Adeyemi Adesina is a research associate at the University of Windsor and a Sustainability Consultant where his research revolves around the sustainability and performance improvement of various cementitious materials. He received his BEng from the University of Iloran, Nigeria in 2012 and then went on to receive his Master’s in 2016 from Concordia University in Montreal. In April 2022 he was awarded his PhD in Civil and Environmental Engineering from the University of Windsor in Ontario. His extensive research has resulted in various practical applications which have helped various construction companies to improve the sustainability and performance of their construction materials. Dr. Adesina has active collaborators in more than 12 countries on different continents which has resulted in carrying out research that has both local and global impacts. Dr. Adesina has also published more than 100 technical papers in various top journals including chapters in books published by Elsevier and Springer. Dr. Adesina is also a technical committee member of ACI committee 301 on Concrete Sustainability and RILEM TC 294 on Mechanical Properties of Alkali-activated Concrete.

• Introduction Partial Replacement of Portland Cement1. Use of Industrial Wastes2. Use of Agricultural Wastes3. Use of Locally Sourced Non-Waste MaterialsTotal Replacement of Portland Cement4. Use of Industrial Wastes without Activator5. Sustainable Alternatives to Portland Cement6. Overview of Alkali-activated Materials7. Use of Industrial Wastes as Precursor8. Use of Agricultural Wastes as Precursors9. Use of Natural Materials as Precursors10. Use of Sustainable Activators in AAMs11. Impact of Precursor and Activator type onSustainability Use of Waste Products as Aggregates12. Use of Industrial Wastes13. Use of Agricultural Wastes14. Use of Construction and Demolition Wastes15. Challenges with the use of waste products as aggregate16. Performance Enhancement of Waste Products Used as Aggregate17. Use of Locally Sourced Non-Waste MaterialsUse of Waste Products as Reinforcement18. Agricultural Wastes19. Industrial Wastes20. Natural Materials21. Hybrid Wastes as Reinforcement22. Improvement/Treatment of Wastes Used as ReinforcementLife Cycle Assessment of Sustainable Cementitious Materials23. Methods to evaluate the Life Cycle Assessment of Sustainable Cementitious Materials24. Challenges with the Life Cycle Assessment of Sustainable Cementitious MaterialsNumerical analysis and Prediction of Sustainable Cementitious Materials Properties25. Application of Artificial Intelligence: Challenges and Opportunities26. Numerical methods to Predict and Optimize Properties of Sustainable Cementitious Materials27. Use of Artificial Intelligence to Predict Properties of Sustainable Cementitious Materials28. Optimization and Modelling of Alkali-activated MaterialsCase Studies and Practical Applications of Sustainable Cementitious Materials29. Practical Applications of High-volume Industrial Wastes in Cementitious Materials30. Global Examples of Use of Alkali-activated Materials31. Long term Performance of Sustainable Cementitious Materials