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Sustainable Structural Design for High-Performance Buildings and Infrastructures
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Exceptional design loads on buildings and structures may have different causes, including high-strain natural hazards, man-made attacks and accidents, and extreme operational conditions. All of these aspects can be critical for specific structural typologies and/or materials that are particularly sensitive. Dedicated and refined methods are thus required for design, analysis, and maintenance under structures’ expected lifetimes. Major challenges are related to the structural typology and material properties. Further issues are related to the need for the mitigation or retrofitting of existing structures, or from the optimal and safe design of innovative materials/systems. Finally, in some cases, no design recommendations are available, and thus experimental investigations can have a key role in the overall process. For this SI, we have invited scientists to focus on the recent advancements and trends in the sustainable design of high-performance buildings and structures. Special attention has been given to materials and systems, but also to buildings and infrastructures that can be subjected to extreme design loads. This can be the case of exceptional natural events or unfavorable ambient conditions. The assessment of hazard and risk associated with structures and civil infrastructure systems is important for the preservation and protection of built environments. New procedures, methods, and more precise rules for safety design and the protection of sustainable structures are, however, needed.
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Keywords
- alkali-activated mix design
- analytical model
- assessment
- beam-column joint
- beams
- beam–column joints
- capacity reduction
- Case study
- cement-based composites (CBCs)
- cloud analysis
- CLT
- CO2 emission
- composites
- compressive strength
- Concrete
- construction demolition waste
- corner joint
- Corrosion
- crack
- cultural heritage
- cyclic loading
- deep beam
- Deterioration
- displacement
- ductile walls
- Ductility
- earthquake
- embodied energy
- empirical formulations
- engineering demand parameters (EDPs)
- Eurocode 8
- FEM analysis
- ferrocement
- Finite Element (FE) numerical modelling
- finite element (FE) numerical models
- fire exposure
- fly ash
- Friction
- granulated blast-furnace slag
- green building material
- green mortar
- History of engineering & technology
- interior joint
- joint’s numerical modeling
- linear regression
- load-bearing glass
- Materials science
- Mechanical engineering & materials
- metaheuristic optimization
- modified reinforcement technique (MRT)
- non-linear incremental dynamic analyses (IDA)
- ordinary Portland cement
- palm oil fly ash
- Q-factor
- recycled ceramics
- recycled waste material
- Reinforced concrete
- Reinforcement
- seismic design
- shear capacity
- shear strength
- Stainless Steel
- stirrup
- structural glass
- support vector regression
- Technology, engineering, agriculture
- Technology: general issues
- temperature
- thermal boundaries
- thermal expansion
- thermochromic
- timber
- Waste management
- Zagreb
Links
DOI: 10.3390/books978-3-0365-4327-7Editions