A Coupled Hygro-Chemo-Mechanical Damage Model for ASR-Affected Concrete

F. Bangert, G. Meschke (2004). "A Coupled Hygro-Chemo-Mechanical Damage Model for ASR-Affected Concrete." In Proceedings of FraMCoS 5, Vail, Colorado, USA.

F. Bangert, G. Meschke. "A Coupled Hygro-Chemo-Mechanical Damage Model for ASR-Affected Concrete." Paper presented at FraMCoS 5, Vail, Colorado, USA, 2004.

F. Bangert, G. Meschke, "A Coupled Hygro-Chemo-Mechanical Damage Model for ASR-Affected Concrete," in Proc. FraMCoS 5, Vail, Colorado, USA, 2004.

@inproceedings{f-bangert2004,
  title     = {A Coupled Hygro-Chemo-Mechanical Damage Model for ASR-Affected Concrete},
  author    = {F. Bangert, G. Meschke},
  year      = {2004},
  booktitle = {Proceedings of FraMCoS 5},
  address   = {Vail, Colorado, USA},
}

TY  - CPAPER
TI  - A Coupled Hygro-Chemo-Mechanical Damage Model for ASR-Affected Concrete
AU  - F. Bangert
AU  - G. Meschke
PY  - 2004
T2  - Proceedings of FraMCoS 5
CY  - Vail, Colorado, USA
UR  - https://framcos.org/wp-content/uploads/framcos-papers/A_Coupled_Hygro-Chemo-Mechanical_Damage_Model_for_ASR-Affected_Concrete.pdf
AB  - The paper presents a hygro-chemo-mechanical model for ASR affected concrete, which is based on concepts of the Theory of Porous Media. Concrete is regarded as a mixture of three main inter- acting constituents: the skeleton, the pore liquid and the pore gas. The skeleton in turn represents a binary mixture of the unreacted, unswollen and the already reacted, swollen material. When ASR takes place, mass of the unreacted material is non-instantaneously converted into mass of the reacted material. Since the un- reacted material is characterized by a smaller density, the material swells. The applicability of the model is demonstrated by…
ER  -