The application relates to the technical field of intelligent sensors, in particular to a high-temperature
alloy defect intelligent detection
system based on
deep learning, which comprises the following steps: obtaining a CAD model of a blade to be detected, a linear
attenuation coefficient and
crystallization temperature
field data, constructing a three-dimensional equivalent thickness matrix and a
stress distribution probability field, utilizing a multi-agent
reinforcement learning model to adaptively decide X-
ray energy, detection
gain and
infrared excitation frequency, realizing deep
adaptation of detection parameters and non-uniform attenuation characteristics of components, constructing a physical reference gray
field based on the Beer-Lambert law, stripping a complex geometric structure background and extracting a defect sensitive area through residual operation, synchronously fusing an
infrared temperature rise abnormal
signal, and physically removing
grain structure noise of a
single crystal structure in combination with a pixel shift law under
microbeam deflection, so that accurate and quantitative output of a defect type, three-dimensional coordinates and size is finally realized. Through multimodal fusion and adaptive decision, the application realizes accurate determination and quantification of defects of complex components.