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引用次数: 0
摘要
在量子力学中,一个粒子的状态可以根据初始条件和对该粒子所占据的势的了解,在所有未来时期内得到充分的表征。本文概述了统计机器学习与量子力学的融合。此外,我们通过使用Feynman图(Feynman et al., 2010)和QLattice (Abzu, 2022)提供模拟场景、分类行为和医疗保健数据的经验观察。在以下情况下进行了实验仿真:1)改变更新循环数;2)调用qgraph。在更新QLattice之前多次使用fit函数;3)根据不同的损失函数拟合和选择图;4)将图形的最大深度设置为相对较高或较小的值。论文最后总结了整个研究过程中的观察结果,并讨论了该领域未来工作的潜力。
Quantum simulation scenarios and disease classification behaviour on diabetes data
In quantum mechanics, the state of a particle can be fully characterised for all future periods based on the beginning conditions and knowledge of the potential occupied by the particle. This paper presents an overview of the integration of statistical machine learning and quantum mechanics. Furthermore, we provide simulation scenarios, classification behaviour, and empirical observations on healthcare data through the utilisation of Feynman diagrams (Feynman et al., 2010) and QLattice (Abzu, 2022). The experimental simulation is carried out in the following instances: 1) changing the number of updating loops; 2) calling the qgraph.fit function multiple times before updating the QLattice; 3) fitting and selecting graphs according to different loss functions; 4) setting the graphs max depth to comparatively higher or smaller values. The paper concludes by summarising the observations made throughout the study and discussing the potential for future work in this field.
期刊介绍:
IJAHUC publishes papers that address networking or computing problems in the context of mobile and wireless ad hoc networks, wireless sensor networks, ad hoc computing systems, and ubiquitous computing systems.