Ji-Hoon Seo
Korea University · Materials Science
About the Lab
Professor Ji-Hoon Seo's research lab specializes in advanced functional materials for energy and biomedical applications, with a focus on molecularly engineered polymers, nanomaterials, and dynamic surfaces. Key research directions include the development of high-performance transparent conducting electrodes for flexible optoelectronics, stimuli-responsive materials for cell-surface interaction control, and mechanically interlocked polymer-based solid electrolytes for next-generation batteries. The lab also explores white organic light-emitting diodes and hybrid tandem solar cells, emphasizing molecular design for enhanced device efficiency and stability.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
15The rapid response of integrin β1 molecules to an RGD peptide on a dynamic polyrotaxane surface was successfully induced. As a result, RGD peptides introduced on a highly dynamic cyclodextrin molecule enhanced the frequency of contact with specific integrin molecules on the cell membrane at the early stage of material-cell interactions.
Abstract The mobility of molecular shuttles inside a mechanically interlocked polymer (MIP) can improve the ionic conductivity and electron transport capacity of a solid polymer electrolyte (SPE) and maintain a mechanically tough structure. The polyrotaxane‐based MIP electrolyte with a necklace‐like molecular structure exhibits high ionic conductivity (σ = 5.93 × 10 −3 S cm −1 at 25 °C and 1.44 × 10 −2 S cm −1 at 60 °C), a high Li + ion transference number ( t + = 0.71), and high electrochemical
Polymer surfaces with a wide range of hydrated surface mobility are developed by a simple deposition method with supramolecular block copolymers. The morphologies of adhering stem cells are greatly dependent on the surface mobility of polymers, and this induces significant changes in the cytoskeletal signaling pathway to direct the downstream stem cell differentiation.
Abstract Polymer plastic crystal electrolytes (PPCEs) have garnered significant attention for addressing the challenges associated with succinonitrile (SN), including its inadequate mechanical properties and side reactions with electrodes. However, a comprehensive investigation of the influence of the molecular structure of the polymer network on the states of SN within the network and its subsequent impact on ionic conductivities remains largely unexplored. To shed light on this critical aspect
A flexible hard coating material displaying extreme scratch resistance and foldable flexibility was developed via the design of an organic-inorganic hybrid coating material employing an alkoxysilyl-functionalized polyrotaxane cross-linker (PRX_Si1). PRX_Si1 has a molecular necklace-like structure that can form organic-inorganic cross-linking points and provide large molecular movements. It was postulated that the scratch resistance and flexibility could be simultaneously increased because of the
The goal of this study is to fabricate a stable plasma filtration membrane with antibiofouling properties via an electrospinning process. To this end, a random-type copolymer consisting of zwitterionic phosphorylcholine (PC) groups and ultraviolet (UV)-cross-linkable phenyl azide groups was synthesized. The zwitterionic PC group provides antibiofouling properties, and the phenyl azide group enables the stable maintenance of the fibrous nanostructure of hydrophilic zwitterion polymers in aqueous
Research Areas
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