Min Soo Kim
Seoul National University · Engineering
About the Lab
Professor Min Soo Kim's research lab specializes in advanced materials and simulation-driven engineering, focusing on sustainable polymers, biomedical applications of reactive oxygen species, pharmaceutical process modeling, and elastic wave manipulation using metasurfaces. The lab integrates mathematical modeling, experimental validation, and innovative material design to address environmental, medical, and industrial challenges. Key research directions include biodegradable plastics for environmental sustainability, mechanistic simulation of pharmaceutical powder processes, and the development of elastic metasurfaces for tunable wave conversion.
Research Overview
Research Output Trend
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Selected Papers
15The role of O2 free radicals in the reduction of sarcolemmal Na+-K+-ATPase, which occurs during reperfusion of ischemic heart, was examined in isolated guinea pig heart using exogenous scavengers of O2 radicals and an inhibitor of xanthine oxidase. Ischemia and reperfusion reduced Na+-K+-ATPase activity and specific [3H]ouabain binding to the enzyme in ventricular muscle homogenates and also markedly lowered sodium pump activity estimated from ouabain-sensitive 86Rb+ uptake by ventricular muscle
Process simulation using mathematical modeling tools is becoming more common in the pharmaceutical industry. A mechanistic model is a mathematical modeling tool that can enhance process understanding, reduce experimentation cost and improve product quality. A commonly used mechanistic modeling approach for powder is the discrete element method (DEM). Most pharmaceutical materials have powder or granular material. Therefore, DEM might be widely applied in the pharmaceutical industry. This review
It has been long believed that a total mode conversion between longitudinal and shear elastic waves can only be achieved at a certain incidence angle. Here, we show that a total mode conversion can be achieved for a broad range of incidence angles by a specially designed elastic metasurface, namely, transmodal metasurface. From the generalized reflection law, we found that the incident longitudinal wave can be totally converted to a reflected shear wave over a broad range of incidence angles if
Research Areas
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