Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography

Surface features of natural materials such as cuticles, shells, and leaves continue to be used as models for creating sophisticated infrastructure, landscape, and microdevice designs. Optical microscopy is the easiest and most accessible tool for examining such surface features and micropatterns. Th...

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Main Authors: Budlayan, Marco Laurence M., Palangyos, Dina C., Patricio, Jonathan N., Arco, Susan D., Guerrero, Raphael
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Published: Archīum Ateneo 2023
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Online Access:https://archium.ateneo.edu/physics-faculty-pubs/154
https://doi.org/10.1117/12.3008323
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spelling ph-ateneo-arc.physics-faculty-pubs-11532024-02-29T07:55:53Z Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography Budlayan, Marco Laurence M. Palangyos, Dina C. Patricio, Jonathan N. Arco, Susan D. Guerrero, Raphael Surface features of natural materials such as cuticles, shells, and leaves continue to be used as models for creating sophisticated infrastructure, landscape, and microdevice designs. Optical microscopy is the easiest and most accessible tool for examining such surface features and micropatterns. This method, however, fails to probe opaque surfaces like thick skin and leaves since it needs enough light to penetrate the sample. In this work, we demonstrate the feasibility of probing the natural structures of a superhydrophobic leaf using simple optical microscopy by replicating the leaf surface on an elastomer via soft lithography. Optical images of the replica revealed intricate details of features present on the leaf, including the stoma, cuticle boundary, and trichome. Contact angle measurements were also conducted to investigate the wettability of the real leaves and their replicas. Finally, we utilized the fabricated replicas as optical gratings that were observed to generate various diffraction patterns with fluctuating intensities. Our work offers a new perspective on alternative optical microscopy strategies and optical beam tuning using biomimetic, low-cost materials. 2023-01-01T08:00:00Z text https://archium.ateneo.edu/physics-faculty-pubs/154 https://doi.org/10.1117/12.3008323 Physics Faculty Publications Archīum Ateneo contact angle optical diffraction optical microscopy soft lithography superhydrophobic leaf Atomic, Molecular and Optical Physics Physical Sciences and Mathematics Physics
institution Ateneo De Manila University
building Ateneo De Manila University Library
continent Asia
country Philippines
Philippines
content_provider Ateneo De Manila University Library
collection archium.Ateneo Institutional Repository
topic contact angle
optical diffraction
optical microscopy
soft lithography
superhydrophobic leaf
Atomic, Molecular and Optical Physics
Physical Sciences and Mathematics
Physics
spellingShingle contact angle
optical diffraction
optical microscopy
soft lithography
superhydrophobic leaf
Atomic, Molecular and Optical Physics
Physical Sciences and Mathematics
Physics
Budlayan, Marco Laurence M.
Palangyos, Dina C.
Patricio, Jonathan N.
Arco, Susan D.
Guerrero, Raphael
Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography
description Surface features of natural materials such as cuticles, shells, and leaves continue to be used as models for creating sophisticated infrastructure, landscape, and microdevice designs. Optical microscopy is the easiest and most accessible tool for examining such surface features and micropatterns. This method, however, fails to probe opaque surfaces like thick skin and leaves since it needs enough light to penetrate the sample. In this work, we demonstrate the feasibility of probing the natural structures of a superhydrophobic leaf using simple optical microscopy by replicating the leaf surface on an elastomer via soft lithography. Optical images of the replica revealed intricate details of features present on the leaf, including the stoma, cuticle boundary, and trichome. Contact angle measurements were also conducted to investigate the wettability of the real leaves and their replicas. Finally, we utilized the fabricated replicas as optical gratings that were observed to generate various diffraction patterns with fluctuating intensities. Our work offers a new perspective on alternative optical microscopy strategies and optical beam tuning using biomimetic, low-cost materials.
format text
author Budlayan, Marco Laurence M.
Palangyos, Dina C.
Patricio, Jonathan N.
Arco, Susan D.
Guerrero, Raphael
author_facet Budlayan, Marco Laurence M.
Palangyos, Dina C.
Patricio, Jonathan N.
Arco, Susan D.
Guerrero, Raphael
author_sort Budlayan, Marco Laurence M.
title Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography
title_short Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography
title_full Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography
title_fullStr Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography
title_full_unstemmed Natural Features, Wettability, and Optical Diffraction Patterns on an Elastomeric Replica of a Superhydrophobic Leaf Derived via Soft Lithography
title_sort natural features, wettability, and optical diffraction patterns on an elastomeric replica of a superhydrophobic leaf derived via soft lithography
publisher Archīum Ateneo
publishDate 2023
url https://archium.ateneo.edu/physics-faculty-pubs/154
https://doi.org/10.1117/12.3008323
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