- citati u SCIndeksu: 0
- citati u CrossRef-u:0
- citati u Google Scholaru:[
 ]
- posete u poslednjih 30 dana:2
- preuzimanja u poslednjih 30 dana:2
|
|
|
2019, vol. 147, br. 9-10, str. 528-533
|
|
Analiza deformacija u uzorcima sastavljenim od keramičkih sistema primenom metode digitalne korelacije slika
Analyzing strain in samples with all-ceramic systems using the digital image correlation technique
aMedical College of Applied Studies, Belgrade bUniverzitet u Beogradu, Mašinski fakultet, Inovacioni centar, Srbija cUniverzitet u Beogradu, Mašinski fakultet, Srbija dUniverzitet u Beogradu, Stomatološki fakultet, Klinika za stomatološku protetiku, Srbija
e-adresa: doktorivan@hotmail.com
Sažetak
Uvod/Cilj Studija je sprovedena da identifikuje maksimalnu deformaciju proizvedenu u uzorcima sastavljenim od polimetilmetakrilata, Štrauman® implantata i tri vrste keramičkih sistema. Metode Korišćene su tri vrste eksperimentalnih modela izloženih spoljašnjem opterećenju od 100 N, 300 N i 500 N i analiziranih uz pomoć metoda korelacije digitalnih slika. Modeli su bili sastavljeni od itrijum-cirkonije, e. maks. litijum disilikatne i hibridnih keramika Vita enamik®, postavljenih na cilindrične dentalne implantantne sisteme Štrauman® (4 × 10 mm) sa abatmentima pod pravim uglom. Rezultati Značajne razlike su otkrivene u vrednostima deformacija između uzoraka sa različitim keramičkim krunicama (p = 0,000). Ovo podrazumeva da su vrednosti deformacija zavisne od tipa keramičkog materijala. Vrednosti deformacija su zavisne i od regiona interesa (p = 0,000). Primena ANOVA testa je omogućila da se uoči interakcija između nezavisnih varijabli, meterijala keramičkih kruna i regiona od interesa, gde je takođe nađena statistički značajna razlika (p = 0,046). Ova činjenica ukazuje na to da vrednosti deformacija zavise od različite kombinacije tipa keramičkog materijala i regiona interesa. Najveće vrednosti deformacija su nađene na modelu Z (0,383 ± 0,015) u apikalnom regionu, dok su najmanje vrednosti deformacija nađene na modelu E (0,303 ± 0,015) u regionu srednje trećine. Zaključak Izveštaj je pokazao maksimalne deformacije u apikalnim i marginalnim pravcima. Kada se razmatraju različite vrste keramika, najmanje deformacije su primećene ispod kruna Vita enamik®, dok je najveća deformacija pronađena u uzorcima sa krunama itrijum-cirkonija.
Abstract
Introduction/Objective The study was conducted to identify the maximum strain generated in the samples composed of poly-methyl-methacrylate, Straumann® implants, and three types of ceramic systems. Methods Three types of experimental models were used, loaded by external load of 100 N, 300 N, and 500 N and analyzed using the digital image correlation method. The models were composed of yttriastabilized zirconia, e.max lithium disilicate, and Vita Enamic® hybrid ceramics, placed on the Straumann® cylindrical dental implant systems (4 × 10 mm) with straight abutments. Results Significant differences in strain values between samples with different crown material groups were detected (p = 0.000). This suggests that strain values were dependent on the type of crown material. Strain values were also affected by the region of interest (p = 0.000). Application of two-way ANOVA enabled testing of the interaction effect between two independent variables, crown material and region of interest, where a significant difference was also found (p = 0.046). This indicates that strain values were also influenced by different combinations of material type and region of interest. The highest strain values were found for Z (0.383 ± 0.015) in the apical region, and the lowest for E (0.303 ± 0.015) in the middle region. Conclusion The study shows maximum strain in the apical and marginal directions. When considered various all-ceramics, we noticed the minimum strain below Vita Enamics®, while the maximum strain was found in samples with yttria-stabilized zirconia crown.
|
|
|
|
Reference
|
|
|
*** (2013) Scientific report ivoclar vivadent: IPS e.max ® ZirCAD Scientific Documentation
|
|
|
*** (2011) Scientific report ivoclar vivadent: 'IPS e.max ® CAD scientific documentation
|
|
  
|
Bona, A.D., Kelly, R.J. (2008) The clinical success of all-ceramic restorations. Journal of the American Dental Association, 139(9), S8-S13
|
|
|
Coldea, A., Swain, M.V., Thiel, N. (2013) Mechanical properties of polymer-infiltrated-ceramic-network materials. Dental Materials, 29(4), 419-426
|
|
1
|
Denry, I., Kelly, J.R. (2014) Emerging ceramic-based materials for dentistry. Journal of Dental Research, 93(12), 1235-1242
|
|
|
Dittmer, M.P., Kohorst, P., Borchers, L., Stiesch, M. (2010) Influence of the supporting structure on stress distribution in all-ceramic FPDs. Int J Prosthodont, 23(1), 63-68
|
|
|
El-Anwar, M.I., El-Mofty, M.S., Awad, A.H., El-Sheikh, S.A., El-Zawahry, M.M. (2014) The effect of using different crown and implant materials on bone stress distribution. Egyptian Journal of Oral & Maxillofacial Surgery, 5(2), 58-64
|
|
|
Gracis, S., Thompson, V., Ferencz, J., Silva, N., Bonfante, E. (2016) A new classification system for all-ceramic and ceramic-like restorative materials. International Journal of Prosthodontics, 28(3), 227-235
|
|
|
Guazzato, M., Albakry, M., Ringer, S.P., Swain, M.V. (2004) Strength, fracture toughness and microstructure of a selection of all-ceramic materials: Part II. Zirconia-based dental ceramics. Dental Materials, 20(5), 449-456
|
|
|
Harada, K., Shinya, A., Yokoyama, D., Shinya, A. (2013) Effect of loading conditions on the fracture toughness of zirconia. Journal of Prosthodontic Research, 57(2), 82-87
|
|
|
Koyano, K., Esaki, D. (2015) Occlusion on oral implants: Current clinical guidelines. Journal of Oral Rehabilitation, 42(2), 153-161
|
|
1
|
Manicone, P.F., Rossi, I.P., Raffaelli, L. (2007) An overview of zirconia ceramics: Basic properties and clinical applications. Journal of Dentistry, 35(11), 819-826
|
|
|
Mclaren, E.A., Cao, P.T. (2009) Ceramics in dentistry-part I: Classes of materials. Insid Dent, 5(9), 94-103
|
|
|
Menini, M., Conserva, E., Tealdo, T., Bevilacqua, M., Pera, F., Ravera, G., Pera, P. (2011) The use of a masticatory robot to analyze the shock absorption capacity of different restorative materials for implant prosthesis. Journal of Biological Research - Bollettino della Società Italiana di Biologia Sperimentale, 84(1), 118-119
|
|
|
Menini, M., Conserva, E., Tealdo, T., Bevilacqua, M., Pera, F., Signori, A., Pera, P. (2013) Shock absorption capacity of restorative materials for dental implant prostheses: An in vitro study. International Journal of Prosthodontics, 26(6), 549-556
|
|
|
Pérez-Pevida, E., Brizuela-Velasco, A., Chávarri-Prado, D., Jimenezgarrudo, A., Sanches-Lacheras, F., Solaberrieta-Mendez, E., et al. (2016) Biomechanical consequences of the elastic properties of dental implant alloys on the supporting bone: Finite element analysis. BioMed Research International, 2016, 1850401
|
|
|
Shembish, F.A., Tong, H., Kaizer, M., Janal, M.N., Thompson, V.P., Opdam, N.J., Zhang, Y. (2016) Fatigue resistance of CAD/CAM resin composite molar crowns. Dental Materials, 32(4), 499-509
|
|
|
Soliman, T.A., Tamam, R.A., Yousief, S.A., El-Anwar, M.I. (2015) Assessment of stress distribution around implant fixture with three different crown materials. Tanta Dental Journal, 12(4), 249-258
|
|
|
Spray, J., Black, G.C., Morris, H.F., Ochi, S. (2000) The influence of bone thickness on facial marginal bone response: Stage 1 placement through stage 2 uncovering. Annals of Periodontology, 5(1), 119-128
|
|
|
Stegaroiu, R., Khraisat, A., Nomura, S., Miyakawa, O. (2004) Influence of superstructure materials on strain around an implant under 2 loading conditions: A technical investigation. JOMI, 19(5), 735-742
|
|
|
Tanasić, I., Tihaček, Š.L., Milić-Lemić, A. (2014) Biomechanical interactions between bone and metal-ceramic bridges composed of different types of non-noble alloys under vertical loading conditions. MIT, 48(3), 337-341
|
|
|
Tanasić, I., Šarac, D., Mitrović, N., Tihaček-Šojić, L.J., Mišković, Ž., Milić-Lemić, A., Milošević, M. (2016) Digital image correlation analysis of vertically loaded cylindrical ti-implants with straight and angled abutments. Experimental Techniques, 40(4), 1227-1233
|
|
|
Tanasić, I., Tihaček-Šojić, L., Mitrović, N., Milić-Lemić, A., Vukadinović, M., Marković, A., Milošević, M. (2015) An attempt to create a standardized (reference) model for experimental investigations on implant's sample. Measurement, 72, 37-42
|
|
|
Tim, F., Zesewitz, T.F., Knauber, A.W., Nothdurft, F.P. (2014) Fracture resistance of a selection of full-contour all-ceramic crowns: An in vitro study. Int J Prosthodont, 27(3), 264-266
|
|
2
|
Tiossi, R., de Torres, E.M., Rodrigues, R.C.S., Conrad, H.J., de Mattos, M.D.G.C., Fok, A.S.L., Ribeiro, R.F. (2014) Comparison of the correlation of photoelasticity and digital imaging to characterize the load transfer of implant-supported restorations. Journal of Prosthetic Dentistry, 112(2), 276-284
|
|
2 
|
Tortopidis, D., Lyons, M.F., Baxendale, R.H., Gilmour, W.H. (1998) The variability of bite force measurement between sessions, in different positions within the dental arch. Journal of Oral Rehabilitation, 25(9), 681-686
|
|
|
|
|