Discrete Zhang Neural Dynamics Algorithms for Time-Varying Matrix Generalized Sinkhorn Scaling

Ji Lu, Jianzhen Xiao, Canhui Chen, Mingzhi Mao, Yunong Zhang
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Abstract

In this paper, we first introduce a continuous model for time-varying matrix generalized Sinkhorn scaling (TVMGSS) on the basis of the continuous Zhang neural dynamics (ZND) model. Subsequently, a high-precision 10-instant Zhang time discretization (ZTD) formula with theoretical analysis is presented. Further, we utilize the 10-instant ZTD formula to discretize the continuous ZND model, resulting in a discrete ZND algorithm named 10-instant discrete ZND (10IDZND) algorithm for TVMGSS. For comparison, two other time discretization formulas are also considered, and the corresponding discrete algorithms for TVMGSS are derived. The comparative numerical experiments are performed, and the results substantiate the effectiveness and superior accuracy of the 10IDZND algorithm. In addition, we verify the effectiveness of the 10IDZND algorithm for higher-dimensional TVMGSS through numerical experiments. Finally, we experimentally investigate the effects of the design parameters and the sampling period on the convergence of the 10IDZND algorithm.
时变矩阵广义Sinkhorn标度的离散张神经动力学算法
本文首先在连续张神经动力学(ZND)模型的基础上,引入了时变矩阵广义Sinkhorn标度(TVMGSS)的连续模型。在此基础上,提出了高精度的10瞬时张时间离散化(ZTD)公式并进行了理论分析。进一步,我们利用10-instant ZTD公式对连续ZND模型进行离散化,得到了一种离散ZND算法,称为TVMGSS的10-instant离散ZND (10IDZND)算法。为了比较,还考虑了另外两种时间离散化公式,并推导了相应的TVMGSS离散化算法。通过数值对比实验,验证了10IDZND算法的有效性和较高的精度。此外,通过数值实验验证了10IDZND算法在高维TVMGSS中的有效性。最后,通过实验研究了设计参数和采样周期对10IDZND算法收敛性的影响。
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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