This invention discloses a method, equipment, and medium for testing the
corrosion resistance of gas pipelines, relating to the field of pipeline
corrosion resistance testing technology. The method includes the following steps: obtaining the
zinc bath temperature during hot-dip galvanizing of the
gas pipeline to obtain galvanizing temperature data, and screening samples for inspection based on the galvanizing temperature data; acquiring images of the sampled gas pipelines to obtain initial image data, and conducting
corrosion resistance tests; acquiring images of the sampled gas pipelines after testing to obtain test image data, and performing image corrosion analysis
processing to obtain corrosion image data; obtaining the corrosion area of the
gas pipeline to obtain the pipeline corrosion
resistance test result. This invention addresses the problem that existing pipeline corrosion resistance testing technologies, when detecting the white
rust area in salt spray tests on gas pipelines, cannot dynamically set thresholds based on the surface characteristics of the
gas pipeline to accurately separate the white
rust from the background in the image, resulting in inaccurate white
rust area measurements and a low
detection rate of defective products.