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首页> 外文期刊>粉体および粉末冶金 >反応スパッタ法によるTi-Al--Si-Nナノコンポジット膜の作製
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反応スパッタ法によるTi-Al--Si-Nナノコンポジット膜の作製

机译:反应溅射制备Ti-Al-Si-N纳米复合膜

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摘要

The influence of sputtering conditions on the micro structure and mechanical properties of Ti-Al-Si-N was investigated using XRD, XPS and ultra-microindentaion. The targets of Ti_(50)Al_(50) and Ti_(50)Al_(40)Si_(10) alloy were sputtered in a mixture of argon and nitrogen using an r.f. sputtering apparatus of Facing Target-type Sputtering. The substrate was heated up to ~573 K and a substrate bias of d.c. up to -100 V was applied. XRD patterns of Ti-Al-Si-N films suggested two phases, the cubic B1 NaCl type structure and an amorphous phase, were presented in the film. XRD and XPS results indicate that the Ti-Al-Si-N films have a nano-composite structure consisting of nanocrystalline Ti(Al)N and amorphous phase. The highest hardness of 43 GPa was obtained for the Ti-Al-Si-N films deposited at 573 K without substrate bias. This hardness is ~ 19 percent higher than that for Ti-Al-N films. On the other hand, Young's modulus for Ti-Al-Si-N films was 360 GPa, which is ~13 percent lower than that of Ti-Al-N films. When the substrate bias of - 30 V was applied for Ti-Al-Si-N film deposition, h-A1N peak was detected in the XRD pattern and the hardness of the film decreased. These results could be attributed to the segregation of h-A1N phase from the Ti-Al-Si-N nano-composite films.
机译:采用XRD,XPS和超微吲哚,研究了溅射条件对Ti-Al-Si-N微结构和力学性能的影响。使用R.F的氩气和氮的混合物溅射Ti_(50)Al_(50)和Ti_(50)和Ti_(50)Al_(40)合金的靶标。面向目标型溅射的溅射装置。将基材加热至〜573k,以及D.C的底物偏压。最高可达-100 v。 Ti-Al-Si-N膜的XRD图案表明,在薄膜中提出了两相,立方B1 NaCl型结构和无定形相。 XRD和XPS结果表明Ti-Al-Si-N膜具有由纳米晶Ti(Al)N和非晶相组成的纳米复合结构。在没有底物偏压的情况下沉积在573k的Ti-Al-Si-N膜中获得43GPa的最高硬度。这种硬度比Ti-Al-N薄膜高约19%。另一方面,Ti-Al-Si-N膜的杨氏模量为360gPa,比Ti-Al-N薄膜低约13%。当施加-30V的底物偏压用于Ti-Al-Si-N膜沉积时,在XRD图案中检测H-A1N峰,并且膜的硬度降低。这些结果可归因于来自Ti-Al-Si-N纳米复合膜的H-A1N相的偏析。

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