The New Approach Optimization Markov Weighted Fuzzy Time Series using Particle Swarm Algorithm

Sugiyarto Surono, N. Siregar
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引用次数: 1

Abstract

Markov Weighted Fuzzy Time Series is a forecasting method that applies fuzzy logic to form linguistic variables from existing data. The formation of linguistic variables makes it possible for the forecasting process to be more accurate by considering the uncertainty aspect in decision-making. Its formation is started by grouping the data into a certain number of clusters. The next steps are fuzzification, transition matrix formation, and defuzzification for forecasting. In the process of grouping, the existing data will be grouped into several clusters so that it results in the interval length of each cluster. One of the problems of this grouping is the absence of a base standard in the clustering process so it is prone to have a different value in forecasting accuracy. The difference in the number of the class or interval length will result in different accuracy even though the clustering method that is used is the same. In this study, the author proposes the idea of using Particle Swarm Optimization to improve the interval length. The initial interval that is already obtained through the K-means clustering algorithm will be evaluated using the Particle Swarm Optimization method so that it will have a new interval that later will be used in the fuzzification process and forecasting. The accuracy of forecasting can be calculated by using Mean Absolute Percentage Error from Markov Weighted Fuzzy Time Series conventional method and Markov Weighted Fuzzy Time Series method with Particle Swarm Optimization. The result of this study gives an improvement in error value from 8.03% to 5.88%.
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基于粒子群算法的马尔可夫加权模糊时间序列优化新方法
马尔可夫加权模糊时间序列是一种应用模糊逻辑从现有数据中形成语言变量的预测方法。语言变量的形成使预测过程有可能通过考虑决策中的不确定性方面而更加准确。它的形成是通过将数据分组为一定数量的集群开始的。接下来的步骤是模糊化、转换矩阵的形成和用于预测的去模糊化。在分组过程中,现有数据将被分组为几个集群,从而得出每个集群的间隔长度。这种分组的问题之一是在聚类过程中缺乏基本标准,因此它在预测准确性方面往往具有不同的值。类的数量或间隔长度的差异将导致不同的准确性,即使所使用的聚类方法是相同的。在这项研究中,作者提出了使用粒子群优化来提高区间长度的想法。通过K-means聚类算法已经获得的初始区间将使用粒子群优化方法进行评估,以便它将有一个新的区间,稍后将用于模糊化过程和预测。预测精度可采用马尔可夫加权模糊时间序列的均值绝对百分比误差和粒子群优化的马尔可夫加权模糊时序方法计算。本研究的结果使误差值从8.03%提高到5.88%。
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审稿时长
24 weeks
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