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DOI
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Special Issue
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Removal of Organic Debris from Occlusal Fissures: Advantage of Carisolv System over Sodium Hypochlorite
1Department of Endodontology, Showa University School of Dentistry, 2-1-1 Kitasenzoku, Ohta-ku, Tokyo 145-8515, Japan.
DOI: 10.17796/jcpd.35.1.84368262v2j4vu96 Vol.35,Issue 1,September 2010 pp.75-80
Published: 01 September 2010
*Corresponding Author(s): Yoshishige Yamada E-mail: yyamada@dent.showa-u.ac.jp
The purpose of this in vitro study was to evaluate and compare the removal of artificial debris from pits and fissures using the Carisolv system and sodium hypochlorite. Study design: Forty artificial fissures prepared on extracted human teeth were filled with artificial organic debris. Debris was removed using either Carisolv or 10% sodium hypochlorite gel. After stereoscopic observation, samples were filled with a sealant and subjected to microleakage test. Results: Both Carisolv and sodium hypochlorite demonstrated adequate cleaning ability and prevention of microleakage. Although both Carisolv and 10% sodium hypochlorite are effective at removing debris from fissures, Carisolv presents greater advantages in terms of safety and antibacterial properties. Conclusion: Fissure cleaning using Carisolv might be an effective approach to improve the retention of fissure sealants.
fissure cleaning, Carisolv, sodium hypochlorite, microleakage test
Yoshishige Yamada,Mozammal Hossain,Yuichi Kimura,Yoshiko Masuda,Jayanetti Asiri Jayawardena,Yuya Nasu. Removal of Organic Debris from Occlusal Fissures: Advantage of Carisolv System over Sodium Hypochlorite. Journal of Clinical Pediatric Dentistry. 2010. 35(1);75-80.
1. Vehkalahti MM, Solavaara L, and Rytömaa I. An 8-year following-up of the occlusal surfaces of first permanent molars. J Dent Res, 70: 1064–1067, 1991.
2. Hicks MJ and Flatiz CM. Epidemiology of dental carried in pediatric and adolescent population: A review of past and current trends. J Clin Pediatric Dent, 18: 43–49, 1993.
3. Kramer PF, Zelante F and Simionato MRL. The immediate and longterm effects of invasive and noninvasive pit and fissure sealing techniques on the microflora in occlusal fissures of human teeth. Pediatr Dent, 16: 108–112, 1993.
4. Ripa LW. Sealant revisited: An update of the effectiveness of pit-andfissure sealants. Caries Res, 27: 1 77–182, 1993.
5. Jensen OE, Handelman SL and Perez-Diez F. Occlusal wear of four pit and fissure sealants over two years. Pediatr Dent, 7: 23–29,1985.
6. Wendt L-K, Koch G. Fissure sealant in permanent first molars after 10 years. Swed Dent J, 12: 181–185,1988.
7. García-Godoy F, Gwinnett AJ. Penetration of acid solution and gel in occlisal fissures. J Am Dent Assoc, 114: 809–810, 1987.
8. Futatsuki M, Kubota K, Yeh YC, Park K and Moss SJ. Early loss of pit and fissure sealant: a clinical and SEM study. J Clin Pediatr. Dent, 19: 99–104,1995.
9. Burrow MF, Makinson OF. Pits and fissures: remnant organic debris after acid-etching. J Dent Child, 57: 348–351, 1990.
10. Blackwood JA, Dilley DC, Roberts MW, Swift EJ Jr. Evaluation of pumice, fissure enameloplasty and air abrasion on sealant microleakage. Pediatr. Dent, 24: 199–203, 2002.
11. Borsatto MC, Corona SA, Dibb RG, Ramos RP, Pecora JD. Microleakage of a resin sealant after acid-etching, Er: YAG laser irradiation and air-abrasion of pits and fissures. J Clin Laser Med Surg, 19: 83–87, 2001.
12. Ohmori I, Kunimoto H, Takeuchi K, Ibata K, Sasaoka K. A clinical study on the effect of the GK-101 irrigation on the sealant retention for controlling the incipient pit and fissure caries. Jpn J Ped Dent, 21: 169–178, 1983.
13. Yamada Y, Hossain M, Kimura K, Nakamura Y, Masuda Y, Simizu Y, Matumoto K. Artificial plaque removal with Carisolv system: a clinical approach. J Clinc Pediatric Dent, 31: 199–201, 2007.
14. Ericson D, Zimmerman M, Raber H, Götrick B, Bornstein R, Thorell J. Clinical evaluation of efficacy and safety of a new method for chemomechanical removal of caries. A multi-centre study. Caries Res, 33: 171–177, 1999.
15. do Rego MA, de Araujo MAM. Microleakage evaluation of pit and fissure sealants done with different procedures, materials, and laser after invasive technique. J Clin Pediatr Dent, 24: 63–68, 1999.
16. Shapira J, Eidelman E. The influence of mechanical preparation of enamel prior to etching on the retention of sealants: Three year followup. J Pedodont, 8: 272–-274, 1984.
17. De Craene GP, Martens C, Dermaut R. The invasive pit-and-fissure sealing technique in pediatric dentistry: An SEM study of a preventive restoration. J Dent Child, 55: 34–42, 1988.
18. García Godoy F, Araujo FB. Enhancement of fissure sealant penetration and adaptation: The enameloplasty technique. J Clin Pediatr Dent, 19: 13–18, 1994
19. Espinosa R, Valencia R, Uribe M, Ceja I, Saadia M. Enamel deproteinization and its effect on acid etching: An in vitro study. J Clinc Pediatric Dent, 33: 13–19, 2008.
20. Nakajima Y, Idaria Y, Yasosima H, Ohmori I. Clinical evaluation of a fluoride releasing resin sealant. Jpn J ped Dent, 39: 103–109, 2001.
21. Gernhardt CR, Eppendorf K, Kozlowski A, Brandt M. Toxicity of concentrated sodium hypochlorite used as an endodontic irrigant. Int Endod J, 37: 272–280, 2004.
22. Gatot A, Arbelle J, Leiberman A, Yanai-Inbar I. Effects of sodium, hypochlorite on soft tissues after its inadvertent injection beyond the root apex. J Endod, 17: 573–574, 1991.
23. Tonami K, Araki K, Mataki S, and Kurosaki N. Effects of Chloramines and sodium hypochlorite on carious dentin. J Med Dent Sci, 50: 139–146, 2003.
24. Paulo FK, Flavio Z, Maria Regina LS. The immediate and long-term effects of invasive and noninvasive pit and fissure sealing techniques on the microflora in occlusal fissures of human teeth. Pediatric Dent, 16: 108–112, 1993.
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