Numerical Analysis and Algorithm Optimization of the Effect of Concentrated Gas Cannon on the Inverse Thermosphere

This paper investigates the numerical analysis and algorithm optimization of the impact of the polygenerated gas cannon on the inversion thermosphere. Polygraphic gas cannons are widely used in industrial and military fields, but the atmospheric disturbances caused by them may adversely affect the inversion thermosphere, which in turn affects the atmospheric stability and environmental safety. In order to deeply understand this process, this paper firstly constructs a numerical simulation model for the impact of gas cannons on the inversion layer, and analyzes the influence of temperature and pressure fluctuations caused by gas cannons on the inversion layer. The digital elevation model is used to simulate the distribution of direct solar radiation time, total solar radiation, direct solar radiation and scattered solar radiation in different seasons of Shamu open-pit mine using ArcGIS software, taking into account the topographic factors (slope direction and slope gradient, etc.) The optimization algorithm is used to improve the accuracy and computational efficiency of the simulation by adjusting the boundary conditions, initial parameters and environmental variables. The results show that the optimization algorithm significantly improves the computational efficiency while maintaining the simulation accuracy, which helps to effectively predict the impact of gas cannons on the inversion layer under different environmental conditions, and provides a scientific basis for environmental protection and industrial applications.