Neural-network based approach to optimize THz computer generated holograms

IF 0.8 Q4 OPTICS
M. Surma, Mateusz Kaluza, Patrycja Czerwińska, P. Komorowski, A. Siemion
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引用次数: 3

Abstract

Terahertz (THz) optics often encounters the problem of small f number values (elements have relatively small diameters comparing to focal lengths). The need to redirect the THz beam out of the optical axis or form particular intensity distributions resulted in the application of iterative holographic methods to design THz diffractive elements. Elements working on-axis do not encounter significant improvement while using iterative holographic methods, however, for more complicated distributions the difference becomes meaningful. Here, we propose a totally different approach to design THz holograms, utilizing a neural network based algorithm, suitable also for complicated distributions. Full Text: PDF ReferencesY. Tao, A. Fitzgerald and V. Wallace, "Non-Contact, Non-Destructive Testing in Various Industrial Sectors with Terahertz Technology", Sensors, 20(3), 712 (2020). CrossRef J. O'Hara, S. Ekin, W. Choi and I. Song, "A Perspective on Terahertz Next-Generation Wireless Communications", Technologies, 7(2), 43 (2019). CrossRef L. Yu et al., "The medical application of terahertz technology in non-invasive detection of cells and tissues: opportunities and challenges", RSC Advances, 9(17), 9354 (2019). CrossRef A. Siemion, "The Magic of Optics—An Overview of Recent Advanced Terahertz Diffractive Optical Elements", Sensors, 21(1), 100 (2020). CrossRef A. Siemion, "Terahertz Diffractive Optics—Smart Control over Radiation", J. Infrared Millim. Terahertz Waves, 40(5), 477 (2019). CrossRef M. Surma, I. Ducin, P. Zagrajek and A. Siemion, "Sub-Terahertz Computer Generated Hologram with Two Image Planes", Appl. Sci., 9(4), 659 (2019). CrossRef S. Banerji and B.Sensale-Rodriguez, "A Computational Design Framework for Efficient, Fabrication Error-Tolerant, Planar THz Diffractive Optical Elements", Sci. Rep., 9(1), 5801 (2019). CrossRef J. Sun and F. Hu, "Three-dimensional printing technologies for terahertz applications: A review", Int. J. RF. Microw. C. E., 30(1) (2020). CrossRef E. Castro-Camus, M. Koch and A. I. Hernandez-Serrano, "Additive manufacture of photonic components for the terahertz band", J. Appl. Phys., 127(21), 210901 (2020). CrossRef https://community.wolfram.com/groups/-/m/t/2028026?p_%20479%20p_auth=blBtLb5d DirectLink P. Komorowski, et al., "Three-focal-spot terahertz diffractive optical element-iterative design and neural network approach", Opt. Express, 29(7), 11243-11253 (2021) CrossRef M. Sypek, "Light propagation in the Fresnel region. New numerical approach", Opt. Commun., 116(1-3), 43 (1995). CrossRef
基于神经网络的太赫兹计算机生成全息图优化方法
太赫兹(THz)光学经常遇到f数值小的问题(与焦距相比,元件具有相对较小的直径)。将太赫兹光束重定向出光轴或形成特定强度分布的需要导致了迭代全息方法在设计太赫兹衍射元件中的应用。在使用迭代全息方法时,在轴上工作的元素不会遇到显著的改进,然而,对于更复杂的分布,这种差异变得有意义。在这里,我们提出了一种完全不同的方法来设计太赫兹全息图,利用基于神经网络的算法,也适用于复杂的分布。全文:PDF参考Y。陶,A.Fitzgerald和V.Wallace,“太赫兹技术在各个工业部门的非接触、无损检测”,传感器,20(3),712(2020)。CrossRef J.O'Hara,S.Ekin,W.Choi和I.Song,“太赫兹下一代无线通信的前景”,技术,7(2),43(2019)。CrossRef L.Yu等人,“太赫兹技术在细胞和组织非侵入性检测中的医学应用:机遇与挑战”,RSC Advances,9(17),9354(2019)。CrossRef A.Siemion,“光学的魔力——最新先进太赫兹衍射光学元件综述”,传感器,21(1),100(2020)。CrossRef A.Siemion,“太赫兹衍射光学——辐射的智能控制”,红外毫米。太赫兹波,40(5),477(2019)。CrossRef M.Surma,I.Ducin,P.Zagrajek和A.Siemion,“具有两个像平面的亚太赫兹计算机生成全息图”,Appl。Sci。,9(4),659(2019)。CrossRef S.Banerji和B.Sensale-Rodriguez,“高效、制造容错的平面太赫兹衍射光学元件的计算设计框架”,Sci。众议员,9(1),5801(2019)。孙和胡,“太赫兹应用的三维打印技术:综述”,国际射频杂志。Microw。C.E.,30(1)(2020)。CrossRef E.Castro Camus、M.Koch和A.I.Hernandez Serrano,“太赫兹波段光子组件的增材制造”,J.Appl。Phys。,127(21),210901(2020)。CrossRefhttps://community.wolfram.com/groups/-/m/t/2028026?p_%20479%20p_auth=blBtLb5dDirectLink P.Komorowski等人,“三焦斑太赫兹衍射光学元件迭代设计和神经网络方法”,Opt。Express,29(7),11243-11253(2021)CrossRef M.Sypek,“菲涅耳区域中的光传播。新的数值方法”,Opt。Commun。,116(1-3),43(1995)。CrossRef
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
1.40
自引率
0.00%
发文量
24
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