铝膜溅射功率对铝诱导低温多晶硅膜结晶的影响

H. Chu, M. Weng, Chih-Cheng Nien, Cheng Lin, Kuan-I Hu
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引用次数: 3

摘要

本研究采用铝诱导结晶法在康宁Eagle2000玻璃基板上制备低温多晶硅(LTPS)薄膜。通过对沉积铝膜过程中不同溅射功率的控制,制备出了溅射功率分别为100、200、400、800和1600瓦的5种样品。采用XRD、拉曼光谱、SEM、AFM和α -步进分析了铝膜溅射功率对晶体质量、表面形貌、粗糙度和残余应力的影响。结果表明,表面粗糙度随溅射功率的增大而增大。随着溅射功率的增大,在SEM显微图上可以观察到多晶硅薄膜上越来越多的凸起和裂纹。当铝溅射功率为1600瓦时,在SEM显微照片上观察到多晶硅薄膜的破裂。根据α -步进器在退火前后的测量结果,计算出溅射功率为100和200 W时的薄膜应力是拉伸的。然而,如果溅射功率进一步提高到400和800瓦,薄膜应力就会变成压缩的。这就解释了随着溅射功率的增大,凸点和裂纹增多的原因。由于薄膜已经破裂,计算应力的公式不再适用,因此不能正确计算膜应力。因此,从膜应力最小的角度出发,铝膜溅射功率在200 ~ 400瓦是我们研究的最佳范围
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The Influence of Sputtering Power of Aluminum Film in Aluminum Induced Crystallization of Low Temperature Poly-Silicon Film
This study produces low-temperature poly-silicon (LTPS) film by aluminum induced crystallization (AIC) method on Corning Eagle2000 glass substrate. Through the control of different sputtering power in depositing aluminum film, five kinds of specimens with sputtering power of 100, 200, 400, 800 and 1600 Watts, respectively, are made. Crystal quality, surface morphology, roughness and film residual stress varying with aluminum film sputtering power are analyzed with XRD, Raman spectra, SEM, AFM and alpha-stepper. Results show that surface roughness increases proportional to sputtering power. More and more bulges and cracks are observed on the poly-Si thin film in SEM micrographs as the sputtering power increases. A broken poly-Si film is observed in SEM micrograph when Al sputtering power is 1600 Watts. The film stresses calculated are tensile when sputtering power are 100 and 200 W from the measurement results of alpha-stepper both before and after annealing process. However, if the sputtering power is further increased to 400 and 800 Watts, the film stresses will become compressive. This explained the reason why bulges and cracks increase with the sputtering power. The film stress cannot be calculated correctly because the film has already broken and the equation for calculating stress is no more applicable. Therefore, from the viewpoint of minimal film stress, a sputtering power of aluminum film of 200 to 400 Watts will be the optimal range in our study
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