Current researches
We are currently studying PCHE-type steam generators to achieve breakthroughs in reactor size reduction. This technology will ultimately be utilized in the creation of advanced nuclear-powered vessels.
We develop a physics-informed deep learning model to predict critical heat flux (CHF). By combining experimental data with established thermal-hydraulic correlations, we aim to improve prediction reliability and physical consistency.
We experimentally investigate subcooled boiling in a vertical annular channel. By visualizing bubble formation, growth, and motion along the heated surface, we examine the interactions between bubbles and the surrounding liquid. This research aims to improve our understanding of two-phase flow and heat transfer in nuclear reactor cooling systems.
We investigate propellant flow and heat transfer in propulsion systems through thermal-hydraulic analysis. By examining temperature distributions, pressure losses, and heat transfer characteristics, we evaluate how design and operating conditions affect system performance. This research aims to support system optimization for efficient and reliable operation.
We focus on satellite thermal analysis to understand temperature variations in the space environment. By considering solar radiation, Earth albedo, Earth infrared radiation, and internal heat generation, we evaluate thermal behavior under different orbital conditions. This research aims to support thermal control design and ensure reliable satellite operation.