Technique for modelling diffractive multi-phase holographic elements

被引:1
|
作者
Lymarenko, R [1 ]
Budnyk, O [1 ]
机构
[1] Natl Acad Sci Ukraine, Int Ctr Inst Appl Opt, UA-04053 Kiev, Ukraine
来源
OPTICAL METROLOGY IN PRODUCTION ENGINEERING | 2004年 / 5457卷
关键词
diffraction theory; SLM; computer-generated hologram;
D O I
10.1117/12.545291
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
It was proposed technique for modeling of adaptive diffractive elements in holographic system that based on a new method of wave equation solution analysis of the aperture diffraction problem. The method is based on new integral approach to modeling of laser beam diffraction on an arbitrary aperture by investigation of the singular wave component derived from a rigorous Sommerfeld's solution. Developed on the basis of proposed integral representation the effective algorithm is useful for providing analytical studying and numerical modeling the aperture diffracted field without paraxial approximation and the specific form of the convolution kernel that describes the diffraction with taking into account the size of cell allows alternative reconstruction procedure of diffraction pattern. The structure of the diffraction field not only in far zone but also in near and middle diffraction zone depending on profile of the amplitude-phase diffractive grating can be analysed. The extension of new method of modeling diffraction on amplitude-phase mask and possibilities of its practical application such as computer modeling of diffraction on a spatial light modulator (SLM), which consists of squared cells, for a wavefront reconstruction are considered. Conclusions regarding the possibilities the representation the arbitrary fields by using the discrete matrix of elementary diffractive aperture cell for enhancement of iteration algorithm of hologram synthesis and phase retrieval are arrived at. Proposed method for reconstructed images of computer-generated holograms (CGH) enables one to synthesize CGH's and simulate digital image processing techniques for 3D image reconstruction by kinoform. The result of computer simulations and optical experiments are presented.
引用
收藏
页码:276 / 283
页数:8
相关论文
共 50 条
  • [11] Modelling of multi-phase flow in jet loop reactors
    Thorslund, L
    Jorgensen, MH
    BIOPROCESS ENGINEERING, 1998, 19 (03) : 191 - 196
  • [12] Modelling and Control of Multi-phase PMSM in ANSYS and PLECS
    Sun, Kevin
    Torresan, Hugh
    Summers, Terry
    PROCEEDINGS OF 2021 31ST AUSTRALASIAN UNIVERSITIES POWER ENGINEERING CONFERENCE (AUPEC), 2021,
  • [13] Macro modelling for multi-phase transformations at large strains
    University of Paderborn, Department of Engineering Mechanics , Warburger Str. 100, D-33098 Paderborn, Germany
    不详
    ECCOMAS - Eur. Congr. Comput. Methods Appl. Sci. Eng., e-Book Full Pap., (6361-6376):
  • [14] Multi-phase SPH modelling of violent hydrodynamics on GPUs
    Mokos, Athanasios
    Rogers, Benedict D.
    Stansby, Peter K.
    Dominguez, Jose M.
    COMPUTER PHYSICS COMMUNICATIONS, 2015, 196 : 304 - 316
  • [15] Computational modelling of multi-phase equilibria of mesogenic mixtures
    Das, SK
    Rey, AD
    COMPUTATIONAL MATERIALS SCIENCE, 2004, 29 (02) : 152 - 164
  • [16] Modelling of multi-phase flow in jet loop reactors
    L. Thorslund
    M. H. Jørgensen
    Bioprocess Engineering, 1998, 19 : 191 - 196
  • [17] The POG Technique for Modeling Multi-phase Asynchronous Motors
    Zanasi, Roberto
    Grossi, Federica
    Azzone, Giovanni
    2009 IEEE INTERNATIONAL CONFERENCE ON MECHATRONICS, VOLS 1 AND 2, 2009, : 1 - 6
  • [18] Compositional technique for synthesising multi-phase regular arrays
    Manjunathaiah, M
    Megson, GM
    IEEE INTERNATIONAL CONFERENCE ON APPLICATION-SPECIFIC SYSTEMS, ARCHITECTURES, AND PROCESSORS, PROCEEDINGS, 2002, : 7 - 16
  • [19] Wave modelling of diffractive optical elements
    CLOSPI-Bulgarian Acad of Sciences, Sofia, Bulgaria
    J Mod Opt, 7 (1399-1408):
  • [20] Wave modelling of diffractive optical elements
    Kovatchev, M
    Ilieva, R
    JOURNAL OF MODERN OPTICS, 1996, 43 (07) : 1399 - 1408