Our laboratory focuses on developing innovative multiphase fluid dynamic methods based on the multiscale integration of massively parallel supercomputing and advanced measurements and research on creating environmentally conscious energy systems. Furthermore, we promote basic research for the creation of risk management science and associated new multiphase flow systems linked to sustainable energy represented by a high-density hydrogen storage technology.

　Notably, we are focusing on different field integration research and development, such as the creation of environmentally conscious type nano-cleaning technology using a reactive multiphase fluid that is a thoroughly chemical-free, pure water-free, dry-type semiconductor wafer cleaning system using cryogenic micro-nano-solid high-speed spray flow, and also focusing on removal-reusing technology for solar cells and ITO membranes for conducting organic polymer (including indium oxide tin).

Furthermore, as part of the integrated multiphase flow science approach, we are researching new mobile fuel spray and atomization, laser welding AI analysis, and phase change joining processes. In order to contribute to the disaster risk science field, the fundamental mitigation effect of mega-floating structures on the water level and hydrodynamic force caused by the offshore tsunami has been computationally investigated using the SPH method considering the fluid-structure interaction (FSI).