Endobon® Bovine Xenograft
Particulate and Moldable
Sculpt with Precision Transition into Preservation.

Sculpt with Precision Transition into Preservation
Shaping the future
Endobon is a bovine-derived cancellous xenograft designed for long-term space maintenance with optimal handling properties.1 The graft is available in two forms: particulate and moldable – giving clinicians flexibility to treat a range of defect types.
Endobon Bovine Xenograft Benefits
Shaping simplified
- Particles adhere together6 for seamless placement
- Moldable resists washout during irrigation3
Bovine-derived
- Sustains for long-term space maintenance delivering lasting structural support1
- Fully de-proteinized hydroxyapatite through controlled high-temperature processing2
- Histological data indicates Endobon functions as an effective osteoconductive scaffold, showing no significant difference as compared to conventional xenografts5
Osteoconductive scaffold
- Hydrophilicity2 promotes immediate capillary saturation 6,7
- Encourages osteoblast differentiation with clinically relevant bone formation3
- Hydrated matrix remains cohesive for predictable space maintenance6
Endobon Moldable Features
Control where it counts
Shaping simplified
- Unique carrier3 facilitates conformable shaping properties
- Adapts to the geometry of the defect3,6
Hydrophilic advantage
- Carrier creates a wet-swell network environment that increases new bone formation5
- Carrier has a positive effect on osteoblast differentiation3,5
Stable adhesion
- Material adheres firmly to the surgical site, providing a stable scaffold for new bone formation3
- Resists irrigation and reduces scatter 3,6
Endobon Particulate Features
Particles with purpose
Volume stability
- Slow resorbing particles maintain volume during healing
- Facilitates the foundation for new bone formation 5
Hydrophilic cohesion
- Particulate hydrates rapidly 2
- Particulate adheres to one another for easy transfer to the defect site 3
Structural architecture
- Encourages an optimal environment for osteoblast adhesion and blood vessel formation 5
- 70% porosity maximizes surface area for cellular attachment 3