The application belongs to the field of numerical
simulation, and particularly relates to a modeling method of a
shock wave light field in a hypersonic flow field, comprising the following steps: adopting an
unsupervised learning algorithm to perform gradient clustering on flow
field data, and determining the position of a
shock wave and the inner and outer boundaries of a
shock wave domain in the flow field domain; constructing a
hybrid dimension numerical continuous and discrete strategy, determining the main direction of a light
ray based on the strategy, performing continuous medium approximation
processing on the main direction of the light
ray, and performing structured grid discrete
processing on the non-main direction of the light
ray; based on the analogy of Fermat's principle and Maupertuis' principle, the transmission of the light ray in the
refractive index field is analogized to the movement of equivalent real particles in the
refractive index potential field, and the dynamic relationship between the equivalent real particles and the
refractive index potential field is established; based on the dynamic relationship, the transmission path of the light ray in the shock wave is simulated, and the modeling of the shock wave
light field in the hypersonic flow field is realized. The application significantly improves the efficiency and accuracy of the modeling of the shock wave
light field in the hypersonic flow field.