Reinforcement Learning with Deep Quantum Neural Networks

Wei Hu, James Hu
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引用次数: 8

Abstract

The advantage of quantum computers over classical computers fuels the recent trend of developing machine learning algorithms on quantum computers, which can potentially lead to breakthroughs and new learning models in this area. The aim of our study is to explore deep quantum reinforcement learning (RL) on photonic quantum computers, which can process information stored in the quantum states of light. These quantum computers can naturally represent continuous variables, making them an ideal platform to create quantum versions of neural networks. Using quantum photonic circuits, we implement Q learning and actor-critic algorithms with multilayer quantum neural networks and test them in the grid world environment. Our experiments show that 1) these quantum algorithms can solve the RL problem and 2) compared to one layer, using three layer quantum networks improves the learning of both algorithms in terms of rewards collected. In summary, our findings suggest that having more layers in deep quantum RL can enhance the learning outcome.
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深度量子神经网络的强化学习
量子计算机相对于经典计算机的优势推动了在量子计算机上开发机器学习算法的最新趋势,这可能导致该领域的突破和新的学习模型。我们研究的目的是探索光子量子计算机上的深度量子强化学习(RL),它可以处理存储在光的量子态中的信息。这些量子计算机可以自然地表示连续变量,使其成为创建量子版本神经网络的理想平台。利用量子光子电路,我们用多层量子神经网络实现了Q学习和actor-critic算法,并在网格环境中进行了测试。我们的实验表明,1)这些量子算法可以解决RL问题,2)与一层相比,使用三层量子网络在收集奖励方面提高了两种算法的学习。总之,我们的发现表明,在深量子RL中拥有更多的层可以提高学习效果。
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来源期刊
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期刊最新文献
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