Research of concrete creep at early age under compressive and tensile stresses
 
 
More details
Hide details
1
Politechnika Krakowska, Kraków
 
 
Publication date: 2016-03-01
 
 
Cement Wapno Beton 21(2) 65-78 (2016)
 
 
REFERENCES (27)
1.
M. Emborg, Development of Mechanical Behavior at Early Age, Rilem Report 15, Edited by R. Springenschmid, p. 76, London 1998.
 
2.
H. Morimoto, W. Koyangi, Estimation of stresses relaxation in concrete at early ages, Thermal Cracking in concrete at Early Age, Proceeding of the RILEM International Symposium, edited by R. Springenschmid, E and FN Spon, p. 95, London 1995.
 
3.
H. Umhera, T. Uehara, T. Iisaka, A. Sugiyama, Effect of creep in concrete at early age on thermal stresses, Thermal Cracking in concrete at Early Age, Proceeding of the RILEM International Symposium, edited by R. Springenschmid, E and FN Spon, p. 79, London 1995.
 
4.
G. Westman, Basic creep and relaxation of young concrete, Thermal Cracking in concrete at Early Age, Proceeding of the RILEM International Symposium, edited by R. Springenschmid, E and FN Spon, p. 87, London 199.
 
5.
Z. P. Bažant, S. S. Kim, Nonlinear creep of concrete – adoption and fl ow, J. Eng. Mech. Div., (ASCE), 105, p. 419 (1979).
 
6.
S. Ishtiaq, S. Roy, Creep Behavior and its Prediction for Normal Strength Concrete Made from Crushed Clay Bricks as Coarse Aggregate. Journal of Materials in Civil Engineering ASCE, March, p. 308 (2012).
 
7.
P. Paulini, N. Gratl, Stiffness formation of early age concrete, Thermal Cracking in concrete at Early Age, Proceeding of the RILEM International Symposium, edited by R. Springenschmid, E and FN Spon, p. 63, London 1995.
 
8.
H. Ohshita, Y. Ishikawa, T. Tanabe, Creep mechanism of early age concrete modelling with two phase porous material, p. 465, RILEM Proceedings, no. 22, 1993.
 
9.
K. van Breugel, Relaxation of young concrete. Department of Structural Concrete, Faculty of Civil Engineering, Delft University of Technology, Research Report 5-80-D8, p. 140, Delft 1980.
 
10.
W. Kiernożycki, Betonowe konstrukcje masywne, Polski Cement, Kraków 2003.
 
11.
A. Gutsch, F. S. Rostásy, Young concrete under high tensile stresses – creep, relaxation and cracking, Thermal Cracking in concrete at Early Age, Proceeding of the RILEM International Symposium, edited by R. Springenschmid, E and FN Spon, p. 111, London 1995.
 
12.
M. Laube, Werkstoffmodell zur Berechnung von Temperaturspannungen in massigen Betonbauteilen im jungen Alter, Universität Braunschweig, Doctoral Thesis, p. 251, 1990.
 
13.
Eurocode 2, Design of concrete structures – Part 1-1, General rules and rules for buildings, p. 205, September 2008.
 
14.
Z. P. Bažant, J. C. Chern, Triple Power Law for concrete creep, J. Eng. Mat., 3, 4, 63 (1985).
 
15.
M. Emborg, Thermal stresses in concrete structures at early ages, Division of Structural Engineering, Lulea University of Technology, Doctoral Thesis, p. 280, 1989.
 
16.
R. A. Dameron, R.S.Dunham, R. J. James and Y. R. Rashid, Constitutive Modeling of Early time effects in concrete, p. 459.
 
17.
S. J. Lokhorst, K. van Breugel, From microstructural development towards prediction of macro stresses in hardening concrete, Thermal Cracking in concrete at Early Age, Proceeding of the RILEM International Symposium, edited by R. Springenschmid, E and FN Spon, p. 111, London 1995.
 
18.
F. S. Rostásy, A. Gutsch, M. Laube, Creep and relaxation of concrete at early ages – experiments and mathematical modelling, in creep and shrinkage of concrete, 5-th Rilem Symposium, Barcelona, p. 453, 1993.
 
19.
A. Al-Manaseer, J. P. Lam, Statistical evaluation of shrinkage and creep models, ACI Materials Journal, 102, 3, 170 (2005).
 
20.
R. Goel, R. Kumar, D. Paul, Comparative Study of Various Creep and Shrinkage Prediction Models for Concrete, Journal of Materials in Civil Engineering ASCE, 19, 3, 249 (2007).
 
21.
A. Salah, D. A. Lange, Tensile Basic Creep: Measurements and Behavior at Early Age. ACI Materials Journal, 98, 5, 386 (2001).
 
22.
M. Zych, Studium przypadku wzrostu właściwości mechanicznych betonu w oparciu o pomiary temperatury, Cement Wapno Beton, 82, 6, 383-392 (2015).
 
23.
S. Bernander, S. Gustafsson, Egenspänningar i ung betong p g a temperaturförloppet under hydrationen (Temperature stresses in early age concrete due to hydration. In Swedish with English Summary). Nordisk Betong, nr 2, s. 25-31, Stockholm 1987.
 
24.
P. L. Domone, Uniaxial tensile creep and failure of concrete, Magazine of Concrete Research, 26, 88, 144 (1974).
 
25.
Z. P. Bažant, L. Panula, Part II: Basic creep, Materiaux et Constructions, 11, 65, 317 (1978).
 
26.
Eurocode 2, Design of concrete structures – Part 3, Liquid retaining and containment structures, Brussels, p. 22, November 2008.
 
27.
British Standards Institution, “Design of concrete structures for retaining aqueous liquids”, fi rst ed., BS 8007, London, Great Britain 1987.
 
ISSN:1425-8129
Journals System - logo
Scroll to top