Kyu Tae Kim
Korea Advanced Institute of Science and Technology · Engineering
About the Lab
Professor Kyu Tae Kim's research lab specializes in advanced energy systems, with a primary focus on next-generation all-solid-state batteries and thermoacoustic dynamics in gas turbines. The lab investigates innovative materials such as polymeric binders and protective coatings for solid electrolytes to enhance stability and scalability in solid-state battery applications. Simultaneously, it explores complex collective behaviors in thermoacoustic systems, aiming to mitigate combustion instabilities in low-emission gas turbines through advanced dynamics and synchronization analysis.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
15This study explores the structural relationship among digital literacy, learning strategies, and core competencies among South Korean college students as well as the group differences between these variables depending on individual characteristics. Data analysis was conducted by correlation analysis, independent sample t-testing, and structural equation modelling. Participants were 916 college students from 10 colleges in South Korea. The results showed that i) no difference between groups exist
Abstract Polymeric binders that can undergo slurry fabrication and minimize the disruption of interfacial Li + contact are imperative for sheet‐type electrodes and solid electrolyte films in practical all‐solid‐state Li batteries (ASLBs). Although dry polymer electrolytes (DPEs) are a plausible alternative, their use is complicated by the severe reactivity of sulfide solid electrolytes and the need to dissolve Li salts. In this study, a new scalable fabrication protocol for a Li + ‐conductive DP
Abstract Inorganic solid electrolytes (SEs), such as sulfides and halides, are crucial for developing practical all‐solid‐state batteries (ASSBs) owing to their high ionic conductivities and mechanical sinterabilities. However, their sensitivity to humid air necessitates stringent dry‐room conditions during processing, which increases production costs. This study demonstrates that ultrathin (≈5 nm) superhydrophobic polydimethylsiloxane (PDMS) or fluorinated PDMS (F‐PDMS) protective layers can en
Low-emissions can-annular gas turbines are prone to develop low-frequency self-excited thermoacoustic oscillations. Such oscillations arise from the coupling between adjacent combustors and can increase wear and thermal stresses. In this experimental study, we explore the mutual synchronization of two thermoacoustic oscillators (i.e., two model combustors) interacting via dissipative and time-delayed coupling, as introduced via a cross-talk section. Unlike most previous studies, our study makes
Research Areas
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