1Afonsky, D. (1951). Some observations on dental caries in central China. Journal of Dental Research 30, 53–61.CrossRefGoogle ScholarPubMed

2Akpata, E. S. (1979). Patterns of dental caries in urban Nigerians. Caries Research 13, 241–249.Google Scholar

3Albrecht, M., Bánóczy, J. & Tamas, G. (1988). Dental and oral symptoms of diabetes mellitus. Community Dentistry and Oral Epidemiology 16, 378–380.CrossRefGoogle ScholarPubMed

4Altman, L. C., Baker, C., Fleckman, P., Luchtel, D. & Oda, D. (1992). Neutrophil-mediated damage to human gingival epithelial cells. Journal of Periodontal Research 27, 70–79.CrossRefGoogle ScholarPubMed

5Alvarez, J. O., Caceda, J. & Aguayo, H. (1995). Early childhood caries and nutritional status. Journal of Dental Research 74, 468 (abstract).Google Scholar

6Alvarez, J. O., Eguren, J. C., Caceda, J. & Navia, J. M. (1990). The effect of nutritional status on the age distribution of dental caries in the primary teeth. Journal of Dental Research 69, 1564–1566.Google Scholar

7Alvarez, J. O. & Navia, J. M. (1989). Nutritional status, tooth eruption, and dental caries: a review. American Journal of Clinical Nutrition 49, 417–426.CrossRefGoogle ScholarPubMed

8Anaise, J. Z. (1978). Prevalence of dental caries amongst workers in the sweets industry in Israel. Community Dentistry and Oral Epidemiology 6, 286–289.Google Scholar

9Aponte-Merced, L. & Navia, J. M. (1980). Pre-eruptive protein-energy malnutrition and acid solubility of rat molar enamel surfaces. Archives of Oral Biology 25, 701–705.Google Scholar

10Araujo, D. R., Velasco, L. F., Del Bel Cury, A. A., Maltz, M., Aranjo, F. B. & Cury, J. A. (1995). An in situ evaluation of cariogenic potential of human breast milk. Journal of Dental Research 74, 48 (abstr. no. 294).Google Scholar

11Asher, C. & Reed, M. J. F. (1987). Early enamel erosion in children associated with the excessive consumption of citric acid. British Dental Journal 162, 384–387.CrossRefGoogle ScholarPubMed

12Ashley, F. P., Naylor, M. N. & Emslie, R. D. (1974). Clinical testing of dicalcium phosphate supplemented sweets. British Dental Journal 136, 361–366; 418–423.Google Scholar

13Åsman, B., Wijkander, P. & Hjerpe, A. (1994). Reduction of collagen degradation in experimental granulation tissue by vitamin E and selenium. Journal of Clinical Periodontology 21, 45–47.CrossRefGoogle ScholarPubMed

14Aurer-Kozelj, J., Kralj-Klobučar, N., Buzina, R. & Bačić, M. (1982). The effect of ascorbic acid supplementation on periodontal tissue ultrastructure in subjects with progressive periodontitis. International Journal of Vitamin and Nutrition Research 52, 333–341.Google Scholar

15Averill, H. M., Freire, P. S. & Bibby, B. G. (1966). The effect of dietary phosphate supplements on dental caries incidence in tropical Brazil. Archives of Oral Biology 11, 315–322.Google Scholar

16Bánóczy, J., Zimmermann, P., Hadas, É., Pinter, A. & Bruszt, V. (1985). Effect of fluoridated milk on caries: five year results. Journal of the Royal Society of Health 105, 99–103.Google Scholar

17Bánóczy, J., Zimmermann, P., Pinter, A., Hadas, É. & Bruszt, V. (1983). Effect of fluoridated milk on caries: three year results. Community Dentistry and Oral Epidemiology 11, 81–85.Google Scholar

18Bär, A. (1988). Caries prevention with xylitol: a review of the scientific evidence. In Sociological and Medical Aspects of Nutrition (World Review of Nutrition and Dietetics 55), pp. 183–209 [ G. H., Bourne, editor]. Basel: Karger.Google Scholar

19Barron, E. G. & Lewis, J. F. (1968). Effect of a school's naturally fluoridated water on the prevalence of carious lesions. Journal of Public Health Dentistry 28, 167–172.Google Scholar

20Baume, L. J. (1969). Caries prevalence and caries intensity among 12,344 schoolchildren of French Polynesia. Archives of Oral Biology 14, 181–205.CrossRefGoogle Scholar

21Bavetta, L. A. & McClure, F. J. (1957). Protein factors and experimental rat caries. Journal of Nutrition 63, 107–117.CrossRefGoogle ScholarPubMed

22Beck, D. J. & Bibby, B. G. (1961). Acid production during the fermentation of starches by saliva. Journal of Dental Research 40, 486–491.Google Scholar

23Becks, H., Wainwright, W. W. & Morgan, A. F. (1943). Comparative study of oral changes in dogs due to deficiencies of pantothenic acid, nicotinic acid and unknowns of the B vitamin complex. American Journal of Orthodontics & Oral Surgery 29, 183–207.CrossRefGoogle Scholar

24Beighton, D. & Hayday, H. (1984). The establishment of the bacterium Streptococcus mutans in dental plaque and the induction of caries in macaque monkeys (Macaca fascicularis) fed a diet containing cooked wheat flour. Archives of Oral Biology 29, 369–372.CrossRefGoogle ScholarPubMed

25Bergman, B. & Carlsson, G. E. (1972). Review of 54 complete denture wearers: patients' opinions one year after treatment. Acta Odontologica Scandinavica 30, 399–414.CrossRefGoogle Scholar

26Bernick, S. M., Cohen, D. W., Baker, L. & Laster, L. (1975). Dental disease in children with diabetes mellitus. Journal of Periodontology 46, 241–245.CrossRefGoogle ScholarPubMed

27Bibby, B. G., Goldberg, H. J. V. & Chen, E. (1951). Evaluation of caries-producing potentialities of various foods. Journal of the American Dental Association 42, 491–509.Google Scholar

28Bibby, B. G. & Krobicka, A. (1984). An in vitro method for making repeated pH measurements on human dental plaque. Journal of Dental Research 63, 906–909.Google Scholar

29Bibby, B. G., Mundorff, S. A. & Huang, C. T. (1983). Enamel demineralization tests with some standard foods and candies. Journal of Dental Research 62, 885–888.CrossRefGoogle ScholarPubMed

30Bibby, B. G., Mundorff, S. A., Zero, D. T. & Almekinder, K. J. (1986). Oral food clearance and the pH of plaque and saliva. Journal of the American Dental Association 112, 333–337.Google Scholar

31Bowen, W. H. (1972). The cariostatic effect of calcium glycerophosphate in monkeys. Caries Research 6, 43–51.CrossRefGoogle ScholarPubMed

32Bowen, W. H., Amsbaugh, S. M., Monnell-Torrens, S., Brunelle, J., Kuzmiak-Jones, H. & Cole, M. F. (1980). A method to assess cariogenic potential of foodstuffs. Journal of the American Dental Association 100, 677–681.Google Scholar

33Bowen, W. H., Pearson, S. K., van Wuyckhuyse, B. C. & Tabak, L. A. (1991). Influence of milk, lactose-reduced milk, and lactose on caries in desalivated rats. Caries Research 25, 283–286.CrossRefGoogle ScholarPubMed

34Bradford, E. W. & Crabb, H. S. M. (1961). Carbohydrate restriction and caries incidence: a pilot study. British Dental Journal 111, 273–279.Google Scholar

35Bradford, E. W. & Crabb, H. S. M. (1963). Carbohydrates and the incidence of caries in the deciduous dentition. In Advances in Fluorine Research and Dental Caries Prevention (1962 Congress), vol. 1, pp. 319–323 [ J. L., Hardwick, J.-L., Dustin and H. R., Held, editors]. Oxford: Pergamon Press.Google Scholar

36Brodeur, J. M. & Laurin, D. (1993). Nutrient intake and gastrointestinal disorders related to masticatory perform´nce in the edentulous elderly. Journal of Prosthetic Dentistry 70, 468–473.Google Scholar

37Brudevold, F., Attarzadeh, F., Tehrani, A., van Houte, J. & Russo, J. (1984). Development of a new intraoral demineralization test. Caries Research 18, 421–429.Google Scholar

38Brudevold, F., Goulet, D., Tehrani, A., Attarzadeh, F. & van Houte, J. (1985). Intraoral demineralization and maltose clearance from wheat starch. Caries Research 19, 136–144.Google Scholar

39Brudevold, F., Kashket, S. & Kent, R. L. (1990). The effect of sucrose and fat in cookies on salivation and oral retention in humans. Journal of Dental Research 69, 1278–1282.Google Scholar

40Burrill, D. Y. (1942). Relationship of blood plasma vitamin C level to gingival and periodontal disease. Journal of Dental Research 21, 353–363.Google Scholar

41Burt, B. A., Eklund, S. A., Morgan, K. J., Larkin, F. E., Guire, K. E., Brown, L. O. & Weintraub, J. A. (1988). The effects of sugars intake and frequency of ingestion on dental caries increment in a three-year longitudinal study. Journal of Dental Research 67, 1422–1429.Google Scholar

42Caldwell, R. C. (1970). Physical properties of foods and their caries producing potential. Journal of Dental Research 49, 1293–1298.Google Scholar

43Carlsson, J. & Egelberg, J. (1965). Effect of diet on early plaque formation in man. Odontologisk Revy 16, 112–125.Google Scholar

44Cerna, H., Fiala, B., Fingerova, H., Pohanka, E. & Szwarcon, A. (1984). Contribution to indication of total therapy with vitamin E in chronic periodontal disease (pilot study). Acta Universitatis Palackianae Olomucensis Facultatis Medicae 107, 167–170.Google Scholar

45Cohen, M. M. (1955). The effect of large doses of ascorbic acid on gingival tissues at puberty. Journal of Dental Research 34, 750–751.Google Scholar

46Colman, G., Bowen, W. H. & Cole, M. F. (1977). Effects of sucrose, fructose and a mixture of glucose and fructose on the incidence of dental caries in monkeys (Macaca fascicularis). British Dental Journal 142, 217–223.CrossRefGoogle Scholar

47Commerford, J. D. (1974). Corn sweetener industry. In Sweeteners (symposium) [ I. E., Inglett, editor]. Westport, CT: AVI.Google Scholar

48Cowan, A. (1976). The influence of vitamin C on the periodontal membrane space – a radiographic study. Irish Journal of Medical Science 145, 273–284.CrossRefGoogle ScholarPubMed

49Dachi, S. F., Saxe, S. R. & Bohannan, H. M. (1966). The failure of short-term vitamin supplementation to reduce sulcus depth. Journal of Periodontology 37, 221–223.Google Scholar

50Darby, E. T. (1892). Dental erosion and gouty diathesis, are they related? Dental Cosmos 34, 629–640.Google Scholar

51Dean, H. T. (1936). Chronic endemic dental fluorosis (mottled enamel). Journal of the American Medical Association 107, 1269–1272.Google Scholar

52Dean, H. T., Arnold, F. A. & Elvove, E. (1942). Domestic water and dental caries. 5. Additional studies of the relation of fluoride domestic waters to dental caries prevalence in 4425 white children, age 12-14 years, of 13 cities of 4 states. Public Health Reports 57, 1155–1179.Google Scholar

53de Crousaz, P., Marthaler, T., Weisner, V., Bandi, A., Steiner, M., Roberts, A. & Meyer, R. (1985). Caries prevalence in children after 12 years of salt fluoridation in a Canton of Switzerland. Schweizerische Monatsschrift für Zahnmedizin 95, 805–815.Google Scholar

54Department of Health (1991). Dietary Reference Values for Food Energy and Nutrients for the United Kingdom. Report on Health and Social Subjects no. 41. London: HMSO.Google Scholar

55Department of Health (1994 a). An Oral Health Strategy for England. London: HMSO.Google Scholar

56Department of Health (1994 b). Weaning and the Weaning Diet. Report on Health and Social Subjects no. 45. London: HMSO.Google Scholar

57Department of Health (1994 c). Nutritional Aspects of Cardiovascular Disease. Report on Health and Social Subjects no. 46. London: HMSO.Google Scholar

58Driesen, S. & Spies, T. D. (1952). The incidence of dental caries in habitual sugar cane chewers. Journal of the American Dental Association 45, 193–200.Google Scholar

59Drummer, P. M. H., Oliver, S. J., Hicks, R., Kingdon, A., Kingdon, R., Addy, M. & Shaw, W. C. (1990). Factors influencing the caries experience of a group of children at the ages of 11-12 and 15-16 years; results of an ongoing epidemiological survey. Journal of Dentistry 18, 37–48.Google Scholar

60Duff, E. J. (1981). Total and ionic fluoride in milk. Caries Research 15, 406–408.Google Scholar

61Edgar, W. M. (1985). Prediction of the cariogenicity of various foods. International Dental Journal 35, 190–194.Google ScholarPubMed

62Edgar, W. M., Bibby, B. G., Mundorff, S. & Rowley, J. (1975). Acid production in plaques after eating snacks: modifying factors in foods. Journal of the American Dental Association 90, 418–425.Google Scholar

63Edgar, W. M. & Geddes, D. A. M. (1990). Chewing gum and dental health: a review. British Dental Journal 168, 173–177.CrossRefGoogle ScholarPubMed

64Enwonwu, C. O. (1973). Influence of socio-economic conditions on dental development in Nigerian children. Archives of Oral Biology 18, 95–107.Google Scholar

65Farrell, J. H. (1956). The effect of mastication on the digestion of food. British Dental Journal 100, 149–155.Google Scholar

66Finn, S. B., Frew, R. A., Leibowitz, R., Morse, W., Manson-Hing, L. & Brunelle, J. (1978). The effect of sodium trimetaphosphate (TMP) as a chewing gum additive on caries increments in children. Journal of the American Dental Association 96, 651–655.Google Scholar

67Firestone, A. R., Schmid, R. & Mühlemann, H. R. (1982). Cariogenic effects of cooked wheat starch alone or with sucrose and frequency-controlled feedings in rats. Archives of Oral Biology 27, 759–763.CrossRefGoogle ScholarPubMed

68Firestone, A. R., Schmid, R. & Mühlemann, H. R. (1984). Effect of the length and number of intervals between meals on caries in rats. Caries Research 18, 128–133.Google Scholar

69Fisher, F. J. (1968). A field survey of dental caries, periodontal disease and enamel defects in Tristan da Cunha. 2. Methods and results. British Dental Journal 125, 447–453.Google Scholar

70Fosdick, L. S., Campaigne, E. E. & Fancher, O. E. (1941). Rate of acid formation in carious areas: the etiology of dental caries. Illinois Dental Journal 10, 85–95.Google Scholar

71Frencken, J. E., Rugarabaum, P. & Mulder, J. (1989). The effect of sugar cane chewing on the development of dental caries. Journal of Dental Research 68, 1102–1104.Google Scholar

72Frostell, G. (1972). Effect of cooked starch solution on the pH of dental plaque. Swedish Dental Journal 65, 161–165.Google Scholar

73Frostell, G. (1973). Effects of mouth rinses with sucrose, glucose, fructose, lactose, sorbitol and Lycasin on the pH of dental plaque. Odontologisk Revy 24, 217–226.Google Scholar

74Fry, A. J. & Grenby, T. H. (1972). The effects of reduced sucrose intake on the formation and composition of dental plaque in a group of men in the Antarctic. Archives of Oral Biology 17, 873–882.Google Scholar

75Fuller, J. L. & Johnson, W. W. (1977). Citric acid consumption and the human dentition. Journal of the American Dental Association 95, 80–84.Google Scholar

76Gaengler, P., Pfister, W., Sproessig, M. & Mirgorod, M. (1986). The effects of carbohydrate-reduced diet on development of gingivitis. Clinical Preventive Dentistry 8, 17–23.Google Scholar

77Gedalia, I., Galon, H., Rennert, A., Biderco, I. & Mohr, I. (1981). Effect of fluoridated citrus beverages on dental caries and on fluoride concentration in the surface enamel of children's teeth. Caries Research 15, 103–y108.Google Scholar

78Geissler, C. A. & Bates, J. F. (1984). The nutritional effects of tooth loss. American Journal of Clinical Nutrition 39, 478–489.Google ScholarPubMed

79Giunta, J. L. (1983). Dental erosion resulting from chewable vitamin C tablets. Journal of the American Dental Association 107, 253–256.Google Scholar

80Glass, R. L. (1982). The first international conference on the declining prevalence of dental caries. Introduction. Journal of Dental Research 61, 1301–1304.Google Scholar

81Glass, R. L. & Hayden, J. (1966). Dental caries in Seventh Day Adventist children. Journal of Dentistry for Children 33, 22–23.Google Scholar

82Glickmann, I. (1979). Nutritional influences on the periodontum. In Glickman's Clinical Periodontology, 5th edn, pp. 489–505 [ F. A, Carranza, editor]. Philadelphia, PA: Saunders.Google Scholar

83Goodson, J. M. & Bowles, D. (1973). The effect of α-tocopherol on sulcus fluid flow in periodontal disease. Journal of Dental Research 52, 217 (Abstr.).Google Scholar

84Graf, H. (1970). The glycolytic activity of plaque and its relation to hard tissues pathology; recent findings from intraoral pH telemetry research. International Dental Journal 20, 426–435.Google ScholarPubMed

85Granath, L.-E., Rootzen, H., Liljegren, E., Holst, K. & Köhler, L. (1978). Variation in caries prevalence related to combinations of dietary and oral hygiene habits and chewing fluoride tablets in 4-year-old children. Caries Research 12, 83–92.Google Scholar

86Green, R. M. & Hartles, R. L. (1967). The effect of uncooked and roll-dried maize starch, alone and mixed in equal quantity with sucrose, on dental caries in the albino rat. British Journal of Nutrition 21, 225–230.Google Scholar

87Green, R. M. & Hartles, R. L. (1970). The effects of diets containing varying percentages of sucrose and maize starch on caries in the albino rat. Caries Research 4, 188–192.Google Scholar

88Grenby, T. H. (1965). The influence of cooked and raw wheat starch on dental caries in the rat. Archives of Oral Biology 10, 433–438.Google Scholar

89Grenby, T. H. (1967). Investigation in experimental animals on the cariogenicity of diets containing sucrose and/or starch. Caries Research 1, 208–221.Google Scholar

90Grenby, T. H. (1971). Dental plaque studies on baboons fed on diets containing different carbohydrates. Archives of Oral Biology 16, 631–638.CrossRefGoogle ScholarPubMed

91Grenby, T. H. (1972). The effect of glucose syrup on dental caries in the rat. Caries Research 6, 52–59.Google Scholar

92Grenby, T. H. (1973). Trials of three organic phosphorus-containing compounds as protective agents against dental caries in rats. Journal of Dental Research 52, 454–461.Google Scholar

93Grenby, T. H. (1990). Snack foods and dental caries. Investigations using laboratory animals. British Dental Journal 168, 353–361.Google Scholar

94Grenby, T. H. (1991). Update on low-calorie sweeteners to benefit dental health. International Dental Journal 41, 217–224.Google Scholar

95Grenby, T. H. & Bull, J. M. (1975). Protection against dental caries in rats by glycerophosphates or calcium salts or mixtures of both. Archives of Oral Biology 20, 717–724.Google Scholar

96Grenby, T. H. & Leer, C. J. (1974). Reduction in ‘smooth surface’ caries and fat accumulation in rats when sucrose in drinking water is replaced by glucose syrup. Caries Research 8, 368–372.Google Scholar

97Grenby, T. H. & Paterson, F. M. (1972). Effect of sweet biscuits on the incidence of dental caries in rats. British Journal of Nutrition 27, 195–199.Google Scholar

98Grenby, T. H. & Saldanha, M. G. (1986). Studies of the inhibitory action of intense sweeteners on oral microorganisms relating to dental health. Caries Research 20, 7–16.Google Scholar

99Guggenheim, B., König, K. G., Herzog, E. & Mühlemann, H. R. (1966). The cariogenicity of different dietary carbohydrates tested on rats in relative gnotobiosis with a Streptococcus producing extracellular polysaccharide. Helvetica Odontologica Acta 10, 101–113.Google Scholar

100Guggenheimer, J. & Schneider, L. G. (1980). Tooth erosion associated with excessive use of an artificially sweetened Cola beverage. Journal of Preventive Dentistry 6, 261–262.Google Scholar

102Gustafsson, B. E., Quensel, C. E., Lanke, L. S., Lundqvist, C., Grahnén, H., Bonow, B. E. & Krasse, B. (1954). The Vipeholm dental caries study. The effect of different levels of carbohydrate intake on caries activity in 436 individuals observed for five years. Acta Odontologica Scandinavica 11, 232–364.Google Scholar

103Hackett, A. F., Rugg-Gunn, A. J., Murray, J. J. & Roberts, G. J. (1984). Can breast feeding cause dental caries? Human Nutrition: Applied Nutrition 38A, 23–28.Google Scholar

104Hankin, J. H., Chung, C. S. & Kau, M. C. W. (1973). Genetic and epidemiologic studies of oral characteristics in Hawaii's school-children: diet patterns and caries prevalence. Journal of Dental Research 52, 1079–1086.Google Scholar

105Haraldson, T. & Carlsson, G. E. (1979). Chewing efficiency in patients with osseointegrated oral implant bridges. Swedish Dental Journal 3, 183–91.Google Scholar

106Hargreaves, J. A. & Thompson, G. W. (1989). Ultra-violet light and dental caries in children. Caries Research 23, 389–392.Google Scholar

107Harper, D. S., Gray, R., Lenke, J. W. & Hefferren, J. J. (1985). Measurement of human plaque acidity; comparison of interdental touch and indwelling electrodes. Caries Research 19, 536–546.Google Scholar

108Harris, R. (1963). Biology of the children of Hopewood House, Bowral, Australia. 4. Observations on dental caries experience extending over 5 years (1957–61). Journal of Dental Research 42, 1387–1399.Google Scholar

109Hausen, H., Heinomen, O. P. & Paunio, I. (1981). Modification of occurrence of caries in children by toothbrushing and sugar exposure in fluoridated and non-fluoridated area. Community Dentistry and Oral Epidemiology 9, 103–107.Google Scholar

110Heath, M. R. (1972). Dietary selection by elderly persons, related to dental state. British Dental Journal 132, 145–148.Google Scholar

111Hefti, A. & Schmid, R. (1979). Effect on caries incidence in rats of increasing dietary sucrose levels. Caries Research 13, 298–300.Google Scholar

112Heifetz, S. B., Horowitz, H. S. & Brunelle, J. A. (1983). Effect of school water fluoridation on dental caries: results in Seagrove, NC, after 12 years. Journal of the American Dental Association 106, 334–337.Google Scholar

113Henrikson, P. A. (1968). Periodontal disease and calcium deficiency. An experimental study in the dog. Acta Odontologica Scandinavica 26, Suppl.50.Google Scholar

114Higham, S. M. & Edgar, W. M. (1989). Effects of Parafilm® and cheese chewing on human dental plaque pH and metabolism. Caries Research 23, 42–48.Google Scholar

115Hodges, R. E., Hood, J., Canham, J. E., Sauberlich, H. E. & Baker, E. M. (1971). Clinical manifestations of ascorbic acid deficiency in man. American Journal of Clinical Nutrition 24, 432–443.Google Scholar

116Holloway, P. J., Shaw, J. H. & Sweeney, E. A. (1961). Effects of carious sucrose: casein ratios in purified diets on the teeth and supporting structures of rats. Archives of Oral Biology 3, 185–200.Google Scholar

117Holt, R. D., Joels, D., Bulman, J. & Maddick, I. H. (1988). A third study of caries in preschool aged children in Camden. British Dental Journal 165, 87–91.Google Scholar

118Horowitz, H. S., Heifetz, S. B. & Law, F. E. (1972). Effect of school water fluoridation on dental caries; final results in Elk Lake, PA after 12 years. Journal of the American Dental Association 84, 832–838.Google Scholar

119Horowitz, H. S., Heifetz, S. B., Law, F. E. & Driscoll, W. S. (1968). School fluoridation studies in Elk Lake, Pennsylvania, and Pike County, Kentucky – results after eight years. American Journal of Public Health 58, 2240–2250.Google Scholar

120Huang, C. T., Little, M. F. & Johnson, R. (1981). Influence of carbohydrates on in vitro lesion production. Caries Research 15, 54–59.Google Scholar

121Huxley, H. G. (1971). The cariogenicity of various percentages of dietary sucrose and glucose in experimental animals. New Zealand Dental Journal 67, 85–98.Google Scholar

122Huxley, H. G. (1977). The cariogenicity of dietary sucrose at various levels in two strains of rat under unrestricted and controlled frequency feeding conditions. Caries Research 11, 237–242.Google Scholar

123Imfeld, T. (1977). Evaluation of the cariogenicity of confectionery by intraoral wire telemetry. Schweizerische Monatsschrift für Zahnheilkunde 87, 437–464.Google Scholar

124Imfeld, T. N. (1983). Identification of Low Caries Risk Dietary Components, pp. 153–155; 165–174. Basel: Karger.Google Scholar

125Imfeld, T., Hirsch, R. S. & Mühlemann, H. R. (1978). Telemetric recordings of interdental plaque pH during different meal patterns. British Dental Journal 144, 40–45.Google Scholar

126Infante, P. F. & Gillespie, G. M. (1977). Enamel hypoplasia in relation to caries in Guatemalan children. Journal of Dental Research 56, 493–498.Google Scholar

127Jacobsen, J. (1979). Recent reorganisation of the public health service in Greenland in favour of caries prevention. Community Dentistry and Oral Epidemiology 7, 75–81.Google Scholar

128Jalil, R. A., Cornick, D. E. R. & Waite, I. M. (1983). Effect of variation in dietary sucrose intake on plaque removal by mechanical means. Journal of Clinical Periodontology 10, 389–398.Google Scholar

129Jarvinen, V. K., Rytomaa, I. I. & Heinonen, O. P. (1991). Risk factors in dental erosion. Journal of Dental Research 70, 942–947.Google Scholar

130Jenkins, G. N. (1978). The Physiology and Biochemistry of the Mouth, 4th edn. Oxford: Blackwell.Google Scholar

131Jenkins, G. N. & Ferguson, D. B. (1966). Milk and dental caries. British Dental Journal 120, 472–477.Google Scholar

132Jenkins, G. N. & Hargreaves, J. A. (1989). Effect of eating cheese on Ca and P concentrations of whole mouth saliva and plaque. Caries Research 23, 159–164.Google Scholar

133Jenkins, G. N. & Smales, F. C. (1966). The potential importance in caries prevention of solubility-reducing and anti-bacterial factors in unrefined plant products. Archives of Oral Biology 11, 599–608.Google Scholar

134Jensen, M. E., Hartander, S. K. & Schachtele, C. F. (1984). Evaluation of the acidogenic and antacid properties of cheeses by telemetric monitoring of human dental plaque pH. In Foods, Nutrition and Health, vol. 4, pp. 31–48. Chicago, IL: American Dental Association.Google Scholar

135Jensen, M. E. & Welfel, J. S. (1990). Effects of processed cheese on human plaque pH and demineralization and remineralization. American Journal of Dentistry 3, 217–323.Google Scholar

136Johansson, I., Lumikari, M. & Ericson, T. (1989). Effect of moderate vitamin A deficiency on saliva secretion rate and some salivary glycoproteins in adult rat. Scandinavian Journal of Dental Research 97, 263–267.Google Scholar

137Katayama, T., Nagagawa, E., Honda, O., Tani, H., Okado, S. & Suzuki, S. (1979). Incidence and distribution of Strep. mutans in plaque from confectionery workers. Journal of Dental Research 58, (Special issue D) 2251 (Abstr. 11).Google Scholar

138King, J. D. (1940). Dental Disease in the Island of Lewis. MRC Special Report Series no. 241. London: HMSO.Google Scholar

139Kleemola-Kujala, E. & Rasanen, L. (1979). Dietary pattern of Finnish children with low and high caries experience. Community Dentistry and Oral Epidemiology 7, 199–205.Google Scholar

140Kleemola-Kujala, E. & Rasanen, L. (1982). Relationship of oral hygiene and sugar consumption to risk of caries in children. Community Dentistry and Oral Epidemiology 10, 224–233.Google Scholar

141König, K. G. (1966). Möglichkeiten der Kariesprophylaxe beim Menschen und ihre Untersuchung im Kurzfristigen Rattenexperiment. Bern: Hans Huber.Google Scholar

142König, K. G. (1993). The role of fluoride toothpastes in a caries preventive strategy. In Efficacy of Caries Preventive Strategies, pp. 23–28. Caries Research 27, Supplement.Google Scholar

143König, K. G., Schmid, P. & Schmid, R. (1968). An apparatus for frequency-controlled feeding of small rodents and its use in dental caries experiments. Archives of Oral Biology 13, 13–26.Google Scholar

144Koulourides, T., Bodden, R., Keller, S., Manson-Hing, L. L., Lastra, J. & Housch, T. (1976). Cariogenicity of nine sugars tested with an intraoral device in man. Caries Research 10, 427–441.Google Scholar

145Kristofferson, K., Axelsson, P., Birkhed, D. & Bratthall, D. (1986). Caries prevalence, salivary Streptococcus mutans and dietary scores in 13-year-old Swedish schoolchildren. Community Dentistry and Oral Epidemiology 14, 202–205.CrossRefGoogle Scholar

146Kunzel, W., Borroto, R. C., Lanier, S. & Soto, F. (1973). [Effect of habitual sugarcane chewing on the incidence of caries and periodontal disease in Cuban sugarcane workers.] Deutsche Stomatologie 23, 554–561.Google Scholar

147Leggett, B. J., Garbee, W. H., Gardiner, J. F. & Lancaster, D. M. (1987). The effect of fluoridated chocolate milk on caries incidence in elementary schoolchildren; two and three year studies. Journal of Dentistry for Children 54, 18–21.Google Scholar

148Levine, R. S. (1973). Fruit juice erosion – an increasing danger? Journal of Dentistry 2, 85–88.Google Scholar

149Levine, R. S. (1991). Fluoride and caries prevention. 1. Scientific rationale. Dental Update (April) 105–110.Google Scholar

150Lewis, K. J. & Smith, B. G. N. (1973). The relationship of erosion and attrition in excessive tooth tissue loss. British Dental Journal 135, 400–404.Google Scholar

151Lilienthal, B. (1977). Phosphates and Dental Caries. Basel: Karger.Google ScholarPubMed

152Lilienthal, B., Bush, E., Buckmaster, M., Gregory, G., Gagolski, J., Smythe, B. M., Curtin, J. H. & Napper, D. H. (1966). The cariostatic effect of carbohydrate phosphates in the diet. Australian Dental Journal 11, 388–395.Google Scholar

153Lindhe, J. (1989). Textbook of Clinical Periodontology, 2nd edn. Copenhagen: Munksgaard.Google Scholar

154Lindqvist, L. W. & Carlsson, G. E. (1985). Long-term effects of chewing with mandibular fixed prostheses on osseointegrated implants. Acta Odontologica Scandinavica 43, 39–45.Google Scholar

155Ludwig, T. G. & Bibby, B. G. (1957). Acid production from different carbohydrate foods in plaque and saliva. Journal of Dental Research 36, 56–60.Google Scholar

156McClure, F. J. & Ruzicka, S. J. (1946). The destructive effect of citrate vs. lactate ions on rats' molar tooth surfaces, in vivo. Journal of Dental Research 25, 1–12.Google Scholar

157MacDonald, S. P., Cowell, C. R. & Sheiham, A. (1981). Methods of preventing dental caries used by dentists for their own children. British Dental Journal 151, 118–121.Google Scholar

158MacGregor, A. B. (1963). Increasing caries incidence and changing diet in Ghana. International Dental Journal 13, 516–522.Google Scholar

159McKay, F. S. (1916). An investigation of mottled teeth (I). Dental Cosmos 58, 477–484.Google Scholar

160Magrill, D. S. (1973). The reduction of the solubility of hydroxyapatite in acid by adsorption of phytate from solution. Archives of Oral Biology 18, 591–600.Google Scholar

161Mäkila, E. (1968). Effects of complete dentures on the dietary habits and serum thiamine, riboflavin and ascorbic acid levels in edentulous persons. Suomen Hammaslääkäriseuran Toimituksia 64, 107–152.Google Scholar

162Mäkila, E. (1969 a). Protein consumption and intake of essential amino acids, niacin and calcium before and after wearing complete dentures. Suomen Hammaslääkäriseuran Toimituksia 65, 125–133.Google Scholar

163Mäkila, E. (1969 b). Effects of complete dentures on dietary intake and serum levels of pantothenic acid, folic acid and iron in edentulous persons. Suomen Hammaslääkäriseuran Toimituksia 65, 299–311.Google Scholar

164Mansbridge, J. N. (1960). The effects of oral hygiene and sweet consumption on the prevalence of dental caries. British Dental Journal 109, 343–348.Google Scholar

165Marshall-Day, C. D. (1944). Nutritional deficiencies and dental caries in Northern India. British Dental Journal 76, 115–122; 143–147.Google Scholar

166Marthaler, T. M. (1967). Epidemiological and clinical dental findings in relation to intake of carbohydrates. Caries Research 1, 222–238.Google Scholar

167Marthaler, T. M. (1979). Sugar and oral health: epidemiology in humans. In Health and Sugar Substitutes pp. 27–34 [ Guggenheim, B., editor]. Basel: Karger.Google Scholar

168Martinson, T. (1972). Socio-economic investigation of school-children with high and low caries frequency. III. A dietary study based on information given by the children. Odontologisk Revy 23, 93–114.Google Scholar

169Mason, G. M., Chapple, I. L. C. & Matthews, J. B. (1995). Local and systemic antioxidant capacity in chronic adult periodontal disease. Journal of Dental Research (in press).Google Scholar

170Meehan, K., Touger-Decker, K. & Vogel, R. (1995). Effect of edentulism and dentures on diet and nutritional status. Journal of Dental Research 74, Suppl. 79 pp.Google Scholar

171Mellanby, M. (1918). An experimental study of the influence of diet on teeth formation. Lancet II, 767–770.Google Scholar

172Mellanby, M. & Coumoulos, H. (1944). The improved dentition of 5-year-old London school-children. A comparison between 1943 and 1929. British Medical Journal i, 837–840.Google Scholar

173Mellanby, M. & Pattison, C. L. (1928). The action of vitamin D in preventing the spread and promoting the arrest of caries in children. British Medical Journal ii, 1079–1082.Google Scholar

174Menaker, L. & Navia, J. M. (1973). Effect of under-nutrition during the perinatal period on caries development in the rat. II. Caries susceptibility in underfed rats supplemented with protein or caloric additions during the suckling period. Journal of Dental Research 52, 680–687.Google Scholar

175Menghini, G. D., Steiner, M., Marthaler, T. & Bandi, A. (1995). [Incidence of caries in schoolchildren in the Glarus Canton in 1974-1992: effect of salt fluoridation.] Schweizerische Monatsschrift für Zahnmedizin 105, 467–473.Google Scholar

176Meurman, J. H., Rytömaa, I., Kari, K., Laakso, T. & Murtomaa, H. (1987). Salivary pH and glucose after consuming various beverages, including sugar-containing drinks. Caries Research 21, 353–359.Google Scholar

177Mikx, F. H. M., van der Hoeven, J. S., Plasschaert, A. J. M. & König, K. G. (1975). Effect of Actinomyces viscosius on the establishment and symbiosis of Streptococcus mutans and Streptococcus sanguis in SPF rats on different sucrose diets. Caries Research 9, 1–20.Google Scholar

178Miller, W. D. (1907). Experiments and observations on the wasting of tooth tissue variously designated as erosion, abrasion etc. Dental Cosmos 49, 225–247.Google Scholar

179Millward, A., Shaw, L., Smith, A. J., Rippin, J. W. & Harrington, E. (1994). The distribution and severity of tooth wear and the relationship between erosion and dietary constituents in a group of children. International Journal of Paediatric Dentistry 4, 151–157.Google Scholar

180Møller, I. J. (1965). Dental Fluorose og Caries. Copenhagen: Rhodes International Science Publishers.Google Scholar

181Mörch, T. (1961). The acid potentiality of carbohydrates; an investigation on some common dietary components in Norway. Acta Odontologica Scandinavica 19, 355–385.Google Scholar

182Moynihan, P. J., Gould, M. E. L., Huntley, N. & Thorman, S. (1995 a). Effect of glucose polymers in water, milk and Calogen on plaque pH in vitro. International Journal of Paediatric Dentistry (in press).CrossRefGoogle Scholar

183Moynihan, P. J., Snow, S., Jepson, N. J. A. & Butler, T. J. (1994). Intake of non-starch polysaccharide (dietary fibre) in edentulous and dentate persons: an observational study. British Dental Journal 177, 243–247.Google Scholar

184Moynihan, P. J., Walton, A. G. & Wright, W. G. (1995 b). A comparison of the relative acidogenic potential of standard infant milk formula and soya infant formula: a plaque pH study. International Journal of Paediatric Dentistry (in press).Google Scholar

185Murray, J. J., Rugg-Gunn, A. J. & Jenkins, G. N. (1991). Fluorides in Caries Prevention, 3rd edn. Oxford: Butterworth-Heinemann.Google Scholar

186Nerf, D. (1967). Acid production from different carbohydrate sources in human plaque in situ. Caries Research 1, 78–87.Google Scholar

187Newbrun, E. (1984). Diet and dental caries. In Cariology Today, pp. 340–352 [ B., Guggenheim, editor]. Basel: Karger.Google Scholar

188Newbrun, E. (1989). Cariology, 3rd edn. Chicago, IL: Quintessence.Google Scholar

189Newbrun, E. (1990). The potential role of alternative sweeteners in caries prevention. Israel Journal of Dental Science 2, 328–345.Google Scholar

190Newbrun, E., Hoover, C., Mettraux, G. & Graf, H. (1980). Comparison of dietary habits and dental health of subjects with hereditary fructose intolerance and control subjects. Journal of the American Dental Association 101, 619–626.Google Scholar

191Nikiforuk, G. & Fraser, D. (1981). The etiology of enamel hypoplasia – a unifying concept. Journal of Pediatrics 98, 888–893.Google Scholar

192Nizel, A. E. & Harris, R. S. (1964). The effects of phosphates on experimental dental caries: a literature review. Journal of Dental Research 43, 1123–1136.Google Scholar

193O'Brien, M. (1994). Children's Dental Health in the United Kingdom 1993. Office of Population Censuses and Surveys, Social Survey Division. London: HMSO.Google Scholar

194Office of Population Censuses & Surveys (1995). National Diet and Nutrition Survey: Children Aged 1½ to 4½ Years, vol. 2: Report of the Dental Survey, pp. 35, 36. London: HMSO.Google Scholar

195Oliver, W. M. (1969). The effect of deficiencies of calcium, vitamin D or calcium and vitamin D and variations in the source of dietary protein on the supporting tissues of the rat molar. Journal of Periodontal Research 4, 56–69.Google Scholar

196Olojugba, O. O. & Lennon, M. A. (1987). Dental caries experience in 5- and 12-year-old schoolchildren in Ondo State, Nigeria in 1977 and 1983. Community Dental Health 4, 129–135.Google Scholar

197Olojugba, O. O. & Lennon, M. A. (1990). Sugar consumption in 5- and 12-year-old schoolchildren in Ondo State, Nigeria in 1985. Community Dental Health 7, 259–265.Google Scholar

198Olsson, B. (1978). Dental caries and fluorosis in Arussi province, Ethiopia. Community Dentistry and Oral Epidemiology 6, 338–343.Google Scholar

199Olsson, B. (1979). Dental health situation in privileged children in Addis Ababa, Ethiopia. Community Dentistry and Oral Epidemiology 7, 37–41.Google Scholar

200O'Rourke, J. T. (1947). The relationship of the physical character of the diet to the health of the periodontal tissues. American Journal of Orthodontics and Oral Surgery 33, 687–700.Google Scholar

201Osterberg, T. & Steen, B. (1982). Relationship between dental state and dietary intake in 70-year-old males and females in Goteberg, Sweden: a population study. Journal of Oral Rehabilitation 9, 509–521.Google Scholar

202Pack, A. R. C. (1984). Folate mouthwash; effects on established gingivitis in periodontal patients. Journal of Clinical Periodontology 11, 619–628.Google Scholar

203Pack, A. R. C. & Thompson, M. E. (1980). Effects of topical and systemic folic acid supplementation on gingivitis in pregnancy. Journal of Clinical Periodontology 7, 402–414.Google Scholar

204Parfitt, G. J. & Hand, C. D. (1963). Reduced plasma ascorbic acid levels and gingival health. Journal of Periodontology 34, 347–351.Google Scholar

205Pearce, E. I. F. & Bibby, B. G. (1966). Protein adsorption on bovine enamel. Archives of Oral Biology 11, 329–336.Google Scholar

206Perlitsh, M. J., Neilsen, A. G. & Stanmyer, W. R. (1961). Ascorbic acid plasma levels and gingival health in personnel wintering over in Antarctica. Journal of Dental Research 40, 789–799.Google Scholar

207Persson, L.-Å., Stecksen-Blick, C. & Holm, A.-K. (1984). Nutrition and health in childhood, causal and quantitative interpretations of dental caries. Community Dentistry and Oral Epidemiology 12, 390–397.Google Scholar

208Pickerill, H. P. (1912). Prevention of Dental Caries and Oral Sepsis, p. 140. London: Baillière, Tindall and Cox.Google Scholar

209Pindborg, J. J. (1949). The effect of methyl folic acid on the periodontal tissue in rat molars (experimental granulocytopenia). Oral Surgery, Oral Medicine and Oral Pathology 2, 1485–1496.Google Scholar

210Poulsen, S., Larsen, M. J. & Larsen, R. H. (1976). Effect of fluoridated milk and water on enamel fluoride content and dental caries in the rat. Caries Research 10, 227–233.Google Scholar

211Rankine, C. A. N., Prihoda, T. J., Etzel, K. R. & Labadie, D. (1989). Plaque fluid pH, calcium and phosphorus responses to calcium food additives in a chewable candy. Archives of Oral Biology 34, 821–824.Google Scholar

212Rateitschak-Pluss, E. M. & Guggenheim, B. (1982). Effects of a carbohydrate free diet and sugar substitutes on dental plaque accumulation. Journal of Clinical Periodontology 9, 239–251.Google Scholar

213Reuter, J. E. (1978). Unusual dental incisal erosion. British Dental Journal 145, 274.Google Scholar

214Reynolds, E. C. (1987). The prevalence of subsurface demineralization of bovine enamel and change in plaque composition by casein in an intra-oral model. Journal of Dental Research 66, 1120–1127.Google Scholar

215Reynolds, E. C. & Black, C. L. (1987). Reduction of chocolate's cariogenicity by supplementation with sodium caseinate. Caries Research 21, 445–451.Google Scholar

216Reynolds, E. C. & Black, C. L. (1989). Cariogenicity of a confection supplemented with sodium caseinate at a palatable level. Caries Research 23, 368–370.Google Scholar

217Reynolds, E. C. & Johnson, I. H. (1981). Effect of milk on caries incidence and bacterial composition of dental plaque in the rat. Archives of Oral Biology 26, 445–451.Google Scholar

218Richardson, A. S., Hole, L. W., McCombie, F. & Kolthammer, J. (1972). Anticariogenic effect of di-calcium phosphate dihydrate chewing gum. Journal of the Canadian Dental Association 38, 213–218.Google Scholar

219Rugarabaum, P., Frencken, J. E., Amuli, J. A. D. & Lihepa, A. (1990). Caries experience amongst 12- and 15-year-old Tanzanian children residing on a sugar estate. Community Dental Health 7, 53–58.Google Scholar

220Rugg-Gunn, A. J. (1993). Nutrition and Dental Health. Oxford: Oxford Medical Publications.Google Scholar

221Rugg-Gunn, A. J., Edgar, W. M., Geddes, D. A. M. & Jenkins, G. N. (1975). The effect of different meal patterns upon plaque pH in human subjects. British Dental Journal 139, 351–356.Google Scholar

222Rugg-Gunn, A. J., Edgar, W. M. & Jenkins, G. N. (1978). The effect of eating some British snacks upon the pH of human dental plaque. British Dental Journal 145, 95–100.Google Scholar

223Rugg-Gunn, A. J., Edgar, W. M., Jenkins, G. N. & Cockburn, M. A. (1976). Plaque F and plaque acid production in children drinking milk fluoridated to 1 and 5 p.p.m. Journal of Dental Research 55, D143 (Abstr.)Google Scholar

224Rugg-Gunn, A. J., Hackett, A. F. & Appleton, D. R. (1987). Relative cariogenicity of starch and sugars in a two year longitudinal study of 405 English school-children. Caries Research 21, 464–473.Google Scholar

225Rugg-Gunn, A. J., Hackett, A. F., Appleton, D. R., Jenkins, G. N. & Eastoe, J. E. (1984). Relationship between dietary habits and caries increment assessed over two years in 405 English adolescent schoolchildren. Archives of Oral Biology 29, 983–992.Google Scholar

226Rugg-Gunn, A. J., Roberts, G. J. & Wright, W. G. (1985). The effect of human milk on plaque pH in situ and enamel dissolution in vitro compared with bovine milk, lactose and sucrose. Caries Research 19, 327–334.Google Scholar

227Rusoff, L. L., Konikoff, B. S., Frye, J. B., Johnston, J. E. & Frye, W. W. (1962). Fluoride addition to milk and its effect on dental caries in school children. American Journal of Clinical Nutrition 11, 94–101.Google Scholar

228Russell, A. L. (1963). International nutrition surveys: a summary of preliminary dental findings. Journal of Dental Research 42, 233–244.Google Scholar

229Russell, A. L., Littleton, N. W., Leatherwood, E. C., Sydow, G. E. & Greene, J. C. (1960). Dental surveys in relation to nutrition. Public Health Reports 75, 717–723.Google Scholar

230Russell, R. R. B., Aduse-Opoku, J., Sutcliffe, I. C., Tao, L. & Ferretti, J. J. (1992). A binding protein-dependent transport system in Streptococcus mutans responsible for multiple sugar metabolism. Journal of Biological Chemistry 267, 4631–4637.Google Scholar

231Sandstrom, B. & Lindqvist, L. W. (1987). The effect of different prosthetic restorations on the dietary selection of edentulous patients. Acta Odontologica Scandinavica 45, 423–428.Google Scholar

232Sarnat, H., Eliaz, R., Feiman, G., Flexer, Z., Karp, M. & Laron, Z. (1985). Carbohydrate consumption and oral status of diabetic and non-diabetic young adolescents. Clinical and Preventive Dentistry 7, 20–23.Google Scholar

233Sato, Y., Minagi, S., Akagawa, Y. & Nagasawa, T. (1989). An evaluation of chewing function of complete denture wearers. Journal of Prosthetic Dentistry 62, 50–53.Google Scholar

234Schamschula, R. G., Adkins, B. L., Barmes, D. E., Charlton, G. & Davey, B. G. (1978). WHO Study of Dental Caries Etiology in Papua New Guinea. WHO Publication no. 40.Google Scholar

235Scheinin, A. (1979). Influence of the diagnostic level on caries incidence in two controlled clinical trials. Caries Research 13, 91 (Abstr. 20).Google Scholar

236Scheinin, A. & Mäkinen, K. K. (1975). Turku sugar studies I-XXI. Acta Odontologica Scandinavica 33, Suppl. 70, 1–139.Google Scholar

237Schemmel, R. A., Krohn-Lutz, K., Lynch, P. & Kabara, J. J. (1982). Influence of dietary disaccharides on mouth microorganisms and experimental dental caries in rats. Archives of Oral Biology 27, 435–441.Google Scholar

238Schmid, R., Cleaton-Jones, P. & Lutz, F. (1987). Cariogenicity of uncooked and cooked traditional African foodstuffs in rats. Caries Research 21, 339–345.Google Scholar

239s'Gravenmade, E. J. & Jenkins, G. N. (1986). Isolation, purification and some properties of a potential cariostatic factor in cocoa that lowers enamel solubility. Caries Research 20, 433–436.Google Scholar

240Shannon, I. L. & Gibson, W. A. (1965). Intravenous ascorbic acid loading in subjects classified as to periodontal status. Journal of Dental Research 44, 355–361.Google Scholar

241Shaw, J. H. (1962). The relation of nutrition to periodontal disease. Journal of Dental Research 41, (Suppl.) 264–274.Google Scholar

242Shaw, J. H. (1979). Changing food habits and our need for evaluation of the cariogenic potential of foods and confections. Pediatric Dentistry 1, 192–198.Google Scholar

243Shaw, J. H. (1980). Influences of sodium, calcium and magnesium trimetaphosphates on dental caries activity in the rat. Journal of Dental Research 59, 644–650.Google Scholar

244Shaw, J. H. (1983). Sugar and caries. 6. Evidence from experimental animal research. Journal of Dentistry 11, 209–213.Google Scholar

245Shaw, J. H., Ensfield, B. J. & Wollman, D. H. (1959). Studies on the relation of dairy products to dental caries in caries-susceptible rats. Journal of Nutrition 67, 253–273.Google Scholar

246Sidi, A. D. & Ashley, F. P. (1984). Influence of frequent sugar intakes on experimental gingivitis. Journal of Periodontology 55, 419–423.Google Scholar

247Silva, M. F.de A., Jenkins, G. N., Burgess, R. C. & Sandham, H. J. (1986). Effects of cheese on experimental caries in human subjects. Caries Research 20, 263–269.Google Scholar

248Silverstein, S. J., Knapp, J. F., Kircos, L. & Edwards, H. (1983). Dental caries prevalence in children with a diet free of refined sugar. American Journal of Public Health 73, 1196–1199.Google Scholar

249Slade, E. W., Bartuska, D., Rose, L. F. & Cohen, D. W. (1976). Vitamin E and periodontal disease. Journal of Periodontology 47, 352–354.Google Scholar

250Smith, A. J. & Shaw, L. (1987). Baby fruit juices and tooth erosion. British Dental Journal 162, 65–67.Google Scholar

251Sognnaes, R. F. (1948). Analysis of wartime reduction of dental caries in European children, with special reference to observations in Norway. American Journal of Diseases of Childhood 75, 792–821.Google Scholar

252Sperling, G., Lovelace, F., Barnes, L. L., Smith, C. A. H., Saxton, J. A. & McCay, C. M. (1955). Effect of long time feeding of whole milk diets to white rats. Journal of Nutrition 55, 399–414.Google Scholar

253Sreebny, L. M. (1982). The sugar-caries axis. International Dental Journal 32, 1–12.Google Scholar

254Sreebny, L. M. (1983). Cereal availability and dental caries. Community Dentistry and Oral Epidemiology 11, 148–155.Google Scholar

255Stephan, R. M. (1940). Changes in hydrogen ion concentration on tooth surfaces and in carious lesions. Journal of the American Dental Association 27, 718–723.Google Scholar

256Stephen, K. W., Boyle, I. T., Campbell, D., McNee, S. & Boyle, P. (1984). Five-year double-blind fluoridated milk study in Scotland. Community Dentistry and Oral Epidemiology 12, 223–229.Google Scholar

257Stephen, K. W., Boyle, I. T., Campbell, D., McNee, S., Fyffe, J. A., Jenkins, A. S. & Boyle, P. (1981). A 4-year double-blind fluoridated school milk study in a vitamin-D deficient area. British Dental Journal 151, 287–292.Google Scholar

258Sterkey, G., Kjellman, O., Högberg, O. & Löfroth, A.-L. (1971). Dietary composition and dental disease in adolescent diabetics. Acta Paediatrica Scandinavica 60, 461–464.CrossRefGoogle Scholar

259Stralfors, A. (1966). Inhibition of hamster caries by cocoa. Archives of Oral Biology 11, 232–238.Google Scholar

260Sundin, B., Birkhed, D. & Granath, L. (1983). Is there not a strong relationship nowadays between caries and consumption of sweets? Swedish Dental Journal 7, 103–108.Google Scholar

261Sweeney, E. A., Saffir, A. J. & de Leon, R. (1971). Linear hypoplasia of deciduous incisor teeth in malnourished children. American Journal of Clinical Nutrition 24, 29–31.Google Scholar

262Takahashi, K. (1961). Statistical study on caries incidence in the first molar in relation to the amount of sugar consumption. Bulletin of the Tokyo Dental College 2, 44–57.Google Scholar

263Tank, G. & Storvick, C. A. (1965). Caries experience of children one- to six-years old in two Oregon communities (Corvallis and Albany). III. Relation of diet to variation of dental caries. Journal of the American Dental Association 70, 394–403.Google Scholar

264Tanzer, J. M. & Slee, A. M. (1983). Saccharin inhibits tooth decay in laboratory models. Journal of the American Dental Association 106, 331–333.Google Scholar

265Tavares, M., De Paola, P., Soparkar, P. & Joshipura, K. (1991). The prevalence of root caries in a diabetic population. Journal of Dental Research 70, 979–983.Google Scholar

266Tehrani, A., Brudevold, F., Attarzadeh, F., van Houte, J. & Russo, J. (1983). Enamel demineralization by mouthrinses containing different concentrations of sucrose. Journal of Dental Research 62, 1216–1217.Google Scholar

267Thompson, M. E., Dever, J. G. & Pearce, E. I. F. (1984). Intra-oral testing of flavoured sweetened milk. New Zealand Dental Journal 80, 44–46.Google Scholar

268Tomlinson, T. H. (1939). Oral pathology in monkeys in various experimental dietary deficiencies. Public Health Reports 54, 431–439.Google Scholar

269Toth, K. (1976). A study of 8 years domestic salt fluoridation for prevention of caries. Community Dentistry and Oral Epidemiology 4, 106–110.Google Scholar

270van Herpen, B. P. J. M. & Arends, J. (1986). Influence of the composition frequency of filled chocolate products on the demineralization of human enamel in vivo. A microhardness and microradiographic investigation. Caries Research 20, 529–533.Google Scholar

271van Houte, J. & Duchin, S. (1975). Streptococcus mutans in the mouths of children with congenital sucrase deficiency. Archives of Oral Biology 20, 771–773.Google Scholar

272Villa, A., Guerrero, S., Cisternas, P. & Monckeberg, F. (1989). Fluoride bio-availability from disodium monofluorophosphate fluoridated milk in children and rats. Caries Research 23, 179–183.Google Scholar

273Vogel, R. I. (1977). Gingival hyperplasia and folic acid deficiency from anti-convulsive drug therapy: a theoretical relationship. Journal of Theoretical Biology 67, 269–278.Google Scholar

274Vogel, R. I. & Deasy, M. (1978). The effect of folic acid on experimentally produced gingivitis. Journal of Preventive Dentistry 5, 30–32.Google Scholar

275Vogel, R. I., Fink, R., Frank, O. & Baker, H. (1978). The effect of topical applications of folic acid on gingival health. Journal of Oral Medicine 33, 20–22.Google Scholar

276Waerhaug, J. (1967). Prevalence of periodontal disease in Ceylon. Acta Odontologica Scandinavica 25, 205–231.Google Scholar

277Walls, A. W. G. & Donachie, M. A. (1995). The dental status of a sample of the aging population in Newcastle upon Tyne, England. British Dental Journal (in press).Google Scholar

278Weiss, S. J. (1989). Tissue destruction by neutrophils. New England Journal of Medicine 320, 365–376.Google Scholar

279Wespi-Eggenberger, H. J. (1948). [Observations on optimum nutrition in pregnancy. Salt and bread as vehicles of dietary supplements.] Schweizerische Medizinische Wochenschrift 78, 153–155.Google Scholar

280Whiting, G. C., Sutcliffe, I. C. & Russell, R. R. B. (1993). Metabolism of polysaccharides by the Streptococcus mutans dexB gene product. Journal of General Microbiology 139, 2019–2026.Google Scholar

281WHO/FDI (1985). Report of a Working Group convened jointly by the FDI and the WHO: changing patterns of oral health and implications for oral health manpower, part 1. International Dental Journal 35, 235–251.Google Scholar

282Woodward, M. & Walker, A. R. P. (1994). Sugar consumption and dental caries: evidence from 90 countries. British Dental Journal 176, 297–302.Google Scholar

283Zahlaka, M., Mitri, O., Munder, H., Mann, J., Kaldavi, A., Galon, H. & Gedalia, I. (1987). The effect of fluoridated milk on caries in Arab children: results after 3 years. Clinical and Preventive Dentistry 9, 23–25.Google Scholar

284Ziegler, E. (1962). Milk fluoridation. Bulletin der Schweizerischen Akademie der Medizinischen Wissenschaften 18, 379–391.Google Scholar