Surface roughness detection method of optical elements based on region scattering

Hongjun Wang, Chen Wei, A. Tian, Bingcai Liu, Xueliang Zhu
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Abstract

To achieve rapid and accurate detection of the surface roughness of optical elements, a surface roughness detection method based on region scattering was proposed in this paper. Firstly, starting from the basic principle of the angle-resolved scattering method, a surface roughness detection model based on the area scattering distribution is established. Then, the influence of incident angle, incident wavelength, etc. on the scattering distribution is simulated and analyzed, and the best sampling region of the scattering distribution is determined. Finally, the experiment completes the acquisition and processing of the surface scattering distribution of the optical elements, and the dynamic range of the scattering distribution is improved through the fusion of the multi-exposure scattering image, thereby realized the high-precision detection of surface roughness. Take optical components as test objects, the experimental results show that the use of regional scattering signals to characterize the surface roughness of components can improve the measurement speed while ensuring the measurement accuracy.
基于区域散射的光学元件表面粗糙度检测方法
为了实现对光学元件表面粗糙度的快速准确检测,提出了一种基于区域散射的表面粗糙度检测方法。首先,从角度分辨散射法的基本原理出发,建立了基于区域散射分布的表面粗糙度检测模型;然后,模拟分析了入射角、入射波长等因素对散射分布的影响,确定了散射分布的最佳采样区域。最后,实验完成了光学元件表面散射分布的采集和处理,并通过多曝光散射图像的融合提高了散射分布的动态范围,从而实现了表面粗糙度的高精度检测。以光学元件为测试对象,实验结果表明,利用区域散射信号表征元件表面粗糙度可以在保证测量精度的同时提高测量速度。
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