Relationship between laser fluorescence and enamel hypomineralisation

Journal of Dentistry

Volumn 36, Issue 11, 2008, Pages 915-921

  Farah, R A ^a   Drummond, B K ^a   Swain, M V ^a   Williams, S ^b  

^a UNIVERSITY OF OTAGO   (New Zealand)

^b UNIVERSITY OF OTAGO   (New Zealand)

Author keywords

Laser fluorescence; Molar incisor hypomineralisation; Nanoindentation

Indexed keywords

DIAGNOSTIC AGENT;

ARTICLE; DENTAL CARE; ENAMEL; ENAMEL HYPOPLASIA; FLUORESCENCE; HARDNESS; HOSPITALIZATION; HUMAN; INSTRUMENTATION; LASER; MOLAR TOOTH; PATHOLOGY; RADIATION EXPOSURE; TOOTH CERVIX; TOOTH CROWN; TOOTH DISEASE; YOUNG MODULUS;

DENTAL CARIES ACTIVITY TESTS; DENTAL ENAMEL; DENTAL ENAMEL HYPOPLASIA; ELASTIC MODULUS; FLUORESCENCE; HARDNESS; HUMANS; LASERS; MOLAR; SEVERITY OF ILLNESS INDEX; TOOTH CERVIX; TOOTH CROWN; TOOTH DEMINERALIZATION;

EID: 53549095954     PISSN: 03005712     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jdent.2008.07.012     Document Type: Article

References (46)

1. Weerheijm K.L., Jalevik B., and Alaluusua S. Molar-incisor hypomineralisation. Caries Research 35 (2001) 390-391
2. Jälevik B., Dietz W., and Norén J.G. Scanning electron micrograph analysis of hypomineralised enamel in permanent first molars. International Journal of Paediatric Dentistry 15 (2005) 233-240
3. Mahoney E., Rohanizadeh R., Ismail F., Kilpatrick N., and Swain M. Mechanical properties and microstructure of hypomineralised enamel of permanent teeth. Biomaterials 25 (2004) 5091-5100
4. Fearne J., Anderson P., and Davis G.R. 3D X-ray microscopic study of the extent of variations in enamel density in the first permanent molars with idiopathic enamel hypomineralisation. British Dental Journal 196 (2004) 634-638
5. Weerheijm K.L., and Mejare I. Molar incisor hypomineralisation: a questionnaire inventory of its occurrence in member countries of the European Academy of Paediatric Dentistry (EAPD). International Journal of Paediatric Dentistry 13 (2003) 411-416
6. Jalevik B., and Klingberg G. Dental treatment, dental fear and behaviour management problems in children with severe enamel hypomineralisation of their permanent first molars. International Journal of Paediatric Dentistry 12 (2002) 24-32
7. Mahoney E., Ismail F., Kilpatrick N., and Swain M. Mechanical properties across hypomineralised/hypoplastic enamel of first permanent molar teeth. European Journal of Oral Science 112 (2004) 497-502
8. Suckling G.W., Nelson D.G.A., and Patel M.J. Macroscopic and scanning electron microscopic appearance and hardness values of developmental defects in human permanent tooth enamel. Advances in Dental Research 3 (1989) 219-233
9. Jalevik B., Odelius H., Dietz W., and Noren J. Secondary ion mass spectrometry and X-ray micronalysis of hypomineralised enamel in human permanent first molars. Archives of Oral Biology 46 (2001) 239-247
10. Tranaeus S., Shi X.-Q., and Angmar-Mansson B. Caries risk assessment: methods available to clinicians for caries detection. Community Dentistry and Oral Epidemiology 33 (2005) 265-273
11. Mendes F.M., Hissadomi M., and Imparato J.C.P. Effect of drying time and the presence of plaque on the in vitro performance of laser fluorescence in occlusal caries of primary teeth. Caries Research 38 (2004) 104-108
12. Mendes F.M., Nicolau J., and Duarte D.A. Evaluation of the effectiveness of laser fluorescence in monitoring in vitro remineralisation of incipient caries lesions in the primary teeth. Caries Research 37 (2003) 422-424
13. Shi X.Q., Tranaeus S., and Angmar-Mansson B. Comparison of QLF and DIAGNOdent for quantification of smooth surface caries. Caries Research 35 (2001) 21-26
14. Shi X.Q., Tranaeus S., and Angmar-Mansson B. Validation of DIAGNOdent for quantification of smooth-surface caries: an in vitro study. Acta Odontologica Scandinavica 59 (2001) 74-78
15. Tam L.E., and McComb D. Diagnosis of occlusal caries: Part II. Recent diagnostic technologies. Journal of the Canadian Dental Association 67 (2001) 459-463
16. Hibst R., Paulus R., and Lussi A. Detection of occlusal caries by laser fluorescence: basic and clinical investigations. Medical Laser Application 16 (2001) 205-213
17. Hibst R., and Paulus R. Caries detection by red excited fluorescence investigations on fluorophores. Caries Research 33 (1999) 295
18. Banerjee A., and Boyde A. Autofluorescence and mineral content of carious dentine: scanning optical and backscattered electron microscopic studies. Caries Research 32 (1998) 219-226
19. Mahoney E., Holt A., Swain M., and Kilpatrick N. The hardness and modulus of elasticity of primary molar teeth: an ultra-micro-indentation study. Journal of Dentistry 28 (2000) 589-594
20. Al-Jehani A., Yang L., and Shi X.Q. In vitro quantification of smooth surface caries with DIAGNOdent and DIAGNOdent pen. Acta Odontologica Scandinavica 65 (2007) 60-63
21. Oliver W.C., and Pharr G.M. An improved technique for determining hardness and elastic modulus using load and displacement sensing indentation experiments. Journal of Materials Research 7 (1992) 1564-1574
22. Bland J.M., and Altman D.G. Calculating correlation coefficients with repeated observations: part 1-correlation within subjects. British Medical Journal 310 (1995) 446
23. Bland J.M., and Altman D.G. Calculating correlation coefficients with repeated observations: part 2-correlation between subjects. British Medical Journal 310 (1995) 633
24. Iwami Y., Shimizu A., Narimatsu M., Hayashi M., Takeshige F., and Ebisu S. Relationship between bacterial infection and evaluation using a laser fluorescence device, DIAGNOdent. European Journal of Oral Science 112 (2004) 419-423
25. Banerjee A., Sherrif M., Kidd E., and Watson T. A confocal microscopic study relating the autofluorescence of carious dentine to its microharndess. British Dental Journal 187 (1999) 206-210
26. Hodgskinson R., Currey J.D., and Evans G.P. Hardness, an indicator of the mechanical competence of cancellous bone. Journal of Orthopedic Research 7 (1989) 754-758
27. Leichter I., Margulies J.Y., Weinreb A., Mizrahi J., Robin G.C., Conforty B., et al. The relationship between bone density, mineral content, and mechanical strength in the femoral neck. Clinical Orthopaedic and Related Research 163 (1982) 272-281
28. Alho A., Husby T., and Høiseth A. Bone mineral content and mechanical strength. An ex vivo study on human femora at autopsy. Clinical Orthopaedic and Related Research 227 (1988) 292-297
29. Smith C.B., and Smith D.A. Structural role of bone apatite in human femoral compacta. Acta Orthopaedica Scandinavica 49 (1978) 440-444
30. Dalén N., Hellström L.G., and Jacobson B. Bone mineral content and mechanical strength of the femoral neck. Acta Orthopaedica Scandinavica 47 (1976) 503-508
31. Smith C.B., and Smith D.A. Relations between age, mineral density and mechanical properties of human femoral compacta. Acta Orthopaedica Scandinavica 47 (1976) 496-502
32. Kinney J., Balooch M., Marshall S., Marshall G., and Weihs T. Hardness and youngs modulus of human peritubular and intertubular dentine. Archives of Oral Biology 41 (1996) 9-13
33. Kodaka T., Debari K., Yamada M., and Kuroiwa M. Correlation between microhardness and mineral content in sound human enamel. Caries Research 26 (1992) 139-141
34. Ge J., Cui F., Wang H., and Feng H. Property variations in the prism and the organic sheath within enamel by nanoindentation. Biomaterials 26 (2005) 3333-3339
35. Xie Z.H., Mahoney E.K., Kilpatrick N.M., Swain M.V., and Hoffman M. On the structure-property relationship of sound and hypomineralised enamel. Acta Biomaterialia 3 (2007) 865-872
36. Spears I.R. A three-dimensional finite element model of prismatic enamel: a re-appraisal of the data on the Young's modulus of enamel. Journal of Dental Research 76 (1997) 1690-1697
37. Al-Khateeb S., ten Cate J.M., Angmar-mansson B., de Josselin de Jon E., Sundstrom G., Exterkate R., et al. Quantification of formation and remineralisation of artificial enamel lesions with a new portable fluorescence device. Advances in Dental Research 11 (1997) 502-506
38. Hall A., DeSchepper E., Ando M., and Stookey G. In vitro studies of laser fluorescence for detection and quantification of mineral less from dental caries. Advances in Dental Research 11 (1997) 507-514
39. Lagerweij M., van der Veen M., Ando M., Lukantsova L., and Stookey G. The validity and reliability of three light-induced fluorescence systems: an in vitro study. Caries Research 33 (1999) 220-226
40. Takamori K., Hokari N., Okumura Y., and Watanabe S. Detection of occlusal caries under sealants by use of a laser fluorescence system. Journal of Clinical Laser Medicine and Surgery 19 (2001) 267-271
41. Sailer R., Paulus R., and Hibst R. Analysis of carious lesions and subgingival calculi by fluorescence spectroscopy. Caries Research 35 (2001) 267
42. Lussi A., Hibst R., and Paulus. DIAGNOdent: an optical method for caries detection. Journal of Dental Research 83 (2004) C80-C83
43. Lussi A., Imwinkelried S., Pitts N., Longbottom C., and Reich E. Performance and reproducibility of a laser fluorescence system for detection of occlusal caries in vitro. Caries Research 33 (1999) 261-266
44. Shi X.Q., Welander U., and Angmar-Mansson B. Occlusal caries detection with KaVo DIAGNOdent and radiography: an in vitro comparison. Caries Research 34 (2000) 152-158
45. Sheehy E.C., Brailsford S.R., Kidd E., Beighton D., and Zoitopoulos L. Comparison between visual examination and a laser fluorescence system for in vivo diagnosis of occlusal caries. Caries Research 35 (2001) 421-426
46. Lussi A., Megret B., Longbottom C., Reich E., and Francescut P. Clinical performance of a laser fluorescence device for detection of occlusal caries lesions. European Journal of Oral Science 109 (2001) 14-19