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M. Arslan, H. Korkmaz, F. Gulay (2006)
Damage and failure pattern of prefabricated structures after major earthquakes in Turkey and shortfalls of the Turkish Earthquake codeEngineering Failure Analysis, 13
Q. Yu, P. Spiesz, H. Brouwers (2015)
Ultra-lightweight concrete: Conceptual design and performance evaluationCement & Concrete Composites, 61
A. Al-Sibahy (2012)
Thermo-mechanical behaviour of a novel lightweight concrete and its application in masonry walls
A. Kılıç, C. Atiş, Ergul Yasar, F. Özcan (2003)
High-strength lightweight concrete made with scoria aggregate containing mineral admixturesCement and Concrete Research, 33
Athika Wongkvanklom, Patcharapol Posi, Banlang Khotsopha, Chetsada Ketmala, Natdanai Pluemsud, Surasit Lertnimoolchai, P. Chindaprasirt (2018)
Structural Lightweight Concrete Containing Recycled Lightweight Concrete AggregateKSCE Journal of Civil Engineering, 22
K. Youm, J. Moon, J. Cho, Jung Kim (2016)
Experimental study on strength and durability of lightweight aggregate concrete containing silica fumeConstruction and Building Materials, 114
J. Camiletti, A. Soliman, M. Nehdi (2014)
Effect of limestone addition on early-age properties of ultra high-performance concrete, 167
M. Limbachiya (2009)
Bulk engineering and durability properties of washed glass sand concreteConstruction and Building Materials, 23
Paulo Penacho, J. Brito, M. Veiga (2014)
Physico-mechanical and performance characterization of mortars incorporating fine glass waste aggregateCement & Concrete Composites, 50
Deividas Rumšys, E. Spudulis, D. Bacinskas, G. Kaklauskas (2018)
Compressive Strength and Durability Properties of Structural Lightweight Concrete with Fine Expanded Glass and/or Clay AggregatesMaterials, 11
M. Ahmad, Bing Chen, Syed shah (2019)
Investigate the influence of expanded clay aggregate and silica fume on the properties of lightweight concreteConstruction and Building Materials
(2012)
Properties of Concrete, 5th edn
S. Bauchkar, H. Chore (2018)
Effect of PCE superplasticizers on rheological and strength properties of high strength self-consolidating concrete, 6
P. Shafigh, M. Nomeli, U. Alengaram, H. Mahmud, M. Jumaat (2016)
Engineering properties of lightweight aggregate concrete containing limestone powder and high volume fly ashJournal of Cleaner Production, 135
(1995)
Design criteria of lightweight aggregate concrete
P. Sikora, A. Augustyniak, K. Cendrowski, E. Horszczaruk, T. Rucińska, P. Nawrotek, E. Mijowska (2016)
Characterization of Mechanical and Bactericidal Properties of Cement Mortars Containing Waste Glass Aggregate and NanomaterialsMaterials, 9
(2014)
ACI 213R-14 Guide for Structural Lightweight-Aggregate Concrete; American Concrete Institute: Farmington Hills
M. Meddah, Mukesh Lmbachiya, R. Dhir (2014)
Potential use of binary and composite limestone cements in concrete productionConstruction and Building Materials, 58
M. Jayalekshmi, S. Krishnaveni (2015)
A Study of Data Storage Security Issues in Cloud ComputingIndian journal of science and technology, 8
Murat Dilli, H. Atahan, Cengiz Şengül (2015)
A comparison of strength and elastic properties between conventional and lightweight structural concretes designed with expanded clay aggregatesConstruction and Building Materials, 101
S. Tsivilis, J. Tsantilas, G. Kakali, E. Chaniotakis, A. Sakellariou (2003)
The permeability of Portland limestone cement concreteCement and Concrete Research, 33
Tilo Proske, Stefan Hainer, M. Rezvani, Carl-Alexander Graubner (2017)
Eco-Friendly Concretes With Reduced Water and Cement Content
P. Shafigh, L. Chai, H. Mahmud, M. Nomeli (2018)
A comparison study of the fresh and hardened properties of normal weight and lightweight aggregate concretesJournal of building engineering, 15
J. Bogas, A. Gomes (2013)
Compressive behavior and failure modes of structural lightweight aggregate concrete – Characterization and strength predictionMaterials & Design, 46
Bashar Taha, G. Nounu (2008)
Properties of concrete contains mixed colour waste recycled glass as sand and cement replacementConstruction and Building Materials, 22
(2000)
Precast elements of lightweight concrete with a porous matrix
(1995)
Design criteria of lightweight aggregate concrete. In: CEB/FIP international symposium on structural lightweight aggregate concrete, Sandefjord, Norway 1995:720–732
M. Elrahman, Sang-Yeop Chung, D. Stephan (2019)
Effect of different expanded aggregates on the properties of lightweight concreteMagazine of Concrete Research
(2014)
AS 1012.12.1, Methods of testing concretedetermination of mass per unit volume of hardened concrete-rapid measuring method
Fathollah Sajedi, P. Shafigh (2012)
High-Strength Lightweight Concrete Using Leca, Silica Fume, and LimestoneArabian Journal for Science and Engineering, 37
A. Lotfy, K. Hossain, M. Lachemi (2014)
Application of statistical models in proportioning lightweight self-consolidating concrete with expanded clay aggregatesConstruction and Building Materials, 65
(2005)
Structural lightweight concrete with pumice aggregate
(2014)
Methods of testing concretecompressive strength tests-concrete, mortar and grout specimens
A. Nahhab, Ali Ketab (2020)
Influence of content and maximum size of light expanded clay aggregate on the fresh, strength, and durability properties of self-compacting lightweight concrete reinforced with micro steel fibersConstruction and Building Materials, 233
P. Fernandes, J. Veludo, Nuno Almeida, João Baptista, H. Rodrigues (2018)
Study of a self-compacting fiber-reinforced concrete to be applied in the precast industryInnovative Infrastructure Solutions, 3
R. Vijayalakshmi, S. Ramanagopal (2018)
Structural concrete using expanded clay aggregate: a reviewIndian journal of science and technology, 11
A. Lotfy, K. Hossain, M. Lachemi (2016)
Mix design and properties of lightweight self-consolidating concretes developed with furnace slag, expanded clay and expanded shale aggregatesJournal of Sustainable Cement-Based Materials, 5
(1988)
Condensed silica fume in concrete. FIP stateof-art report, fip Commission of Thomas
(2012)
Properties of Concrete, 5th edn. Trans-Atlantic Publications Indian International Innovative Infrastructure Solutions
(2014)
Standard specification for lightweight aggregates for structural concretes
(1988)
Condensed silica fume in concrete. FIP stateof-art report
J. Chen, A. Kwan, Yu’e Jiang (2014)
Adding limestone fines as cement paste replacement to reduce water permeability and sorptivity of concreteConstruction and Building Materials, 56
Hongjian Du, K. Tan (2014)
Concrete with Recycled Glass as Fine AggregatesMaterials, 111
S. Real, J. Bogas, J. Pontes (2015)
Chloride migration in structural lightweight aggregate concrete produced with different bindersConstruction and Building Materials, 98
Miguel Nepomuceno, Luiz Pereira-de-Oliveira, Sandrine Pereira (2018)
Mix design of structural lightweight self-compacting concrete incorporating coarse lightweight expanded clay aggregatesConstruction and Building Materials, 166
M. Hassan, Karanraj Singh, Rohith Kumar (2020)
Experimental Study on Prefabricated Lightweight Composite Wall Panels under Flexural Loading
Lakshmisupriya Kanamarlapudi, Krishna Jonalagadda, Durga Jagarapu, Arunakanthi Eluru (2020)
Different mineral admixtures in concrete: a reviewSN Applied Sciences, 2
M. Mannan, C. Ganapathy (2004)
Concrete from an agricultural waste-oil palm shell (OPS)Building and Environment, 39
M. Savoia, N. Buratti, Loris Vincenzi (2017)
Damage and collapses in industrial precast buildings after the 2012 Emilia earthquakeEngineering Structures, 137
(2010)
AS 3972. General purpose and blended cements
S. Chandra, L. Berntsson (2003)
Lightweight aggregate concrete : science, technology, and applications
SD Bauchkar, HS Chore (2018)
Effect of PCE superplasticizers on rheological and strength properties of high strengthAdv Concr Constr, 6
F. Koksal, Emrah Mutluay, O. Gencel (2020)
Characteristics of isolation mortars produced with expanded vermiculite and waste expanded polystyreneConstruction and Building Materials, 236
W. Huber, Sarah Elinger, T. Lahmer, A. Herner, U. Mayr, Gonzalo Batres-Baires, R. Schmid (2019)
213Critical Care Medicine
O. Burgos-Montes, M. Alonso, F. Puertas (2013)
Viscosity and water demand of limestone- and fly ash-blended cement pastes in the presence of superplasticisersConstruction and Building Materials, 48
N. Voglis, G. Kakali, E. Chaniotakis, S. Tsivilis (2005)
Portland-limestone cements. Their properties and hydration compared to those of other composite cementsCement & Concrete Composites, 27
Karl‐Christian Thienel, Timo Haller, Nancy Beuntner (2020)
Lightweight Concrete—From Basics to InnovationsMaterials, 13
Süleyman İpek, Olabode Ayodele, Kasım Mermerdaş (2020)
Influence of artificial aggregate on mechanical properties, fracture parameters and bond strength of concretesConstruction and Building Materials, 238
(2000)
The behaviour of structural LWAC in compression
Mamery Serifou, Z. Sbartaï, S. Yotte, M. Boffoue, E. Eméruwa, F. Bos (2013)
A Study of Concrete Made with Fine and Coarse Aggregates Recycled from Fresh Concrete WasteJournal of Construction Engineering, 2013
O. Sengul, S. Azizi, F. Karaosmanoglu, M. Taşdemi̇r (2011)
Effect of expanded perlite on the mechanical properties and thermal conductivity of lightweight concThe Lancet
A. Rashad (2018)
Lightweight expanded clay aggregate as a building material – An overviewConstruction and Building Materials, 170
A. Rashad (2014)
Recycled waste glass as fine aggregate replacement in cementitious materials based on Portland cementConstruction and Building Materials, 72
E. Mayer (2016)
Properties Of Concrete
Prefabricated panel walls have been widely used in building construction due to their excellent structural benefits over other construction methods. However, the heavyweight of thick wall panels is the main barrier for connecting, transporting, and handling prefabricated wall elements. Therefore, in this study, lightweight concrete was developed to apply for the construction of structural and non-structural wall panels. A total of 16 mixes using expanded lightweight clay aggregate was designed with limestone powder, which was divided into three groups such as Group-1 (lime and silica fume), Group-2 (cement and water-reducing admixture), and Group-3 (expanded clay and glass aggregate). The effect of each parameter on the compressive strength and density of the lightweight concrete was measured after 7 and 28 days of curing. In general, developed lightweight concrete reached at least 70% of the ultimate compressive strength within seven days. The concrete compressive strength ranged from 11.54 to 22.63 MPa, and density values ranged from 1345 to 1706 kg/m3 at 28 days. Experimental results indicated that the mixes containing a higher amount of limestone powder, cement content, and expanded clay aggregate could be used as structural concrete. The combined utilisation of expanded clay and glass aggregate mixes is suitable for the non-structural application. Finally, the strength and density of current concrete mixes were compared with previous research results, which indicates that most of the mixes of the current study present lower density with reasonably good strength compared to the previous results counterpart.
Innovative Infrastructure Solutions – Springer Journals
Published: Jul 14, 2021
Keywords: Expanded clay aggregate; Lime; Lightweight concrete; Compressive strength; Dry density; Prefabricated wall panels
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