Cement setting and cohesion are governed by the precipitation and growth of calcium-silicate-hydrate, through a complex evolution of microstructure. A colloidal model to describe nucleation, packing, and rigidity of calcium-silicate-hydrate aggregates is proposed. Polydispersity and particle size dependent cohesion strength combine to produce a spectrum of packing fractions and of corresponding elastic properties that can be tested against nanoindentation experiments. Implications regarding plastic deformations and reconciling current structural characterizations are discussed
The deformation of nanostructure of calcium silicate hydrate (C-S-H) in Portland cement (PC) paste u...
Despite its ubiquitous presence as binding phase in all cementitious materials, the mechanical behav...
Calcium-silicate hydrate (C–S–H) is the main binding agent in cement and concrete. It forms at the b...
Cement setting and cohesion are governed by the precipitation and growth of calcium-silicate-hydrate...
This manuscript presents a numerical model of the low-density and high-density calcium–silicate–hydr...
Abstract. The importance of microstructure in materials science rests in its ability to establish li...
Trabajo presentado al CECAM Workshop on "Aging of Engineering Materials: a Computational Approach to...
Strength and other mechanical properties of cement and concrete rely upon the formation of calcium-s...
Gels of calcium–silicate–hydrates (C–S–H) are the glue that is largely responsible for the mechanica...
International audienceCement is the most produced material in the world. A major player in greenhous...
Calcium-silicate hydrate (C–S–H) is the main binding agent in cement and concrete. It forms at the b...
We study the aggregation of calcium silicate hydrate nanoplatelets on a surface by means of Monte Ca...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Civil and Environmental Enginee...
Mechanical behavior of concrete crucially depends on cement hydrates, the "glue" of cement. The desi...
Calcium-silicate-hydrate (C-S-H), the main binding phase in cementitious materials, possesses a comp...
The deformation of nanostructure of calcium silicate hydrate (C-S-H) in Portland cement (PC) paste u...
Despite its ubiquitous presence as binding phase in all cementitious materials, the mechanical behav...
Calcium-silicate hydrate (C–S–H) is the main binding agent in cement and concrete. It forms at the b...
Cement setting and cohesion are governed by the precipitation and growth of calcium-silicate-hydrate...
This manuscript presents a numerical model of the low-density and high-density calcium–silicate–hydr...
Abstract. The importance of microstructure in materials science rests in its ability to establish li...
Trabajo presentado al CECAM Workshop on "Aging of Engineering Materials: a Computational Approach to...
Strength and other mechanical properties of cement and concrete rely upon the formation of calcium-s...
Gels of calcium–silicate–hydrates (C–S–H) are the glue that is largely responsible for the mechanica...
International audienceCement is the most produced material in the world. A major player in greenhous...
Calcium-silicate hydrate (C–S–H) is the main binding agent in cement and concrete. It forms at the b...
We study the aggregation of calcium silicate hydrate nanoplatelets on a surface by means of Monte Ca...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Civil and Environmental Enginee...
Mechanical behavior of concrete crucially depends on cement hydrates, the "glue" of cement. The desi...
Calcium-silicate-hydrate (C-S-H), the main binding phase in cementitious materials, possesses a comp...
The deformation of nanostructure of calcium silicate hydrate (C-S-H) in Portland cement (PC) paste u...
Despite its ubiquitous presence as binding phase in all cementitious materials, the mechanical behav...
Calcium-silicate hydrate (C–S–H) is the main binding agent in cement and concrete. It forms at the b...