Design of Superior Parameterized Quantum Circuits for Quantum Image Classification

Shraddha Mishra, Chi-Yi Tsai
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引用次数: 2

Abstract

In this paper, we present a novel quantum neural network (QNN) algorithm enhanced with transfer learning to perform multi-class image classification. The proposed QNN extracts quantum image encoding measurements through the quantum state tomography framework and passes the sampled features through the classical neural network architecture to the proposed learnable parameterized quantum circuit (PQC) followed by gradient update via quantum backpropagation. We benchmark three different PQCs to demonstrate that our proposed algorithm outperforms similar classical CNN architecture in test accuracy on CIFAR10 and MNIST datasets. Present results more prominently establish the success of PQC designs which will be further used in the design of 2D quantum convolutional neural network (QCNN).
用于量子图像分类的优越参数化量子电路设计
本文提出了一种基于迁移学习的量子神经网络算法来进行多类图像分类。提出的量子神经网络通过量子态层析框架提取量子图像编码测量值,并通过经典神经网络架构将采样特征传递给所提出的可学习参数化量子电路(PQC),然后通过量子反向传播进行梯度更新。我们对三种不同的pqc进行了基准测试,以证明我们提出的算法在CIFAR10和MNIST数据集上的测试精度优于类似的经典CNN架构。目前的研究结果更加突出地证明了PQC设计的成功,这将进一步应用于二维量子卷积神经网络(QCNN)的设计。
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