A Prospective Clinical Study on Implant Survival at 1-Year Post-Loading of a Bone-Level Tapered Implant in Private Practice: Multicentered Study.

This non-interventional study evaluated the implant survival and success of a new bone-level tapered implant design in seven private dental practices in the United States. One hundred subjects in need of implant(s) were enrolled according to all cleared indications. After implant surgery, subjects were followed for a period of 1-year post-loading. Treatment planning, implant stability, radiographic evaluation of bone levels, soft-tissue characteristics, clinician satisfaction, and adverse events were assessed. A total of 184 implants were placed, of which 172 were evaluable at 1-year follow-up. Of the 172 evaluable implants, 169 survived and were successful at 1-year post-loading. Of 152 implants with radiographs at 1 year, 90% showed no bone remodeling or <1 mm bone loss. Overall clinician satisfaction was high across all centers. Normal soft-tissue profiles were reported around the implants with improvement in color, form, and mucosal attachment at 1 year. In a "real-world" setting this observational study demonstrated high implant survival and success, stable crestal bone levels, high clinician satisfaction, and a low incidence of adverse events.

A concept for a biologically derived, parabolic implant design.

It has become widely accepted that modern titanium dental implants are successful and predictable. However, there is bone loss in relation to any interface (microgap) that occurs between the implant parts when the microgap is in proximity or apical to the osseous crest. The principle of biologic width may be responsible for such bone remodeling in an apical manner. A new, biologically derived implant design that conceptually may minimize bone remodeling and promote better bone and overlying gingival contours and stability is suggested. The parabolic occlusal platform of this design is in harmony with the biologic width of the soft tissue around the circumference of the implant when the proximal bone is occlusal to the facial and lingual bone. Preservation of proximal bone for an isolated implant, and between implants, will help support and maintain physiologic and cosmetic gingival contours and papillae. This is of particular importance in esthetic areas, where interproximal bone loss between implants or between an implant and an adjacent tooth may cause a reduction in gingival papilla height.

A new implant design for optimal esthetics and retention of interproximal papillae.

A biologically derived, parabolic implant design that has an occlusal platform that mimics the cementoenamel junction of natural dentition is proposed and described. The interproximal areas of the platform are more coronal than the facial and lingual areas of the platform, and follow the anatomical contours of the alveolar bone. The principle behind this parabolic margin, as opposed to a flat and monoplane margin, is that any bone remodeling that follows would replicate a parabolic form. This design helps to maintain bone more coronal on the proximal surfaces than on the facial and lingual surfaces, hence preserving the bone support of the gingival papillae.