We introduce a hybrid model combining a quantum-inspired tensor network and a variational quantum circuit to perform supervised learning tasks. This architecture allows for the classical and quantum parts of the model to be trained simultaneously, providing an end-to-end training framework. We show that compared to the principal component analysis, a tensor network based on the matrix product state with low bond dimensions performs better as a feature extractor for the input data of the variational quantum circuit in the binary and ternary classification of MNIST and Fashion-MNIST datasets. The architecture is highly adaptable and the classical-quantum boundary can be adjusted according the availability of the quantum resource by exploiting the correspondence between tensor networks and quantum circuits.
翻译:我们引入了混合模型,将量子驱动的强压网络和可变量子电路结合起来,以履行受监督的学习任务。这一结构使模型的古典和量子部分能够同时培训,提供一个端到端培训框架。我们表明,与主要组成部分分析相比,基于债券尺寸低的矩阵产品状态的强压网络作为MNIST和时装-MNIST数据集二元和长期分类的变量量电路输入数据的特征提取器效果更好。这一结构具有高度适应性,而古典-量子边界可以通过利用高压网络和量子电路之间的对应关系,根据数量资源的可得性进行调整。