The Structural Integrity of Recycled Aggregate Concrete Produced with Fillers and Pozzolans presents a review on the use of by-products, fillers and pozzolanic materials in the development of concrete, with an emphasis on structural integrity. The volume is broken down into key sections, including a review of the types of materials that are used as latent hydraulic supplements, fillers and pozzolans for making recycled aggregate concrete, rheology and hydration phenomenon, the mechanical and microscale nature of concrete, and the impact of fillers and pozzolans on the workability of concrete with case studies. Durability and strength development are also discussed.
The final section looks at issues such as performance effect, LCA, environmental impact, sustainability and cost benefit analysis. With detailed case studies throughout, this volume will provide useful information for all stakeholders involved in the built environment, including materials scientists, civil engineers, builders, architects and policymakers.
1. The Structural Integrity of Recycled Aggregate Concrete Produced With Fillers and Pozzolans - p. i 2. Cover - p. i 3. Title Page - p. i 4. Copyright - p. iv 5. Table of Contents - p. iv 6. List of Contributors - p. xv 7. Preface - p. xix 8. 1 The use of foundry sand for recycled aggregate concrete - p. 3 9. 2 Influence of fly ash in physical and mechanical properties of recycled aggregate concrete - p. 25 10. 3 Use of recycled fines from waste concrete as an admixture in new concrete - p. 39 11. 4 Use of agro-industrial waste as a filler for structural reinforcement mortars - p. 67 12. 5 Colemanite filler from wastes in recycled concrete - p. 79 13. 6 Fillers and additions from industrial waste for recycled aggregate concrete - p. 105 14. 7 The use of slags in recycled aggregate concrete - p. 145 15. 8 The use of rice husk ash in eco-concrete - p. 171 16. 9 Specialized concrete made of processed biomass ash: lightweight, self-compacting, and geopolymeric concrete - p. 199 17. 10 Mineralogy and interfacial transition zone features of recycled aggregate concrete - p. 243 18. 11 Water requirement for recycled concrete - p. 253 19. 12 Mechanical properties of recycled aggregate concrete with bottom ash additions - p. 275 20. 13 Macroscopic mechanical characterization of self-compacting recycled concrete mixed with natural lime filler - p. 303 21. 14 Shear strength assessment of reinforced recycled aggregate concrete member - p. 323 22. 15 Upcycling CO2 for enhanced performance of recycled aggregate concrete and modeling of properties - p. 349 23. 16 Properties of recycled aggregate concrete designed with equivalent mortar volume method - p. 365 24. 17 Bending behavior of ecological fiber reinforced concrete - p. 383 25. 18 A penalized regression approach to prediction of triaxial performance of recycled aggregate concrete - p. 407 26. 19 Overview on environmental impact of recycled aggregate concrete incorporating pozzolans or fillers - p. 435 27. 20 Durability assessment of recycled aggregate in concrete production - p. 445 28. Index - p. 469
The Structural Integrity of Recycled Aggregate Concrete Produced with Fillers and Pozzolans presents a review on the use of by-products, fillers and pozzolanic materials in the development of concrete, with an emphasis on structural integrity. The volume is broken down into key sections, including a review of the types of materials that are used as latent hydraulic supplements, fillers and pozzolans for making recycled aggregate concrete, rheology and hydration phenomenon, the mechanical and microscale nature of concrete, and the impact of fillers and pozzolans on the workability of concrete with case studies. Durability and strength development are also discussed.
The final section looks at issues such as performance effect, LCA, environmental impact, sustainability and cost benefit analysis. With detailed case studies throughout, this volume will provide useful information for all stakeholders involved in the built environment, including materials scientists, civil engineers, builders, architects and policymakers.
1. The Structural Integrity of Recycled Aggregate Concrete Produced With Fillers and Pozzolans - p. i 2. Cover - p. i 3. Title Page - p. i 4. Copyright - p. iv 5. Table of Contents - p. iv 6. List of Contributors - p. xv 7. Preface - p. xix 8. 1 The use of foundry sand for recycled aggregate concrete - p. 3 9. 2 Influence of fly ash in physical and mechanical properties of recycled aggregate concrete - p. 25 10. 3 Use of recycled fines from waste concrete as an admixture in new concrete - p. 39 11. 4 Use of agro-industrial waste as a filler for structural reinforcement mortars - p. 67 12. 5 Colemanite filler from wastes in recycled concrete - p. 79 13. 6 Fillers and additions from industrial waste for recycled aggregate concrete - p. 105 14. 7 The use of slags in recycled aggregate concrete - p. 145 15. 8 The use of rice husk ash in eco-concrete - p. 171 16. 9 Specialized concrete made of processed biomass ash: lightweight, self-compacting, and geopolymeric concrete - p. 199 17. 10 Mineralogy and interfacial transition zone features of recycled aggregate concrete - p. 243 18. 11 Water requirement for recycled concrete - p. 253 19. 12 Mechanical properties of recycled aggregate concrete with bottom ash additions - p. 275 20. 13 Macroscopic mechanical characterization of self-compacting recycled concrete mixed with natural lime filler - p. 303 21. 14 Shear strength assessment of reinforced recycled aggregate concrete member - p. 323 22. 15 Upcycling CO2 for enhanced performance of recycled aggregate concrete and modeling of properties - p. 349 23. 16 Properties of recycled aggregate concrete designed with equivalent mortar volume method - p. 365 24. 17 Bending behavior of ecological fiber reinforced concrete - p. 383 25. 18 A penalized regression approach to prediction of triaxial performance of recycled aggregate concrete - p. 407 26. 19 Overview on environmental impact of recycled aggregate concrete incorporating pozzolans or fillers - p. 435 27. 20 Durability assessment of recycled aggregate in concrete production - p. 445 28. Index - p. 469
