Efficacy of Moth-Eye Technology in Preventing Surgical Loupe Lens Fogging

Background/NeedSurgical loupe fogging caused by exhaled humid air significantly impairs operative visibility and precision. Existing surfactant-based antifogging agents provide only temporary effects and require repeated application.Methodology and Device DescriptionMoth-eye nanostructure technology was applied to the optical surface using a transparent processed film. The nanoscale pillar array induces superhydrophilicity through a purely physical mechanism, allowing condensed moisture to spread uniformly rather than forming light-scattering droplets.Preliminary ResultsUnder high-humidity conditions, untreated lenses showed marked loss of visual clarity. In contrast, moth-eye-processed lenses consistently preserved transparency, as supported by objective image-based "color count" assessment.Current StatusThis technology remains at the proof-of-concept stage and is not commercially available. Ongoing development focuses on direct nanoimprinting onto medical-grade optical devices and evaluation of long-term durability and clinical usability.

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Publication Details

Journal
Surgical Innovation
Published
2026-03-27
DOI
https://doi.org/10.1177/15533506261438187
Primary Topic
Intraocular Surgery and Lenses
Type
article
Field-Weighted Citation Impact
0.00
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article

Efficacy of Moth-Eye Technology in Preventing Surgical Loupe Lens Fogging

Atsuro Koga, Naofumi Saiki, Hideki Nagashima, Kazutake Uehara et al.
Surgical Innovation
Intraocular Surgery and Lenses
article

Efficacy of Moth-Eye Technology in Preventing Surgical Loupe Lens Fogging

Atsuro Koga, Naofumi Saiki, Hideki Nagashima, Kazutake Uehara, Masaru Ueki, Shinji Tanishima, Katsunori Kimura
article en

Abstract

Background/NeedSurgical loupe fogging caused by exhaled humid air significantly impairs operative visibility and precision. Existing surfactant-based antifogging agents provide only temporary effects and require repeated application.Methodology and Device DescriptionMoth-eye nanostructure technology was applied to the optical surface using a transparent processed film. The nanoscale pillar array induces superhydrophilicity through a purely physical mechanism, allowing condensed moisture to spread uniformly rather than forming light-scattering droplets.Preliminary ResultsUnder high-humidity conditions, untreated lenses showed marked loss of visual clarity. In contrast, moth-eye-processed lenses consistently preserved transparency, as supported by objective image-based "color count" assessment.Current StatusThis technology remains at the proof-of-concept stage and is not commercially available. Ongoing development focuses on direct nanoimprinting onto medical-grade optical devices and evaluation of long-term durability and clinical usability.

Surgical Innovation
National Institute of Technology, Yonago College (JP), Tottori University Hospital (JP), Zero Emissions Resource Organisation (NO), Tottori University (JP)
Openalex Percentile: Top 5%
Intraocular Surgery and Lenses
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