Performance Analysis of Self-Compacting Concrete in Earthquake-Resistant Buildings
Keywords:
Self-Compacting Concrete (SCC), Earthquake-Resistant Buildings, Durability, Construction Efficiency, Seismic PerformanceAbstract
This research investigates the performance of Self-Compacting Concrete (SCC) in earthquake-resistant buildings, comparing its behavior with conventional concrete under seismic conditions. SCC, known for its high flowability and ability to self-compact without the need for mechanical vibration, offers several advantages in construction, including reduced labor costs, faster construction timelines, and enhanced durability. The study explores the mechanical properties of SCC, such as compressive strength, shear strength, and flexural performance, and evaluates its resistance to cracking, permeability, and environmental degradation factors critical for earthquake resilience. Through experimental analysis and case studies, the research highlights SCC's superior performance in terms of structural integrity and long-term durability, particularly in regions prone to seismic activity. The findings demonstrate that SCC not only accelerates the construction process but also improves the overall safety and longevity of earthquake-resistant structures, making it a promising material for modern, sustainable construction practices. This study concludes that SCC offers significant benefits over conventional concrete, providing a cost-effective, durable, and environmentally friendly solution for earthquake-resistant building design and construction.
References
Aslani, F. (2014). Experimental and numerical study of time-dependent behaviour of reinforced self-compacting concrete slabs.
Cardoso, M. G., Lameiras, R. M., Oliveira, T. T., Santana, F. B., & Capuzzo, V. M. S. (2021). Mixture Proportioning of Steel Fibre Reinforced Self-compacting Concrete Based on the Compressible Packaging Method: Comparison with ACI 237R-07 and RILEM TC 174-SCC Recommendations. Fibre Reinforced Concrete: Improvements and Innovations: RILEM-Fib International Symposium on FRC (BEFIB) in 2020 10, 99–110.
Carpinteri, A., Lacidogna, G., Corrado, M., & Di Battista, E. (2016). Cracking and crackling in concrete-like materials: A dynamic energy balance. Engineering Fracture Mechanics, 155, 130–144.
Delfini, A. (2002). Assessment of Trenchless Technologies for the Reconstruction of NYC’s Water Mains. Polytechnic University.
Domone, P. L. (2007). A review of the hardened mechanical properties of self-compacting concrete. Cement and Concrete Composites, 29(1), 1–12.
Erdemir, A., Guess, T. M., Halloran, J., Tadepalli, S. C., & Morrison, T. M. (2012). Considerations for reporting finite element analysis studies in biomechanics. Journal of Biomechanics, 45(4), 625–633.
Fathi, H., & Farhang, K. (2014). Effect of cyclic loadings on heated self-compacting concrete. Construction and Building Materials, 69, 26–31.
Fleischman, R. B., & Seeber, K. (2016). New construction for resilient cities: The argument for sustainable low damage precast/prestressed concrete building structures in the 21st century. Scientia Iranica, 23(4), 1578–1593.
Foulger, G. R., Wilson, M. P., Gluyas, J. G., Julian, B. R., & Davies, R. J. (2018). Global review of human-induced earthquakes. Earth-Science Reviews, 178, 438–514.
Fritih, Y., Vidal, T., Turatsinze, A., & Pons, G. (2013). Flexural and shear behavior of steel fiber reinforced SCC beams. KSCE Journal of Civil Engineering, 17, 1383–1393.
Labuschagne, J.-C. (2018). Formwork pressures by self-compacting concrete: a practical perspective. Stellenbosch: Stellenbosch University.
Latifi, R., & Hadzima-Nyarko, M. (2021). A comparison of structural analyses procedures for earthquake-resistant design of building. Earthquakes and Structures, 20(5), 531–542.
Lessmann, S., Baesens, B., Mues, C., & Pietsch, S. (2008). Benchmarking classification models for software defect prediction: A proposed framework and novel findings. IEEE Transactions on Software Engineering, 34(4), 485–496.
Lu, Y., Hao, H., Carydis, P. G., & Mouzakis, H. (2001). Seismic performance of RC frames designed for three different ductility levels. Engineering Structures, 23(5), 537–547.
Mo, J., Uy, B., Li, D., Thai, H.-T., & Tran, H. (2021). A review of the behaviour and design of steel–concrete composite shear walls. Structures, 31, 1230–1253.
Nehdi, M., El-Chabib, H., & El Naggar, H. (2003). Cost-effective SCC for deep foundations. Concrete International, 25(3), 95–103.
Nehdi, M., El Chabib, H., & El Naggar, M. H. (2001). Predicting performance of self-compacting concrete mixtures using artificial neural networks. Materials Journal, 98(5), 394–401.
Ouellet-Plamondon, C. M., & Habert, G. (2016). Self-compacted clay based concrete (SCCC): proof-of-concept. Journal of Cleaner Production, 117, 160–168.
Paul, S. C. (2015). The role of cracks and chlorides in corrosion of reinforced strain hardening cement-based composite (R/SHCC). Stellenbosch: Stellenbosch University.
Rasekh, H., Joshaghani, A., Jahandari, S., Aslani, F., & Ghodrat, M. (2020). Rheology and workability of SCC. In Self-compacting concrete: materials, properties and applications (pp. 31–63). Elsevier.
Ruiz, G., De La Rosa, A., Almeida, L. C., Poveda, E., Zhang, X. X., Tarifa, M., Wu, Z. M., & Yu, R. C. (2019). Dynamic mixed-mode fracture in SCC reinforced with steel fibers: an experimental study. International Journal of Impact Engineering, 129, 101–111.
Skarendahl, A. (2005). Changing concrete construction through use of self-compacting concrete. Proceedings of the First International Symposium on Design, Performance and Use of Self-Consolidating Concrete, Changsha, Hunan, Kina, 17–24.
Szolomicki, J., & Golasz-Szolomicka, H. (2019). Technological advances and trends in modern high-rise buildings. Buildings, 9(9), 193.
Ting, T. Z. H., Rahman, M. E., Lau, H. H., & Ting, M. Z. Y. (2019). Recent development and perspective of lightweight aggregates based self-compacting concrete. Construction and Building Materials, 201, 763–777.
Tsai, K.-C., Lin, Y.-C., Lin, J.-L., Lin, S.-L., & Hsiao, P.-C. (2008). High Performance Steel Material and Structures for Earthquake Resistant Buildings. C. Shi, & YL Mo, High-Performance Construction Materials, 155–206.
Van Damme, H. (2018). Concrete material science: Past, present, and future innovations. Cement and Concrete Research, 112, 5–24.
Wang, J. H., Kunnath, S., He, J., & Xiao, Y. (2020). Post-earthquake fire resistance of circular concrete-filled steel tubular columns. Journal of Structural Engineering, 146(6), 4020105.
Wu, Q., & An, X. (2014). Development of a mix design method for SCC based on the rheological characteristics of paste. Construction and Building Materials, 53, 642–651.
Zinkle, S. J., & Was, G. S. (2013). Materials challenges in nuclear energy. Acta Materialia, 61(3), 735–758.
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