2012
DOI: 10.1063/1.3701590
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Reversible wettability of electron-beam deposited indium-tin-oxide driven by ns-UV irradiation

Abstract: UV irradiation effect on sol-gel indium tin oxide nanopatterns replicated by room-temperature nanoimprint

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Cited by 6 publications
(1 citation statement)
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“…6b. This is described by a modied Cassie-Baxter model, 59 where the corresponding change in surface free energy, DF, upon displacing the surface of the liquid-gas interface by an amount, DA, is given by: In the previous expression g SL , g SV , and g LV are the solidliquid, solid-vapour, and liquid-vapour interfacial tensions, respectively and q indicates the contact angle on the textured surface. According to eqn (1), the equilibrium contact angle of the nanobrous scaffold for each electrospun material or blend can be related to that of the corresponding spin-cast samples, q 0 , and to the scaffold surface topology by the following expression: cos q ¼ rFcos q 0 À (1 À F).…”
Section: Scaffold Characterization and Wettability Propertiesmentioning
confidence: 99%
“…6b. This is described by a modied Cassie-Baxter model, 59 where the corresponding change in surface free energy, DF, upon displacing the surface of the liquid-gas interface by an amount, DA, is given by: In the previous expression g SL , g SV , and g LV are the solidliquid, solid-vapour, and liquid-vapour interfacial tensions, respectively and q indicates the contact angle on the textured surface. According to eqn (1), the equilibrium contact angle of the nanobrous scaffold for each electrospun material or blend can be related to that of the corresponding spin-cast samples, q 0 , and to the scaffold surface topology by the following expression: cos q ¼ rFcos q 0 À (1 À F).…”
Section: Scaffold Characterization and Wettability Propertiesmentioning
confidence: 99%