Tensile Behavior of Tetragonal Zirconia Micro/Nano-Fibers and Beams In-Situ Tested in Push-to-Pull Devices

X. Zeng, P. Ye, Z. Du, C. Gan
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Abstract

The tensile mechanical behaviour of tetragonal zirconia micro/nano-fibers and beams were studied with a push-to-pull (PTP) device equipped in an in-situ nanoindenter. Polycrystalline and oligocrystalline micro/nano-fibers exhibited some degree of plastic strain before fracture with the tensile strength ranging from ~0.9 GPa to 1.4 GPa. Single-crystal beams generally experienced linear elastic deformation with tensile strength of ~2.1-3.4 GPa. No martensitic transformation induced shape memory strain was detected in the zirconia fibers and beams. Further variation of dopant concentration and crystal orientation was explored for single-crystalline beams and their significance in controlling the tensile strength was assessed and discussed.
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四边形氧化锆微/纳米纤维和梁在推拉装置中的拉伸性能测试
利用原位纳米压头中的推拉装置研究了四边形氧化锆微纳米纤维和梁的拉伸力学行为。多晶和寡晶微/纳米纤维在断裂前表现出一定程度的塑性应变,拉伸强度在~0.9 ~ 1.4 GPa之间。单晶梁一般经历线弹性变形,抗拉强度为~2.1 ~ 3.4 GPa。在氧化锆纤维和梁中未检测到马氏体相变引起的形状记忆应变。进一步探讨了掺杂剂浓度和晶体取向对单晶梁抗拉强度的影响,并对其在控制抗拉强度中的意义进行了评估和讨论。
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