Lee Sang-Hoon
Ewha Womans University · 材料科学
研究室紹介
Professor Lee Sang-Hoon's research lab specializes in materials science and energy technology, focusing on the development and characterization of advanced functional materials for sustainable energy applications. Key research directions include hydrogen infrastructure and pipeline systems, transparent conductive oxides for optoelectronics, solid oxide fuel cells for efficient energy conversion, and natural product-based hepatoprotective agents for biomedical applications. The lab employs a multidisciplinary approach combining computational simulations, thin film deposition, and biological evaluation to address challenges in energy efficiency, material performance, and health safety.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
15Plastic deformation of semicrystalline polyethylene has been investigated via atomistic Monte Carlo and molecular dynamics simulations. Two deformation modes are considered, both consisting of tensile deformation in the longitudinal direction of the lamellar stack, with either constant lateral dimensions or constant total volume. Stress−strain curves, elastic moduli, yield stresses, and strains are determined at 350 K, with deformation strain rates (in molecular dynamics) ranging from 5 × 10 6 t
South Korea has a plan to realize a hydrogen economy, and it is essential to establish a main hydrogen pipeline for hydrogen transport. This study develops a cost estimation model applicable to the construction of hydrogen pipelines and conducts an economic analysis to evaluate various scenarios for hydrogen pipeline construction. As a result, the cost of modifying an existing natural gas to a hydrogen pipeline is the lowest, however, there are issues with the safety of the modified hydrogen pip
Composition-dependent changes in the properties of Ga-doped ZnO (GZO) transparent conductive oxide (TCO) films were investigated by preparing a series of GZO films on glass substrates via pulsed dc magnetron sputtering with ZnO ceramic targets having various Ga2O3 concentrations at various temperatures. As the Ga2O3 content in the target increased, crystalline quality was improved as revealed in the intense ZnO (0 0 2) diffraction peaks, which accompanied increased carrier concentrations. When t