Sparse scanning Hartmann wavefront sensor

被引：1
作者：
Xu H. [1 ]
Wu J. [1 ]
机构：
[1] Biophotonics Laboratory, University of Michigan – Shanghai Jiao Tong University Joint Institute, Shanghai Jiao Tong University, 800 Dongchuan Road, Shanghai, Minhang District
来源：
Optics Communications | 2023年 / 530卷
基金：
中国国家自然科学基金;
关键词：
Compressed sensing; Dynamic range; Extended aperture; Optical measurement; Spatial resolution; Wavefront reconstruction;
D O I：
10.1016/j.optcom.2022.129148
中图分类号：
学科分类号：
摘要：
We propose a sparse scanning Hartmann wavefront sensor (SS-HWFS), which decouples the dynamic range and spatial resolution that used to be traded off in a conventional HWFS by removing its arrayed architecture. In addition, the SS-HWFS applies the compressed sensing (CS) reconstruction and is able to restore the wavefront with a sparsely-chosen acquisition. In the SS-HWFS, a collimated beam as the reference is incident on the sample, which is then sparsely scanned over by a pinhole. The wavefront slopes are measured by tracking the diffraction spots recorded by an imaging sensor behind the pinhole. The wavefront is then reconstructed by assuming sparsity in the Zernike domain, which is frequently used for aberration analysis. Compared with traditional Hartmann wavefront sensors (HWFS), the SS-HWFS could achieve high spatial resolution, extensive dynamic range, extended aperture, and compressed acquisition simultaneously, which is a great benefit for the non-null testing of static optical components. Our sparse scanning wavefront measurement scheme is applicable not only for the HWFS but also for the Shack–Hartmann wavefront sensor (SHWFS). Wavefront measurement of a free-form lens is performed to demonstrate the capability of our proposed method. © 2022 Elsevier B.V.
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  • [1] Wilson A., Hua H., Design and demonstration of a vari-focal optical see-through head-mounted display using freeform s lenses, Opt. Express, 27, 11, pp. 15627-15637, (2019)
  • [2] Bauer A., Rolland J.P., Design of a freeform electronic viewfinder coupled to aberration fields of freeform optics, Opt. Express, 23, 22, pp. 28141-28153, (2015)
  • [3] Sorgato S., Mohedano R., Chaves J., Hernandez M., Blen J., Grabovickic D., Benitez P., Minano J.C., Thienpont H., Duerr F., Compact illumination optic with three freeform surfaces for improved beam control, Opt. Express, 25, 24, pp. 29627-29641, (2017)
  • [4] Mirhosseini M., Magana-Loaiza O.S., O'Sullivan M.N., Rodenburg B., Malik M., Lavery M.P.J., Padgett M.J., Gauthier D.J., Boyd R.W., High-dimensional quantum cryptography with twisted light, New J. Phys., 17, 3, (2015)
  • [5] Reimers J., Bauer A., Thompson K.P., Rolland J.P., Freeform spectrometer enabling increased compactness, Light Sci. Appl., 6, 7, (2017)
  • [6] Schiesser E.M., Bauer A., Rolland J.P., Effect of freeform surfaces on the volume and performance of unobscured three mirror imagers in comparison with off-axis rotationally symmetric polynomials, Opt. Express, 27, 15, pp. 21750-21765, (2019)
  • [7] Cui S., Lyons N.P., Diaz L.R., Ketchum R., Kim K.-J., Yuan H.-C., Frasier M., Pan W., Norwood R.A., Silicone optical elements for cost-effective freeform solar concentration, Opt. Express, 27, 8, pp. A572-A580, (2019)
  • [8] Geyl R., Ruch E., Bourgois R., Mercier-Ythier R., Riguet F., Freeform optics design, fabrication and testing technologies for Space applications, (2018)
  • [9] Wei L., Li Y., Jing J., Lei F., Zhou J., Design and fabrication of a compact off-axis see-through head-mounted display using a freeform surface, Opt. Express, 26, 7, (2018)
  • [10] Noste T., Evans C., Miller J., Hopper L., Concurrent engineering of a next-generation freeform telescope: metrology and test, Advanced Optics for Imaging Applications: UV Through LWIR IV, (2019)
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