Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/98391
標題: 以鼓膜隔艙壓力試驗法探討次微米鈦鎳合金薄膜之 機械行為
Using Bulge test for the Mechanical Behavior Study of Submicrometer TiNi Alloy Thin Films
作者: 曾德宇
Te-Yu Tseng
關鍵字: 鈦鎳合金;形狀記憶合金;鼓膜隔艙試驗;機械性質;殘留應力;熱處理;循環測試;TiNi Alloy;SMA;bulge test;mechanical properties;residual stress;heat treatment;fatigue
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摘要: 
本研究利用鼓膜隔艙壓力試驗法(Bulge Test)來探討TiNi形狀記憶合金薄膜在濺鍍後不同熱處理條件下的機械性質與殘留應力,並以循環測試顯示TiNi薄膜之抗疲勞性,再藉由SEM和XRD觀察微結構與結晶相的變化與機械性質之間的關係。由SEM與XRD分析結果中可看出隨退火溫度增加,在大氣環境下退火的TiNi薄膜表面之Ti原子易與氧形成TiO2之脆性層,而在高真空及+N2環境下退火則能有效避免TiNi薄膜表面氧化,其中高真空環境的效果最好,且呈現出的結晶化程度明顯優於其它條件。在鼓膜實驗結果可得在退火溫度430度、500度和600度下,隨著溫度上升,殘留應力明顯下降,而楊氏係數隨著溫度上升而增加,由SEM與XRD分析的結果可判斷隨著退火溫度增加,使得表面TiO2與Ti3Ni4等析出相的形成,且R相引入沃斯田體母相,導致TiNi薄膜之楊氏係數增加。且在循環測試可看出循環後釋放的殘留應力隨著退火溫度上升而減少,由XRD分析FWHM變化,可判斷TiNi薄膜處於疲勞第一階段,顯示TiNi薄膜具有良好的抗疲勞性。

In this study, the Bulge Test was used to investigate the mechanical properties and residual stress of TiNi shape memory alloy film under different post-annealing temperature. The fatigue test showed the fatigue resistance of TiNi film. The relationship between the change of the microstructure and the crystalline phase and the mechanical properties was observed by SEM and XRD. From the results of SEM and XRD analysis, we can observe that as the annealing temperature increases, the Ti atoms on the surface of the TiNi film annealed in the atmosphere easily form a brittle layer of TiO2 with oxygen, while annealing under high vacuum and in N2 environment can effectively avoid the surface of the TiNi film oxidized, and the condition under high vacuum environment had the best effect, and the degree of crystallization is obviously superior to other conditions. In the results of the bulge test. We can find that as the annealed temperature increase, the residual stress decreases obviously, and the Young's modulus increases. The results of SEM and XRD analysis can determine that the formation of precipitates such as TiO2 and Ti3Ni4 on the surface as the annealing temperature increases. The R phase was introduced into the austenite matrix, which leads to an increase in the Young's modulus of the TiNi film. In the fatigue test, the residual stress released after fatigue decreases as the annealing temperature increases. The FWHM changes are analyzed by XRD, and the TiNi film is judged to be at The first stage of fatigue shows good fatigue resistance.
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