The application provides a
light field multispectral temperature inversion
system and method based on a
physical information neural network, first constructs a
deep learning network infrastructure, adopts a double-layer U-Net architecture to extract
radiation and
spatial distribution characteristics of data; then designs a
physical information embedding module, modularizes a Planck
radiation law, and guides the network to establish a physical correlation between
radiation information and temperature; subsequently,
light field multispectral radiation data are collected through experiments, the network is trained after data division and preprocessing are completed, and a mapping relationship between radiation characteristics and temperature characteristics is established; finally, the trained network is migrated to actual
test data, and high-precision and rapid temperature inversion is realized. The application has both the advantages of
deep learning in
processing complex data and the constraint of a
physical model, not only improves the precision and calculation efficiency of
light field multispectral temperature inversion, but also enhances the applicability of the light field multispectral temperature inversion in a high-temperature complex environment.