低迟滞形状记忆合金的研制与力学性能试验

Andre L. Montagnoli, Neha S. John, M. L. Young, F. Tad Calkins, D. Nicholson
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引用次数: 0

摘要

近年来,形状记忆合金作为一种强大的机械驱动机构在空间应用中得到了广泛的关注。这项技术面临的一个问题是,大多数商用sma由于其相对较大的滞后而产生大量的能量损失,这可能会导致任务总成本的增加。低迟滞形状记忆合金(lhsma)表现出更窄的迟滞,需要最小化这种能量损失。先前的研究表明,在niti基SMA中添加Cu、Co和Pd元素可以使形状记忆合金具有更低的热滞后,因为它们具有更好的相相容性。本研究研究了7种合金成分,以识别迟滞小于20°C的lhsma,并为这些lhsma制定加工路线,以确定空间驱动应用的潜在候选材料。
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Development and Mechanical Testing of Low Hysteresis Shape Memory Alloys
Shape memory alloys (SMAs) have gained attention in recent years as a powerful mechanism for mechanical actuation in space applications. One issue facing this technology is that most commercially available SMAs yield a high amount of energy loss due to their relatively large hysteresis, which can translate into an increase in the overall cost of the mission. Low hysteresis shape memory alloys (LHSMAs), which exhibit a much narrower hysteresis, are needed to minimize this energy loss. Previous studies have shown that elemental additions of Cu, Co, and Pd to the NiTi-based SMA can result in shape memory alloys with a much lower thermal hysteresis, due to better phase compatibility. This present work investigated seven alloy compositions to identify LHSMAs with less than 20 °C hysteresis and develop processing routes for these LHSMAs to determine potential candidates for space actuation applications.
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