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For a demand to accelerate materials development, a new trend
research which focusses on gintegrationh has been received much attention,
where informatics approach tends to be incorporated into material science.
Depending on a subject, we are required to select a machine learning method
such as artificial neural network(ANN), support vector machine, Bayesian
inference, convolutional ANN (deep learning) et al. 3D4D characterization is beneficial to obtain
fruitful materials genome, i.e. metric features and topological features such
as connectivity. However, it is time-consuming to capture a 3D microstructure
image followed by image processing and quantification. Subsequently descriptors
of materials genome are input into modelling or machine learning to estimate a
property. Therefore, many materials scientists likely hope to accelerate all
these processes. This laboratory offeres both a fully automated serial sectioning 3D microscope
gGenus_3Dh and material genome integration system for phase and property
analysis gMIPHAh. MIPHA consists of microstructure recognition module by
deep learning, microstructure detection module, 2D analysis module, 3D
analysis module, property estimation module, and inverse analysis module.
Various kinds of machine learning methods are implemented in these modules. |