Eco-efficient Rendering Mortars Use of Recycled Materials Woodhead Publishing Series in Civil and Structural Engineering Series
Auteurs : Farinha Catarina Brazao, Jankovic Joseph, Veiga Maria Do Rosario
Eco-Efficient Rendering Mortars: Use of Recycled Materials focuses on the use of waste materials into cement-based renders, discussing the origins, treatment processes and properties of relevant wastes. The book dispels mistrust through demonstrating the technical feasibility and environmental benefits of eco-efficient rendering mortars. It considers the characteristics of different waste products, such as aggregates, fillers, binders and additions. The functional requirements of renders are also discussed alongside their impact. Finally, the title considers the lifecycle and durability of modified mortars.
This book offers robust support and clear guidance on the use of wastes as a substitute for natural aggregates and binders.
1. Mortars and sustainability 2. Rendering mortars 3. Wastes 4. Mortars with incorporation of wastes: Characteristics of fresh mortars 5. Mortars with incorporation of wastes: Mechanical behaviour 6. Mortars with incorporation of wastes: Water behaviour 7. Durability 8. Life cycle assessment 9. References
Joseph Jankovic, M.D. is Professor of Neurology, Distinguished Chair in Movement Disorders, and Founder and Director of the Parkinson's Disease Center and Movement Disorders Clinic (PDCMDC), Department of Neurology, Baylor College of Medicine, Houston, Texas. After completing his Neurology training at Columbia University, New York City, he joined the faculty of Baylor College of Medicine in 1977. Since that time he has led clinical team that focuses on the most compassionate and expert care and research on etiology, pathophysiology, and experimental therapeutics of Parkinson’s disease and related neurodegenerative and movement disorders such as tremors, dystonia, Tourette syndrome, Huntington disease, restless legs syndrome, tardive dyskinesia, and paroxysmal dyskinesias. Under the direction of Dr. Jankovic the PDCMDC has been recognized as "Center of Excellence" by the Parkinson’s Foundation, the Huntington Disease Society of America, the Tourette Association of America, and the Wilson Disease Association.
Past president of the International Parkinson and Movement Disorder Society and of the International Neurotoxin Association, Dr. Jankovic is the recipient of many awards including the American Academy of Neurology (AAN) Movement Disorders Research Award, First National Parkinson Foundation Distinguished Service Award, Huntington’s Disease Society of America Guthrie Family Humanitarian Award, Tourette Syndrome Association Lifetime Achievement Award, Dystonia Medical Research Foundation Distinguished Service Award, Benign Essential Blepharospasm Research Foundation Award, and Lifetime Achievement Award from the International Neurotoxin Association, Dr. Jankovic has
- Presents evidence supporting the use of wastes as a substitute for natural aggregates and binders
- Characterizes wastes and considers how to best incorporate different kinds of waste into renders
- Gives details on the technical efficiency and environmental impact of different waste materials on mortars
- Analyzes the impact of wastes on render performance in terms of fresh state, mechanical, water and durability
- Considers the lifecycle assessment and durability of modified mortars
Date de parution : 04-2021
Ouvrage de 264 p.
15x22.8 cm
Thèmes d’Eco-efficient Rendering Mortars :
Mots-clés :
Aggregate; binder; construction material; mortars; natural resources; wastes; Capillary pores; liquid water; modulus of elasticity; render mortar; water absorption; water vapor; Concrete; fibers; size distribution; tensile strength; waste particles; Bulk density; reference mortar; water/binder ratio; workability; Adherence strength; compressive strength; filler waste; flexural strength; natural aggregate; Absorption curves; permeability; pores; Artificial ageing; Esthetical appearance; Durability; Microcracking; Wastes incorporation; Biomass ashes; Construction and demolition waste; Environmental impacts; Life cycle assessment; Mortar