Radiance Fields from Photons

Neural radiance fields, or NeRFs, have become the de facto approach for high-quality view synthesis from a collection of images captured from multiple viewpoints. However, many issues remain when capturing images in-the-wild under challenging conditions, such as in low light, high dynamic range, or with rapid motion, leading to smeared reconstructions with noticeable artifacts. In this work, we introduce quanta radiance fields , a novel class of neural radiance fields that are trained at the granularity of individual photons using single-photon cameras (SPCs). We develop theory and practical computational techniques for building radiance fields and estimating dense camera poses from unconventional, stochastic, and high-speed binary frame sequences captured by SPCs. We demonstrate, both via simulations and a SPC hardware prototype, high-fidelity reconstructions under high-speed motion, in low light, and for extreme dynamic range settings.

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Publication Details

Journal
ACM Transactions on Graphics
Published
2025-10-07
DOI
https://doi.org/10.1145/3770578
Primary Topic
Advanced Optical Sensing Technologies
Type
article
Field-Weighted Citation Impact
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article

Radiance Fields from Photons

Sacha Jungerman, Mohit Gupta, Aryan Garg
ACM Transactions on Graphics
Advanced Optical Sensing Technologies
article

Radiance Fields from Photons

Sacha Jungerman, Mohit Gupta, Aryan Garg
article en

Abstract

Neural radiance fields, or NeRFs, have become the de facto approach for high-quality view synthesis from a collection of images captured from multiple viewpoints. However, many issues remain when capturing images in-the-wild under challenging conditions, such as in low light, high dynamic range, or with rapid motion, leading to smeared reconstructions with noticeable artifacts. In this work, we introduce quanta radiance fields , a novel class of neural radiance fields that are trained at the granularity of individual photons using single-photon cameras (SPCs). We develop theory and practical computational techniques for building radiance fields and estimating dense camera poses from unconventional, stochastic, and high-speed binary frame sequences captured by SPCs. We demonstrate, both via simulations and a SPC hardware prototype, high-fidelity reconstructions under high-speed motion, in low light, and for extreme dynamic range settings.

ACM Transactions on GraphicsVol. 45(1)
University of Wisconsin–Madison (US)
Openalex Percentile: Top 70%
Advanced Optical Sensing Technologies
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