The term “Chemical System Engineering” details our ambition to approach issues beyond the boundaries of chemistry and chemical engineering to date. We can demonstrate a concrete and permanent vision of the solution to various problems related to the environment, energy, medical care and  so on by systematic thinking based on chemistry.
LiCoO2 for the electrode material of lithium-ion batteries and ZEOLITES for preserving and purifying the environment are exhibited as representatives of materials and devices for solving environmental and energy problems.
In order to solve complicated problems, we need a bird’s-eye view of the systems and devices as well as the understanding of position of materials for applying new functional materials and their optimization by the correct understanding of reaction mechanisms.

Left)Zeolite nanoparticles and Crystal structure model
Size: 150×30φ, 80×40（Zeolite nanoparticles）, 150×150×150（Crystal structure model）
Collection: Department of Chemical System Engineering, School of Engineering, The University of Tokyo

Right) LiCoO96 and Crystal structure model
Size: 150×150×150（Crystal model）
Collection: Department of Chemical System Engineering, School of Engineering, The University of Tokyo
LiCoO2 for the electrode material of lithium-ion batteries and zeolites widely used to preserve and purify the environment are exhibited as representatives of materials and devices for solving environmental and energy problems.

Panel
Size: 594×841
Collection: Department of Chemical System Engineering, School of Engineering, The University of Tokyo