scispace - formally typeset
Search or ask a question

What are some common materials used in sustainable construction? 


Best insight from top research papers

Common materials used in sustainable construction include cement substitutes like Fly Ash, GGBFS, silica fume, and metakaolin, which reduce CO2 emissions. Additionally, sustainable construction materials encompass alkali-activated materials, calcium sulfoaluminate (CSA) cement, and limestone calcined clay cement (LC3). Recycled aggregate concrete (RAC) from construction and demolition waste (CDW) is another essential material, utilizing debris from buildings, roads, and bridges to reduce landfill waste. Sustainable materials are crucial in various sectors like engineering, architecture, agriculture, aerospace, healthcare, and green technology, offering versatility, affordability, and eco-friendliness. The extraction and use of construction materials like sand, gravel, lime, and stone are vital for infrastructure development but must be managed sustainably to align with the United Nations Sustainable Development Goals (UN-SDGs).

Answers from top 5 papers

More filters
Papers (5)Insight
Common materials used in sustainable construction include sand, gravel, murram, lime, gypsum, and stone. Recycling construction debris and reusing mine tailings are also explored for sustainability.
Common materials used in sustainable construction include green materials like bioethanol, biodiesel, and energy sources. Sustainability in construction engineering involves maintenance, rehabilitation, planning, and management of buildings.
Common materials in sustainable construction include recycled coarse and fine aggregates from known concrete debris, reducing the need for virgin materials and minimizing landfill waste.
Common sustainable construction materials include alkali-activated materials, calcium sulfoaluminate (CSA) cement, and limestone calcined clay cement (LC3), along with high-performance additives like nanomaterials for reduced environmental impact.
Common materials used in sustainable construction include GGBFS, Fly Ash, silica fume, and metakaolin, which can substitute cement, reduce CO2 emissions, and promote cost-effective and environmentally friendly practices.

Related Questions

What are eco-friendly materials used in construction?5 answersEco-friendly materials used in construction include Compressed Stabilized Earth Blocks (CSEBs), which are manufactured without burning fuels, reducing carbon emissions and embodied energy. Additionally, eco-concrete incorporating waste products like fly ash and fibers can improve the environmental sustainability of buildings. Furthermore, the use of alkaline activators with waste materials like volcanic rock and rice husk ash in clay bricks enhances thermal performance and reduces energy costs, showcasing a sustainable approach to construction. These materials not only contribute to a healthier indoor environment but also address the need for sustainable building practices, aligning with the growing demand for eco-friendly construction options.
What are the current trends and advancements in sustainable construction materials and practices?5 answersCurrent trends and advancements in sustainable construction materials and practices include the use of eco-friendly practices to mitigate environmental impact, such as green concrete and supplementary cementitious materials. New cement production methods, such as eco-cement, steel slag concrete, and municipal slag concrete, are being explored to conserve natural resources and reduce energy consumption. Advances in sustainable polymeric materials are being made, including the development of biodegradable plastics from renewable sources and the use of recycled polymeric materials in construction. Building materials, construction methods, and building regulations are being analyzed and compared to promote sustainability, with a focus on fire safety, noise safety, energy conservation, and sustainability. Additionally, new sustainable cementitious materials are being developed, including alkali-activated materials, calcium sulfoaluminate cement, and limestone calcined clay cement, to reduce the environmental impact of construction materials.
What are the alternative building materials that can be used to ensure sustainable affordable housing?4 answersAlternative building materials that can be used to ensure sustainable affordable housing include compressed earth blocks (CEB), compressed stabilized earth blocks (CSEB), interlocking stabilized soil blocks (ISSB), textile reinforced concrete (TRC), and Supplementary Cementitious Materials (SCMs) such as cassava peel ash, rice husk ash, corn cob ash, volcanic ash, and calcined clays. These materials have been studied and applied in various regions including Africa, Asia, Latin America, and India. CEB, CSEB, and ISSB have shown potential for social housing projects, while TRC offers durability, lightweight, and lower carbon footprint compared to conventional reinforced concrete structures. SCMs have the potential to reduce carbon emissions and create job opportunities in block production. Additionally, enhanced vernacular technologies with local materials, such as interlocking compressed stabilized earth brick walls and date palm midribs, have been found to significantly reduce costs and material usage in affordable housing construction.
What are some examples of architected materials that are currently being used in sustainable construction?5 answersArchitected materials that are currently being used in sustainable construction include frame reinforcement composites, fire retardant ingredients, and lattice structures. These materials offer advantages such as eco-environmental compliance, thermal and electrical integration, acoustic properties, and reduced greenhouse gas emissions. Shell metamaterials, specifically those composed of triple periodic minimal surfaces (TPMS) like the Schwarz P and Schwarz G minimal surfaces, are also being explored for their excellent stiffness, strength, and shock-absorbing properties. Additionally, lattice materials with hierarchical structures formed by "beam-based" elementary units are being studied for their multifunctionality and potential applications in heat exchangers, mechanical filters, tissue regeneration scaffolds, energy storage systems, and packaging. These materials contribute to sustainable construction by reducing environmental impacts, promoting resource preservation, and utilizing recycled materials.
How can architected materials be used to improve the sustainability of green construction?5 answersArchitected materials can be used to improve the sustainability of green construction by enhancing mechanical properties, energy dissipation, and load-carrying capacity. The use of architected materials in construction can reduce the consumption of natural resources and minimize negative impacts on the environment and wildlife. Shell metamaterials, such as triple periodic minimal surfaces, offer excellent stiffness, strength, and shock-absorbing properties, making them useful for the design of sustainable and resilient structures. Green environmental protection lightweight thermal insulation materials can be applied in construction to improve energy efficiency, reduce internal energy consumption, and promote the utilization of natural energy. Material selection plays a crucial role in realizing the goal of green buildings, and architects and engineers need access to assessment tools to assist them in selecting sustainable materials. The use of metallic architected materials with curved beams can enhance load-carrying and energy dissipation capacity, and these materials can be integrated into traditional components to create hybrid damping systems for improved energy dissipation in structures.
What are the benefits and drawbacks of different types of building materials for sustainable architecture?0 answersManfaat berbagai jenis bahan bangunan untuk arsitektur berkelanjutan termasuk efisiensi energi, keramahan lingkungan, dan kemampuan untuk melestarikan orisinalitas dan hubungan dengan aspek sejarah dan alam arsitektur. Bahan-bahan alami, seperti tanah bertabrak, memiliki keunggulan seperti ketersediaan dalam jumlah besar, konsumsi energi yang rendah untuk ekstraksi dan produksi, dan daur ulang. Mereka juga memiliki inersia termal yang tinggi dan sifat higroskopis keras. Bahan bangunan pintar, seperti kaca pintar, menawarkan transmisi cahaya dan panas yang terkontrol, menghilangkan batasan tradisional dalam menerapkan jendela dan meningkatkan kompatibilitas dengan lingkungan sekitarnya. Bahan ramah lingkungan berkontribusi pada konstruksi yang lebih berkelanjutan dan terjangkau, dengan konsumsi energi yang rendah dan kemampuan untuk didaur ulang atau digunakan kembali dengan mudah. Namun, penting untuk dicatat bahwa menggunakan bahan pintar saja mungkin tidak mencapai tujuan arsitektur berkelanjutan, dan kombinasi bahan dan fasilitas arsitektur yang sesuai dengan kebutuhan proyek diperlukan.

See what other people are reading

How to balance the embodied carbon due to retrofitted materials to trade-off or bounce back?
5 answers
To balance the embodied carbon from retrofitted materials, strategies like whole life carbon assessment, choosing bio-based materials, and promoting circular economy principles are crucial. Implementing policies that focus on reducing embodied carbon emissions in retrofits is essential, as existing buildings contribute significantly to global energy consumption and greenhouse gas emissions. Studies show that refurbishing poorly-performing buildings can be more sustainable than demolition and replacement, especially when relying on electricity as the primary fuel source. Additionally, designing buildings for future reuse and recycling, considering the circularity of components, and evaluating reversibility in building materials can help reduce the carbon footprint over a building's life cycle. By integrating these strategies and policies, it is possible to effectively trade-off and mitigate the embodied carbon impact of retrofitted materials.
What are the current trends in the production and use of clay bricks in the Philippines in 2021?
5 answers
In 2021, the Philippines witnessed a surge in sustainable construction practices and materials. The construction sector, driven by initiatives like the Build! Build! Build! program, experienced a 9.2% annual growth rate, emphasizing the need for sustainable practices to combat environmental implications. Researchers explored alternative raw materials for ceramic production, utilizing cinder as a partial or full replacement for feldspar in stoneware manufacturing, aiming to reduce import dependency and enhance sustainability. Additionally, studies focused on enhancing the mechanical and durability properties of clay bricks by incorporating waste materials like rice straw ash, showcasing positive effects on brick performance and waste management. These trends highlight a shift towards sustainable practices, resource optimization, and waste reduction in the production and use of clay-based construction materials in the Philippines in 2021.
Construction of rigid pavement using recycled corurse aggregate?
5 answers
Recycled coarse aggregates are increasingly being utilized in the construction of rigid pavements to address environmental concerns and scarcity of natural resources. Studies have shown that incorporating recycled aggregates, such as Reclaimed Asphalt Pavement (RAP) and waste concrete, in concrete mixes can enhance pavement performance. Research indicates that using recycled aggregates can slightly reduce compressive strength but still meet pavement strength standards, especially when combined with additives like zirconia silica fume (ZSF). Additionally, the use of recycled concrete aggregates (RCA) from construction and demolition waste (CDW) has been found to preserve natural resources and contribute to sustainable construction practices, with 10% RCA showing similar compressive strength to reference mixes in roller compacted concrete (RCC) applications. Overall, incorporating recycled coarse aggregates in rigid pavement construction is a promising approach for sustainable and cost-effective infrastructure development.
How does the behavior of geopolymer concrete change when exposed to elevated temperatures?
5 answers
When geopolymer concrete is exposed to elevated temperatures, its behavior undergoes significant changes. Research indicates that the mechanical properties of geopolymer composites are influenced by temperature exposure. Elevated temperatures lead to a decrease in bond stress, compressive strength, and flexural strength of geopolymer composites. Geopolymer composites exhibit better performance compared to traditional cement composites at high temperatures, showing lower mass loss, reduced cracking, and higher residual strength. The geopolymer matrix remains intact on amorphous metallic fibers even at high temperatures, contributing to the composites' enhanced properties. Additionally, the geopolymer foams based on coal gangue maintain stable mechanical properties up to 800°C, with no significant decrease in performance observed.
Behaviour of geopolymer concrete exposed to elevated temperatures ?
5 answers
Geopolymer concrete (GPC) exhibits superior performance when exposed to elevated temperatures compared to ordinary Portland cement (OPC) concrete. GPC displays better compressive strength retention, minor cracks, and limited damage up to 800°C, while OPC concrete significantly weakens above 400°C with extensive cracking. The spalling resistance of GPC is attributed to its highly connected pore structure and lower strength degradation at high temperatures. Additionally, GPC maintains its strength better under fire exposure, with minimal mass loss and reduced thermal cracking compared to OPC concrete. Studies on GPC's flexural behavior reveal a decrease in ductility with increasing temperature, impacting service load crack width predictions. Overall, GPC demonstrates promising behavior under elevated temperatures, making it a viable alternative to traditional concrete in fire-prone environments.
Why compressive strength of brick wall is conducted?
5 answers
The compressive strength of a brick wall is tested to assess its structural integrity and ability to withstand vertical loads. Various studies have been conducted to determine the compressive strength of different types of masonry walls, including those made from stabilised adobe blocks, interlocking bricks, and recycled materials like wall waste. These tests are crucial for evaluating the performance and safety of load-bearing masonry constructions. Nondestructive tests, such as using support vector machines, have been explored as efficient methods to predict compressive strength. Additionally, factors like mortar strength, unit strength, and material composition, such as the inclusion of oil in brick production, can influence the compressive strength of walls. Conducting compressive strength tests ensures that brick walls meet structural requirements and can effectively support vertical loads.
Why the concrete slump increase with the limestone addition?
5 answers
The increase in concrete slump with limestone addition can be attributed to various factors observed in the research. Limestone powder, when added to concrete mixes, has been shown to enhance the fluidity of the fresh concrete. This increase in slump flow is due to the presence of limestone providing additional nucleation sites, which slightly accelerates the reaction process. Moreover, the absorption capacity of limestone aggregates can lead to an increase in the effective water/cement ratio, affecting the workability of the concrete mix and resulting in higher slump values. Additionally, the presence of limestone powder in self-compacting concrete has been linked to increased slump flow time, further supporting the notion that limestone addition positively influences the workability of concrete mixes.
What is differences between HPC, UHPC, ECC and normal concrte?
5 answers
Ultra-High Performance Concrete (UHPC), Engineered Cementitious Composites (ECC), and High-Performance Concrete (HPC) exhibit distinct characteristics compared to normal concrete (NC). UHPC and ECC offer exceptional mechanical properties and durability, with UHPC showing superior bonding performance at interfaces. ECC, known for high deformability, aims to enhance traditional mortar properties. In contrast, HPC combines high strength and durability, offering improved performance over NC. Notably, UHPC with steel fibers and ECC with PVA fibers provide enhanced tensile strength and ductility for structural elements. Overall, UHPC, ECC, and HPC present advanced features such as high tensile toughness, corrosion resistance, and increased compressive strength, setting them apart from conventional NC.
Could a chloride ion be a base at elevated temperature?
5 answers
At elevated temperatures, chloride ions could potentially act as bases based on the data from the provided contexts. Studies on lanthanide and actinide chloro complexes have shown modest increases in stability constants for chloro complex formation at higher temperatures. Additionally, research on the influence of elevated temperatures on concrete curing has indicated that elevated temperatures can affect the resistance to chloride diffusion in concrete materials. Furthermore, investigations into the thermodynamic properties of aqueous electrolyte solutions have revealed that ion association tendencies increase with temperature, impacting the behavior of chloride ions in solution. Therefore, under specific conditions and in certain systems, chloride ions may exhibit basic characteristics at elevated temperatures.
What is the impact of Graphene oxide on the properties of 3D printed concrete?
4 answers
Graphene oxide (GO) has a significant impact on the properties of 3D printed concrete. Studies show that incorporating GO into cement-based composites enhances mechanical properties. The addition of GO improves compressive strength, with varying degrees of enhancement depending on the dosage. For instance, a GO dosage of 0.03% can lead to a 5% increase in strength, while a dosage of 0.015% can result in a more significant improvement of around 10%. Furthermore, the presence of GO promotes the hydration reaction, enhances microstructure densification, and modifies concrete properties at the molecular level, ultimately improving the overall performance of 3D printed concrete.
What is the impact of Styrene Butadiene Rubber (SBR) on the properties of 3D printed concrete?
4 answers
Styrene Butadiene Rubber (SBR) has a significant impact on the properties of concrete in various construction applications. Research shows that SBR latex emulsions, when used in concrete, enhance flexural strength, compressive strength, adhesion, and impermeability. Additionally, the incorporation of SBR latex in concrete improves impact resistance, especially against impact loads, by controlling crack opening and increasing resistance to impact strains. Moreover, SBR is utilized to enhance the low-temperature performance of plastic-modified bitumen, improving complex modulus, rutting factor, and percent recovery of bitumen, thus enhancing high-temperature performance. These findings collectively highlight the positive influence of SBR on the mechanical and performance properties of concrete and bitumen in various construction scenarios.