The present application relates to the technical field of
machine learning, in particular to an aluminum-
vanadium alloy performance evaluation method based on
deep learning for
aerospace, comprising the following steps: obtaining a
microscopic image to judge the structure boundary, comparing the gray difference direction before and after disturbance, screening the stable area combined with
stress change, extracting the response path and marking the interference path, and generating the aluminum-
vanadium alloy performance
evaluation result.In the present application, the
grain boundary graph is constructed by extracting the gray scale
mutation, the disturbance propagation area is identified based on the consistency of the boundary point direction, the
coupling position is extracted by superimposing the
stress change graph, the corresponding relationship between the disturbance and the stress is established, the channel propagation structure is constructed by extracting the
image response path, the interference path is classified and marked to generate the enhanced path set, the
grain boundary recognition is more complete, the disturbance and stress matching is more accurate, the response path structure is more continuous, and the linkage analysis capability between the
microstructure and the image data is effectively improved.