Fast generation of computer-generated hologram by graphics processing unit

被引:2
|
作者
Matsuda, Sho [1 ]
Tomohiko, Fujii [1 ]
Yamaguchi, Takeshi [1 ]
Yoshikawa, Hiroshi [1 ]
机构
[1] Nihon Univ, Chiba 2748501, Japan
关键词
computer-generated cylindrical hologram; graphics processing unit; parallel process; Cg; GPGPU; fast calculation;
D O I
10.1117/12.809792
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
A cylindrical hologram is well known to be viewable in 360 deg. This hologram depends high pixel resolution. Therefore, Computer-Generated Cylindrical Hologram (CGCH) requires huge calculation amount. In our previous research, we used look-up table method for fast calculation with Intel Pentium4 2.8 GHz. It took 480 hours to calculate high resolution CGCH (540,000 x 63,000 pixels and the average number of object points are 27,000). To improve quality of CGCH reconstructed image, fringe pattern requires higher spatial frequency and resolution. Therefore, to increase the calculation speed, we have to change the calculation method. In this paper, to reduce the calculation time of CGCH (912,000 x 108,000 pixels), we employ Graphics Processing Unit (GPU). It took 4,406 hours to calculate high resolution CGCH on Xeon 3.4 GHz. Since GPU has many streaming processors and a parallel processing structure, GPU works as the high performance parallel processor. In addition, GPU gives max performance to 2 dimensional data and streaming data. Recently, GPU can be utilized for the general purpose (GPGPU). For example, NVIDIA's GeForce7 series became a programmable processor with Cg programming language. Next GeForce8 series have CUDA as software development kit made by NVIDIA. Streaming processor of GPU has 1.35 GHz clocks, and GeForce8800GTX has the 128 processors. Theoretically, calculation ability of GPU is announced as 500 GFLOPS. From the experimental result, we have achieved that 47 times faster calculation compared with our previous work which used GPU. Therefore, CGCH can be generated in 95 ours. So, total time is 110 hours to calculate and print the CGCH.
引用
收藏
页数:10
相关论文
共 50 条
  • [1] Fast high-resolution computer-generated hologram computation using multiple graphics processing unit cluster system
    Takada, Naoki
    Shimobaba, Tomoyoshi
    Nakayama, Hirotaka
    Shiraki, Atsushi
    Okada, Naohisa
    Oikawa, Minoru
    Masuda, Nobuyuki
    Ito, Tomoyoshi
    [J]. APPLIED OPTICS, 2012, 51 (30) : 7303 - 7307
  • [2] Fast point-based method of a computer-generated hologram for a triangle-patch model by using a graphics processing unit
    Sugawara, Takuya
    Ogihara, Yuki
    Sakamoto, Yuji
    [J]. APPLIED OPTICS, 2016, 55 (03) : A160 - A166
  • [3] Hybrid approach for fast occlusion processing in computer-generated hologram calculation
    Gilles, Antonin
    Gioia, Patrick
    Cozot, Remi
    Morin, Luce
    [J]. APPLIED OPTICS, 2016, 55 (20) : 5459 - 5470
  • [4] Parallel femtosecond laser processing with a computer-generated hologram
    Hasegawa, S.
    Hayasaki, Y.
    [J]. LASER APPLICATIONS IN MICROELECTRONIC AND OPTOELECTRONIC MANUFACTURING VII, 2009, 7201
  • [5] Progress of Fast Generation Algorithm of Computer-Generated Hologram Based on Point Source Model
    Jin Xiaoyu
    Gui Jinbin
    Chao, Liu
    Zheng Liting
    Lou Yuli
    [J]. LASER & OPTOELECTRONICS PROGRESS, 2018, 55 (10)
  • [6] Computer-generated hologram statistics
    Lopez-Mariscal, Carlos
    [J]. LASER BEAM SHAPING XI, 2010, 7789
  • [7] Computer-generated image hologram
    Takeshi Yamaguchi
    Hiroshi Yoshikawa
    [J]. Chinese Optics Letters, 2011, 9 (12) : 24 - 27
  • [8] THE MAKING OF A COMPUTER-GENERATED HOLOGRAM
    Zeitner, Uwe D.
    Banasch, Michael
    Kley, Ernst-Bernhard
    [J]. PHOTONICS SPECTRA, 2008, 42 (12) : 58 - 61
  • [9] Computer-generated image hologram
    Yamaguchi, Takeshi
    Yoshikawa, Hiroshi
    [J]. CHINESE OPTICS LETTERS, 2011, 9 (12)
  • [10] Fast Calculation Method with Foveated Rendering for Computer-generated Hologram
    Muramoto, Arisa
    Sakamoto, Yuji
    [J]. PRACTICAL HOLOGRAPHY XXXVIII:DISPLAYS, MATERIALS, AND APPLICATIONS, 2024, 12910