American Concrete Institute. (2007). Bylaw, Regulation ACI 237R-07 Self-Consolidating Concrete.
American Society for Testing and Materials. (1990). Standard ASTM: C31/C31m-96.
American Society for Testing and Materials. (1990). Standard ASTM: C143-90a.
Babaei,Y., Mousavi Ghasemi,S.A., & Zandi,Y. (2022). Comparative Evaluation of the Effect of Fly Ash and
Micro-silica on the Growth Trend, Compressive Strength, and Electrical Resistance of Concretes Exposed to
Sulfate Waters. Structural and Construction Engineering, 9(11), 122-139. Persian
Bidast,A. (2014). Effect of Fly Ash on Concrete Durability in Marine Environment. Second International
Congress on Structure-Architecture and Urban Development. Persian
Bo Zhou., & Yuichi Uchida, (2017). Influence of flowability, casting time and formwork geometry on fiber
orientation and mechanical properties of UHPFRC. Cem Concr. Res. pp. 164-177
British Standard. (1983). Standard BS1881: part 116. Method for Determination of compressive strength of
concrete cubes.
De, Schutter,G., Bartos, P,J,M., Domone, P,L., & Gibbs,J. (2008). Self-Compacting Concrete. Whittles
Publishing, Dunbeath, Scotland, UK.
European Federation of National Trade Associations (EFNARC). (2002). Specification and Guidelines for
Self-Compacting Concrete. UK, pp. 32.
Gaikwad, Prathamesh., & Sathe, Sandeep. (2025). Effect of fly ash on compressive strength, carbonation and
corrosion resistance of reinforced concrete: a systematic review. World Journal of Engineering, Vol. 22 No. 1,
pp.40-60
Gautam, Lilesh., Purbe,. Mukesh, Kumar., Sharma., Kul, Vaibhav., et al. (2025). Environmental impact
mitigation and durability enhancement of concrete through fly ash substitution: a comprehensive review. J.Build
Rehabil 10,99
Ghodratnama, M., Rajaee, A., Masoodi, A. R., Abrishami, S., Davarpanah, T. A., & Pournoori, P. (2025).
Enhancing the fracture toughness of eco-friendly self-compacting concrete with waste glass coarse aggregates
and steel fibers: A mixed-mode I/II fracture analysis using SCB specimens. Theoretical and Applied Fracture
Mechanics, .104969
Helmuth, R. (1987). Fly ash in cement and concrete. Portland Cement Association.
I.C, Yeh. (2007). Modeling slump flow of concrete using second-order regressions and artificial neural
networks. Cem. Concr. Compos., 29 (6), pp. 474-480
Ige, O.E., Olanrewaju, O.A., Duffy, K.J., & Collins, O.C. (2022). Environmental Impact Analysis of Portland
Cement (CEM1) Using the Midpoint Method. Energies, 15(7), 2708.
K.L, Lin., W.C, Chang., D.F, Lin., H.L, Luo., & M.C, Tsai. (2008). Effects of nano-SiO2 and different ash
particle sizes on sludge ash. Cement Mortar Journal of Environmental Management, 88, 708–714.
Lecompte,T., & A, Perrot. (2017). Non-linear modeling of yield stress increase due to SCC structural buildup
at rest. Cement and Concrete Research, 92: p. 92-97
Luo, T., Wang, X., & Zhuang, S. (2023). Value-added utilization of steel slag as a hydration heat controlling
material to prepare sustainable and green mass concrete. Case Studies in Construction Materials, 19, e02619.
L,Yang., X, An., & S, Du. (2021). Estimating workability of concrete with different strength grades based on
deep learning. Measurement, 186 , Article 110073
Mazloom, M., Ramezanianpour, A.A., & Brooks, J.J. (2004). Effect of silica fume on mechanical properties
of high-strength concrete. Cement & Concrete Composites, Vol. 26, pp. 347-357.
Mokal, M.P., Mandal, R., Nayak.S, & Panda, S.K. (2023). Efficacy of high-volume fly ash and slag on the
physicomechanical, durability, and analytical characteristics of high-strength mass concrete. Journal of
Building Engineering, 76, 107295.
58 / حسینی، سیدمجدالدین. -72 ،)5(7 ، نشریه عمران و پروژه، 1404
72
Nili, M. (2015). Evaluation of Setting Time and Compressive Strength Development of Concretes Containing
Pozzolanic Materials. Modares Civil Engineering Journal, Vol. 15. Persian
Omer, Brwa., Dilshad, Kakasor., Ismael, Jaf., Sirwan, Khuthur Malla., et al. (2024). Exploring the potential
of soft computing for predicting compressive strength and slump flow diameter in fly ash-modified selfcompacting
concrete. Archiv. Civ.Mech.Eng 24, 95.
Pachideh,G., Gholhaki,M., & Ketabdari, H. (2020). Effect of pozzolanic wastes on mechanical properties,
durability and microstructure of the cementitious mortars. Journal of Building Engineering, 29 101178
Pournoori, P., Davarpanah, TQ.A., Rajaee, A., Ghodratnama, M., Abrishami, S., & Masoodi, A. R. (2024).
Experimental exploration of fracture behavior (pure mode III) in eco-friendly steel fiber-reinforced selfcompacting
concrete with waste tempered glass as coarse aggregates. Scientific Reports, 14(1), .9043
Rahmani,H. (2015). Combined Effect of Nano-silica and Micro-silica on the Durability of High-Strength
Concretes Against Sulfuric Acid Attack. Modares Civil Engineering Journal, Summer. Persian
Shoaei, S., Shoaei, A., & Danandeh Mehr, A. (2024). Prediction of Service Life and Life Cycle Assessment of
Pozzolanic Concretes. Journal of Civil and Environmental Engineering, Vol. 54, No. 227, pp. 29-36. Persian
Shojamoghadam, S., Rajaee, A., & Abrishami, S. (2024). Impact of various additives and their combinations
on the consolidation characteristics of clayey soil. Scientific Reports, 14(1), .31907
Soo-Duck, Hwang., Kamal, H.Khayat., Olivier, Bonneau. (2006). Performance-Based Specifications of Self
Consolidating Concrete Used in Structural Applications. ACI Materials Journal, 2006, 121-129.
Y, Cai., & Q, Liu. (2023). Research progress on the stability of concrete mixtures and its influence on the
durability of engineering structures. J. Xi’an Univ. Arch. Tech., 55 (4), pp. 492-503
Yuxin, Cai., & Qing-feng, Liu. (2022). Numerical investigation on aggregate settlement and its effect on the
durability of hardened concrete. in: Proceedings of the 7th International Conference on Durability of Concrete
Structures, Jinan, China
Yuxin, Cai., & Qing-feng, Liu. (2023). Stability of fresh concrete and its effect on late-age durability of
reinforced concrete: An overview. Elsevier. J. Build. Eng. Article 107701