Reprint

Life-Cycle Performance of Green Cementitious Composites under Complex Environmental Conditions

Edited by
September 2024
238 pages
  • ISBN978-3-7258-2088-7 (Hardback)
  • ISBN978-3-7258-2087-0 (PDF)
https://doi.org/10.3390/books978-3-7258-2087-0 (registering)

Print copies available soon

This is a Reprint of the Special Issue Life-Cycle Performance of Green Cementitious Composites under Complex Environmental Conditions that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

Green composites aiming to find ecofriendly ingredients and save natural resources have been widely investigated for years using agricultural and industrial wastes and by-products, natural biomaterials, etc. Besides the basic mechanical performance of green composites, the life-cycle performance of green composites under single/multiple environmental conditions should also be worthy of attention, since green ingredients sometimes reduce the durability performance of green composites, especially under fire/high temperatures, freeze–thaw cycling, dry–wet cycling, and salt corrosion. The aim of this Special Issue was to publish papers that advance the life-cycle performance of green composites under complex environmental conditions.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
anchorage device; prestressed Glulam beam; finite element method; stiffness; bearing capacity; coal gangue; green concrete; coarse aggregate; structural member; eco-friendly production; 3D RC frame; progressive collapse; corner column removal; calculation for resistance; flexural action; compressive arch action; ceramsite concrete; lightweight concrete wall panels; density; compressive strength; ultrasonic pulse velocity; quantitative study; recycled fine aggregate concrete; impermeability; drying shrinkage; chloride penetration resistance; carbonation resistance; acid resistance; resistance to freeze–thaw cycles; EPS concrete; fiber-reinforced concrete; orthogonal experimental design; mechanical properties; microstructures; digital image correlation (DIC); natural fiber-reinforced concrete; pine needle fiber; crack detection and quantification; damage evolution factor; compression damage process; sulfate corrosion; freeze-thaw cycle; alternation effect; CFST pier column; hysteretic behavior; steel fiber-reinforced recycled concrete; macromechanical properties; microstructure; interface transition zone; glulam continuous beam; long-term; creep; deformation coefficient; prestress; dilation property of concrete in active confinement; secant strain ratio; lateral–axial strain relationship; mesoscale model of concrete; pervious concrete; basalt fiber; strength; permeability; mesostructure; rheological engineering slurry; thixotropic characterization; rheological model; accumulation model; agricultural waste; coarse aggregate; elevated temperature; modified concrete; stress–strain relationships

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