in 3D-printed orthopaedic and spine implants. As additive manufacturing becomes more established in medtech, companies are using lattice structures, porosity and material optimisation to improve biological integration while addressing practical needs such as visibility and implant handling.
