ACDF Cage options and footprints

Mobi-C

- Cobalt, chromium, molybdenum alloy superior spinal plate.

- The inner contact surfaces of the superior and inferior spinal plates are spherical and flat

- The two lateral stops are designed to control and limit the mobility of the mobile insert. The spinal plates both superior and inferior, feature two rows of teeth which are designed to aid in initial and long term fixation and stability.

- A hydroxyapatite plasma spray coating is applied to the bony surfaces of the end vertebra

Tesera-K SC Cage

- Built with resilience technology which allows for ultra-low stiffness compared to traditional peek or titanium implants, reducing stress shielding and subsidence.

- 3x less stiff than peek

- Locking screw mechanism

- Smart lattice wall structure to absorb and share compression loads across a joint

- Randomized trabecular structure

- Roughened titanium surface

- Optimized for bone growth.

- 2 screw / standalone

- 3D printed

Black Hawk Ti

- BioBond 3D printed titanium matrix may enhance bony ingrowth.

- Large open graft window for bone graft containment and maximum visualizations

- 6˚ Lordosis and Convex available with 4.6-5.5 mm range of anchor penetration depth.

- simultaneous , single-step anchor deployment.

- External locking indication for easy confirmation of cam-locking.

Ceres-C

- Peek interbody spaces with titanium plate and screws

- Dual cam anti-backout locking mechanism

- Same 2.5mm hex driver used for screws and cam locks

Irix-C

- Integrated endoskeleton, surrounded by outer PEEK ring, promotes increased torsional strength and shear performance

- Resilient locking mechanism, built upon proven cervical fusion technology

- Frictional titanium plasma coating on bone contact areas

- Peek and plasma coated (Ti)

- Locking arm provides tactile, visual and audible feedback

- Screw orientation 38˚ cephalad/caudal with up to 6˚ conical screw angulation.

- Titanium endoskeleton provides better x-ray visibility.

Ascendant PC

Peek optima for biocompatibility and radiolucency

- Optimized graft chamber

- Sterile packaged to ensure product quality

- Threaded opening in the posterior section of the spacer for removal if necessary

- Angular teeth designed to prevent spacer migration

- Ti coated on endplates and side walls designed to create a bone friendly environment.

Atrix- C

- Precision-milled cortical bone provides structural integrity

- Load bearing scaffold maintains vertical height and promotes natural fusion

- Anatomical footprint maximizes vertebral endplate surface contact and fusion area.

- Lordotic endplates provide cervical sagittal alignment

- Aggressive teeth designed to help prevent migration

Atrix-C Union

- Combination of cortical bone and cancellous tissue that provides an osteoconductive matrix creating an optimal environment for bone growth and fusion

- Ready to use, pre-hydrated packing reduces OR time and increases graft strength

- Engineered to withstand compressive forces and impaction loads.

- Precision milled with 7˚ Lordosis and anti migratory ridges.

- Tissue donors are thoroughly screened and tested to meet, or exceed safety standards mandated by the FDA, and AATB

Flux-C

- Is a 3D printed porous titanium cervical interbody

a lot of open space for:

- Bone graft

- Restoring disc height

- Lateral radiographic visibility

- Reinforced end plate contact

- Highly porous surfaces

- Large windows for graft packing and radiographic visibility

- Multiple footprints and heights for unique anatomy

- Precise threaded inserter

- Sterile packaged implant

Intice-C

- Made from a proprietary material that offers superior wicking capabilities, bony ingrowth, and predictable structural consistency, and elasticity consistent with natural bone providing an optimal platform for achieving fusion.

- Superior wicking capabilities can absorb fluids such as the patients own blood

- Large graft window

Shurfit 2C

- Ti Plasma coated surface provides enhanced stability

- HA coating facilitates the formation of bone structure and may aid in more stable fixation.

- A large contact area optimizes vertebral body support and minimizes risk of subsidence.

- Large graft area

- Peek core

- Bone mimicking surface roughness

Tetra Fuse 3D

- Unlike PEEK, _____ is able to participate in fusion

- 3D printed creating porosity and a nano-rough surface over the entire interbody allowing for bony attachment/

- Participates in fusion

- Bone-like mechanical properties

- Radiolucent

- Antibacterial characteristics

Tryptik Ti C

- Ti-Life

- Stabilizing and securing fins

- Upper and lower fins improve primarily stability

- Optimal visualization

- Bone graft window

Tiger Shark-C

- Continuous porosity

- Radiographic mesh windows

- Micro surface for fusion

- osteoconductive , hydrophilic

- Simple, threaded inserter

- Sterile-packaged for maximum patient safety

- 3D printed

- Made of Ti

- Has an anatomical shape that coincides with the shape of a vertebral body, and a hollow center for placement of bone graft.

Tomcat

- Peek-optima HA enhanced

- Simple instrumentation

- Self-locking retention mechanism

- Hybrid interbody offered to eliminate difficult screw trajectories

- Standard lordosis zero profile 4˚ & 8˚

- Standard lordosis hybrid profile 4˚