Manufacture of Lenses and Diffraction Gratings Using DLP As an Additive Manufacturing Technology

Laura Daniela Vallejo Melgarejo, J. García, R. Reifenberger, B. Newell
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引用次数: 1

Abstract

This document condenses the results obtained when 3D printing lenses and their potential use as diffraction gratings using Digital Light Processing (DLP), as an additive manufacturing technique. This project investigated the feasibility of using DLP additive manufacturing for producing custom designed lenses and gratings. DLP was identified as the preferred manufacturing technology for gratings fabrication. Diffraction gratings take advantage of the anisotropy, inherent in additive manufacturing processes, to produce a collated pattern of multiple fringes on a substrate with completely smooth surfaces. The gratings are transmissive and were manufactured with slit separations of 10, 25 and 50 μm. More than 50 samples were printed at various build angles and mechanically treated for maximum optical transparency. The variables of the irradiance equation were obtained from photographs taken with an optical microscope. These values were used to estimate theoretical irradiance patterns of a diffraction grating and compared against the experimental 3-D printed grating. The resulting patterns were found to be remarkably similar in amplitude and distance between peaks when compared to theoretical values.
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利用DLP增材制造技术制造透镜和衍射光栅
本文档浓缩了3D打印透镜及其使用数字光处理(DLP)作为增材制造技术作为衍射光栅的潜在用途时获得的结果。该项目研究了使用DLP增材制造生产定制设计透镜和光栅的可行性。DLP被确定为光栅制造的首选制造技术。衍射光栅利用增材制造工艺中固有的各向异性,在具有完全光滑表面的衬底上产生多个条纹的排列图案。光栅具有透射性,狭缝间距分别为10、25和50 μm。50多个样品以不同的构建角度印刷,并进行机械处理以获得最大的光学透明度。辐照度方程的变量由光学显微镜拍摄的照片得到。这些值被用来估计衍射光栅的理论辐照模式,并与实验3d打印光栅进行比较。结果发现,与理论值相比,在振幅和峰值之间的距离上非常相似。
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