[1] API Specification 5L (2012) Specification for Line Pipe. 45th edn. American Petroleum Institute (API). Washington DC.
[2] Dieter GE. (1961) Mechanical Metallurgy. McGrew-Hill, United State of America: 370-390.
[3] Zhao J, Hu W, Wang X, Kang J, Yuan G, Di H, Misra RDK (2016) Effect of microstructure on the crack propagation behavior of microalloyed 560 MPa (X80) strip during ultra-fast cooling. Mat Sci Eng A-Struct 666: 214-224.
[4] Majidi-Jirandehi A, Hashemi SH (2017) Investigation of macroscopic fracture surface characteristics of spiral welded API X65 gas transportation pipeline steel. Modares Mechanical Engineering 17(11): 219-228. (In Persian)
[5] Ferahat H, Ahmadi-Brooghani SY (2017) Studying the behavior of A356/SiCp composite foam under low-velocity impact loading. Journal of Solid and Fluide Mechanics 7(2): 129-147. (In Persian)
[6] Jonson W (1972) Impact strength of materials. Edward Arnold Co.
[7] Scheider I, Nonn A, Lee S, Völling A, Mondry A, Kalwa C (2014) A damage mechanics based evaluation of dynamic fracture resistance in gas pipelines, 20th European Conference on Fracture (ECF20), Procedia Materials Science 3, Trondheim, Norway: 1956-1964.
[8] Asgarabad EF, Hashemi SH (2020) Experimental measurement and numerical evaluation of fracture energy in drop weight tear test specimen with chevron notch on API X65 steel. Modares Mechanical Engineering 20(5): 1145-1156. (In Persian)
[9] Asgarabad EF, Hashemi SH (2020) Experimental and numerical study of energy absorbtion in drop weight tear test specimen with Chevron notch on API X65 steel. Journal of Solid and Fluide Mechanics 10(2): 95-110. (In Persian)
[10] Sayah Badkhor M, Mirzababaie mostofi T, Babaei H (2020) Low-velocity impact response of plate with different geometries under hydrodynamic load: Experimental investigation and process optimization by response surface methodology. Modares Mechanical Engineering 20(4) :807-818.
[11] Yu PS, Ru CQ (2016) Analysis of energy absorptions in drop-weight tear tests of pipeline steel. Eng Fract Mech 160: 138-146.
[12] Rudland DL, Wilkowski GM, Feng Z, Wang YY, Horsley D, Glover A (2003) Experimental investigation of CTOA in linepipe steels. Eng Fract Mech 70: 567-577.
[13] Hari Manoj Simha C, Xu S, Tyson WR (2014) Non-local phenomenological damage-mechanics-based modeling of the Drop-Weight Tear Test. Eng Fract Mech 118: 66-82.
[14] Hari Manoj Simha C, Xu S, Tyson WR (2015) Computational modeling of the drop-weight tear test: A comparison of two failure modeling approaches. Engineering Fracture Mechanics. 148: 304-323.
[15] Tazimi M, Hashemi SH, Rahnama S (2020) Experimental Study of Fracture Surface Characteristics of Inhomogeneous Drop Weight Tear Test Specimen Made from API X65 Steel. Journal of Solid and Fluide Mechanics 10(1): 77-91. (In Persian)
[16] Fang J, Zhang J, Wang L (2014) Evaluation of cracking behavior and critical CTOA values of pipeline steel from DWTT Specimens. Eng Fract Mech 124-125: 18-29.
[17] Moradpour MA, Tayebimanesh AS, Hashemi SH (2017) Study of low velocity impact on charpy fracture energy in API X65 steel. 25th Annual Conference of Mechanical Engineering (ISME), Department of Mechanical Engineering, Uniersity of Tarbiat Modares, Tehran, Iran.
[18] API RP 5L3 (1996) Recommended practice conducting drop-weight tear test on line pipe. 3rd edn. American Petroleum Institute (API). Washington DC: 1-9.
[19] Godse R, Gurlan J, Suresh S (1988) Effects of residual stresses in fractue toughness testing of hard metals. Mat Sci Eng A-Struct 105-106: 383-387.
)