- Announcement
이원석 상무 (삼성전자 Software R&D Center)
- Date
2014-08-28 11:00~12:00
- Place
수학원리응용센터 중형세미나실
Superhyhobic micro-structured surfaces utilize a combination of chemical treatment and microscale surface
topography to increase the hyhobicity of a surface. Superhyhobic surfaces exhibit a number of interesting
properties such as dramatically decreased wettability and reduced friction in laminar flows. These characteristics make them a potential enabling technology for a variety of applications including microfluidics, lab-on-a-chip devices, self-cleaning surfaces, and reduction.
In this talk, we discuss the reduction capability of the microstructured surfaces to understand the fundamental
interfacial phenomena that allow these surfaces to exhibit such properties. Along with experimental efforts, numerical
simulations and theoretical studies have been conducted. Among those parallel efforts, in this seminar, we focus on the
analytic solution method using conformal mapping to solve pressure driven fluid flow problems under mixed boundary
conditions within microchannel.
Superhyhobic micro-structured surfaces utilize a combination of chemical treatment and microscale surface
topography to increase the hyhobicity of a surface. Superhyhobic surfaces exhibit a number of interesting
properties such as dramatically decreased wettability and reduced friction in laminar flows. These characteristics make them a potential enabling technology for a variety of applications including microfluidics, lab-on-a-chip devices, self-cleaning surfaces, and reduction.
In this talk, we discuss the reduction capability of the microstructured surfaces to understand the fundamental
interfacial phenomena that allow these surfaces to exhibit such properties. Along with experimental efforts, numerical
simulations and theoretical studies have been conducted. Among those parallel efforts, in this seminar, we focus on the
analytic solution method using conformal mapping to solve pressure driven fluid flow problems under mixed boundary
conditions within microchannel.