AutoColor: Learned Light Power Control for Multi-Color Holograms

Fuente: arXiv
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Bibliographic Details
Main Authors: Zhan, Yicheng, Kavaklı, Koray, Urey, Hakan, Sun, Qi, Akşit, Kaan
Format: Preprint
Published: 2023
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author Zhan, Yicheng
Kavaklı, Koray
Urey, Hakan
Sun, Qi
Akşit, Kaan
author_facet Zhan, Yicheng
Kavaklı, Koray
Urey, Hakan
Sun, Qi
Akşit, Kaan
contents Multi-color holograms rely on simultaneous illumination from multiple light sources. These multi-color holograms could utilize light sources better than conventional single-color holograms and can improve the dynamic range of holographic displays. In this letter, we introduce AutoColor , the first learned method for estimating the optimal light source powers required for illuminating multi-color holograms. For this purpose, we establish the first multi-color hologram dataset using synthetic images and their depth information. We generate these synthetic images using a trending pipeline combining generative, large language, and monocular depth estimation models. Finally, we train our learned model using our dataset and experimentally demonstrate that AutoColor significantly decreases the number of steps required to optimize multi-color holograms from > 1000 to 70 iteration steps without compromising image quality.
format Preprint
id arxiv_https___arxiv_org_abs_2305_01611
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle AutoColor: Learned Light Power Control for Multi-Color Holograms
Zhan, Yicheng
Kavaklı, Koray
Urey, Hakan
Sun, Qi
Akşit, Kaan
Computer Vision and Pattern Recognition
Machine Learning
Image and Video Processing
Multi-color holograms rely on simultaneous illumination from multiple light sources. These multi-color holograms could utilize light sources better than conventional single-color holograms and can improve the dynamic range of holographic displays. In this letter, we introduce AutoColor , the first learned method for estimating the optimal light source powers required for illuminating multi-color holograms. For this purpose, we establish the first multi-color hologram dataset using synthetic images and their depth information. We generate these synthetic images using a trending pipeline combining generative, large language, and monocular depth estimation models. Finally, we train our learned model using our dataset and experimentally demonstrate that AutoColor significantly decreases the number of steps required to optimize multi-color holograms from > 1000 to 70 iteration steps without compromising image quality.
title AutoColor: Learned Light Power Control for Multi-Color Holograms
topic Computer Vision and Pattern Recognition
Machine Learning
Image and Video Processing
url https://arxiv.org/abs/2305.01611