Fabrication of a thin-layer solid optical tissue phantom by a spin-coating method: pilot study

Solid optical tissue phantoms (OTPs) have been widely used for many purposes. This study introduces a spin-coating method (SCM) to fabricate a thin-layer solid OTP (TSOTP) with epidermal thickness. TSOTPs are fabricated by controlling the spin speed (250 to 2500 rpm), absorber concentration (0.2% to...

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Veröffentlicht in:Journal of biomedical optics 2013-02, Vol.18 (2), p.025006-025006
Hauptverfasser: Bae, Yunjin, Son, Taeyoon, Park, Jihoon, Jung, Byungjo
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container_title Journal of biomedical optics
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creator Bae, Yunjin
Son, Taeyoon
Park, Jihoon
Jung, Byungjo
description Solid optical tissue phantoms (OTPs) have been widely used for many purposes. This study introduces a spin-coating method (SCM) to fabricate a thin-layer solid OTP (TSOTP) with epidermal thickness. TSOTPs are fabricated by controlling the spin speed (250 to 2500 rpm), absorber concentration (0.2% to 1.0%), and the number of layers. The results show that the thicknesses of the TSOTPs are homogeneous in the region of interest. The one-layer TSOTP achieves maximum and minimum thicknesses of 65±0.28  μm (250 rpm) and 5.1±0.17  μm (2500 rpm), respectively, decreasing exponentially as a function of the spin speed. The thicknesses of the multilayer TSOTPs increases as a function of the number of layers and are correlated strongly with the spin speed (R2≥0.95). The concentration of the OTP mixture does not directly affect the thickness of the TSOTP; however, the absorption coefficients exponentially increase as a function of absorber concentration (R2≥0.98). These results suggest that the SCM can be used to fabricate homogeneous TSOTPs with various thicknesses by controlling the spin speed and number of layers. Finally, a double-layer OTP that combines epidermal TSOTP and dermal OTP is manufactured as a preliminary study to investigate the practical feasibility of TSOTPs.
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Biomed. Opt</addtitle><date>2013-02-01</date><risdate>2013</risdate><volume>18</volume><issue>2</issue><spage>025006</spage><epage>025006</epage><pages>025006-025006</pages><issn>1083-3668</issn><eissn>1560-2281</eissn><abstract>Solid optical tissue phantoms (OTPs) have been widely used for many purposes. This study introduces a spin-coating method (SCM) to fabricate a thin-layer solid OTP (TSOTP) with epidermal thickness. TSOTPs are fabricated by controlling the spin speed (250 to 2500 rpm), absorber concentration (0.2% to 1.0%), and the number of layers. The results show that the thicknesses of the TSOTPs are homogeneous in the region of interest. The one-layer TSOTP achieves maximum and minimum thicknesses of 65±0.28  μm (250 rpm) and 5.1±0.17  μm (2500 rpm), respectively, decreasing exponentially as a function of the spin speed. The thicknesses of the multilayer TSOTPs increases as a function of the number of layers and are correlated strongly with the spin speed (R2≥0.95). 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subjects Absorption coefficient
Correlation
Epidermis - anatomy & histology
Feasibility
Humans
Multilayers
Optical Imaging
Optical Phenomena
Phantoms, Imaging
Pilots
title Fabrication of a thin-layer solid optical tissue phantom by a spin-coating method: pilot study
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