  <eprint xmlns="http://eprints.org/ep2/data/2.0">
    <eprintid>892</eprintid>
    <rev_number>10</rev_number>
    <eprint_status>archive</eprint_status>
    <userid>2</userid>
    <dir>disk0/00/00/08/92</dir>
    <datestamp>2007-10-19 08:32:42</datestamp>
    <lastmod>2007-11-02 00:38:20</lastmod>
    <status_changed>2007-10-19 08:32:42</status_changed>
    <type>article</type>
    <metadata_visibility>show</metadata_visibility>
    <creators>
      <item>
        <name>
          <family>Farid Che Ghazali</family>
          <given></given>
        </name>
        <id></id>
      </item>
    </creators>
    <corp_creators>
      <item>Universiti Sains Malaysia, School of Health Sciences</item>
    </corp_creators>
    <title>Permeability of Dentine</title>
    <ispublished>pub</ispublished>
    <subjects>
      <item>R</item>
    </subjects>
    <full_text_status>none</full_text_status>
    <keywords>Dentinal tubules, permeability, odontoblast and fluid movement.</keywords>
    <abstract>This is an update on the present integrated knowledge regarding dentine permeability that assumed a role in dentine sensitivity and contribute clinically to the effective bonding properties of restorative dental materials. This paper will attempt to refer to in vivo and in vitro studies of dentine permeability and the various interrelated factors governing it.</abstract>
    <date>2003-01</date>
    <date_type>published</date_type>
    <publication>Malaysian Journal of Medical Sciences</publication>
    <volume>10</volume>
    <number>1</number>
    <publisher>School of Medical Sciences, Kubang Kerian, Universiti Sains Malaysia</publisher>
    <pagerange>27-36</pagerange>
    <refereed>TRUE</refereed>
    <issn>1394195X</issn>
    <official_url>http://www.medic.usm.my/publication/mjms/</official_url>
    <referencetext>1. Vongsavan, N., Matthews, B. The permeability of cat dentine in vivo and in vitro. Archs oral Biol., 1991; 36, 9: 641-646.&#13;
&#13;
2. Vongsavan, N., Matthews, B. Interaction between neural and hydrodynamic mechanisms in dentine pulp. Archs oral Biol., 1994; 39 Suppl., 87s-95s.&#13;
&#13;
3. Maita, E., Simpson, M.D, Tao, L., Pashley, D.H. Fluid and protein flux across the pulpo dentine complex the dog in vivo. Archs oral Biol., 1991; 36: 103-110.&#13;
&#13;
4. Fritsch, C. Untersuchungen uber den Bau und innervierung des Dentins. Arch. Mikrosc. Anat., 1914; 84: p307.&#13;
&#13;
5. Pashley, D.H. Dentine permeability: Theory practice. In: Experimental endodontics. (Ed. Spangberg L) CRC press inc., Boca Raton, Fl. 1990: p19-49.&#13;
&#13;
6. Pashley, D.H., Livingston, M.J, Greenhill, J. Regional resistance to fluid flow in human dentine in vitro. Archs oral Biol., 1978; 23: 807-810.&#13;
&#13;
7. Pashley, D. H., Andringa, H. J., Derkson, G. Derkson, M.E. Kalathoor, S.R. Regional variability in the permeability of human dentine. Archs oral Biol. 1987; 32(7): 519-523.&#13;
&#13;
8. Outhwaite, W.C., Livingston, M.J., and Pashley, H. Effect of changes in surface area, thickness, temperature and post extraction time on dentine permeability. Archs oral Biol., 1976; 21: 599-603.&#13;
&#13;
9. Mjor, I.A, Heyeraas, K.J., Pulp-dentin biology restorative dentistry. Part I: Normal structure physiology. Quintessence International 2001; vol., 6: 439-400.&#13;
&#13;
10. Pashley, D.H., Galloway, S.E., Stewart, F. Effects of fibrinogen in vivo on dentine permeability in the dog. Archs oral. Biol., 1984; 29: 725.&#13;
&#13;
11. Pashley, D.H., Smear layer: overview of structure and function. Proc Finn Dent Soc., 1992; 88 Suppl 1: 215-24.&#13;
&#13;
12. Blandy, A.A. On the sensibility of teeth. Am. J. Dent. Sci., 1850; 1: 22-28.&#13;
&#13;
13. Gysi, A. An attempt to explain the sensitiveness of dentine. Br J. Dent. Sci., 1900; 43: 865-868.&#13;
&#13;
14. Hume, W.R. A new technique for screening chemical toxicity to the pulp from dental restorative materials and procedures. J. Dent. Res., 1985; 649(11): 1322-1325.&#13;
&#13;
15. Gerzina, H.T., Hume, W.R., Effects of hydrostatic pressure on the diffusion of monomers through dentine in vitro. J. Dent Res., 1994; 74(1): 369-373. January.&#13;
&#13;
16. Ciarlone, A.E., Pashley, D.H. Permeability of root dentine to epinephrine released from gingival retraction cord. Oper Dent., 1992; 17: 106-111.&#13;
&#13;
17. Hanks, C.T, Wataha, J.C, Parsell, R.R, Strawn, S.E, Fat, J. C. Permeability of biological and synthetic molecules through dentine. J. Oral Rehabilitation. 1994; 21: 475-487.&#13;
&#13;
18. Brannstroms, M., Johnson, G. Movements of the dentine and pulp liquid on application of thermal stimuli. An in vitro study. Acta Odontol. Scand., 1970;28: 59-70.&#13;
&#13;
19. Anderson D.J., Matthews B., Gorretta C. Fluid flow through human dentine. Archs oral Biol., 1967; 12: 209-216.&#13;
&#13;
20. Outhwaite, W.C., Mc Kennzie, D.M. and Pashley, D.H. A  ersatile split chamber device for studying dentine permeability. J. Dent. Res. 1974; 57: 1503.&#13;
&#13;
21. Camps, J., Martin, P., Ladeque, P., Rieu R., Fuser, J., Influence of tooth cryopreservation on human dentin permeability. Dent Mater, May 1994; 10: 210-214.&#13;
&#13;
22. Ozok, A.R., Wu, M.K., Wesselink, P.R., The effects of post-extraction time on the hydraulic conductance of human dentine in vitro. Arch Oral Biol. Jan., 2002;47(1): 41-6.&#13;
&#13;
23. Pashley, D.H., Thompson, S.M., Stewart, F.P. Dentine permeability: Effects of the temperature on hydraulic conductance. J. Dent. Res., 1983; 62 (9) Sept. 956-959,&#13;
&#13;
24. Reeder, O.W. Jr., Walton, R.E., Livingston, M.J., Pashley, D.H. Dentine permeability: Determination of hydraulic conductance. J. Dent Res., 1978,Feb;57(2):187-93.&#13;
&#13;
25. Dippel, H.W., Borggreven, J.M., Hoppenbrouwers, P.M.M. Morphology and permeability of the dentinal smear layer. J. Prost. Dent., 1984; 52, 5: 657-662.&#13;
&#13;
26. Brown, L.R., Wachtel, L.W., Wheatcroft, M.G. Diffusion of niacin through extracted human teeth and its effects on bacterial penetration into dentine. J. Dent. Res., 1969; 41: 684.&#13;
&#13;
27. Fogel, H.M., Pashley, D.H., Dentine permeability: effects of endodontics procedures on root slabs. J Endodon., 1990; 16: 442-425.&#13;
&#13;
28. Ohtani, O. Three dimensional organisation of the connective tissue fibers of the human pancreas: A scanning electron microscopic study of NaOH treated tissue. Arch. Histol. Jap. 1987; 50(5): 557-566.&#13;
&#13;
29. Pashley, D.H., Matthews, W.G. The effects of outward forced convective flow on the inward diffusion in human dentine in vitro. Archs oral Biol., 1993; 38 (7):577-582.&#13;
&#13;
30. Haustein, K.O., Thiele, G., Stangel, U. Transport of various substances through human enamel and dentine. Int. J. Clinical Pharm.&amp; Therapeutics. 1994; 32 (9):483-487.&#13;
&#13;
31. Bitter, N.C. The effect of 25 % tannic acid on prepared dentine. A scanning electron microscope-methylene&#13;
blue dye study. J. Prosthet. Dent., 1990; 64: 12-16.&#13;
&#13;
32. Ciarlone, A.E., Tao, L., Ziemer D.M., Pashley, D.H. Epinephrine permeation across dentine in vitro. Endo. Dent. Traumatology, 1991; 7: 5-9.&#13;
&#13;
33. Hughes, N.P, Littleword, D, Macpheron, I.V., Beeston, M.A., Unwin, P.R., Direct measurements of fluid flow rate in dentinal tubules using scanning electro-chemical microscopy. In: Dentin/pulp complex. Shimono M, Takahashi K, Editors. Tokyo, Japan: Quintessence Publishing 1996.&#13;
&#13;
34. Hoppenbrouwers, P.P.M., Scholberg, H.P.F., Borggreven, J.M.P.M. Measurement of the permeability of dental enamel and its variation with death using an electrochemical method. J. Dent. Res. 1986; 65: 1322-1325.&#13;
&#13;
35. Von Fraunhofer, T.J., Hammer, D.W. Microleakage of composite resin restorations. J. Prosthet. Dent., 1984; 51: 209-213.&#13;
&#13;
36. Levinkind, M., Vandernoot, T.J., Elliott, J.C. lectrochemical impedence characterisation of human and&#13;
bovine enamel. J. Dent. Res., 1990; 69: 1806-1811.&#13;
&#13;
37. Levinkind, M., Vandernoot, T.J., Elliott, J.C. Evaluation of smear layers on serial sections of human dentine by means of electro-chemical impedence measurement. J. Dent. Res., 1992; 71: 426-433.&#13;
&#13;
38. Vandernoot, T.J., Levinkind, M. Impedence characteristics of human dental enamel and dentine. J. Electroanal Chem., 1991; 300: 191-198.&#13;
&#13;
39. Kramer, I.R.H. The isolation and examination of odontoblasts in fresh unfixed state. Proc. Roy. Soc. Med., 1956; 49: 545-546.&#13;
&#13;
40. Rockert, H. Methods for the isolation of odontoblasts and determination of intracellular potassium. Acta Odontol Scand., 1964; 22: 373-378.&#13;
&#13;
41. Chadha, S., Bishop, M.A. Effect of mechanical removal of the pulp upon the retention of odontoblasts around the pulp chamber of human third molars. Archs oral Biol., 1996; 41, 8/9: 905-909.&#13;
&#13;
42. Ghazali, F., Bishop M.A. Permeability of human dentine to water in odontoblast preserved and odontoblast free preparations. Australian and New Zealand Journal Of Medicine, 1996; Vol. 26, 3, June.&#13;
&#13;
43. Ghazali, F., Bishop, M.A. Contents of tubules in relation to spontaneous water flow through human dentine. Journal of Dental Research, 1998; 77 (special issue): 651, 158.&#13;
&#13;
44. Pashley, D.H., Nelson, R., Pashley, E.L. In vivo fluid movement across dentine in the dog. Archs oral Biol., 1981; 26: 707-710.&#13;
&#13;
45. Pashley, D.H, Kepler, E.E., Williams, E.C., Okabe, A. The effects of acid etching on the in vivo permeability of dentine in the dog. Archs oral Biol. 1983; 28(7): 555-559,&#13;
&#13;
46. Pashley, D.H., Kepler, E.E., Williams, E.C., O’Meara, J. A. The effects on dentine permeability of time following cavity preparation in dogs. Archs oral Biol., 1984; 29: 65-68.&#13;
&#13;
47. Byers, M.R., Narhi, M.V., Mecifi, K.B. Acute and chronic reactions of dental sensory nerves to hydrodynamic stimulation or injury. Anat Rec., 1988; 221: 872-883.&#13;
&#13;
48. Turner, D., Marfurt, C., Sattelburg, C. Demonstration of physiological barrier between pulpal odontoblast and its perturbation following routine restorative procedures. A horseradish peroxidase tracing study in rat. J. Dent. Res. 1989; 68(8): 1262-1268.&#13;
&#13;
49. Ohshima, H. Ultrastructural changes in odontoblasts and pulp capillaries following cavity preparation in rat molars. Arch. Histol. Cytol., 1990; 53: 423-438.&#13;
&#13;
50. Bishop, M.A. Evidence for tight junctions between odontoblasts in the rat incisor. Cell Tissue Res., 1985; 239: 137-140.&#13;
&#13;
51. Bishop, M.A., Yoshida, S. A permeability barrier to lanthanum and the presence of collagen between odontoblast in pigs’ molars. J. Anat., 1992; 181: 29-38.&#13;
&#13;
52. Vongsavan, N., Matthews, B. The relation between fluid flow through dentine and the discharge of the intradental nerves. Archs oral Biol., 1994; 39 Suppl: 140s.&#13;
&#13;
53. Pashley, D.H., Galloway, S.E. The effect of oxalatetreatment on the smear layer of ground surfaces of&#13;
human dentine. Archs oral Biol., 1985; 30 10: 731-737.&#13;
&#13;
54. Matthews, W.G, Showman, C.D, and Pashley, D.H. Air blast-induced evaporative water loss from human dentine, in vitro. Archs oral Biol., 1993; 38: 517-523.&#13;
&#13;
55. Ruse, N.D., Smith, D.C. Adhesion to bovine  entinesurface characterisation. J. Dent. Res., 1991; 70: 1002-1008.&#13;
&#13;
56. Pashley, D.H. The effects of acid etching on pulpodentine complex. Operative dentistry. 1992; 17: 229-&#13;
242.&#13;
&#13;
57. Prati, C. What is the clinical relevance of in vitro dentine permeability tests? J. Dent. Apt.; 1994; 22(2): 83-88.&#13;
&#13;
58. O’Connell M.S., Morgan, L.A., Beeler, W.J., Baumgartner, J.C. A comparative study of smear layer removal using different salts of EDTA. J Endod. 2000,Dec; 26(12): 739-43.&#13;
&#13;
59. Eick J.D., Wilko, R.A., Anderson C.H., Sorenson, S.E. Scanning electron microscopy of cut surfaces and identification of debris by the use of the electron microprobe. J. Dent. Res., 1970; 53: 1255.&#13;
&#13;
60. Prati C, Venturi L, Valdre G, Mongiorgi R. Dentin morphology and permeability after brushing with different toothpastes in the presence and absence of smear layer. J Periodontol, 2002, Feb.; 73(2): 183-90.&#13;
&#13;
61. Boyer, D.B., Svare, C.W. The effect of rotatory instrumentation on the permeability of dentine. J. Dent. Res., 1981; 60: 966-971.&#13;
&#13;
62. Tagami, J., Tao, L., Pashley, D.H. Correlation among dentin depth permeability and bond strength of adhesive resins. Dent. Materials. 1991; 6: 45-50.&#13;
&#13;
63. Stevensson, T.S. Fluid movement in human dentine. Archs oral Biol., 1965; 10: 935-944.&#13;
&#13;
64. Pashley, D.H., Livingston, M.J., Outhwaite, W.C. Rate of permeation of isotopes through human dentine in vitro. J. Dent. Res., 1977; 56 (1): 83.&#13;
&#13;
65. Olgart, L., Brannstrom, M., and Johnson, G. Invasion of bacteria into dentinal tubules. Experiments in vivo and in vitro. Acta. Odontol. Scand 1974; 32: 61.&#13;
&#13;
66. Pashley, D.H., Tao l., Boyd, L., King, G.E., Horner, J.A. Scanning electron microscopy of the substructure of smear layer in human dentine. Archs oral Biol.,1988; 33: 265-270.&#13;
&#13;
67. Van Meerbeck, B., Inokoshi, S., Braem, M., Lambrechts, P., Vanherle, G. Morphological aspects of the resin dentine interdiffusion zone observed with different dentine adhesive resins. J. Dent. Res., 1992; 71: 1530-1540.&#13;
&#13;
68. Hamlin, P., Samarawickrama, D., and Lynch, E. Effect of the new conditioning agent on dentine. American J. Dent., 1990; 3: 119-124.&#13;
&#13;
69. Pashley, D.H., Michelich, V., and Kehl, T. Dentine Permeability: Effects of the smear layer removal. J. Prosth Dent., 1981; 46: 531-537.&#13;
&#13;
70. Tagami, J., Sugizaki, J., Hosoda, H. Effects of the various pretreatments for dentine bonding on the dentine permeability. Japanese J. society of dental materials and devices, 1990; 9: 240-246.&#13;
&#13;
71. Kurosaki, N., Kubota M., Yamamoto, Y., Fusayama, T. The effects of etching on the dentine of the clinical cavity floor. Quintessence International, 1990; 21: 87-92.&#13;
&#13;
72. Pashley, E.L., Talman, R., Horner, J.A., Pashley, D.H.  ermeability of the normal versus carious dentine. Endodontics and Dental Traumatology. 1991; 7: 207-211.&#13;
&#13;
73. Bergren, G. Brannstrom, M. The rate of flow in dentinal tubules due to capillary attraction. J. Dent. Res., 1965;44: 408.&#13;
&#13;
74. Pashley, D.H. Dentin: A dynamic substrate: a review. Scan microsc. 1989; 3: 161-176.&#13;
&#13;
75. Pashley, D.H. Dynamic of the pulpo-dentine complex, Crit Rev. Oral. Biol. Med. 1996; 7(2): 104-133.&#13;
&#13;
76. Langeland, K., Tissue response to dental caries. Endo Debt Traumatol., 1987; 3: 149-171.&#13;
&#13;
77. Tronstadt, L., Langeland, K., Electron microscopy of human dentine exposed by attrition. Scand J Dent Res. 1971; 79: 160-171.&#13;
&#13;
78. Holland, G. Morphological features of dentine and pulp related to dentine sensitivity. Archs oral Biol., 1994; 39 (suppl): 3-11.&#13;
&#13;
79. Michelich, V.J., Schuster, G.S., Pashley, D.H. Bacterial penetration of human dentine in vitro. J. Dent. Res. 1980; 59(8): 1398-1403.&#13;
&#13;
80. Trowbridge, H.O. Pathogenesis of pulpitis resulting from dental caries. J. Endodontol., 1981; 7 (92): 52.&#13;
&#13;
81. Barakat, M.M., Powers, J.M., In vitro bond strengths of cements to treated teeth. Aust. dent. J., 1986; 31:415-419.&#13;
&#13;
82. Addy, M., Mostafa, P., Dentin hypersensitivity – I. Effects produced by the uptake in vitro of metal ions, fluoride and formaldehyde onto dentine. J. oral Rehab., 1988; 15: 575-585.&#13;
&#13;
83. Wenner, K.K., Fairhurst, C.W., Morris, C.F., Hawkins, I.R., Ringle, R.D. Microleakage of root restorations. J. Am. Dent. Ass. , 1988; 17: 825-828.&#13;
&#13;
84. Sandoval, V.A., Cooley, R.L., Barnwell, S.E. Evaluation of potassium oxalate as a cavity liner. J. Prosthet. Dent., 1989; 62: 283-287.&#13;
&#13;
85. Boyde, A. Air polishing effects on enamel, dentine, cement and bone. Br. Dent. J., 1984; 156: 387-391.&#13;
&#13;
86. Taiz, L., Zieger, E. The structure and properties of water. In: Plant physiology. Benjamin &amp; Cummning publishers, California. 1991; Chapter 3: 61-67.&#13;
&#13;
87. Tao, L., Reynolds, J.M., Pashley, D.H. Effects of dycal on dentine permeability. Endod. Dent. Traumatology; 1988; 4: 16-18.&#13;
&#13;
88. Goodis, H.E., Marshall, G.W. Jr., White, J.M, Gee, L, Hornberger, B, Marshall, S.J. Storage effects on dentin permeability and shear bond strengths. Dent Mater., 1993; Mar. 9(2): 79-84.&#13;
&#13;
89. Sakae, T., Mishima, H., Kozawa, Y. Changes in bovine dentine mineral with sodium hypochlorite treatment. J. Dent. Res., 1988; 67: 1229-1239.&#13;
&#13;
90. Barbosa, S.V., Safavi, K.E., Spangberg, L.S.W. Influence of sodium hypochlorite on the permeability and structure of cervical human dentine. Int. Endo. J., 1994; 27: 309-312.&#13;
&#13;
91. Goodis, H.E., Mashall, Jr., G.W., White, J.M. The effects of storage after extraction of the teeth on human dentine perneability in vitro. Archs oral Biol., 1991; 36 (8): 561-566.&#13;
&#13;
92. McGuckin, R.S., Pashley, D.H. The effect of disinfection/sterilization treatments on Glumma mediated dentine shear bond strengths. Am J Dent., 1990; 3: 278-282.&#13;
&#13;
93. Greenhill, J.D., Pashley, D.H., The effects of desensitising agents on the hydraulic conductance of dentine in vitro. Journal of Dental Research 1981; 60: 686-698.</referencetext>
    <documents></documents>
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