Factors governing the stresses appearing in the mortars of expansive cement. Part 2

B2. W. I. Babuszkin, L. P. Mokritskaja, S. P. Novikov, W. G. Zinov, A Study of Physico-Chemical Processes During Hydration and Hardening of Exspansive Cements Proc. Of the Sixth International Congress on the Chemistry of Cement Moskwa, t. III, s. 187,. Moskwa 1974.

Google Scholar

B3. A. H. Berman, E. S. Newman, “Heat of Formation of Calcium Trisulfoaluminate at 25 °C” Chemistry of Cement Proceedings of the Fourth International Simposium Washington 1960. National Bureau of Standards, t. I, s. 253-257 (1962).

Google Scholar

B4. J. Bensted, S. P. Varma, Cement Technology nr 3, 73 (1971).

Google Scholar

B5 A. Bonin, B. Cariou, 7th ICCC Paris, t III, s V-138, Paris 1980.

Google Scholar

B6. G. Bundyra-Oracz, Rozprawa doktorska, ITB (2006).

Google Scholar

B7. J. Bensted, S. P. Varma, Cement Technology nr 3, s.185 (1972).

Google Scholar

10.

C1. M. Collepardi, US Patent 4046583 (1971).

Google Scholar

11.

C2. M. D. Cohen and B. Mobascher, Cem.Concr.Res. 24, s. 267 (1991).

Google Scholar

12.

C3. B. A. Clark, P. W. Brown, Cem. Concr. Res. 30, s. 233 (2000).

Google Scholar

13.

C4. B. A. Clark, P. W. Brown, Cem. Concr. Res. 29, s. 1943 (1999).

Google Scholar

14.

C5. A. Clastres, M. Murrat, Sem. Int. Allum. Cal., s. 334, Torino (Italy) 1982.J.,V. Rudert, H-D Wihler, Part 1, ZKG Intern.49, s.432 (1996).

Google Scholar

15.

D1. K. E. Daugherty, US Patent 4002483 (1977).

Google Scholar

16.

D2. R. Dron, F. Brivot, 8th ICCC Rio de Janeiro, t V, s.115, Rio de Janeiro 1986.

Google Scholar

17.

D3. D. Damidot, F. P. Glasser, Cem. Concr. Res. 23, s.1195 (1993). E1. C. Evju, S. Hansen, Cem. Conc. Res.,31, s. 257. (2001).

Google Scholar

18.

F1. C. Famy, Expansion of Heat-Cured Moirtars, Thesis (Ph D.), University of London (1999).

Google Scholar

19.

G1. A. Guttmann, DRP Nr 330 784 z 29.01. (1920).

Google Scholar

20.

G2. J. Gebauer, Materials Science of Concrete, Calcium Hydroxide In Concrete, s. 1, ed. J. Skalny, J. Gebauer, I. Odler, The American Ceramic Society, Westerville, Ohio 2000.

Google Scholar

21.

G3. F. P. Glasser, D. Damidot, M. Atkins, Advances Cement Research nr 26, s. 57-68 (1995).

Google Scholar

22.

G4. J. Goske, H. Poellmann, R. Wenda, Beton und Stahlbeton 102, s. 321 (2007).

Google Scholar

23.

H1. W. Hansen, Cem. Concr. Res., 6, s. 595 (1976).

Google Scholar

24.

J1. K. G. Jorgensen, Silicates Ind., 26, s. 522 (1961).

Google Scholar

25.

J2. Jun-Gan Xue, Wen-Hao Chen, Xue-Li Tong, Yu-Ping Zhao, Ji-Zhi Xu, „Expansion of Sulfoaluminate under-Saturated CaO” 7th ICCC, t. III, V-3 Paris 1980.

Google Scholar

26.

K1. A. Klein, US Patent 3251701 (1966).

Google Scholar

27.

K2. W. Kurdowski, Chemia Cementu, PWN, Warszawa 1990.

Google Scholar

28.

K3. W. Kurdowski, F. Sorrentino, „Structure and Performance of Cements” (red. P.Barnes), s.471, Appl. Science Publishers, London 1983.

Google Scholar

29.

K4. W. Kurdowski, 7th ICCC Paris, t I, s V-2/1, Paris 1980.

Google Scholar

30.

K5. T. Kawano, K. Chitocja, Mori T. 6th ICCC Moskwa, t III, s.179, Moskwa 1974.

Google Scholar

31.

K6. M. Król M., Warstwy 3, s.121 (1998).

Google Scholar

32.

K7 W. Kurdowski, A. Thiel, Cement Concrete Research, 11, s.29 (1981).

Google Scholar

33.

K8. T. W. Kuzniecowa, „Aluminatnyje i sulfoaluminatnyje cementy”, Strojizdat, Moskwa 1986.

Google Scholar

34.

K9. R. Król, Cement-Wapno-Beton 5, s. 177 (1996).

Google Scholar

35.

K10. H. J. Kuzel, H. Poellmann, Cement Concrete Research, 21, s. 885 (1991).

Google Scholar

36.

K11. H. Kuhl, Zement – Chemie – Bd.3: Verl. Technik, Berlin 1961.

Google Scholar

37.

L1. F. M. Lea, The Chemistry of Cement and Concrete“ Chemical Publ., New York 1971.

Google Scholar

38.

L2 U. Ludwig, Tatigkeitsbericht des Forschungsinstituts der Zementindustrie, s. 88-82, 1969-1971.

Google Scholar

39.

L3. H. Lafuma, 3rd ICCC London, s. 581, London 1956.

Google Scholar

40.

M1. A. Moore, H. F. W. Taylor, Nature, 218, nr 5146, 1048 (1968).

Google Scholar

41.

M2. P. K. Mehta, J. Am. Ceram Soc, 56, s. 315 (1973).

Google Scholar

42.

M3. P. K. Mehta, Cem Concr Res, 3, s. 1 (1973).

Google Scholar

43.

M4. B. Mather, Cem Concr Res, s. 651 (1973).

Google Scholar

44.

M5. A. Mlonka, Cement-Wapno-Gips, nr 10-12, s. 225 (1953).

Google Scholar

45.

N1. F. Nadachowski, Materiały ogniotrwałe, Wyd. Śląsk, Katowice 1972.

Google Scholar

46.

O1. K. Ogawa, D. Roy, Cem Concr Res, 11, s. 741 (1981).

Google Scholar

47.

P1. H. W. Pollit, A. W. Brown, US Patent 3883361 (1975).

Google Scholar

48.

P2. H. Poellmann, S. Auer, H. J. Kuzel, Cem Concr Res, 23, s.422 (1993).

Google Scholar

49.

P3. H. Poellmann, H. J. Kuzel, R. Wenda, Cem Concr Res, 20, s. 941 (1990).

Google Scholar

50.

P4. H. Poellmann, 9th ICCC, t. IV, s. 363 (1992).

Google Scholar

51.

P5. H. Poellmann, H. J. Kuzel, R. N. Wenda, Jb. Min. Abh. 160,2,s.133 (1989).

Google Scholar

52.

R1. A. Rossetti, G. Chiocchio, A. E. Paolini, Cem Concr Res, 12, s.577, 667 (1982).

Google Scholar

53.

R2. W. Roszczynialski, Z. Konik, J. Małolepszy, A. Stok, Ceramika, vol. 91, 2 (2005).

Google Scholar

54.

R3. W. Roszczynialski, Z. Konik, J. Małolepszy, A. Stok, Cement Wapno Beton, 1, 177, (2006).

Google Scholar

55.

R4. M. Regourd, 1st Int. Conf. on Durability of Building Mat. Ottawa 1978.

Google Scholar

56.

R5. T. A. Rogosina, Shurn. Prikl. Chim. 30, no 11, s. 1682 (1957).

Google Scholar

57.

R6. V. Rudert, J. Chartschenko, H. –D. Wihler, Sympo. “75 Jahre Quellzement”, s. 175, Weimar 1995.

Google Scholar

58.

S1. W. Skrzyńska, Opracowanie technologii cementu ekspansywnego na bazie cementu i dolomitu. Praca IPWMB Opole. Maszynopis. Groszowice 1957.

Google Scholar

59.

S2. M. Soustelle, B. F. Cottin, 7th ICCC Paris, t IV, s.110, Paris 1980.

Google Scholar

60.

S3. A. E. Szejkin, T. J. Jakub, “Biezusadocznyj portłandcemient, s. 20, Strojizdat, Moskwa 1966.

Google Scholar

61.

S4. G. W. Sherer, Cem. Concr. Res. 29, s.1347 (1999).

Google Scholar

62.

S5. V. Satava, O. Veprek, J. Amer. Ceram. Soc. 58, nr 7-8, s. 357 (1975).

Google Scholar

63.

S6. N. N. Skoblinskaja, K. G. Krasilnikow, Cem. Concr. Res., 5, s. 381, 419 (1975).

Google Scholar

64.

S7. A. Stok, Z. Konik, J. Małolepszy, W. Roszczynialski, Sposób otrzymywania dodatków do cementu, Polskie Zgłoszenie Patentowe P-374629 (2005).

Google Scholar

65.

S8. H. E. Schwiete, U. Ludwig, J. Albreck, Zement-Kalk-Gips, 22, s. 225 (1969).

Google Scholar

66.

T1. A. Thiel, “Czynniki wpływające na zmiany objętości cementów ekspansywnych” Rozprawa doktorska, AGH Kraków 1982.

Google Scholar

67.

T2. T. Thorvaldson, 3rd ICCC London, s. 463, London 1954.

Google Scholar

68.

T3. H. F. W. Taylor, Materials Science of Concrete, Calcium Hydroxide in Concrete, s. 211, ed. J. Skalny, J. Gebauer, I. Odler, The American Ceramic Society, Westerville, Ohio 2000.

Google Scholar

69.

T4. H. F. W. Taylor, Cement Technology, s. 61, ed. E. M. Gartner and H. Uchikawa, Ceramic Transactions, vol. 40, The American Ceramic Society, Westerville, Ohio, 1994.

Google Scholar

70.

T5. A. Thiel, Opracowanie technologii wytwarzania cementu ekspansywnego, Praca IPWMB w Opolu, 1976 i 1977.

Google Scholar

71.

T6. H. F. W. Taylor, Adv. Cem. Based Mater. 1, s. 38 (1993). V1. W. Von Kronert, P. Hanser, Tonindustrie Ztg 99, s. 238 (1975).

Google Scholar

72.

W1. Wang Lan and F. P. Glasser, Adv. Cem. Res., 8, s.127 (1996).

Google Scholar

73.

W2. W. Wieker, R. Herr, H. Schubert, s. 3. ed. W. Kurdowski, Corrosion of Cement Paste, Proc. Intern. Coll. Mogilany, 16-17 Nov. 1994, Kraków, Dec. 1994.

Google Scholar

74.

X1. J. Xue, H. Chem Wen, L. Tong Xue, P. Zhao Yu, Z. Xu Ji, 7th ICCC Paris, t. III, s.V-33, Paris 1980.

Google Scholar

75.

Y1. Fu Yan, XIE Ping, GU Ping, J. J. Baudoin, Cem. Concr. Res., 24, s. 267, 1994.

Google Scholar

76.

Y2. Fu Yan, XIE Ping, GU Ping, J. J. Baudoin, Cem. Concr. Res., 31, s. 29, 1995.

Google Scholar

Submit your paper