Quantum Convolutional Neural Network on Protein Distance Prediction

Zhenhou Hong, Jianzong Wang, Xiaoyang Qu, Xinghua Zhu, Jie Liu, Jing Xiao
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引用次数: 4

Abstract

Proteins are linear polymers that fold into an incredible variety of three-dimensional structures that enable sophisticated functionality for biology. Predicting protein distance with high precision remains challenging, particularly for small protein families. As deep learning achieves remarkable success in many areas, deep learning also allows scientists to predict proteins' three-dimensional structure. As convolutional neural networks have a powerful ability to learn data features at multiple levels of abstraction, we deploy CNN to predict protein distance. To accelerate the training process, we apply a quantum convolutional neural network(QCNN) to improve the protein structure prediction efficiently. For QCNN, the conventional convolutional layer is transformed to a quantum convolution or quanvolutional layer. Since the protein data has large input, we explore the large dimension of these quantum transformations. And in experiments, we compare the different number of layers in QCNN during the training phase. We found the QCNN is similar to CNN that is the deeper layer can get better performance. The simulations show the proposed method can accelerate the convergence while maintaining the performance.
量子卷积神经网络在蛋白质距离预测中的应用
蛋白质是线性聚合物,折叠成令人难以置信的各种三维结构,使生物学具有复杂的功能。高精度预测蛋白质距离仍然具有挑战性,特别是对于小蛋白质家族。随着深度学习在许多领域取得显著成功,深度学习也使科学家能够预测蛋白质的三维结构。由于卷积神经网络具有在多个抽象层次学习数据特征的强大能力,我们部署CNN来预测蛋白质距离。为了加速训练过程,我们采用量子卷积神经网络(QCNN)来提高蛋白质结构的预测效率。对于QCNN,将传统的卷积层转换为量子卷积层或量子卷积层。由于蛋白质数据有很大的输入,我们探索这些量子转换的大维度。在实验中,我们比较了QCNN在训练阶段的不同层数。我们发现QCNN与CNN相似,即层越深,性能越好。仿真结果表明,该方法能在保持性能的前提下加快收敛速度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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