研究无气泡硅/碳化硅亲水键合方法,实现高质量硅-碳化硅制造

Dingcheng Gao, Yu Liu, Yuan Gao, Yun Liu, Yongwei Chang, Z. Xue, Xing Wei
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摘要

采用硅-碳化硅衬底制造的电子器件具有出色的散热性能,射频损耗极小。然而,亲水直接键合的一个常见挑战是 Si/SiC 界面不可避免地会形成气泡,从而影响材料的利用效率。为解决这一问题,本研究引入了多重键合工艺。实验结果表明,这种方法能有效缓解界面气泡的形成,尤其是在采用多步退火-分离-键合方法时,效果更为显著。最终,无气泡的 3×3 平方厘米 Si-on-SiC 基底被制造出来。材料表征技术证实了硅功能层的高晶体质量和最小表面粗糙度。透射电子显微镜进一步显示,界面上存在无定形氧化物层(约 3.5 nm),没有任何缺陷或纳米实体。相信凭借优异的物理性能,Si-on-SiC 将在极端环境中拥有更广阔的应用前景。
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Research on bubble free Si/SiC hydrophilic bonding approach for high quality Si-on-SiC fabrication
The electrical device fabricated by the Si-on-SiC substrate exhibits superior heat dissipation and minimal RF loss. However, a common challenge in hydrophilic direct bonding is the inevitable formation of bubbles at the Si/SiC interface, which compromises material utilization efficiency. To address this issue, a multi-bonding process was introduced in this research. Experimental findings revealed that this method effectively mitigated interfacial bubble formation, especially when incorporating a multi-step annealing-separating-bonding approach, yielding even more promising results. Ultimately, a bubble-free 3×3 cm2 Si-on-SiC substrate was fabricated. Material characterization techniques confirmed the high crystal quality and minimal surface roughness for the Si functional layer. Transmission electron microscopy further revealed the presence of an amorphous oxide layer (~3.5 nm) at the interface, devoid of any defects or nanovoids. It is believed that with the excellent physical properties, Si-on-SiC will have a broader application prospect in extreme environments.
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