Biomet 3i Brochures Site Preparation & Surgical Technologies | Page 10

Introduction Surface Technologies The 3i T3® Implant Family Fine micron features on the implant collar (1 - 3 microns) via dual acid-etching (DAE) The 3i T3 Implant represents the most recent advanced dental implant surface technology since the introduction of the NanoTite™Implant in 2007. This latest surface technology is designed to deliver aesthetic results through tissue preservation. A contemporary hybrid surface is provided by complex multi-surface topography. In preclinical studies*, the 3i T3 with DCD® Surface demonstrated increased integration strength throughout the healing phase as compared to less complex surface topographies.1 Coarse micron feature: (10+ microns) via resorbable calcium phosphate media blast Fine micron feature: (1 - 3 microns) via dual acid-etching (DAE) on top of the blasted surface Option for nano-scale features along the full length of the implant. Osseointegration is achieved with initial bone-to-implant contact, a major contributor to the implant’s stability.2 The specifications of the 3i T3 Implant and surgical instrumentation are held to rigorous tolerances to provide a closely integrated implant-to-osteotomy fit, creating a dental implant system designed for primary stability. The seal integrity is provided by a stable, tight implant/abutment interface that can minimize abutment micromotion and reduce the potential for microleakage.3 The seal strength is designed to reduce microleakage through exacting interface tolerances and maximized clamping forces. The Gold-Tite® Screw increases implant/abutment clamping force by 113% as compared to a non-coated screw with the Certain® Implant.4 The patented Gold-Tite Surface lubrication allows the screw to rotate further, increasing clamping force and maximizing abutment stability.5 Implants with integrated platform switching medialize the implant/abutment junction (IAJ) inward, creating a biologic width between connective tissue and the IAJ, helping to maintain bone levels.6 1. Davies JE†, Ajami E, Moineddin R, et al. The role of different scale ranges of surface implant topography on the stability of the bone/implant interface. Biomaterials 2013;34(14):3535-3546. Epub 2013 Feb 14. 2. Meredith N. Assessment of implant stability as a prognostic determinant. Int J Prosthodont. 1998 Sep-Oct;11(5):491-501. 3. Gubbi P†, Suttin Z†, Towse R†. Microgap analysis at the implant-abutment interface of various dental implant systems. Poster Presentation (P-98): Academy of Osseointegration 28th Annual Meeting, March 2013, Tampa, Florida, USA. 4. Suttin Z††, Towse R††. Effect of abutment screw design on implant system seal performance. Presented at the European Association for Osseointegration, 20th Annual Scientific Meeting; October 2012; Copenhagen, Denmark. http://biomet3i.com/Pdf/Posters/P-450_Effect_of_Screw_Design_on_Implant_Seal.pdf 5. Byrne D, Jacobs S, O’Connell B, Houston F, Claffey N. Preloads generated with repeated tightening in three types of screws used in dental implant assemblies. J. Prosthodont. 2006 May–Jun;15(3):164-171. 6. Lazzara R†, Porter SS. Platform switching: A new concept in implant dentistry for controlling post-restorative crestal bone levels. Int J Perio Rest Dent. 2006;26:9-17. † JE Davies and R. Lazzara have financial relationships with BIOMET 3i LLC resulting from speaking engagements, consulting engagements and other retained services. †† Mr. Gubbi, Mr. Suttin and Mr. Towse contributed to the above research while employed by BIOMET 3i. *Pre-clinical studies are not necessarily indicative of clinical results. vi