References : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [3]
Himmlova L, Dostalova T, Kacovsky A, Konvickova S. Influence of implant length and diameter on stress distribution: a finite element analysis. J Prosthet Dent. 2004;91(1):20–5.
Shetty S, Puthukkat N, Bhat S, Shenoy K. Short implants: a new dimension in rehabilitation of atrophic maxilla and mandible. Journal of Interdisciplinary Dentistry. 2014;4(2):66.
Misch C, Bidez M. Contemporary implant dentistry. 2nd ed. St. Louis: Mosby; 1999.
Misch C. Implant body size: a biomechanical and esthetic rationale, Contemporary Implant Dentistry. 2008. p. 160–77.
O'Mahony A, Bowles Q, Woolsey G, Robinson S, Spencer P. Stress distribution in the single-unit osseointegrated dental implant: finite element analyses of axial and off-axial loading. Implant Dent. 2000;9(3):207–18.
Fawzi S. The effect of dental implant design on bone induced stress distribution and implant displacement. Int J Comput Appl. 2013;74(17):15–20.
Flanagan D. Avoiding osseous grafting in the atrophic posterior mandible for implant-supported fixed partial dentures: a report of 2 cases. J Oral Implantol. 2011;37(6):705–11.
Seong W, Korioth T, Hodges J. Experimentally induced abutment strains in three types of single-molar implant restorations. J Prosthet Dent. 2000;84:318–26.
Jarvis W. Biomechanical advantage of wide-diameter implants. Compend Contin Educ Dent. 1997;18:687–94.
Rangert B, Jemt T, Jörnéus L. Forces and moments on Brånemark implants. Int J Oral Maxillofac Implants. 1989;4:241–7.
Misch CE. A scientific rationale for dental implant design, DENTAL IMPLANT PROSTHETICS. 2005. p. 331.
Misch C. Occlusal considerations for implant-supported prostheses, Contemporary Implant Dentistry. 1993.
Rangert B. Biomechanical considerations when choosing a platform. Nobel Biocare Global Forum. 1996;10(4):4.
Linish V, Peteris A. Restorative factors that affect the biomechanics of the dental implant. Stomatologija, Baltic Dental and Maxillofacial Journal. 2003;5:123–8.
Skalak R. Aspects of biomechanical considerations. In: Branemark PI, Zarb GA, Albrektsson, eds. Tissue integrated prostheses. 1985: p. 117–28.
Davis D, Rimrott R, Zarb G. Studies on frameworks for osseointegrated prostheses: part 2. The effect of adding acrylic resin or porcelain to form the occlusal superstructure. Int J Oral Maxillofac Implants. 1988;3(4):275–80.
Serial posts:
- Abstract : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Background : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [1]
- Background : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [2]
- Methods : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [1]
- Methods : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [2]
- Methods : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [3]
- Results : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Discussion : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [1]
- Discussion : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [2]
- Discussion : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [3]
- Discussion : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [4]
- Conclusions : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- References : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [1]
- References : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [2]
- References : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [3]
- References : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study [4]
- Author information : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Ethics declarations : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
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- About this article : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Table 1 Descriptive statistics and results of comparison between microstrains induced with different implant design regardless of other variables (collective microstrains) : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Table 2 Descriptive statistics and results of comparison between microstrains induced with different implant designs with each crown material (overall microstrains) : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Table 3 Descriptive statistics and results of comparison between microstrains induced by the two crown materials regardless of other variables (collective microstrains) : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Table 4 Descriptive statistics and results of comparison between microstrains induced by the two load directions regardless of other variables (collective microstrains) : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Table 5 Descriptive statistics and results of comparison between microstrains induced by the two load directions with each implant design and crown material (overall microstrains) : Peri-implant biomechanical responses to standard, short-wide, and double mini implants replacing missing molar supporting hybrid ceramic or full-metal crowns under axial and off-axial loading: an in vitro study
- Fig. 1. a Standard, b short-wide, and c single-piece mini implants : Peri-implant
- Fig. 2. Metal crown supported on two mini implants : Peri-implant
- Fig. 3. Lava Ultimate Restorative crown on the two mini implants. : Peri-implant
- Fig. 4. Installation of strain gauges on surfaces of epoxy resin adjacent to mini implants : Peri-implant
- Fig. 5. Loading of implant axially : Peri-implant
- Fig. 6. Loading of implant off-axially : Peri-implant