A Quantum Technology for Reinforcement Learning on Channel Assignment

IF 4.4 Q1 OPTICS Advanced quantum technologies Pub Date : 2024-06-12 DOI:10.1002/qute.202300141
Zengjing Chen, Lu Wang, Chengzhi Xing
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Abstract

Prospective application of quantum technologies for reinforcement learning (RL) is an exciting surge in quantum fields. Quantum random number generators (QRNGs) produce high-frequency random bits, with advantages of true randomness and device independence over pseudo-random numbers. This work explores a new approach, called the quantum random numbers for multi-armed bandit (QRN-MAB) algorithm, for multi-user access in wireless communication system upon random bits. The primary objective of the algorithm is to attain a stable assignment state without further exchange. QRN-MAB utilizes random bits to learn channel features and conducts concurrent exchange to attain stability. This work finds that the intrinsic randomness property used in QRN-MAB enables arrangement to maintain high accuracy and outperforms other classical algorithms. Additionally, the algorithm exhibits strong adaptability when the environment changes over time and quantum random numbers are advantageous over other pseudo-random methods in achieving the target. This work provides an effective way for quantum technologies applications in RL and unfolds a promising avenue to stabilize assignment among multiple users.

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信道分配强化学习的量子技术
量子技术在强化学习(RL)中的应用前景是量子领域一个令人兴奋的浪潮。量子随机数发生器(QRNG)能产生高频随机比特,与伪随机数相比,它具有真正的随机性和设备独立性等优点。这项研究探索了一种新方法,称为多臂匪量子随机数(QRN-MAB)算法,用于无线通信系统中多用户接入的随机比特。该算法的主要目标是获得稳定的分配状态,而无需进一步交换。QRN-MAB 利用随机比特来学习信道特征,并同时进行交换以达到稳定。这项研究发现,QRN-MAB 中使用的固有随机性特性能使排列保持高精确度,并优于其他经典算法。此外,该算法在环境随时间变化时表现出很强的适应性,量子随机数在实现目标方面比其他伪随机方法更具优势。这项工作为量子技术在 RL 中的应用提供了一种有效方法,并为稳定多用户之间的分配开辟了一条前景广阔的途径。
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Back Cover: Universal Quantum Fisher Information and Simultaneous Occurrence of Landau-Class and Topological-Class Transitions in Non-Hermitian Jaynes-Cummings Models (Adv. Quantum Technol. 10/2024) Front Cover: Solid-State Qubit as an On-Chip Controller for Non-Classical Field States (Adv. Quantum Technol. 10/2024) Inside Front Cover: Nonlinear Effect Analysis and Sensitivity Improvement in Spin Exchange Relaxation Free Atomic Magnetometers (Adv. Quantum Technol. 10/2024) Issue Information (Adv. Quantum Technol. 10/2024) Front Cover: Superconducting Diode Effect in a Constricted Nanowire (Adv. Quantum Technol. 9/2024)
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