[1] Furuya, Y., and Shimada, H., "Shape Memory Actuators for Robotic Applications", Materials and Design, Vol. 12, pp. 21-28, (1991).
[2] Nohouji, H.S., Hamedi, M., and Salehi, M., "Modeling, Validation, and Testing of a Ti-49.8% Ni Shape Memory Actuator", Journal of Intelligent Material Systems and Structures, Vol. 26, pp. 2196-2204, (2015).
[3] Savi, M.A., De Paula, A.S., and Lagoudas, D.C., "Numerical Investigation of an Adaptive Vibration Absorber using Shape Memory Alloys", Journal of Intelligent Material Systems and Structures, Vol. 22, pp. 67-80, (2011).
[4] Kahn, H., Huff, M. A., and Heuer, A. H., "The TiNi Shape-memory Alloy and its Applications for MEMS", Journal of Micromechanics and Microengineering, Vol. 8, pp. 213–221, (1998).
[5] Es-Souni, M., Es-Souni, M., and Fischer-Brandies, H., "Assessing the Biocompatibility of NiTi Shape Memory Alloys used for Medical Applications", Analytical and Bioanalytical Chemistry, Vol. 381, pp. 557-567, (2005).
[6] Yang, K., and Gu, C. L., "Design, Drive and Control of a Novel SMA-actuated Humanoid Flexible Gripper", Journal of Mechanical Science and Technology, Vol. 22, pp. 895-904, (2008).
[7] Yang, S., and Xu, Q., "A Review on Actuation and Sensing Techniques for MEMS-based Microgrippers", Journal of Micro-Bio Robotics, Vol. 13, pp. 1-14, (2017).
[8] Mineta, T., Deguchi, T., Makino, E., Kawashima, T., and Shibata, T., "Fabrication of Cylindrical Micro Actuator by Etching of TiNiCu Shape Memory Alloy Tube", Sensors and Actuators A: Physical, Vol. 165, pp. 392-398, (2011).
[9] Sun, H., Luo, J., Ren, Z., Lu, M., Nykypanchuk, D., Mangla, S., and Shi, Y., "Shape Memory Alloy Bimorph Microactuators by Lift-off Process", ASME Journal of Micro and Nano-Manufacturing, Vol. 8, pp. 031003-1, (2020).
[10] Knick, C. R., Sharar, D. J., Wilson, A. A., Smith, G. L., Morris, C. J., and Bruck, H. A., "High Frequency, Low Power, Electrically Actuated Shape Memory Alloy (SMA) MEMS Bimorph Thermal Actuators", Journal of Micromechanics and Microengineering, Vol. 29, pp. 075005, (2019).
[11] De Souza, C. V., and De Marqui, C., "Airfoil-based Piezoelectric Energy Harvesting by Exploiting the Pseudoelastic Hysteresis of Shape Memory Alloy Springs", Smart Materials and Structures, Vol. 24, pp. 125014 ,(2015).
[12] Kohl, M., Just, E., Pfleging, W., and Miyazaki, S., "SMA Microgripper with Integrated Antagonism", Sensors and Actuators A: Physical, Vol. 83, pp. 208-213, (2000).
[13] Tan, J.P., Huang, W.M., Gao, X.Y., Yeo, J.H., and Miao, J.M., "NiTi Shape Memory Alloy Thin Film based Microgripper", Proceedings of SPIE, April 6, Melbourne, Australia, pp. 106-113, (2001).
[14] Roch, I., Bidaud, P., Collard, D., and Buchaillot, L., "Fabrication and Characterization of an SU-8 Gripper Actuated by a Shape Memory Alloy Thin Film", Journal of Micromechanics and Microengineering, Vol. 13, pp. 330-336, (2003).
[15] Kim, D.H., Lee, M.G., Kim, B., and Sun, Y., "A Superelastic Alloy Microgripper with Embedded Electromagnetic Actuators and Piezoelectric Force Sensors: a Numerical and Experimental Study", Smart Materials and Structures, Vol. 14, pp. 1256, (2005).
[16] Mohamed Ali, M.S., and Takahata, K., "Frequency-controlled Wireless Shape-memory-alloy Microactuators Integrated using an Electroplating Bonding Process", Sensors and Actuators A: Physical, Vol. 163, pp. 363-372, (2010).
[17] Avirovik, D., Kumar, A., Bodnar, R. J., and Priya, S., "Remote Light Energy Harvesting and Actuation using Shape Memory Alloy-Piezoelectric Hybrid Transducer", Smart Materials and Structures, Vol. 22, pp. 052001, (2013).
[18] Adeodato, A., Duarte, B.T., Monteiro, L L. S., Pacheco, P M C.L., and Savi, M.A., "Synergistic use of Piezoelectric and Shape Memory Alloy Elements for Vibration Based Energy Harvesting", International Journal of Mechanical Sciences, Vol. 194, pp. 106206, (2020).
[19] Razavilar, R., Fathi, A., Dardel, M., and Arghavani, J., "Dynamic Analysis of a Shape Memory Alloy Beam with Pseudoelastic Behavior", Journal of Intelligent Material Systems and Structures, Vol. 29, pp. 1-15, (2018).
[20] Mirzaeifar, R., DesRoches, R., Yavari. A, and Gall, K., "On Superelastic Bending of Shape Memory Alloy Beams", International Journal of Solids and Structures, Vol. 50, pp. 1664–1680, (2013).
[21] Damanpack, A., Bodaghi, M., Aghdam, M., and Shakeri, M., "Shape Control of Shape Memory Alloy Composite Beams in the Post-buckling Regime", Aerospace Science and Technology, Vol. 39, pp. 575–587, (2014).
[22] Heidari, F., Taheri, K., Sheybani, M., and Janghorban, M., "On the Mechanics of Nanocomposites Reinforced by Wavy/Defected/Aggregated Nanotubes", Steel and Composite Structures, Vol. 38, pp. 533–545, (2021).
[23] Heidari, F., Afsari, A., and Janghorban, M., "Several Models for Bending and Buckling Behaviors of FG-CNTRCs with Piezoelectric Layers Including Size Effects", Advances in Nano Research, Vol. 9, pp. 193–210, (2020).
[24] Souza, A.C., Mamiya, E.N., and Zouain, N., "Three-dimensional Model for Solids Undergoing Stress-induced Phase Transformations", European Journal of Mechanics: A/Solids, Vol. 17, pp. 789–806, (1998).
[25] Lambrecht, F., Lay, C., Aseguinolaza, I.R., Chernenko, V., and Kohl, M., "NiMnGa/Si Shape Memory Bimorph Nanoactuation", Shape Memory and Superelasticity, Vol. 2, pp. 347–359, (2016).
[26] Ashrafi, M.J., Arghavani, J., Naghdabadi, R., Sohrabpour, S., and Auricchio, F., "Theoretical and Numerical Modeling of Dense and Porous Shape Memory Alloys Accounting for Coupling Effects of Plasticity and Transformation", International Journal of Solids and Structures, Vol. 88-89, pp. 248-262, (2016).
[27] Reddy, J.N., "Microstructure-dependent Couple Stress Theories of Functionally Graded Beams", Journal of the Mechanics and Physics of Solids, Vol. 59, pp. 2382–2399, (2011).
[28] Tajalli, S.A., "A Micro Plasticity Model for Pure Bending Analysis of Curved Beam-like MEMS Devices", Mechanics of Materials, Vol. 151, pp. 103606, (2020).
[29] Tomasiello, S., "Differential Quadrature Method: Application to Initial-boundary-value Problems", Journal of Sound and Vibration, Vol. 218, pp. 385-414, (1998).
[30] Janghorban, M., "Two Different Types of Differential Quadrature Methods for Static Analysis of Microbeams Based on Nonlocal Thermal Elasticity Theory in Thermal Environment", Archive of Applied Mechanics, Vol. 82, pp. 669-675, (2012).
[31] Bahrami, K., Afsari, A., Janghorban, M., and Karami, B., "Static Analysis of Monoclinic Plates via a Three-dimensional Model using Differential Quadrature Method", Structural Engineering and Mechanics, Vol. 72, pp. 131–139, (2019).
[32] Auricchio, F., and Petrini, L., "Improvements and Algorithmical Considerations on a Recent Three-dimensional Model Describing Stress-induced Solid Phase Transformations", International Journal for Numerical Methods in Engineering, Vol. 55, pp. 1255–1284, (2002).