Design and fabrication of electrothermal SiC nanoresonators for high-resolution nanoparticle sensing

T. Dinh, Hoang‐Phuong Phan, T. Kozeki, Afzaal Qamar, T. Namazu, Yong Zhu, N. Nguyen, D. Dao
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引用次数: 3

Abstract

In this work, we present the design and fabrication of high-frequency SiC nanoresonators for highly sensitive nanoparticle sensing. A 280-nm single crystalline SiC film was grown on a Si wafer, and released from the substrate using an isotropic dry etching process. The SiC nanoresonators were then formed using the Focused Ion Beam technique. The simulation results show that the as-fabricated resonators can be thermally actuated at a very high in-plane resonant frequency of 366.11 MHz, and utilized as sensitive nano-particle sensing elements with a high mass sensitivity of 233 kHz/femtogram. These data indicate the possibility of developing SiC nanoresonators for high-resolution mass sensing and other high-frequency applications.
用于高分辨率纳米粒子传感的电热SiC纳米谐振器的设计与制造
在这项工作中,我们提出了用于高灵敏度纳米粒子传感的高频SiC纳米谐振器的设计和制造。在硅片上生长了280 nm的单晶SiC薄膜,并采用各向同性干蚀刻工艺从衬底上释放。然后使用聚焦离子束技术形成碳化硅纳米谐振器。仿真结果表明,所制备的谐振器可以在366.11 MHz的高面内谐振频率下实现热致动,并具有233 kHz/飞图的高质量灵敏度,可作为敏感的纳米粒子传感元件。这些数据表明开发用于高分辨率质量传感和其他高频应用的SiC纳米谐振器的可能性。
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