The invention discloses a
machine learning-based dynamic regulation and control method and
system for the utilization ratio of a
sintering return mine cold-pressing block
blast furnace, and relates to the technical field of
blast furnace ironmaking, and the method comprises the following steps: collecting and preprocessing
blast furnace multi-source process parameters in real time, calculating the deviation degree between the selected parameters and a forward motion reference value, and generating parameter
state distribution feature vectors; fusing the
feature vector and original process data, inputting the fused
feature vector and original process data into a pre-trained
machine learning model, outputting an optimal cold pressing block charging proportion, and converting a proportion instruction into a
control signal of a feeding
system through a controller to realize proportion dynamic adjustment; the
system comprises a
data acquisition and preprocessing module, a parameter state
feature generation module, an
intelligent decision module and an instruction execution regulation and control module. According to the method, the parameters reflecting the operation state of the blast furnace are calculated and classified, the input quality and decision accuracy of the model are remarkably improved, real-time and self-adaptive accurate regulation and control of the cold pressing block proportion are achieved, and reasonable utilization of resources is promoted while smooth operation of the blast furnace is guaranteed.