Considerations on Tension–Tension Fatigue Predictions for Nitinol

Duerig TW, Melton KN, Stöckel D, Wayman CM (1990) Engineering aspects of shape memory alloys. Butterworth-Heinemann, Oxford, pp 130–136 Fähler S, Rößler UK, Kastner O, Eckert J, Eggeler G, Emmerich H, Entel P, Müller S, Quandt E, Albe K (2012) Caloric effects in ferroic materials: new concepts for cooling. Adv Eng Mat 14(1–2):10–19 Moya X, Kar-Narayan S, Mathur ND (2014) Caloric materials near ferroic phase transitions. Nat Mater 13(5):439–450 Tušek J, Engelbrecht K, Eriksen D, Dall’Olio S, Tušek J, Pryds N (2016) A regenerative elastocaloric heat pump. Nat Energy 1(10):1–6 Snodgrass R, Erickson D (2019) A multistage elastocaloric refrigerator and heat pump with 28 K temperature span. Sci Rep 9(1):18532 Slaughter J, Czernuszewicz A, Griffith L, Pecharsky V (2020) Compact and efficient elastocaloric heat pumps—Is there a path forward? J Appl Phys 127(19):194501 Duerig T, Pelton A, Stoeckel D (1999) An overview of nitinol medical applications. Mat Sci Eng A 273–275:149–160 Cheng CP, (2019) Handbook of Vascular Motion, Elsevier—Acadmeic Press. Weaver JD, Sena GM, Aycock KI, Roiko A, Falk WM, Sivan S, Berg BT (2023) Rotary bend fatigue of nitinol to one billion cycles. Shape Mem Superelasticity. https://doi.org/10.1007/s40830-022-00409-7 Suresh S, (1998) Fatigue of materials 2nd Ed. Cambridge University Press. McKelvey AL, Ritchie RO (1999) Fatigue-crack propagation in Nitinol, a shape-memory and superelastic endovascular stent material. J Biomed Mat Res A 47(3):301–308 Robertson SW, Pelton AR, Ritchie RO (2012) Mechanical fatigue and fracture of Nitinol. Int Mater Rev 57(1):1–36 Mahtabi MJ, Shamsaei N, Mitchell MR (2015) Fatigue of Nitinol: the state-of-the-art and ongoing challenges. J Mech Behav Biomed Mater 50:228–254 Gbur JL, Lewandowski JJ (2016) Fatigue and fracture of wires and cables for biomedical applications. Int Mater Rev 61(4):231–314 Pelton AR, Berg BT, Saffari P, Stebner AP, Bucsek AN (2022) Pre-strain and mean strain effects on the fatigue behavior of superelastic Nitinol medical devices. Shape Mem Superelasticity 8(2):64–84 Launey M, Robertson SW, Vien L, Senthilnathan K, Chintapalli P, Pelton AR (2014) Influence of microstructural purity on the bending fatigue behavior of VAR-melted superelastic Nitinol. J Mech Behav Biomed Mater 34:181–186 Robertson SW, Launey M, Shelley O, Ong I, Vien L, Senthilnathan K, Saffari P, Schlegel S, Pelton AR (2015) A statistical approach to understand the role of inclusions on the fatigue resistance of superelastic Nitinol wire and tubing. J Mech Behav Biomed Mater 51:119–131 Urbano MF, Cadelli A, Sczerzenie F, Luccarelli P, Beretta S, Coda A (2015) Inclusions size-based fatigue life prediction model of NiTi alloy for biomedical applications. Shape Mem Superelasticity 1(2):240–251 Pelton AR, Pelton SM, Jörn T, Ulmer J, Niedermaier D, Plaskonka K, LePage WS, Saffari P, Mitchell MR, The Quest for Fatigue-Resistant Nitinol for Medical Implants, STP1616: Fourth Symposium on Fatigue and Fracture of Metallic Medical Materials and Devicesed. In: Mitchell MR, Berg BT, Woods TO, Jerina KL, (Eds.), ASTM International, 2019, p 1–30 ASTM F2004, (2017) Standard test method for determination of transformation temperature of Nickel–Titanium shape memory alloys by thermal analysis, ASTM International. ASTM F2082, (2016) Standard test method for determination of transformation temperature of Nickel–Titanium shape memory alloys by bend and free recovery, ASTM International. ASTM F2516, (2018) Standard test method for tension testing of Nickel–Titanium superelastic materials, ASTM International. Shimizu K, Tadaki T (1987) Shape memory effect mechanism, shape memory alloys. In: Funakubo H (Ed.), Gordon and Breach Science, p 1–60 Miyazaki S, Imai T, Igo Y, Otsuka K (1986) Effect of cyclic deformation on the pseudoelasticity characteristics of Ti-Ni alloys. Metall Trans 17A:115–120 Eucken S, Duerig TW (1989) The effects of pseudoelastic prestraining on the tensile behaviour and two-way shape memory effect in aged NiTi. Acta Metall 37(8):2245–2252 Pelton AR, Simpson J, Stöckel D, (1992) Towards the optimization of shape memory actuators: the effects of pre-strained wire, actuator 92, VDI/VDEed. In: Borgmann H, Lenz K, (Eds.), Technologiezentrum Informationstechnik GmbH, p 212–216 Eggeler G, Hornbogen E, Yawny A, Heckmann A, Wagner M (2004) Structural and functional fatigue of NiTi shape memory alloys. Mater Sci Eng A 378:24–33 Sehitoglu H, Alkan S (2018) Recent progress on modeling slip deformation in shape memory alloys. Shape Mem Superelasticity 4:11–25 Stebner AP, Paranjape HM, Clausen B, Brinson LC, Pelton AR (2015) In-situ neutron diffraction studies of large monotonic deformations of superelastic nitinol. Shape Mem Superelasticity 1:252–267 Stebner AP, Vogel SC, Noebe RD, Sisneros TA, Clausen B, Brown DW, Garg A, Brinson LC (2013) Micromechanical quantification of elastic, twinning, and slip strain partitioning exhibited by polycrystalline, monoclinic nickel–titanium during large uniaxial deformations measured via in-situ neutron diffraction. J Mech Phys Solids 61(11):2302–2330 Pelton AR, Clausen B, Stebner AP (2015) In Situ neutron diffraction studies of increasing tension strains of superelastic Nitinol. Shape Mem Superelasticity 1(3):375–386 Perkins J, Sponholz RO (1984) Stress-induced martensitic transformation cycling and two-way shape memory training in Cu–Zn–Al Alloys. Metall Trans 15A:313–321 Chowdhury P, Sehitoglu H (2017) Deformation physics of shape memory alloys—Fundamentals at atomistic frontier. Prog Mater Sci 88:49–88 Mohammed ASK, Sehitoglu H (2020) Martensitic twin boundary migration as a source of irreversible slip in shape memory alloys. Acta Mater 186:50–67 Mohammed ASK, Sehitoglu H (2020) Modeling the interface structure of type II twin boundary in B19′ NiTi from an atomistic and topological standpoint. Acta Mater 183:93–109 Tabanli RM, Simha NK, Berg BT (1999) Mean stress effects on fatigue of NiTi. Mater Sci Eng A A273–275:644–648 Tabanli RM, Simha NK, Berg BT (2001) Mean strain effects on the fatigue properties of superelastic NiTi. Metall Mater Trans A 32A(7):1866–1869 Tolomeo D, Davidson S, Santinoranout M, (2000) Cyclic properties of superelastic nitinol: design implications, SMST-2000: Proceedings of the International Conference on Shape Memory and Superelastic Technologiesed. In: Russell SM, Pelton AR, (Eds.), International Organization on SMST, p 409–417 Morgan NB, Painter J, Moffat A, (2003) Mean Strain Effects and Microstructural Observations During in vitro Fatigue Testing of NiTi, SMST-2003: Proceedings of the International Conference on Shape Memory and Superelastic Technologies. In: Pelton AR, Duerig TW, (Eds.), International Organization on SMST, p 303–310 Pelton AR, Schroeder V, Mitchell MR, Gong X-Y, Barney M, Robertson SW (2008) Fatigue and durability of Nitinol stents. J Mech Behav Biomed Mater 1:153–164 Pelton AR (2011) Nitinol fatigue: a review of microstructures and mechanisms. J Mater Eng Perform 20(4):613–617 Cao H, Wu MH, Zhou F, McMeeking RM, Ritchie RO (2020) The influence of mean strain on the high-cycle fatigue of Nitinol with application to medical devices. J Mech Phys Solids 143:104057 Gerber H (1874) Bestimmung der zulassigen Spannungen in Eisen-konstructionen. Zeitschrift des Bayerischen Architekten und Ingenieur-Vereins 6:101–110 Goodman J, (1899) Mechanics applied to Engineering, Longmans Green. Soderberg CR (1939) Factor of safety and working stress. Trans Am Soc Mech Eng 52:13–28 Miyazaki S, Mizukoshi K, Ueki T, Sakuma T, Liu Y (1999) Fatigue life of Ti-50 at.% Ni and Ti-40Ni-10 Cu (at.%) shape memory alloy wires. Mater Sci Eng A A273–275:658–663 Pelton AR, Fino-Decker J, Vien L, Bonsignore C, Saffari P, Launey M, Mitchell MR (2013) Rotary-bending fatigue characteristics of medical-grade Nitinol wire. J Mech Behav Biomed Mater 27:19–32 Shamimi A, Amin-Ahmadi B, Stebner A, Duerig T (2018) The effect of low temperature aging and the evolution of R-phase in Ni-rich NiTi. Shape Mem Superelasticity 4:417–427 Bonsignore C, Shamini A, Duerig T (2019) The Role of parent phase compliance on the fatigue lifetime of Ni–Ti. Shape Mem Superelasticity 5:407–414 Catoor D, Ma Z, Kumar S (2019) Cyclic response and fatigue failure of Nitinol under tension–tension loading. J Mater Res 34:3504–3522 Shaw JA, Kyriakides S (1995) Thermomechanical aspects of NiTi. J Mech Phys Solids 43(8):1243–1281 Delpueyo D, Jury A, Balandraud X, Grédiac M (2021) Applying full-field measurement techniques for the thermomechanical characterization of shape memory alloys: a review and classification. Shape Mem Superelasticity 7(4):462–490 Daly S, Ravichandran G, Bhattacharya K (2007) Stress-induced martensitic phase transformation in thin sheets of Nitinol. Acta Mater 55(10):3593–3600 Reedlunn B, Churchill CB, Nelson EE, Shaw JA, Daly SH (2014) Tension, compression, and bending of superelastic shape memory alloy tubes. J Mech Phys Solids 63:506–537 Sedmák P, Pilch J, Heller L, Kopeček J, Wright J, Sedlák P, Frost M, Šittner P (2016) Grain-resolved analysis of localized deformation in nickel-titanium wire under tensile load. Science 353:559–562 Reedlunn B, LePage WS, Daly SH, Shaw JA (2020) Axial-torsion behavior of superelastic tubes: Part I, proportional isothermal experiments. Int J Solids Struct 199:1–35 Zheng L, He Y, Moumni Z (2017) Investigation on fatigue behaviors of NiTi polycrystalline strips under stress-controlled tension via in-situ macro-band observation. Int J Plast 90:116–145 Kimiecik M, Jones JW, Daly S (2016) The Effect of microstructure on stress-induced martensitic transformation under cyclic loading in the SMA Nickel-Titanium. J Mech Phys Solids 89:16–30 Barney MM, Xu D, Robertson SW, Schroeder V, Ritchie RO, Pelton AR, Mehta A (2011) Impact of thermomechanical texture on the superelastic response of Nitinol implants. J Mech Behav Biomed Mater 4(7):1431–1439 Young ML, Wagner MFX, Frenzel J, Schmahl WW, Eggeler G (2010) Phase volume fractions and strain measurements in an ultrafine-grained NiTi shape-memory alloy during tensile loading. Acta Mater 58(7):2344–2354 LePage WS, Shaw JA, Daly SH (2021) Effects of texture on the functional and structural fatigue of a NiTi shape memory alloy. Int J Solids Struct 221:150–164 Y Kim, S Miyazaki, (1997) Fatigue life of Ti-50 at.% Ni and Ti-40Ni-10Cu (at.%) shape memory alloy wires, Shape Memory and Superelastic Technologies-97. In: AR Pelton, S Russell, D Hodgson, TW Duerig (Eds.), SMST, (Asilomar, CA), pp 473-478 Moumni Z, Herpen AV, Riberty P (2005) Fatigue analysis of shape memory alloys: energy approach. Smart Mater Struct 14(5):S287–S292 Mahtabi MJ, Shamsaei N (2016) A modified energy-based approach for fatigue life prediction of superelastic NiTi in presence of tensile mean strain and stress. Int J Mech Sci 117:321–333 Smith KN, Watson P, Topper TH (1970) A stress-strain function for the fatigue of metals. J Mater JMLSA 5(4):767–778 Kujawski D, Ellyin F (1995) A unified approach to mean stress effect on fatigue threshold conditions. Int J Fatigue 17(2):101–106 Łagoda T, Macha E, Sakane M (2003) Estimation of high temperature fatigue lifetime of SUS304 steel with an energy parameter in the critical plane. J Theor Appl Mech 41(1):55–73 Varvani-Farahani A (2000) A new energy-critical plane parameter for fatigue life assessment of various metallic materials subjected to in-phase and out-of-phase multiaxial fatigue loading conditions. Int J Fatigue 22:295–305 Lei B-M, Tran V-X, Taheri S, le Roux J-C, Curtit F, He M, Wan L, Zhou Y (2015) Toward consistent fatigue crack initiation criteria for 304L austenitic stainless steel under multi-axial loads. Int J Fatigue 75:57–68