[1] A. Karimi, M. Navidbakhsh, R. Razaghi, A finite element study of balloon expandable stent for plaque and arterial wall vulnerability assessment, Journal of Applied Physics, 116(4) (2014).
[2] A. Karimi, M. Navidbakhsh, H. Yamada, R. Razaghi, A nonlinear finite element simulation of balloon expandable stent for assessment of plaque vulnerability inside a stenotic artery, Medical and Biological Engineering and Computing, 52(7) (2014) 589–99.
[3] S. Zhao, L. Gu, S. R. Froemming, Performance of Self-Expanding Nitinol Stent in a Curved Artery: Impact of Stent Length and Deployment Orientation, Journal of Biomechanical Engineering, 134(7) (2012) 071007.
[4] W. A. Wall, L. Wiechert, A. Comerford, S. Rausch, Towards a comprehensive computationalmodel for the respiratory system, International Journal for Numerical Methods in Biomedical Engineering, 26(1) (2010) 807–27.
[5] S. Tyagi, S. Singh, S. Mukhopadhyay, U. A. Kaul, Self- and balloon-expandable stent implantation for severe native coarctation of aorta in adults, American Heart Journal, 146(5) (2003) 920–28.
[6] F. Migliavacca, L. Petrini, P. Massarotti, S. Schievano, F. Auricchio, G. Dubini, Stainless and shape memory alloy coronary stents : a computational study on the interaction with the vascular wall, 2 (2004) 205–17.
[7] F. Auricchio, M. Conti, S. Morganti, A. Reali, Shape memory alloy: From constitutive modeling to finite element analysis of stent deployment, Computer Modeling in Engineering and Sciences, 57(3) (2010) 225–43.
[8] A. C. Souza, E. N. Mamiya, N. Zouain, Three-dimensional model for solids undergoing stress-induced phase transformations, European Journal of Mechanics, 17(5) (1998) 789–806.
[9] J. G. Boyd, D. C. Lagoudas, A thermodynamical constitutive model for shape memory materials. Part II, International Journal of Plasticity, 12(7) (1996) 843–73.
[10] F. Auricchio, R. L. Taylor, Shape-memory alloys: modelling and numerical simulations of the finite-strain superelastic behavior, Computer Methods in Applied Mechanics and Engineering, 143(1–2) (1997) 175–94.
[11] E. C. Teo, Q. Yuan, J. H. Yeo, Design Optimization of Coronary Stent Using Finite Element Analysis, ASAIO Journal, 46(2) (2000) 201.
[12] H. Zahedmanesh, C. Lally, Determination of the influence of stent strut thickness using the finite element method: Implications for vascular injury and in-stent restenosis, Medical and Biological Engineering and Computing, 47(4) (2009) 385–93.
[13] C. Lally, F. Dolan, P. J. Prendergast, Cardiovascular stent design and vessel stresses: A finite element analysis, Journal of Biomechanics, 38(8) (2005) 1574–81.
[14] K. Takashima, T. Kitou, K. Mori, K. Ikeuchi, Simulation and experimental observation of contact conditions between stents and artery models, Medical Engineering and Physics, 29(3) (2007) 326–35.
[15] G. A. Holzapfel, Changes in the Mechanical Environment of Stenotic Arteries During Interaction With Stents: Computational Assessment of Parametric Stent Designs, Journal of Biomechanical Engineering, 127(1) (2005) 166.
[16] Suyitno, H. I. Pratama, L. Pudjilaksono, Bifurcation stenting design and analysis using finite element method, 030021 (2018).
[17] W. Wu, W. Q. Wang, D. Z. Yang, M. Qi, Stent expansion in curved vessel and their interactions: A finite element analysis, Journal of Biomechanics, 40(11) (2007) 2580–85.
[18] S. Zhao, L. Gu, S. R. Froemming, Effects of arterial strain and stress in the prediction of restenosis risk: Computer modeling of stent trials, Biomedical Engineering Letters, 2(3) (2012) 158–63.
[19] A. F. Saleeb, B. Dhakal, On the role of SMA modeling in simulating NiTinol self-expanding stenting surgeries to assess the performance characteristics of mechanical and thermal activation schemes, Journal of the Mechanical Behavior of Biomedical Materials, 49 (2015) 43–60.
[20] M. Azaouzi, A. Makradi, S. Belouettar, Deployment of a self-expanding stent inside an artery : A finite element analysis, JOURNAL OF MATERIALS&DESIGN, 41 (2012) 410–20.
[21] G. A. Holzapfel, G. Sommer, and P. Regitnig, Anisotropic Mechanical Properties of Tissue Components in Human Atherosclerotic Plaques, Journal of Biomechanical Engineering, 126(5) (2004) 657.
[22] P. Mortier, A novel simulation strategy for stent insertion and deployment in curved coronary bifurcations: Comparison of three drug-eluting stents, Annals of Biomedical Engineering, 38(1) (2010) 88–99.
[23] E. Maher, A. Creane, C. Lally, D. J. Kelly, An anisotropic inelastic constitutive model to describe stress softening and permanent deformation in arterial tissue, Journal of the Mechanical Behavior of Biomedical Materials, 12 (2012) 9–19.
[24] J. F. Rodríguez, F. Cacho, J. A. Bea, M. Doblaré, A stochastic-structurally based three dimensional finite-strain damage model for fibrous soft tissue, Journal of the Mechanics and Physics of Solids, 54(4) (2006) 864–86.
[25] B. Fereidoonnezhad, R. Naghdabadi, G. A. Holzapfel, Stress softening and permanent deformation in human aortas: Continuum and computational modeling with application to arterial clamping, Journal of the Mechanical Behavior of Biomedical Materials, 61 (2016) 600–616.
[26] B. Fereidoonnezhad, R. Naghdabadi, S. Sohrabpour, G. A. Holzapfel, A Mechanobiological model for damage-induced growth in arterial tissue with application to in-stent restenosis, Journal of the Mechanics and Physics of Solids, 101 (2017) 311–27.
[27] F. Auricchio, A. Reali, U. Stefanelli, A three-dimensional model describing stress-induced solid phase transformation with permanent inelasticity, International Journal of Plasticity, 23(2) (2007) 207–26.
)