Computational Science

  • Advanced Technology Laboratory
  • Fundamental and cutting-edge technologies
  • Enhancing the product performances and qualities using computational science
  • Enhancing the efficiency of product design using computational science
  • Implementing theoretical materials analysis using computational science

In order to facilitate enhancing product performances and qualities and the efficiency of product design, it is necessary to elucidate and control physicochemical phenomena not only from a molecular and atomic level, but also at a micron level or less.

Computational science makes it possible to, for example, acquire mechanism and methods of enhancement by visualizing phenomena that are difficult to measure, such as atomic and molecular movement and changes in material structure. We utilize various computational software that correspond to diverse scales in our in-house product development.

Classification of computational science, and product application examples

Materials Nanoscale simulation Microscale simulation Examples applied to products
1st principle calculation
(electronic state, kinetics)
Kinetics (classical)

Impurity diffusion

(phase field method)

Growth of metallic structure

Turbine blades
(corrosion resistant)


Adhesiveness between the Resin and the metal

Resin/metal adhesiveness

(peeling behavior)

Structure, stress, heat

Stress distribution inside the resin

All-SiC modules


MOS interface

Oxidation reaction/diffusion

Device simulator

Distribution of impurity concentration

I-V characteristic

SiC-MOSFET device

Scale Å nm μm mm

Simulation of peeling between metal and resin

Simulation of transformation of the metal structure

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