Reprint

Numerical and Experimental Analysis of Advanced Concrete Materials

Edited by
September 2023
268 pages
  • ISBN978-3-0365-8396-9 (Hardback)
  • ISBN978-3-0365-8397-6 (PDF)

This book is a reprint of the Special Issue Numerical and Experimental Analysis of Advanced Concrete Materials that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

In modern engineering practice, more different types of concrete structures are used. Current applications in the construction of modern structures, or applications in the strengthening and reinforcement of existing structures, require the analysis of structures of different material properties and shapes exposed to different types of loads such as quasi-static, dynamic, cyclic, impact or seismic. In practice, several experimental tests exist that provide new insights into concrete as a material at the micro, mezzo, and macro levels. These results significantly increase knowledge about the behavior of concrete as a material. Such tests are expensive, but their significance lies in the possibility of implementing material behavior in new numerical models. The development of new numerical models can simulate the behavior of concrete as a building material with improved properties due to a new type of aggregate, some chemical composition, etc. Also numerical models can simulate the behavior of concrete structures whose load capacity can be increased form of fastening. This special issue collected and presented experimental results as well as new numerical simulations of the behavior of concrete as a material and concrete structures. A thorough understanding, which processes affect the reduction of strength and the formation of cracks in concrete, is key to the analysis of existing materials and design of improved innovative materials of concrete and concrete structures.

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
nylon 66; silica; electrospun nanofibers; cement; mechanical strength; microstructure; industrial floors; road pavements; fiber-reinforced concrete; polypropylene fiber; steel fiber; frost resistance; corrosion resistance; non-autoclaved aerated concrete; thermal conductivity; COMSOL simulation; pore size distribution; image-based analysis; spodumene tailings; cemented tailing backfill; hydration heat; X-ray diffraction; scanning electron microscope; basalt fiber reinforced concrete; residual flexural strength; modal test; damping ratio; dynamic modulus of elasticity; CFRP; high-performance concrete; brittle failure; reinforced concrete slab; retrofit; formwork; pressure; self-compacting concrete; parameters; ultimate stress; concrete; strain rate; Kolsky method; identification; behavior model; fracture energy; fly ash-metakaolin; geopolymer; Ca(OH)2; carbonization resistance; modification study; carbon-reinforced concrete; bond behavior; tensile test; braided rods; bond test; profiled roving; non-metallic reinforcement; steel slag; solid wastes; compressive strength; hydration; microstructure; carbon-reinforced concrete; bond behavior; bond simulation; profiled rovings; pullout test; 3D scan; concrete; sustainable concrete; coconut shell; natural coarse aggregate; compressive strength; lightweight structures; bubble deck concrete slabs; numerical homogenization; weight minimization; sequential quadratic programming; model concrete; small-scale physical test; α-gypsum plaster; hydration; mechanical strength; prediction model