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Hybrid Quantum–classical Generative Adversarial Networks for Image Generation Via Learning Discrete Distribution

Signal Processing: Image Communication(2023)CCF CSCI 2区SCI 3区

Shanghai Univ Engn Sci | Nanchang Univ

Cited 73|Views50
Abstract
It has been reported that quantum generative adversarial networks have a potential exponential advantage over classical generative adversarial networks. However, quantum machine learning is difficult to find real applications in the near future due to the limitation of quantum devices. The structure of quantum generator is optimized to reduce the required parameters and make use of quantum devices to a greater extent. And an image generation scheme is designed based on quantum generative adversarial networks. Two structures of quantum generative adversarial networks are simulated on Bars and Stripes dataset, and the results corroborate that the quantum generator with reduced parameters has no visible performance loss. The original complex multimodal distribution of an image can be converted into a simple unimodal distribution by the remapping method. The MNIST images and the Fashion-MNIST images are successfully generated by the optimized quantum generator with the remapping method, which verified the feasibility of the proposed image generation scheme.
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Key words
Quantum machine learning,Quantum generative adversarial network,Quantum computation,Image generation,Hybrid quantum–classical algorithms
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要点】:本研究提出了一种结合量子生成对抗网络和经典学习方法的图像生成方案,通过优化量子生成器结构和采用映射方法学习离散分布,实现了图像的有效生成,并展示了量子机器学习在图像生成领域的潜力。

方法】:研究采用量子生成对抗网络,并对量子生成器的结构进行了优化以减少所需参数,利用映射方法将图像的复杂多模态分布转换成简单的单模态分布。

实验】:在Bars and Stripes数据集上模拟了两种量子生成对抗网络结构,并在MNIST和Fashion-MNIST数据集上验证了优化后的量子生成器与映射方法的可行性,实验结果表明该方法有效,且减少参数的量子生成器性能损失不明显。