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Quantitative modeling of the reaction/diffusion kinetics of two-chemistry diffusive photopolymers
Author(s) -
Benjamin A. Kowalski,
Adam C. Urness,
Martha-Elizabeth Baylor,
Michael Cole,
William L. Wilson,
Robert R. McLeod
Publication year - 2014
Publication title -
optical materials express
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.925
H-Index - 66
ISSN - 2159-3930
DOI - 10.1364/ome.4.001668
Subject(s) - refractive index , diffusion , kinetics , materials science , chemical kinetics , photopolymer , monomer , chemical reaction , chemical physics , optics , chemical engineering , polymer , thermodynamics , chemistry , optoelectronics , composite material , organic chemistry , physics , quantum mechanics , engineering
A general strategy for characterizing the reaction/diffusion kinetics of photopolymer media is proposed, in which key processes are decoupled and independently measured. This strategy enables prediction of a material’s potential refractive index change, solely on the basis of its chemical components. The degree to which a material does not reach this potential reveals the fraction of monomer that has participated in unwanted reactions, reducing spatial resolution and lifetime. This approach is demonstrated for a model material similar to commercial media, achieving quantitative predictions of refractive index response over three orders of exposure dose (~1 to ~103 mJ cm−2) and feature size (0.35 to 500 μm).

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