The invention relates to the field of
artificial intelligence hardware, in particular to a neural network training method based on
quantum annealing optimization, and the method comprises the steps: firstly solving a gradient at a
graphics processor, and generating an energy coefficient through neuromorphic coding; dividing the weight into sub-blocks according to a
coupling threshold value, outputting initial
spinning by an optical coherence Isin optimizer, performing reverse annealing by a
quantum annealing processor to obtain optimal
spinning, and freezing scale parameters; then, a
noise consistency optimizer is used for finely adjusting scale parameters, discrete weights are reconstructed according to spin-scale and written into the memristive cross array unit by unit, and hardware errors are eliminated through read-write-check cycle and column
gain-row bias dual calibration; and generating a deployment model file and executing
write protection after double-end multi-time sampling is carried out at a reference low temperature to confirm spin consistency. The method has high-speed convergence, low-energy-consumption writing and long-term reasoning stability, and the training and deployment efficiency of a large-scale neural
network on light-
quantum-memristive heterogeneous hardware is remarkably improved.