The invention discloses a
nickel-based
superalloy component design and optimization method based on
quantum machine learning, and belongs to the field of material technologies and
machine algorithms, and the method comprises the following steps: firstly, constructing a
data set containing
nickel-based
superalloy components, oxidation environment conditions and
oxidation resistance results, and executing preprocessing operation; based on the preprocessed data and a
quantum computing framework, designing a
quantum feature mapping circuit, extracting high-dimensional nonlinear features of
alloy components and environmental parameters, obtaining a mixed kernel function, and performing training and
verification; and carrying out optimization design on the
alloy components by adopting a multi-objective
genetic algorithm for the verified prediction model, and introducing a hyper-volume for evaluation in order to quantitatively evaluate the overall effect of multi-objective optimization. According to the method, the quantum feature enhancement technology is introduced to be combined with the improved multi-target
genetic algorithm, so that the complex nonlinear relation is more effectively captured, and a better
alloy design scheme is obtained.