用于红外激光束扫描的二元相位菲涅耳透镜和微线性驱动器的制造与集成

Hsueh-Yu Lu, Chi-En Lu, Zi-Rong Huang, Shihwei Lin, Sung-Cheng Lo, Rongshun Chen, W. Fang
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引用次数: 4

摘要

提出了一种由微菲涅耳透镜和线性梳状驱动器组成的MEMS红外激光束扫描系统。本研究的优点在于通过硅微加工工艺将二相菲涅耳透镜、微弹簧和微静电致动器制作并进一步集成,以实现所提出的红外激光束扫描系统。这样,就可以避免装配带来的困难和问题。本文提出的红外激光束扫描器是由线性梳状驱动器驱动的弹簧-质量系统,在谐振频率下工作以扩大扫描角度。测量结果表明,在VDC=12.5V, Vpp=18V的驱动电压下,该扫描仪的谐振频率为~2 kHz(超过应用所需的毫秒级最小响应时间要求),位移大于±20μm。1550 nm红外激光束的偏转角为±6.84°。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fabrication and Integration of Binary Phased Fresnel Lens and Micro Linear Actuator for IR Laser Beam Scanning Application
This study presents a MEMS IR-laser beam scanning system consisted of the micro Fresnel lens and linear comb actuators. The merits of this study is to fabricate and further integrate the binary phase Fresnel lens, micro springs, and micro electrostatic actuators through the silicon micromachining processes to achieve the proposed IR-laser beam scanning system. Thus, the difficulty and problem resulted from assembly can be prevented. The proposed IR-laser beam scanner is a spring-mass system driven by linear comb-drive actuators, and operates at the resonant frequency to enlarge the scanning angle. Measurements indicate the scanner has a resonant frequency of ~2 kHz (exceeds the millisecond minimum response time requirement for application), and a displacement of greater than ±20μm at a driving voltage of VDC=12.5V, Vpp=18V. Moreover, the 1550 nm infrared laser beam has a deflection angle of ±6.84°.
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