Full-color imaging using large-aperture meta-optics

The miniaturization of image sensors in recent decades has made today’s cameras ubiquitous across many application domains, including medical imaging, smartphones, security, robotics, and autonomous transportation. However, only imagers that are an order of magnitude smaller could enable novel applications in nano-robotics, in vivo imaging, mixed reality, and health monitoring. While sensors with sub-micron pixels exist now, further miniaturization has been primarily prohibited by fundamental limitations of conventional optics. Traditional imaging systems consist of a cascade of refractive elements that correct for aberrations, and these bulky lenses impose a lower limit on camera footprint. In recent years, sub-wavelength diffractive optics, also known as meta-optics have been touted as a promising replacement for the bulky refractive optics. However, the images taken with meta-optics, to date, remain significantly inferior to the ones taken with refractive. Especially, full-color imaging with a large aperture meta-lens remains an important unsolved problem. We employ computationally designed meta-optics to solve this problem and enable ultra-compact cameras.

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Publication Details

Published
2025-03-19
DOI
https://doi.org/10.1117/12.3049555
Primary Topic
Particle Accelerators and Free-Electron Lasers
Type
article
Field-Weighted Citation Impact
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article

Full-color imaging using large-aperture meta-optics

Arka Majumdar
4 links
Particle Accelerators and Free-Electron Lasers
article

Full-color imaging using large-aperture meta-optics

Arka Majumdar
article en

Abstract

The miniaturization of image sensors in recent decades has made today’s cameras ubiquitous across many application domains, including medical imaging, smartphones, security, robotics, and autonomous transportation. However, only imagers that are an order of magnitude smaller could enable novel applications in nano-robotics, in vivo imaging, mixed reality, and health monitoring. While sensors with sub-micron pixels exist now, further miniaturization has been primarily prohibited by fundamental limitations of conventional optics. Traditional imaging systems consist of a cascade of refractive elements that correct for aberrations, and these bulky lenses impose a lower limit on camera footprint. In recent years, sub-wavelength diffractive optics, also known as meta-optics have been touted as a promising replacement for the bulky refractive optics. However, the images taken with meta-optics, to date, remain significantly inferior to the ones taken with refractive. Especially, full-color imaging with a large aperture meta-lens remains an important unsolved problem. We employ computationally designed meta-optics to solve this problem and enable ultra-compact cameras.

University of Washington (US)
Openalex Percentile: Top 96%
Particle Accelerators and Free-Electron Lasers
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Full-color imaging using large-aperture meta-optics — Arka Majumdar · (2025) | TGRS Research Map | TGRS