OSSPORE Bioglass Putty is a premium bioactive synthetic bone graft substitute specifically developed for predictable bone regeneration in implant dentistry, periodontology, and oral & maxillofacial surgery. Manufactured using advanced 45S5 bioactive glass fibres, this ready-to-use putty provides an ideal osteoconductive scaffold that supports new bone formation while maintaining excellent handling characteristics during surgical procedures.

Unlike conventional bone graft materials, OSSPORE Bioglass Putty actively interacts with surrounding tissues to promote biological healing. After placement into the defect site, the bioactive glass surface reacts with body fluids to form a hydroxycarbonate apatite layer that closely resembles natural bone mineral. This bioactive surface enhances osteoblast attachment, supports cellular proliferation, and encourages rapid bone regeneration, leading to predictable clinical outcomes.

The putty features a highly porous synthetic structure that facilitates vascularization and cell ingrowth while maintaining the required space for bone regeneration. Its excellent moldability allows clinicians to adapt the material easily to irregular bone defects without particle migration. Because it is supplied in a convenient preloaded syringe, OSSPORE Bioglass Putty offers precise placement, reduces material waste, and improves surgical efficiency.

Manufactured entirely from synthetic materials, OSSPORE Bioglass Putty eliminates the risks associated with animal-derived grafts, including disease transmission and immunological reactions. Its excellent biocompatibility minimizes inflammatory responses while supporting natural healing and gradual replacement by newly formed bone. The controlled resorption profile ensures that the graft provides structural support during the healing phase before being integrated into the regenerated bone.

OSSPORE Bioglass Putty is indicated for a wide range of regenerative procedures, including Guided Bone Regeneration (GBR), Guided Tissue Regeneration (GTR), implant site development, socket preservation, ridge augmentation, sinus lift procedures, peri-implant defect management, periodontal bone regeneration, and oral surgical reconstruction. It can be used alone or in combination with collagen membranes, PRF, autogenous bone, or other regenerative materials according to the clinician’s preferred surgical protocol.

The syringe delivery system simplifies application in confined surgical sites and allows excellent control during placement. The cohesive consistency of the putty prevents graft migration while maintaining intimate contact with surrounding bone surfaces. This makes OSSPORE Bioglass Putty particularly suitable for defects requiring precise adaptation and stable graft positioning.

Trusted by implantologists, periodontists, and oral surgeons, OSSPORE Bioglass Putty provides predictable regenerative performance, outstanding handling characteristics, and long-term clinical reliability. Its combination of bioactivity, synthetic safety, excellent biocompatibility, and easy syringe delivery makes it an ideal solution for modern regenerative dentistry.

Key Features

• Bioactive synthetic bone graft putty
• Contains 45S5 bioactive glass fibres
• Ready-to-use syringe delivery
• Osteoconductive scaffold
• Supports cell ingrowth
• Enhanced biocompatibility
• Controlled resorption
• Excellent moldability
• Maintains graft stability
• Sterile and ready to use
• Professional dental use

Benefits

• Promotes rapid bone regeneration
• Supports implant stability
• Easy syringe application
• Excellent defect adaptation
• Reduces graft migration
• Eliminates disease transmission risk
• Encourages vascularization
• Predictable clinical outcomes
• Ideal for complex bone defects
• Supports long-term regenerative success

Indications

• Guided Bone Regeneration (GBR)
• Guided Tissue Regeneration (GTR)
• Implant site development
• Socket preservation
• Ridge augmentation
• Sinus lift procedures
• Periodontal bone defects
• Peri-implant defects
• Oral and maxillofacial surgery
• Bone defect reconstruction