ORIGINAL ARTICLE
Effect of Recycled Tire Rubber and Marble Waste on Fresh and Hardened Properties of Concrete
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Department of civil engineering, University of Skikda, Algéria
 
 
Online publication date: 2022-04-05
 
 
Publication date: 2022-03-01
 
 
Civil and Environmental Engineering Reports 2022;32(1):218-239
 
KEYWORDS
ABSTRACT
This paper investigates the effect of simultaneous adding of recycled tire rubber (RTR) and marble waste (MW) as fine aggregates on the properties of concrete. To achieve this objective, the particles size distribution of crushed sand (CS) was corrected by the use of marble waste sand (MWS), and RTR was used by volumetric substitution (1%, 2%, 3% and 4%) of aggregates in concrete. The fresh properties were investigated using the slump, density and air content tests. Hardened properties were investigated through the compressive strength, flexural strengths, pulse velocity, elastic modulus and water absorption. The obtained results showed that the increase in the substitution rate of RTR reduced the fresh and hardened properties of concrete containing marble waste sand. However, with low substitution rates the properties of concrete remain satisfactory and the utilization of RTR and MWS leads to making a green concrete while protecting the environment.
 
REFERENCES (62)
1.
AbdelAleem, BH and Hassan, AAA 2018. Development of self consolidating rubberized concrete incorporating silica fume. Construction and Building Materials 161, 389-397.
 
2.
Alyamaç, KE and Ince, R 2009. A preliminary concrete mix design for SCC with marble powders. Construction and Building Materials 23, 1201-1210.
 
3.
Aliabdo, AA, Abd Elmoaty, AEM and Auda, EM 2014. Re-use of waste marble dust in the production of cement and concrete. Construction and Building Materials 50, 28-41.
 
4.
André, A, de Brito, J, Rosa, A and Pedro, D 2014. Durability performance of concrete incorporating coarse aggregates from marble industry waste. Journal of Cleaner Production 65, 389–396.
 
5.
Arel, HS 2016. Recyclability of waste marble in concrete production. Journal of Cleaner Production 131, 179-188.
 
6.
Aslani, F, Ma, G, Wan, DLY and Le, VXT 2018. Experimental investigation into rubber granules and their effects on the fresh and hardened properties of self-compacting concrete. Journal of Cleaner Production 172, 1835-1847.
 
7.
Asuktar, P, Shinde, SB and Patel, R 2017. Study on the behavior of rubber aggregates concrete beams using analytical approach. Engineering Science and Technology 20, 151-157.
 
8.
Azevedo, F, Pacheco-Torgal, F, Jesus, C, Barroso de Aguiar, JL and Camões, AF 2012. Properties and durability of HPC with tyre rubber wastes. Construction and Building Materials 34, 186-191.
 
9.
Batayneh, MK, Marie, I and Asi, I 2008. Promoting the use of crumb rubber concrete in developing countries. Waste Management 28, 2171-2176.
 
10.
Bekhiti, M, Trouzine, H and Asroun, A 2014. Properties of Waste Tire Rubber Powder. Engineering, Technology & Applied Science Research 4, 669-672.
 
11.
Bisht, K and Ramana, PV 2017. Evaluation of mechanical and durability properties of crumb rubber concrete. Construction and Building Materials 155, 811-817.
 
12.
Boughamsa, O, Hebhoub, H, Kherref, L, Belachia, M, Abdelouahed, A and Chaher, R 2020. Valorization of marble’s waste as a substitute in sand concrete. Advances in Concrete Construction 9, 217-225.
 
13.
Bravo, M and Brito, J 2012. Concrete made with used tyre aggregate: durability-related performance. Journal of Cleaner Production 25, 42-50.
 
14.
Chawla, A, Syed Ahmed Kabeer, KI and Vyas, AK 2018. Evaluation of strength and durability of lean concrete mixes containing marble waste as fine aggregate. European Journal of Environnement and Civil Engineering 24, 1398-1413.
 
15.
Choudhary, R, Gupta, R and Nagar, R 2020. Impact on fresh, mechanical, and microstructural properties of high strength self-compacting concrete by marble cutting slurry waste, fly ash, and silica fume. Construction and Building Materials 239, 117888.
 
16.
Corinaldesi, V, Moriconi, G and Naik, TR 2010. Characterization of marble powder for its use in mortar and concrete. Construction and Building Materials 24, 113-117.
 
17.
Djebien, R, Belachia, M and Hebhoub, H 2015. Effect of marble waste fines on rheological and hardened properties of sand concrete. Structural engineering and Machanics 53, 1241-1251.
 
18.
Djebien, R, Hebhoub, H, Belachia, M, Berdoudi, S and Kherraf, L 2018. Incorporation of marble waste as sand in formulation of self-compacting concrete. Structural Engineering and Machanics 67, 87-91.
 
19.
Ergün, A 2011. Effects of the usage of diatomite and waste marble powder as partial replacement of cement on the mechanical properties of concrete. Construction and Building Materials 25, 806-812.
 
20.
Evram, A, Akçaoglu, T, Ramyar, K and Çubukçuoglu, B 2020. Effects of waste electronic plastic and marble dust on hardened properties of high strength concrete. Construction and Building Materials 263, 120928.
 
21.
Fraile-Garcia, E, Ferreiro-Cabello, J, Mendivil-Giro, M and Vicente-Navarro, AS 2018. Thermal behaviour of hollow blocks and bricks made of concrete doped with waste tyre rubber. Construction and Building Materials 176, 193-200.
 
22.
Gameiro, F, de Brito, J and Correia da Silva, D 2014. Durability performance of structural concrete containing fine aggregates from waste generated by marble quarrying industry. Engineering Structures 59, 654-662.
 
23.
Ganjian, E, Khorami, M and Maghsoudi, AA 2009. Scrap-tyre-rubber replacement for aggregate and filler in concrete. Construction and Building Materials 23, 1828-1836.
 
24.
Gencel, O, Ozel, C, Koksal, F, Erdogmus, E, Martínez-Barrera, G and Brostow, W 2012. Properties of concrete paving blocks made with waste marble. Journal of Cleaner Production 21, 72–80.
 
25.
Gesoglu, M and Guneyisi, E 2007. Strength development and chloride penetration in rubberized concretes with and without silica fume. Materials Structures 40, 953–964.
 
26.
Gesoglu, M, Güneyisi, E, Khoshnaw, G and Ipek, S 2014. Investigating properties of pervious concretes containing waste tire rubbers. Construction and Building Materials 63, 206-213.
 
27.
Guneyisi, E 2010. Resh properties of self-compacting rubberized concrete incorporated with fly ash. Materials Structures 43, 1037-1048.
 
28.
Hebhoub, H, Aoun, H, Belachia, M, Houari, H and Ghorbel, E 2011. Use of waste marble aggregates in concrete. Construction and Building Materials 25, 1167-1171.
 
29.
Holmes, N, Browne, A and Montague, C 2014. Acoustic properties of concrete panels with crumb rubber as a fine aggregate replacement. Construction and Building Materials 73, 195–204.
 
30.
Huang, W, Huang, X, Xing, Q and Zhou, Z 2020. Strength reduction factor of crumb rubber as fine aggregate replacement in concrete. Journal of Building Engineering 32, 101346.
 
31.
Ince, C, Hamza, A, Derogar, S and Ball, RJ 2020. Utilisation of waste marble dust for improved durability and cost efficiency of pozzolanic concrete. Journal of Cleaner production 270, 122213.
 
32.
Jalal, M, Nassir, N, Jalal, H and Arabali, P 2019a. On the strength and pulse velocity of rubberized concrete containing silica fume and zeolite: Prediction using multivariable regression models. Construction and Building Materials 223, 530-543.
 
33.
Jalal, M, Nassir, N and Jalal, H 2019b. Waste tire rubber and pozzolans in concrete: A trade-off between cleaner production and mechanical properties in a greener concrete. Journal of Cleaner production 238, 117882.
 
34.
Khodabakhshian, A, Brito, J, Ghalehnovi, M and Shamsabadi, EA 2018. Mechanical, environmental and economic performance of structural concrete containing silica fume and marble industry waste powder. Construction and Building Materials 169, 237-251.
 
35.
Jalal, M, Arabali, P, Grasley, Z, Bullard, JW and Jalal, H 2020. Behavior assessment, regression analysis and support vector machine (SVM) modeling of waste tire rubberized Concrete. Journal of Cleaner production 273, 122960.
 
36.
Li, D, Zhuge, Y, Gravina, R and Mills, JE 2018. Compressive stress strain behavior of crumb rubber concrete (CRC) and application in reinforced CRC slab”, Construction and Building Materials 166, 745-759.
 
37.
Ling, TC, Nor, HM and Lim, SK 2010. Using recycled waste tyres in concrete paving blocks. Waste. Reso. Manag 163, 37-45.
 
38.
Lv, J, Zhou, T, Du, Q and Wu, H 2015. Effects of rubber particles on mechanical properties of light weight aggregate concrete. Construction and Building Materials 91, 145-149.
 
39.
Mhaya, AM, Huseien, GF, Zainal Abidin, AR and Ismail, M 2020. Long-term mechanical and durable properties of waste tires rubber crumbs replaced GBFS modified concretes. Construction and Building Materials 256, 119505.
 
40.
Munoz-Sanchez, B, Arevalo-Caballero, MJ and Pacheco-Menor, MC 2017. Influence of acetic acid and calcium hydroxide treatments of rubber waste on the properties of rubberized mortars. Materials Structures 75, 50-75.
 
41.
Najim, KB and Hall, MR 2012. Mechanical and dynamic properties of selfcompacting crumb rubber modified concrete. Construction and Building Materials 27, 521-530.
 
42.
Pelisser, F, Zavarise, N, Longo, TA and Bernardin, AD 2011. Concrete made with recycled tire rubber: Effect of alkaline activation and silica fume addition. Journal of Cleaner production 19, 757-763.
 
43.
Raffoul, S, Garcia, R, Pilakoutas, K, Guadagnini, M and Medina, NF 2016. Optimisation of rubberised concrete with high rubber content: An experimental investigation. Construction and Building Materials 124, 391-404.
 
44.
Rashwan, MA, AlBasiony, TM, Mashaly, AO and Khalil, MM 2020. Behaviour of fresh and hardened concrete incorporating marble and granite sludge as cement replacement. Journal of Building Engineering 32, 101697.
 
45.
Si, R, Wang, J, Guo, S, Dai, Q and Han, S 2018. Evaluation of laboratory performance of self-consolidating concrete with recycled tire rubber. Journal of Cleaner production 180, 823-831.
 
46.
Siddika, A, Al Mamun, MA, Alyousef, R, Amran, YHM, Aslani, F and Alabduljabbar, H 2019. Properties and utilizations of waste tire rubber in concrete: A review. Construction and Building Materials 224, 711-731.
 
47.
Siddique, R and Naik, TR 2004. Properties of concrete containing scrap-tire rubber – an overview. Waste Management 24, 563–569.
 
48.
Singh, M, Srivastava, A and Bhunia, D 2019. Long term strength and durability parameters of hardened concrete on partially replacing cement by dried waste marble powder slurry. Construction and Building Materials 198, 553-569.
 
49.
Su, H, Yang, J, Ling, TC, Ghataora, GS and Dirar, S 2015. Properties of concrete prepared with waste tyre rubber particles of uniform and varying sizes. Journal of Cleaner production 91, 288-296.
 
50.
Thomas, BS, Gupta, RC, Kalla, P and Cseteneyi, L 2014. Strength, abrasion and permeation characteristics of cement concrete containing discarded rubber fine aggregates. Construction and Building Materials 59, 204-212.
 
51.
Thomas, BS, Gupta, RC, Mehra, P and Kumar, S 2015. Performance of high strength rubberized concrete in aggressive environment. Construction and Building Materials 83, 320-326.
 
52.
Thomas, BS and Gupta, RC 2016a. A comprehensive review on the applications of waste tire rubber in cement concrete. Renewable & Sustainable Energy Reviews 54, 1323–1333.
 
53.
Thomas, BS and Gupta, RC 2016b. Properties of high strength concrete containing scrap tire rubber. Journal of Cleaner production 113, 86-92.
 
54.
Topçu, IB, Bilir, T and Uygunoglu, T 2009. Effect of waste marble dust content as filler on properties of self-compacting concrete. Construction and Building Materials 23, 1947–1953.
 
55.
Varadharajan, S 2020. Determination of mechanical properties and environmental impact due to inclusion of fly ash and marble waste powder in concrete. Structures 25, 613-630.
 
56.
Vardhan, K, Siddique, R and Goyal, S 2019. Strength, permeation and microstructural characteristics of concrete incorporating waste marble. Construction and Building Materials 203, 45–55.
 
57.
Xiong, C, Li, Q, Lan, T, Li, H, Long, W and Xing, F 2021. Sustainable use of recycled carbon fiber reinforced polymer and crumb rubber in concrete: mechanical properties and ecological evaluation. Journal of Cleaner production 279, 123624.
 
58.
Youssf, O, Mills, JE, Benn, T, Zhuge, Y, MA, X, Roychand, R and Gravina, R 2020. Development of Crumb Rubber Concrete for Practical Application in the Residential Construction Sector – Design and Processing. Construction and Building Materials 260, 119813.
 
59.
Yung, WH, Yung, LC and Hua, LH 2013. A study of the durability properties of waste tire rubber applied to self-compacting concrete. Construction and Building Materials 41, 665-672.
 
60.
Zhang, Z, Ma, H and Qian, S 2015. Investigation on Properties of ECC Incorporating Crumb Rubber of Different Sizes. Journal of Advanced Concrete Technology 13, 241-251.
 
61.
Zhang, S, Cao, K, Wang, C, Wang, X, Wang, J and Sun, B 2020. Effect of silica fume and waste marble powder on the mechanical and durability properties of cellular concrete. Construction and Building Materials 241, 117980.
 
62.
Zhu, X, Miao, C, Liu, J and Hong, J 2012. Influence of crumb rubber on frost resistance of concrete and effect mechanism. Procedia Engineering 27, 206 – 213.
 
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