[1] R. Jones, S. Pitt, D. Hui, A. Brunner. Fatigue crack growth in nano-composites, Compos Struct, 99 (2013) 375-9.
[2] A. Fereidoon, L. Mottahedin, S. T. Latibari, Investigation of fracture toughness parameters of epoxy nanocomposites for different crack angles, Journal of Polymer Engineering, 32 (2012) 311-7.
[3] Z. Wang, F. Liu, W. Liang, L. Zhou, Study on Tensile Properties of Nanoreinforced Epoxy Polymer: Macroscopic Experiments and Nanoscale FEM Simulation Prediction, Advances in Materials Science and Engineering, 2013 (2013) 1-8.
[4] A. Negi, G. Bhardwaj, J. Saini, N. Grover, Crack growth analysis of carbon nanotube reinforced polymer nanocomposite using extended finite element method, Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science, 233 (2018).
[5] M. R. Nakhaei, G. Naderi, M. H. R. Ghoreishy, Experimental Investigation of Mechanical Properties, Fracture Mechanism and Crack Propagation of PA6/NBR/Clay Nanocomposites, Iranian Journal of Polymer Science & Technology, 33 (2020) 159-72 (In persian).
[6] L. Rodríguez-Tembleque, J. Vargas, E. García-Macías, F.C. Buroni, A. Sáez, XFEM crack growth virtual monitoring in self-sensing CNT reinforced polymer nanocomposite plates using ANSYS, Composite Structures, 284 (2022) 115-37.
[7] M. Salari, S.M.S. Fatemian. Investigation of crack growth in metal matrix nanocomposites. Second National Conference on Structural and Fluid Mechanics, Bonab, Iran, 2024 (In persian).
[8] M. Malaki,
A. Fadaei Tehrani,
B. Niroumand, Fatgiue behavior of metal matrix nanocomposites,
Ceramics International, 46 (2020) 326-336.
[9]
S.E. Shin, D.H. Bae, Fatigue behavior of Al2024 alloy-matrix nanocomposites reinforced with multi-walled carbon nanotubes,
Composites Part B-engineering, 134 (2018) 61-68.
[10] M. Vaghari, G.R. Khayati, S.A. Jenabali Jahromi, Studying on the fatigue behavior of Al- Al2O3 metal matrix nanocomposites processed through powder metallurgy, Journal of Ultrafine Grained and Nanostructured Materials, 52 (2019) 210-17.
[11]
H.M. Mahan,
S.V. Konovalov,
S.M. Najm,
O. Mihaela,
T. Trzepieciński, Experimental and Numerical Investigations of the Fatigue Life of AA2024 Aluminium Alloy-Based Nanocomposite Reinforced by TiO2 Nanoparticles Under the Effect of Heat Treatment,
International Journal of Precision Engineering and Manufacturing, 25 (2024) 141-53.
[12] Q. Pu et. Al, Microstructural insights into short fatigue crack growth in particle-reinforced Al-matrix composite sheet, International Journal of Fatigue, 193 (2025) 108787.
[13] T. Balakumar, A. Edrisy, R.A. Riahi, Fatigue Crack Growth Behavior of Additively Manufactured Ti Metal Matrix Composite with TiB Particles, Coatings, 14(11) (2024) 1447.
[14] H. Wang, H. Shin, A multiscale model to predict fatigue crack growth behavior of carbon nanofiber/epoxy nanocomposites, International Journal of Fatigue, 168 (2023) 107467.
[15] N. R. Burhani, Effect of Compaction Pressure on Final Properties of Multiwall Carbon Nanotubes (MWCNTs) reinforced Aluminum (Al) Composite, Seri Iskandar, Malaysia: Universiti Teknologi PETRONAS, (2010).
[16] B. N. Gohain, S. Kirtania, Evaluation of Axial Young’s Modulus of CNT-based Composites using Square, Hexagonal and Cylindrical Representative Volume Elements, ADBU-Journal of Engineering Technology, 6 (2017).
[17] S. S. Salam, N. M. Mehat, S. Kamaruddin, Optimization of Laminated Composites Characteristics via integration of Chamis Equation, Taguchi method and Principal Component Analysis, IOP Conf Series: Materials Science and Engineering, 551 (2019) 1-8.
[18] S. M. A. K. Mohammed, D. L. Chen, Carbon Nanotube-Reinforced Aluminum Matrix Composites, Advanced Engineering Materials, 22 (2019).
[19] D. Kopeliovich. Estimations of composite materials properties. https://www.substech.com. (2023).
[20] S. Chang, C. Lee, S. Jeon, Measurement of Rock Fracture Toughness Under Modes I and II and Mixed-Mode Conditions by Using Disc-Type Specimen, Engineering Geology, 66 (2002) 79-97.
[21] www.Matweb.com, Online Materials Information Resource.
[22] M. Ahmad, K. A. Ismail, M. H. M. Hanid, F. Mat, A. M. Roslan, Modification of the design of circular thin-walled tubes to enhance dynamic energy absorption characteristics: Experimental and finite element analysis, IOP Conference Series: Materials Science and Engineering, 917 (2020) 1-13.
[23] A. Carpinteri, M. Paggi, Are the Paris’ law parameters dependent on each other? Fracture and Structural Integrity, 1 (2008) 10-6.
[24] D. Roylance, Introduction to Fracture Mechanics, Cambridge, (2001).
[25] P. Kumar, P. S. Shinde, G. Bhoyar, Fracture Toughness and Shear Strength of the Bonded Interface Between an Aluminium Alloy Skin and a FRP Patch, Journal of The Institution of Engineers (India) Series C, 100 (2018) 779-789.
[26] F. Habashi, Nickel, Physical and Chemical Properties, Encyclopedia of Metalloproteins, Springer, New York, (2013).
[27] Nickel chemical element. www.britannica.com/science/nickel-chemical-element, (2025).
[28] J. Bashyal, Nickel (Ni) Element: Important Properties, Uses, Health Effects, (2023). www.scienceinfo.com/nickel-ni-element-important-properties.
[29] J. Zacharias, The Temperature Dependence of Young's Modulus for Nickel,
Physical Review Journals Archive, 44 (1933) 116-122.
[30] Nickel – Properties – Price – Applications – Production, www. material-properties.org/nickel-properties-applications-price-production.
[31] J.M. Silvaa, R. A. Cláudiob, C. Moura Brancoc, J. Martins Ferreirad, Creep-fatigue behavior of a new generation Ni-base superalloy for aeroengine usage, Procedia Engineering, 2 (2010) 1865-1875.
[32] Magnesium. https://en.wikipedia.org/wiki/Magnesium.
[33] K.D. Naoum, Magnesium: Definition, Composition, Properties, and Applications, www.xometry.com/resources/materials/what-is-magnesium. (2023).
[34] Magnesium. https://pubchem.ncbi.nlm.nih.gov/element/Magnesium.
[35] V.K. Bommala, M.G. Krishna, C.T. Rao, Magnesium matrix composites for biomedical applications: A review, Journal of Magnesium and Alloys, 7 (2019) 72-79.
[36] Yield strength of magnesium, www.studybuff.com/what-is-the-yield-strength-of-magnesium.
[37] Z.Q. Cui, H.W. Yang , W.X. Wang, Z.F. Yan, Z.Z. Ma, B.S. Xu, H.Y. Xu, Research on fatigue crack growth behavior of AZ31B magnesium alloy electron beam welded joints based on temperature distribution around the crack tip, Engineering Fracture Mechanics, 133 (2015) 14-23.
[38] N. Xiong, S. Friedrich, S.R. Mohamed, I. Kirillov, X. Ye, Y. Tian, B. Friedrich, The Separation Behavior of Impurities in the Purification of High‑Purity Magnesium via Vacuum Distillation, Journal of Sustainable Metallurgy, 8 (2022) 1561-1572.
[39] M. M. Jamel, H. Lopez, B. Schultz, W. Otieno, The Effect of Solidification Rate on the Microstructure and Mechanical Properties of Pure Magnesium, Metals, 11 (2021) 1-13.
[40] TITANIUM ALLOY GUIDE, An RTI International Metals, (2000) 37-42.
[41] The ISCAR Reference Guide for Machining Titanium,
www.iscar.com.
[42] T. Chen, B. Barua, T. Hu, M. C. Messner, T. El-Wardany, An ICME Modeling Framework for Titanium/Tungsten-Carbide Metal Matrix Composites, Argonne National Laboratory U.S. Department of Energy laboratory managed by UChicago Argonne, (2023).
[43] F. A. Alshamma, O. A. Jassim, Dynamic crack propagation in nano-composite thin plates under multi-axial cyclic loading, Journal of Materials Research and Technology, 8 (2019) 4672-81.
[44] S. Arifeen, G. Potirniche, A. Elshabini, F. Barlow, Modeling of Failure in Aluminum Alloy Braze for a High Temperature Thermoelectric Assembly, 46th International Symposium on Microelectronics (IMAPS 2013), Orlando, FL USA, (2013).
[45] D. Marzal, Modeling and Testing of Shape Memory Alloys: Solar Sail Applications, California State University, Long Beach ProQuest Dissertations & Theses, (2022).
[46] N. D. Toan, Combined Hardening Behavior for Sheet Metal and its Application - Chapter 5: Case Study for Magnesium Alloy Sheets to Predict Ductile Fracture of Rotational Incremental Forming, AIJR Publisher, India, (2019).
