2024 Volume 33 Issue 11

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Jianying Zhu(朱建英), Yong Bi(毕勇), Minyuan Sun(孙敏远), and Weinan Gao(高伟男). 2024: Rapid hologram generation through backward ray tracing and adaptive-resolution wavefront recording plane, Chinese Physics B, 33(11): 114204. doi: 10.1088/1674-1056/ad7c2e

Citation:

Jianying Zhu(朱建英), Yong Bi(毕勇), Minyuan Sun(孙敏远), and Weinan Gao(高伟男). 2024: Rapid hologram generation through backward ray tracing and adaptive-resolution wavefront recording plane, Chinese Physics B, 33(11): 114204. doi: 10.1088/1674-1056/ad7c2e

Rapid hologram generation through backward ray tracing and adaptive-resolution wavefront recording plane

1 Applied Laser Research Center, Technical Institute of Physics and Chemistry, Chinese Academy of Sciences, Beijing 100190, China;
2 University of Chinese Academy of Sciences, Beijing 100049, China

Received Date: 13/07/2024
Accepted Date: 04/09/2024
Fund Project:
Project supported by the Special Project of Central Government Guiding Local Science and Technology Development in Beijing 2020 (Grant No. Z201100004320006).
PACS: 42.40.Jv; 42.40.-i

Abstract

An advanced method for rapidly computing holograms of large three-dimensional (3D) objects combines backward ray tracing with adaptive resolution wavefront recording plane (WRP) and adaptive angular spectrum propagation. In the initial phase, a WRP with adjustable resolution and sampling interval based on the object's size is defined to capture detailed information from large 3D objects. The second phase employs an adaptive angular spectrum method (ASM) to efficiently compute the propagation from the large-sized WRP to the small-sized computer-generated hologram (CGH). The computation process is accelerated using CUDA and OptiX. Optical experiments confirm that the algorithm can generate high-quality holograms with shadow and occlusion effects at a resolution of 1024×1024 in 29 ms.
- computer-generated hologram (CGH),
- wavefront recording plane (WRP),
- backward ray tracing

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沈阳化工大学材料科学与工程学院沈阳 110142

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Rapid hologram generation through backward ray tracing and adaptive-resolution wavefront recording plane

Received Date: 13/07/2024

Accepted Date: 04/09/2024

Fund Project:

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Abstract: An advanced method for rapidly computing holograms of large three-dimensional (3D) objects combines backward ray tracing with adaptive resolution wavefront recording plane (WRP) and adaptive angular spectrum propagation. In the initial phase, a WRP with adjustable resolution and sampling interval based on the object's size is defined to capture detailed information from large 3D objects. The second phase employs an adaptive angular spectrum method (ASM) to efficiently compute the propagation from the large-sized WRP to the small-sized computer-generated hologram (CGH). The computation process is accelerated using CUDA and OptiX. Optical experiments confirm that the algorithm can generate high-quality holograms with shadow and occlusion effects at a resolution of 1024×1024 in 29 ms.

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Rapid hologram generation through backward ray tracing and adaptive-resolution wavefront recording plane

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