E. Guillon, F. Benboudjema, M. Moranville (2004). "Modelling the Mechanical Evolution of a Chemically Degraded Cement Paste at the Microstructure Scale.." In Proceedings of FraMCoS 5, Vail, Colorado, USA.
E. Guillon, F. Benboudjema, M. Moranville. "Modelling the Mechanical Evolution of a Chemically Degraded Cement Paste at the Microstructure Scale.." Paper presented at FraMCoS 5, Vail, Colorado, USA, 2004.
E. Guillon, F. Benboudjema, M. Moranville, "Modelling the Mechanical Evolution of a Chemically Degraded Cement Paste at the Microstructure Scale.," in Proc. FraMCoS 5, Vail, Colorado, USA, 2004.
@inproceedings{e-guillon2004,
title = {Modelling the Mechanical Evolution of a Chemically Degraded Cement Paste at the Microstructure Scale.},
author = {E. Guillon, F. Benboudjema, M. Moranville},
year = {2004},
booktitle = {Proceedings of FraMCoS 5},
address = {Vail, Colorado, USA},
}
TY - CPAPER
TI - Modelling the Mechanical Evolution of a Chemically Degraded Cement Paste at the Microstructure Scale.
AU - E. Guillon
AU - F. Benboudjema
AU - M. Moranville
PY - 2004
T2 - Proceedings of FraMCoS 5
CY - Vail, Colorado, USA
UR - https://framcos.org/wp-content/uploads/framcos-papers/Modelling_the_Mechanical_Evolution_of_a_Chemically_Degraded_Cement_Paste_at_the.pdf
AB - Cement-based materials in aqueous environments are subjected to evolutions that concern both the solid skeleton and the pore solution of the cement paste. Moreover these two elements strongly interact themselves. A physico-chemical approach is developed to represent these interactions within a cement paste. A finite-element model supplements this approach and evaluates mechanical properties of a chemically degraded cement paste. This approach is successfully applied to a pure water leaching and represents its influence on the Young modulus of a cement paste.
ER -
