info@biomedres.us   +1 (502) 904-2126   One Westbrook Corporate Center, Suite 300, Westchester, IL 60154, USA   Site Map
ISSN: 2574 -1241

Impact Factor : 0.548

  Submit Manuscript

Case ReportOpen Access

A Case of Immediate Loading with a Fixed Detachable Prosthesis and a Removable Definitive Solution via a Denture with Telescopic Attachments Volume 1 - Issue 3

Krischik D1, Saiz D2, van Orten A3 and Bilhan H4*

  • 1DDS, Dr. med. dent.,Zahnaerzte Do 24 Dental Clinic, Dortmunderstr. 24-28, 45731 Waltrop, Germany
  • 2CTM, Zahnaerzte Do 24 Dental Clinic, Dortmunderstr. 24-28, 45731 Waltrop, Germany
  • 3DDS, MSc., Zahnaerzte Do 24 Dental Clinic, Dortmunderstr. 24-28, 45731 Waltrop, Germany
  • 4Professor at the Okan University Faculty of Dentistry, Department of Prosthodontics, Gulbahar Mh, Turkey

Received: August 03, 2017;   Published: August 09, 2017

Corresponding author: Hakan Bilhan, Associate Professor at the Okan University Faculty of Dentistry, Department of Prosthodontics, Gulbahar Mh, Oya Sok No: 23/A, Mecidiyekoy, Sisli, Istanbul 34394, Turkey

DOI: 10.26717/BJSTR.2017.01.000262

Summary

Immediate Loading is mostly appreciated by patients, since they do not have to stay edentulous until the osseointegration. For this purpose there must be an implant system providing abutments suitable for screw retention and a prefabricated restoration. In this case report the procedures for this treatment modality are described in a detailed way. Additionally, the return from fixed to removable upon request of the patient due to easier cleaning was explained, too. The lab procedures and the makeover to a telescopic denture was looked into in this case report.

Case Report

A 70 year old male patient with mandibular teeth showing a poor prognosis due to chronic generalised periodontitis was chosen to treat with a fixed detachable prosthesis [1] supported with 4 implants after extraction of all remaining teeth. Since the lower jaw was causing the main problem, the maxillary treatment was postponed for later on.

Preoperative phase and preparations

Figure 1: Matching and Planning.

A preoperative 3-D planning was performed with the help of Dental Volumetric Tomographies (DVT, Galileos Comfort Plus, Dentsply Sirona, Bensheim, Germany) and with the planning software for Guided Surgery (Magellan, Medentis Medical, Bad Neuenahr – Ahrweiler, Germany) (Figure 1).

Based on the planning a printed model (Figure 2), surgical guides and a CAD/CAM milled PMMA provisional (Figure 3) were fabricated.

Figure 2: 3D printed model.

Figure 3: PMMA Provisional, view from facial.

The Operation and Immediate Loading by a Detachable Denture

The surgical part was achieved with surgical guides making the placement of dental implants flapless and exactly in the same position as originally planned [2,3]. Implantation in the positions 34, 32, 42, 44 with immediate loading via a milled prefabricated PMMA provisional which is a high performance acrylic (ICX- Smile Bridge, Medentis Medical, Bad Neuenahr – Ahrweiler, Germany) was accomplished. This technique is not new; it was introduced by Malo and colleagues [4]. Following this protocol, the implants in the positions 32 and 42 were placed straight, whereas the distal implants were placed with an angle of 35 degrees (positions 34 and 44). The use of angulated implants gives the possibility to prevent complicated sinus lifting or augmentation procedures and protect anatomic structures such as the foramen mentale. The used implant system gives the possibility to use two different degrees: 17 or 35.

It is important to achieve a primary stability of the implants of at least 35 Ncm, to be able to load them immediately [5-7].

The next step was to mount the occlusally screwed abutments (Multi Abutment, Medentis Medical, Bad Neuenahr – Ahrweiler, Germany) on the implants and take care of the right gingival height. After checking the fit and occlusal stability of the Smile-Bridge, the fixation intraorally was succeeded with an autopolymerising denture repair polymer of diacrylate base (QU-resin,Bredent, Senden, Germany). After torque-wrenching of the fixation screws, the screw holes were closed with a light-cured provisional material (TELIO CS Inlay, Ivoclar Vivadent,Schaan,Liechtenstein).

Definitive Restoration

3 months later, it was time for the definitive prosthetic treatment. Although a detachable prosthesis was planned originally, the treatment direction was changed, since the patient was complaining of food trapping and difficulties in cleaning underneath.

Since the used system was providing the possibility of fabricating and working on occlusally screwed abutments for Ti Base supported telescopic prosthesis, it was possible to workon workon on abutment level. On the model with the abutment level implant analogues, Ti-Bases were used for the fabrication of conical abutments with 20 of divergence angle. The margins of the telescopic crowns were established 1mm supragingivally. The height of the primary crown structures were arranged at 6mm’s and the insertion pathway was determined (Figure 4). The milled (CAD/CAM-System: inLab SW 15.0, Dentsply Sirona, Bensheim, Germany) zirconia (IPS E.max ZirCAD, Ivoclar Vivadent, Schaan, Liechtenstein) structure (Figure 5a) was bonded to the titanium basis (Hera Attachment Bond, Heraeus Kulzer GmbH, Hanau, Germany). The removable structure was fabricated upon these abutments carrying the Galvano produced secondary parts. The galvano secondaries (Figure 5b) were cemented in the removable part intraorally (Figure 6a-6c) in order to prevent any tension and to achieve a passive fit [8]. The CrCo-alloy substructure (Figure 7) was cast from a 3-D printed premodel (Figure 8).

Figure 4: Computer Aided Design.

Figure 5a: Zirkonia abutments.

Figure 5b: Galvanos in situ.

Figure 6a:Mixing the dualcure cement.

Figure 6b:Zirkonia abutments.

Figure 6c:Fixation of the tertiary structure intraorally.

Figure 7:Superstructure made of nonprecious alloy during try-in.

Figure 8:3-D printed pre-model.

The different approach during the whole removable prosthesis part, was the use of single Emax crowns (IPS E.max CAD, Ivoclar Vivadent, Schaan, Liechtenstein) instead of prefabricated porcelain denture teeth (Figure 9). It was a more economic solution in this case, since the clinic owned a lab with its own CAD/CAM and milling unit. The Emax crowns offered great esthetics and toughness, as well as ease of repair, since the related data were recorded and kept for remaking any time.

Figure 9:Final Restoration.

Conclusion and TAKE-HOME MESSAGE“

Immediate Loading with a fixed solution is a well appreciated treatment for patients, since the osseointegration time is overlapped with teeth mimicking real life and esthetic and functional demands are successfully fulfilled. Today preimplantolgical diagnostic and planning possibilities enable clinicians to prepare fully for the postimplantation procedures.

It should be kept in mind that, not seldom, patients can be unhappy or disappointed with their fixed detachable dentures due to missing buccal flanges causing an unsupported lip, phonation problems depending on a fully open palate or difficult cleaning procedures with the fixed solution.

In this manner, clinicians should be flexible in switching to the removable denture option. For this purpose, it is advisable to use a system which allows working on occlusally screwed abutment level, so that the same abutments may be used for the locators or telescopic solutions.

Another innovative step in this case was to use lithium disilicate crowns instead of prefabricated porcelain crowns. This was for a dental clinic owning a milling unit and an own lab, a more economic and safe way to go. The saved data can be used any time to replace a chipped or fractured porcelain tooth. Telescopic dentures are a well documented treatment alternative among removable dentures. The use of Ti-Base supported zirconia conus abutment is a cost effective solution.

It seems to be an important issue to investigate what percent of the edentulous patients is satisfied with the delivered fixed restoration and how many of them prefer to return to the removable denture status.

References

  1. Harris MINC (2012) Pele: estrutura, propriedade e envelhecimento. Editora Senac, São Paulo.
  2. Hirata LL, Sato MEO, Santos CAM (2004) Radicais Livres e o Envelhecimento Cutâneo. Acta Farm Bonaerense 23(3): 418-424.
  3. Tosato M (2010) Análise dos Constituintes Bioquímicos da pele humana sob efeito dos cosmecêuticos por Espectroscopia Raman. Institute of Research and Development, Universidade do Vale do Paraíba, São José dos Campos.
  4. RMF (2004) Estudo do Carcinoma Espinocelular de pele humana por espectroscopia FT-Raman. Universidade do Vale do Paraíba, São José dos Campos.
  5. Pageon H (2010) Reaction of glycation and human skin: The effects on the skin and its components, reconstructed skin as a model. Pathologie Biologie 58(3): 226-231.
  6. Pageon H, Bakala H, M Asselineau D (2007) Collagen glycation triggers the formation of aged skin in vitro. Eur J Dermatol 17(1): 12-20.
  7. Gkogkolou P, Bohm M (2012) Advanced glycation end products: Key players in skin aging? Dermatoendocrinol 4(3): 259-270.
  8. Glenn JV, Beattie JR, Barrett L, Frizzell N, Thorpe SR, et al. (2001) Confocal Raman microscopy can quantify advanced glycation end product (AGE) modifications in Bruch’s membrane leading to accurate, nondestructive prediction of ocular aging. FASEB Journal 21(13): 3542-3552.
  9. Guilbert M, Said G, Happillon A, Untereiner V, Garnotel R, et al. (2013) Probing non-enzymatic glycation of type I collagen: A novel approach using Raman and infrared biophotonic methods. Biochimica e Biophysica Acta 18 (30): 3525-3531.
  10. Tessier FJ (2010) The Maillard reaction in the human body. The main discoveries and factors that affect glycation. Pathol Biol 58(3): 214-219.
  11. Barbosa JHP, Oliveira SL de, Seara LT (2008) O papel dos produtos finais da glicação avançada (AGES) no desencadeamento das complicações vasculares do diabetes. Arq Bras Endocrinol Metab 52(6): 940-950.
  12. Barbosa JHP, Oliveira SLde, Seara LT (2009) Produtos da glicação avançada dietéticos e as complicações crônicas do diabetes. Rev Nutr 22(1): 113-124.
  13. Ali SM (2011) Vibrational Spectroscopy of Human Skin Radiation and Environmental Science Centre. Irlanda: Research Institute Dublin Irland.
  14. Caspers PJ, Lucassen GW, Pupples GJ (2003) Combined In Vivo Confocal Raman Spectroscopy and Confocal Microscopy of Human Skin. Biophys J 85: 572-580.
  15. Tfayli A, Piot O, Draux F, Pitre F, Manfait M (2007) Molecular Characterization of Reconstructed Skin Model by Raman Microspectroscopy: Comparison with Excised Human Skin. Biopolymers. 87(4): 261-274.
  16. Oliveira PK, Tosato MG, Tosato Alves RS, Martin AA, Fávero PP, et al. (2012) Skin biochemical composition analysis by Raman spectroscopy. Rev Bras Eng Bioméd 28(3): 278-287.
  17. Téllez CA, Ishikawa DN, Souza FA (1993) Spectroscopy Letters 1993. Memorias IV Congresso Iberoamericano de Química Inorgánica y XI Congreso Mexicano de Química Inorgánica 26(1): 261-265.
  18. Royden HL (1988) Real analysis. New York: Prentice Hall.
  19. Mazini MC, Sambrano JR, Cavalheiro AA, Leite DMG, Silva JHD (2010) Indirect effects of the Mn incorporation on the electronic structure of nanocrystalline GaN. Química Nova 33(4).
  20. Huang Z, McWilliams A, Lui M, McLean DI, Lam S, et al. (2003) Nearinfrared Raman spectroscopy for optical diagnosis of lung cancer. International Journal of Cancer 107(6): 1047-1052.
  21. Stone N, Kendall C, Smith J, Crow P, Barr H (2004) Raman spectroscopy for identification of epithelial cancers. Faraday Discussion 126: 141– 157.
  22. Cheng WT, Liu MT, Liu HN, Lin SY (2005) Micro-Raman spectroscopy used to identify and grade human skin pilomatrixoma. Microscopy Research and Technique 68: 75-79.
  23. Movasaghi M, Rehman S, Rehman IU (2007) Raman Spectroscopy of Biological Tissues. Applied Spectroscopy Reviews 42: 493-541.
  24. Nguyen TT, Happillon T, Feru J, Brassart-Passco S, Angiboust JF, et al. (2013) Raman Comparison Of Skin Dermis Of Different Ages: Focus On Spectral Markers Of Collagen Hydration. Journal Of Raman Spectroscopy 44(9): 1230-1237.
  25. Zhang Q, Chan KLA, Zhang G, Gillece T, Senak L, et al. (2011) Characterization of Hydration in Collagen and Dermal Tissue. Biopolymers 95(9): 607-615.
  26. Bella J, Brodsky B, Berman HM (1995) Hydration structure of a collagen peptide. Current Biology 3: 893-906.
  27. Gniadecka M, Nielsen OF, Wessel S, Heidenheim M, Christensen DH, et al. (1998) Water and Protein Structure in Photoaged and Chronically Aged Skin. Journal of Investigative Dermatology 111: 1129–1132.
  28. Nakagawa N, Matsumoto M, Sakai S (2010) In vivo measurement of the water content in the dermis by confocal Raman spectroscopy. Skin Research and Technology 16: 137-141.
  29. Robert MJ, Wondrak GT, Laurean DC, Jacobson MK, Jacobson EL (2003) DNA damAGEs by carbonyl stress in human skin cells. Mutat Res 522: 45-56.
  30. Abordo EA, Minhas HS, Tornalley PJ (1999) Accumulation of oxoaldehydes during oxidative stress: a role in cytotoxicity. Biochemical Phamacology 58: 641-648.
  31. Assis MA (2011) Efeito das glicotoxinas sobre o metabolismo energético do sistema nervoso central e o sistema redox no sistema periférico de ratos: Possíveis efeitos prejudicias do diabetes e benefícios do ácido graxo poliinsaturado Omega-3. PhD thesis. Basic Sciences Institute of Health. Universidade Federal do Rio Grande do Sul.
  32. Dyer DG (1991) Formation of pentosidine during nonenzymatic browning of proteins by glucose.Identification of glucose and other carbohydrates as possible precursors of pentosidine in vivo. J Biol Chem 266(18): 11654-11660.
  33. Shi P, Liu H, Deng X, Jin Y, Wang Q, et al. (2015) Label free nonenzymatic glycation monitoring of collagen scaffolds in type 2 diabetic mice by confocal Raman microspectroscopy. Journal of Biomedical Optics 20(2).
  34. Pereira L, Soto CAT, Martin AA (2015) Confocal Raman Spectroscopy as an Optical Sensor to Detect Advanced Glycation End Products of the Skin Dermis. Sensor Letters.
  35. Soto CAT, Pereira L, Santos L dos, Fávero Priscila P (2015) RM1 semiempirical and DFT: B3LYP/3-21G theoretical insights on the confocal Raman experimental observations in qualitative water content of the skin dermis of healthy young, healthy elderly and diabetic elderly women´s. Spectrochimica Acta A Mol Biomol Spectrosc 149: 1009-1019.
  36. Pereira L, Soto CAT, Santos L dos, Ali Syed M, Fávero Priscila P (2015) Confocal Raman study of aging process in diabetes mellitus human voluntaries. In: SPIE Biophotonics South America.
  37. Pageon H, Zucchi H, Dai Z, Sell DR Strauch, CM Monnier, et al. (2015) Biological Effects Induced by Specific Advanced Glycation End Products in the Reconstructed Skin Model of Aging. Bio Research Open Access 4(1).
  38. Maiti NC, Apetri MM, Zagorski MG, Carey PR, Vernon EA (2004) Raman Spectroscopic Characterization of Secondary Structure in Natively Unfolded Proteins: r-Synuclein. J Am Chem Soc 126: 2399-2408.