The invention discloses a physical informed
machine learning high-entropy
alloy phase
prediction system and method based on semi-empirical parameters, and belongs to the technical field of crossing of high-entropy
alloy material design and
machine learning. The
system takes semi-empirical parameter physical constraint as a core, integrates the physical
interpretability of an empirical parameter method and the data driving advantages of
machine learning through a three-stage cooperation mechanism of'feature
multiplexing-independent prediction-Bayesian fusion ', and solves the problems of narrow phase coverage, low multi-phase prediction precision, '
black box' defect and the like of a traditional method. The
system can predict more than 10 high-entropy
alloy phase types and multi-phase coexistence systems, the single-phase prediction accuracy rate in 856 groups of multi-component high-entropy alloy test sets reaches 100%, the multi-phase coexistence
system prediction accuracy rate reaches 77%,
phase formation physical mechanism explanation can be output, B2 phase exclusive accurate criteria are provided, and high-entropy alloy design is promoted to be transformed from a
trial and error method to an accurate prediction method.