This invention belongs to the field of parameter optimization technology, specifically relating to a method and
system for optimizing parameters in high-pressure gas detection and testing. The method includes: simultaneously collecting pressure and temperature data from upstream and downstream nodes of a pipeline to construct thermodynamic-pressure
coupling characteristics, and extracting a spatiotemporal turbulence calibration factor using physical
delay alignment; subsequently, calculating pipeline turbulence dissipation indices based on this calibration factor, and generating
dynamic pressure compensation weights based on an explosion-proof safety boundary mechanism; finally, adaptively weighting the pressure sequence and fusing it with temperature features, inputting the results into a deep neural network to output the final optimized parameters. This invention can effectively eliminate spurious interference from spatially propagated
waves, capture the true fluid state, prevent the risk of
overpressure rupture, and improve the safety and accuracy of automated high-
pressure detection and control systems.