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Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow

Purpose: There are currently limited treatment options for aniridia. In this context, 3D printed iris implants may provide a cost-effective, cosmetically acceptable alternative for patients with aniridia. The purpose of this study was to develop a proof-of-concept workflow for manufacturing 3D print...

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Autores principales: Prager, Alisa J., Henning, Nathaniel, Burns, Lauren, Ramaprasad, Abhijit, Basti, Surendra, Laronda, Monica M.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10669136/
https://www.ncbi.nlm.nih.gov/pubmed/38002411
http://dx.doi.org/10.3390/bioengineering10111287
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author Prager, Alisa J.
Henning, Nathaniel
Burns, Lauren
Ramaprasad, Abhijit
Basti, Surendra
Laronda, Monica M.
author_facet Prager, Alisa J.
Henning, Nathaniel
Burns, Lauren
Ramaprasad, Abhijit
Basti, Surendra
Laronda, Monica M.
author_sort Prager, Alisa J.
collection PubMed
description Purpose: There are currently limited treatment options for aniridia. In this context, 3D printed iris implants may provide a cost-effective, cosmetically acceptable alternative for patients with aniridia. The purpose of this study was to develop a proof-of-concept workflow for manufacturing 3D printed iris implants using a silicone ink palette that aesthetically matches iris shades, identified in slit lamp images. Methods: Slit lamp iris photos from 11 healthy volunteers (3 green; 4 blue; 4 brown) were processed using k-means binning analyses to identify two or three prominent colors each. Candidate silicone inks were created by precisely combining pigments. A crowdsourcing survey software was used to determine color matches between the silicone ink swatches and three prominent iris color swatches in 2 qualifying and 11 experimental workflows. Results: In total, 54 candidate silicone inks (20 brown; 16 green; 18 blue) were developed and analyzed. Survey answers from 29 individuals that had passed the qualifying workflow were invited to identify “best matches” between the prominent iris colors and the silicone inks. From this color-match data, brown, blue, and green prototype artificial irises were printed with the silicone ink that aesthetically matched the three prominent colors. The iris was printed using a simplified three-layer five-branch starburst design at scale (12.8 mm base disc, with 3.5 mm pupil). Conclusions: This proof-of-concept workflow produced color-matched silicone prosthetic irises at scale from a panel of silicone inks using prominent iris colors extracted from slit lamp images. Future work will include printing a more intricate iris crypt design and testing for biocompatibility.
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spelling pubmed-106691362023-11-06 Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow Prager, Alisa J. Henning, Nathaniel Burns, Lauren Ramaprasad, Abhijit Basti, Surendra Laronda, Monica M. Bioengineering (Basel) Article Purpose: There are currently limited treatment options for aniridia. In this context, 3D printed iris implants may provide a cost-effective, cosmetically acceptable alternative for patients with aniridia. The purpose of this study was to develop a proof-of-concept workflow for manufacturing 3D printed iris implants using a silicone ink palette that aesthetically matches iris shades, identified in slit lamp images. Methods: Slit lamp iris photos from 11 healthy volunteers (3 green; 4 blue; 4 brown) were processed using k-means binning analyses to identify two or three prominent colors each. Candidate silicone inks were created by precisely combining pigments. A crowdsourcing survey software was used to determine color matches between the silicone ink swatches and three prominent iris color swatches in 2 qualifying and 11 experimental workflows. Results: In total, 54 candidate silicone inks (20 brown; 16 green; 18 blue) were developed and analyzed. Survey answers from 29 individuals that had passed the qualifying workflow were invited to identify “best matches” between the prominent iris colors and the silicone inks. From this color-match data, brown, blue, and green prototype artificial irises were printed with the silicone ink that aesthetically matched the three prominent colors. The iris was printed using a simplified three-layer five-branch starburst design at scale (12.8 mm base disc, with 3.5 mm pupil). Conclusions: This proof-of-concept workflow produced color-matched silicone prosthetic irises at scale from a panel of silicone inks using prominent iris colors extracted from slit lamp images. Future work will include printing a more intricate iris crypt design and testing for biocompatibility. MDPI 2023-11-06 /pmc/articles/PMC10669136/ /pubmed/38002411 http://dx.doi.org/10.3390/bioengineering10111287 Text en © 2023 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Prager, Alisa J.
Henning, Nathaniel
Burns, Lauren
Ramaprasad, Abhijit
Basti, Surendra
Laronda, Monica M.
Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow
title Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow
title_full Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow
title_fullStr Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow
title_full_unstemmed Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow
title_short Utilizing 3D Printing Technology to Create Prosthetic Irises: Proof of Concept and Workflow
title_sort utilizing 3d printing technology to create prosthetic irises: proof of concept and workflow
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10669136/
https://www.ncbi.nlm.nih.gov/pubmed/38002411
http://dx.doi.org/10.3390/bioengineering10111287
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