> NMRI devotes itself intensively to the industrial application of nanomaterials through research and development. The following are our four strategic research goals:
1. Creation of Materials for Nano-carbon Devices and Development of their Industrial Applications
For the realization of nano-carbon devices, we develop plasma CVD processes for the synthesis of high-quality graphene and methodologies to manufacture transparent conducting films. We also aim to advance techniques for the synthesis of carbon nanotubes (CNTs) such as the eDIPS method. An additional aim is to separate CNTs in terms of their semiconductor/metal properties and chilarities using column chromatography or the ELF method. On the basis of these developments, prototypical devices are to be created and their industrial uses are to be pursued.
2. Development of Technologies for the Efficient Use of Materials and Energy on the Basis of on Low-dimensional Nano-assemblies
Complex nanoparticles consisting of coordination polymers and organic composite thin films are positioned as the core target in this project. We develop materials that absorb heat, light, or chemical substances, and then release them or convert them into another form of energy, whenever and wherever it is necessary. Specifically, we focus on materials that can appropriately recover energy carriers and useful or harmful substances. Also, highly efficient thermoelectric conversion thin films and nanoparticles applicable to neutron capture therapy are to be realized.
3. Development of Advanced Measurement Technologies and Nano-processing and Interfacial Control Techniques
Using various advanced measurement technologies for the nanoscale structural and elemental analysis including electron microscopy, we evaluate interfacial states and properties of materials. Thus we obtain novel knowledge that will contribute to the realization of structures, properties, and functionalization deemed necessary for their advanced applications. Furthermore, we develop materials nano-processing techniques using plasma and microwave, and aim to realize devices that are vital for the safe, secure, and comfortable society that is based on integrated technologies.
4. Development of Computational Materials Simulation
We promote materials-based computational simulations for device performance. We also pursue development of simulations for materials characteristics, primarily focusing on the elucidation of the active roles played by defects, assembling, and particulate interfaces in the manifestation of their functions. Furthermore, we work on multi-scale analysis necessary as a bridge to industrial building of macroscopic modules. Simulation for reaction processes are also to be developed, mainly focusing on batteries.