[1] V. Afroughsabet, High-performance fiber-reinforced concrete: a review, Materials Science, 51 (2016) 6517–6551.
[2] S. Shin, W. Ghosh, J. Moreno, Flexural ductility of ultra-high-strength concrete members, ACI Structural Journal, 86 (1989) 394-400.
[3] O. Lotfi Omran, Investigation of mechanical properties of fiber self-compacting concrete containing nano silica particles, M.Sc. Thesis, University of Technology, (2011), Babol, in Persian.
[4] Y. Mallah, Experimental study of mechanical properties of self-reinforcing concrete and flexural behavior of reinforced concrete beams made of SCC, Master Thesis, Iran University of Science and Technology, (2005), in Persian.
[5] A. Skarendahl, O. Petersson, Self compacting concrete, State of the Art Report of RILEM Technical committee174, (2000), RILEM Report No 23.
[6] M. Mazloom, Estimating long-term creep and shrinkage of high-strength concrete, Cement & Concrete Composites, 30 (2008) 316-326.
[7] H. Byung, C.Ji, C.Young, Fracture behavior of concrete members reinforced with structural synthetic fibers, Engineering Fracture Mechanics, 74 (2007) 243–257.
[8] F. Bencardino, L. Rizzuti, G. Spadea, R. Swamy, Experimental evaluation of fiber reinforced concrete fracture properties, Composites Part B: Engineering, 41 (2010) 17–24.
[9] A. Caggiano, M. Cremona, C. Faella, C. Lima, E. Martinelli, Fracture behavior of concrete beams reinforced with mixed long/short steel fibers, Construction and Building Materials, 37 (2012) 832–840.
[10] İ. B. Topçu, T. Uygunoğlu, Effect of aggregate type on properties of hardened self-consolidating lightweight concrete (SCLC), Construction and Building Materials, 24(7) (2010) 1286-1295.
[11] C. L. Hwang, V. A. Tran, A study of the properties of foamed lightweight aggregate for self-consolidating concrete, Construction and Building Materials, 87 (2015) 78-85.
[12] G. Pachideh, M. Gholhaki, H. Ketabdari, Effect of pozzolanic wastes on mechanical properties, durability and microstructure of the cementitious mortars, Journal of Building Engineering, 29 (2020) 101178.
[13] M. Mazloom, A. A. Ramezanianpour, J. J. Brooks, Effect of silica fume on mechanical properties of high-strength concrete. Cement and Concrete Composites, 26(4) (2004) 347-357.
[14] M. Mazloom, A. Ranjbar, Relation between the workability and strength of self-compacting concrete, 35th Conference on Our World in Concrete and Structures, (2010) 315-322.
[15] M. Mazloom, A. Allahabadi, M. Karamloo, Effect of silica fume and polyepoxide-based polymer on electrical resistivity, mechanical properties, and ultrasonic response of SCLC, Advances in Concrete Construction, 5(6) (2017), 587-611.
[16] O.A. Naniz, M. Mazloom, Effects of colloidal nano-silica on fresh and hardened properties of self-compacting lightweight concrete, Journal of Building Engineering, 20 (2018) 400-410.
[17] M. Mazloom, H. Salehi, The relationship between fracture toughness and compressive strength of self-compacting lightweight concrete, In IOP Conference Series: Materials Science and Engineering, (2018).سسس
[18] C. L. Hwang, V. A. Tran, A study of the properties of foamed lightweight aggregate for self-consolidating concrete, Construction and Building Materials, 87 (2015) 78-85.
[19] M. Mazloom, S. Mirzamohammadi, Fracture of fibre-reinforced cementitious composites after exposure to elevated temperatures, Magazine of Concrete Research, (2019): 1-36.
[20] ACI committee 544 Report, Design Consideration for SFRC, ACI Structural Journal, (1994), pp 563-530, 1988.
[21] S. P. Shah, G. B. Batson, Fiber-Reinforced Concrete Properties and Applications, SP105, ACI, p597, (1987).
[22] M. Mazloom, S. Mirzamohammadi, Thermal effects on the mechanical properties of cement mortars reinforced with aramid, glass, basalt and polypropylene fibers, Advances in Material Research, 8(2) (2019) 137-154.
[23] M. Rashid Hameed, Contribution of metallic fibers on the performance of reinforced concrete structures for the seismic application, Thesis for P.H.D, University of Toulouse, (2010).
[24] EFNARC, Specifications and guidelines for self-compacting concrete, (2002), ISBN0 953973344.
[25] ASTM C33. Standard specification for concreter aggregates. ASTM International. (2018).
[26] ASTM C1240, Standard specification for silica fume for use in hydraulic-cement concrete and mortar, ASTM Philadelphia,) 1993(.
[27] ASTM C1116, Standard specification for fiber-reinforced concrete ASTM International. (2015).
[28] ASTM, ASTM C494: Standard specification for chemical admixtures for concrete, in, ASTM West Conshohocken, PA, USA, )2005(.
[29] ACI 237, Self-consolidating concrete. American Concrete Institute, (2007).
[30] BSI, BS 1881-124: 1988: Testing concrete–Part 124: Methods for analysis of hardened concrete, in, BSI London, UK, (1988).
[31] ASTM C1609/M-05, Standard test method for flexural performance of fiber reinforced concrete (using Beam wih Third-point loading). ASTM International, (2006).
[32] J. Massana, E. Reyes, J. Bernal, N. León, E. Sánchez-Espinosa, Influence of nano-and micro-silica additions on the durability of a high-performance self-compacting concrete, Construction and Building Materials, 165 (2018) 93-103.
[33] G. Pachideh, M. Gholhaki, Assessment of post-heat behavior of cement mortar incorporating silica fume and granulated blast-furnace slag, Journal of Structural Fire Engineering, (2020).
[34] G. Pachideh, M. Gholhaki, A. Moshtagh, On the post-heat performance of cement mortar containing silica fume or Granulated Blast-Furnace Slag, Journal of Building Engineering, 24 (2019) 100757.
[35] E. Horszczaruk, E. Mijowska, K. Cendrowski, P. Sikora, Influence of the new method of nanosilica addition on the mechanical properties of cement mortars, Cement Wapno Beton, 5(2014) (2014) 66.