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Polymer Assessment for Magnetic Shape Memory Alloy Composites

Published online by Cambridge University Press:  26 February 2011

Royale S Underhill ,
Gregory A Keddy  and
Shannon P Farrell
Royale S Underhill
Affiliation:
[email protected], Defence R&D Canada - Atlantic, Emerging Materials Section, PO Box 1012, (9 Grove Street), Dartmouth, Nova Scotia, B2Y 3Z7, Canada, (902)427-3481, (902)427-3435
Gregory A Keddy
Affiliation:
[email protected], Defence R&D Canada - Atlantic, PO Box 1012, Dartmouth, Nova Scotia, B2Y 3Z7, Canada
Shannon P Farrell
Affiliation:
[email protected], Defence R&D Canada - Atlantic, PO Box 1012, Dartmouth, Nova Scotia, B2Y 3Z7, Canada
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Abstract

Our surrounding environment is teeming with useful energy, waiting to be harnessed (i.e., solar, wind, tidal, etc.). If this energy can be exploited at the point where it is required, then the need to carry additional power sources can be reduced. In recent years, magnetic shape memory alloys (MSMA) have demonstrated an ability to convert mechanical energy to magnetic energy. Such conversions have lead to the investigation of these alloys for energy harvesting applications.

There are a number of issues to address when forming a MSMA/polymer composite. The polymer must be stiff enough to transmit the induced strain through the entire matrix, yet soft enough not to exceed the MSMA blocking stress. Also, the polymer must not dampen any force applied before it can be transmitted to the MSMA particles.

Ten polymers have been investigated for MSMA/polymer composites. The work presented here will describe progress in nickel-manganese-gallium (Ni-Mn-Ga)/polymer composite fabrication and characterization. Special attention will be given to polymer selection, optimizing particle dispersion and MSMA/polymer interfacial interactions.

Keywords

compositepolymeralloy
Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 977: Symposium FF – Processing-Structure-Mechanical Property Relations in Composite Materials , 2006 , 977-FF13-01
Copyright
Copyright © Materials Research Society 2007

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References

1. Healey, , Joseph, P, Ham-Su, , Rosaura, , Keough, , Irv, , Farrell, , Shannon, P, Fisher, , Gary, , Underhill, , Royale, S, Gharghouri, , Michael, A, Rogge, , Ronald, , George, , Andy, , and Chen, , Jian, (2004). “Fabrication of Magnetic Shape Memory Alloy/Polymer Composites”. (DRDC Atlantic TM 2004–186). Defense Research & Development Canada - Atlantic.Google Scholar
2. Soursa, I, Tellinen, J, Ullakko, K, and Pagounis, E. (2004). “Voltage generation induced by mechanical straining in magnetic shape memory materials”. Journal of Applied Physics, 95, 8054–8058.Google Scholar
3. Spence, , Sarah, and Ham-Su, , Rosaura, (2005). “Energy Harvesting with Magnetic Shape Memory Alloys: Proof of Concept”. (DRDC Atlantic TN 2004–122). Defense Research & Development Canada - Atlantic.Google Scholar
4. Cheng, , Leon, M, Ham-Su, , Rosaura, , Farrell, , Shannon, P, and Hyatt, , Calvin, V (2004). “Magneto-Mechanical Response in Ni-Mn-Ga Magnetic Shape Memory Alloys”. (DRDC Atlantic TM 2004-267). Defense Research & Development Canada - Atlantic.Google Scholar
5. Farrell, , Shannon, P, Hyatt, , Calvin, V, Armstrong, , Bob, , Keough, , Irv, , Fisher, , Gary, , Chen, , Jian, , and Gharghouri, , Michael, (2003). “Determination of the Martensite-Austenite Transformation Temperatures in Ni-Mn-Ga Alloys”. In Proceeding of the International Conference on Shape Memory and Superelastic Technologies (SMST), p. 101.Google Scholar
6. , Ham-Su, , Rosaura and , Healey, Joseph, P (2004). “Solid State Grain Growth in Ni-Mn-Ga Alloys”. (DRDC Atlantic TM 2004–175). Defense Research & Development Canada - Atlantic.Google Scholar
7. Dow Corning Silane - Silane Solutions (Online). Dow Corning. http://www.dowcorning.com/content/silanes/ (May 2006).Google Scholar
8. , Massey, , Jason (2003). “Fabrication of Dielectric Polymer Actuators: Formulation of Polyurethane Elastomers”. (DRDC Atlantic CR 2003–226). Defense Research & Development Canada - Atlantic.Google Scholar
9. Antoun, G.C., Crone, W.C., Ellis, A.B., and Smith, N.A., (2004). “Improved Adhesion Between Nickel-Titanium Shape Memory Alloy and a Polymer Matrix via Silane Coupling Agents. Composites: Part A, 35, 1307–1312.Google Scholar
10. Matweb - Online Material Data Sheet (Online). Automation Creations, Inc. http://www.matweb.com/search/SpecificMaterial.asp?bassnum=PDW266 (June 2006).Google Scholar
11. Bayer Material Science - TPU (Online). Bayer Material Science. http://tpeu. com/tpu/emea/en/products/types/datasheet.jsp?ref=&gid=9128&pid=&lit=1 (August 2006).Google Scholar
12. Prospector (Online). IDES, Inc. http://prospector.ides.com/ (August 2006).Google Scholar
13. Product 200 (Online). Scientific Polymer Products Inc. http://www.scientificpolymer.com/catalog/description.asp?QProductCode=200 (November 2006).Google Scholar