Conference Paper
Year 2016,
Special Issue (2016), 240 - 243, 01.12.2016
Abstract
References
- Ming H. Wu and L. Mcd. Schetky. (2000), “Industrial Applications for Shape Memory Alloys”, Proceedings of the International Conferance on Shape Memory and Superelastic Technologies, Pacific Grove, California, P.171-182
- Huang, W. (1998),” Shape Memory Alloys and Their Application to Actuators for Deployable Structures”, University of Cambridge, Peterhouse
- G.W. Xu, D.C. Lagoudas, D. Hughes, and J.T. Wen (1997), “Journal of Intelligent Materials and Structures.”
- Buehler, W. J. (17.07.2013). Re-Shaping-the-Future-with-Shape-Memory-Alloys http://www.biomedicine.org/biology-technology-1/Re-Shaping-the Futurewith-Shape-Memory-Alloys---SMA-Starter-Kit-10282-1/
- Yurtsever, Ö., (2013) http://ozguryurtsever.com/NiTiNol-2.(09.03.2014)
- Donmez B. et al, (2010), “Precise position control using shape memory alloy wires” Turkish Journal of Electrical Engineering & Computer Sciences, Vol.18,No.5
- Toi Y, et al, “Finite element analysis of superelastic, large deformation behaviour of shape memory ally helical springs”, Computer&Structures, Vol:82, Issues:20-21
Year 2016,
Special Issue (2016), 240 - 243, 01.12.2016
Abstract
In this study, a particular mechanism is designed to obtain the mechanical properties of shape memory alloys (SMA). Mechanical
behavior occurring due to the super elastic properties is investigated by applying current to shape memory alloys via designed mechanism.
Displacement, velocity, time, force physical effects of SMA springs is obtained for different current values, and active operating range of
springs is determined. This acquired data are of importance in determining the area of use of shape-memory alloys.
This paper presents the structure of the designed mechanism and data of mechanical properties of shape memory alloys which are obtained
by using this designed mechanism.
Keywords
References
- Ming H. Wu and L. Mcd. Schetky. (2000), “Industrial Applications for Shape Memory Alloys”, Proceedings of the International Conferance on Shape Memory and Superelastic Technologies, Pacific Grove, California, P.171-182
- Huang, W. (1998),” Shape Memory Alloys and Their Application to Actuators for Deployable Structures”, University of Cambridge, Peterhouse
- G.W. Xu, D.C. Lagoudas, D. Hughes, and J.T. Wen (1997), “Journal of Intelligent Materials and Structures.”
- Buehler, W. J. (17.07.2013). Re-Shaping-the-Future-with-Shape-Memory-Alloys http://www.biomedicine.org/biology-technology-1/Re-Shaping-the Futurewith-Shape-Memory-Alloys---SMA-Starter-Kit-10282-1/
- Yurtsever, Ö., (2013) http://ozguryurtsever.com/NiTiNol-2.(09.03.2014)
- Donmez B. et al, (2010), “Precise position control using shape memory alloy wires” Turkish Journal of Electrical Engineering & Computer Sciences, Vol.18,No.5
- Toi Y, et al, “Finite element analysis of superelastic, large deformation behaviour of shape memory ally helical springs”, Computer&Structures, Vol:82, Issues:20-21
There are 7 citations in total.
Details
| Subjects | Engineering |
|---|---|
| Journal Section | Research Article |
| Authors | |
| Publication Date | December 1, 2016 |
| Published in Issue | Year 2016 Special Issue (2016) |
