本實驗所研究之對象為塊材Co25Pd75合金以及Fe66Pd34合金，並探討Co25Pd75合金以及Fe66Pd34合金是否可藉由熱處理改善其原本的磁、電以及機械性質。所有樣品分別以不同溫度持溫1.5小時後，再快速進行水淬，並利用儀器量測其性質。
塊材Co25Pd75合金在熱處理溫度區間為500°C至750°C時，材料磁性質提升；熱處理溫度達到750°C時，磁矯頑力從未經原材的263 Oe下降至48 Oe，磁導率與電阻率之性質同步提升，該溫度下之Co25Pd75合金具有最大的飽和磁致伸縮絕對值 155 ppm。
經700°C熱處理之Fe66Pd34合金，飽和磁致伸縮絕對值為65 ppm，有最大的磁致伸縮敏感度，其磁、電與機械性質對磁場的反應時間相較於原材，具有較快的反應速度。

The Co25Pd75 alloy and Fe66Pd34 alloy were studied in this dissertation. It was investigated whether Co25Pd75 alloy and Fe66Pd34 alloy’s original magnetic, electrical and mechanical properties could be improved by heat treatment. All samples were held at different temperatures for 1.5 hours, then quickly quenched. The instruments were used to measure the properties of the samples.
The Co25Pd75 alloy in the heat treatment temperature range of 500°C to 750°C , which improves the magnetic properties of the material. When the heat treatment temperature reached to 750°C, the coercivity of the Co25Pd75 alloy was reduced from 263 Oe to 48 Oe, and the Co25Pd75 alloy’s permeability and the resistivity increased. It has the largest absolute saturated magnetostriction value 155 ppm.
Fe66Pd34 alloy with heat treatment at 700°C has a maximum magnetostriction of 65 ppm and has the largest magnetostrictive sensitivity. The magnetic, electrical and mechanical properties of the Fe66Pd34 alloy has a faster response time to the magnetic field than the original reaction speed.

1. R.D. Noce, N. Barelli, P.T.A. Sumodjo, D.R. Cornejo, A.V. Benedettia. (2006). Effect of the bath pH on the electrodeposition of nanocrystalline Pd–Co alloys and their magnetic properties. Journal of Magnetism and Magnetic Materials(306), 199–203.
2. Shunichi HASHIMOTO, Yoshitaka OCHIAI & Koichi ASO. (1989). Perpendicular magnetic anisotropy in sputtered CoPd alloy films. Japanese Journal of Applied Physics(28), 1596–1599.
3. H. FUJIWARA, H. KADOMATSU & T. TOKUNAGA. (1983). Magnetocrystalline anisotropy and magnetostriction of Pd-Co alloys. Journal of Magnetism and Magnetic Materials(31–34), 809–810.
4. E. Gan'shina, V. Guschin, I. Romanov, A. Skobelev, A. Tselev. (1999). Co-Pd alloy films for magneto-optical recording. Journal of Magnetism and Magnetic Materials(193), 174–176.
5. 陳仲豪，“鐵鈀鋁磁性合金之顯微結構與磁性之探討分析”，國立高雄應用科技大學模具工程系碩士論文（2009）。
6. 金重勳，磁性技術手冊，中華民國磁性技術協會出版 (2002)。
7. 近角聰信著，張煦、李學養譯，“磁性物理學”，聯經出版事業公司 (1982)。
8. 鄭振東，“實用磁性材料”，全華科技圖書股份有限公司(1999)。
9. William F.Smith著，李春穎、許煙明、陳忠仁譯，“材料科學與工程”，高立圖書有限公司(1994)。
10. 王坤池，“超高真空中在Ge(111)面上成長Co超薄膜之退火效應及磁性現象研究”，國立台灣科技大學機研所碩士論文（2001）。
11. 陳宿惠，“銀─鈷超薄膜在鉑（111）表面的磁性探討”，國立台灣師範大學物理所碩士論文（1999）。
12. 陳淑貞，“鈷薄膜在矽(100)表面的磁性觀測”，國立台灣師範大學物理所碩士論文（1999）。
13. 聶亨芸，“銀中介層對鈷超薄膜在鍺(111)基板上磁性質影響之研究”，國立清華大學材料科學工程研究所碩士論文(2002)。
14. 賴耿陽， “應力應變的解析原理” ，復漢出版社，pp. 24-59(1996)。
15. A.H.Morrish,“The physical principles of magnetism” (1965).
16. 鍾文定，“鐵磁學”，(中冊)，科學出版社(1998)。
17. 吳泰伯、許樹恩，“X光繞射原理與材料結構分析”，中國材料科學學會(1996)。
18. Model 7407 Vibrating Sample Magnetometer user’s manual, Lake Shore.
19. 邱軍浩，“ Ti/C 元素對PrFeB 系複合奈米晶薄帶之磁性及交換藕合效應影響”國立中正大學物理研究所博士論文(2006)。
20. 中研院金屬機械性質量測儀操作說明書(2015)。
21. ASTM E 1876-99, Am. Soc. Testing and Materials, (1999).
22. Yoshie MATSUO. (1972). Ordered alloys in the cobalt-palladium system. Journal of the physical society of Japan(32). 972–977.
23. R.D. Noce, N. Barelli, P.T.A. Sumodjo, D.R. Cornejo, A.V. Benedettia. (2007). The influence of residual stress and crystallite size on the magnetic properties of electrodeposited nanocrystalline Pd-Co alloys. Surface & Coatings Technology(202), 107–113.
24. S. U. Jen & B. L. Chao. (1994). Magnetostriction of polycrystalline Co-Pd alloys. Journal of applied physics(75), 5667–5669.
25. E. Gan'shina, V. Guschin, I. Romanov, A. Skobelev, A. Tselev. (1998). Magneto-optical properties of Co-Pd alloy films with perpendicular magnetic anisotropy. Journal of Magnetism and Magnetic Materials(185), 258–264.
26. S. U. Jen, S. S. Liou. (1995). High-field forced magnetoresistances of Co-Pd alloys. Journal of Magnetism and Magnetic Materials(139), 77–82.
27. S. Chikazumi: Physics of Magnetism, Krieger, New York (1978).