Binary Classification Model Inspired from Quantum Detection Theory

E. D. Buccio, Qiuchi Li, M. Melucci, P. Tiwari
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引用次数: 14

Abstract

Despite its long history, classification is still a subject of extensive research because new application domains require more effective algorithms than the state-of-the-art classification algorithms, which rely on the logical theory of sets, the theory of probability and the algebra of vector spaces. The combination of distinct theoretical frameworks may be the key to making an important step forward toward a stable and significant improvement in classification effectiveness and, to the same extent improved Quantum Mechanics (QM) signal detection. QM may give rise to a new theoretical framework for classification, since it essentially moves the optimal bound of effectiveness beyond the levels made possible by the state-of-the-art classification algorithms. In this paper, we propose a binary classification model inspired by quantum detection theory in an effort to investigate how much benefit it brings as compared to classical models. Our experiments suggest that the improvement in classification effectiveness can be obtained, although the potential of quantum detection can only be partially exploited.
基于量子探测理论的二元分类模型
尽管历史悠久,分类仍然是一个广泛研究的主题,因为新的应用领域需要比最先进的分类算法更有效的算法,这些算法依赖于集合的逻辑理论、概率论和向量空间的代数。不同理论框架的结合可能是朝着分类有效性的稳定和显著提高以及同样程度上改进量子力学(QM)信号检测迈出重要一步的关键。QM可能会产生一个新的分类理论框架,因为它从本质上移动了最优的有效性界限,超出了最先进的分类算法所能达到的水平。在本文中,我们提出了一个受量子探测理论启发的二元分类模型,试图研究它与经典模型相比带来了多少好处。我们的实验表明,尽管量子检测的潜力只能部分被利用,但分类效率的提高是可以得到的。
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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