Automatically determine the membership function based on the maximum entropy principle

被引:76
|
作者
Cheng, HD
Chen, JR
机构
[1] Department of Computer Science, Utah State University, Logan
关键词
D O I
10.1016/S0020-0255(96)00141-7
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
Fuzzy set theory has been successfully applied to many image processing and pattern recognition tasks. In order to use the fuzzy logic approach, membership functions for fuzzy sets must be determined first. Because many properties of images, such as brightness of graylevels, are strongly context dependent, it is not easy to determine the membership function correctly. In this paper, the fuzzy set ''brightness of graylevels'' of an image is used as an example to illustrate how the membership function can be determined automatically. We start with the concept of fuzzy event and use the maximum entropy principle as the criterion to find a membership function which will best represent the membership of brightness for each graylevel in an image. That is, the membership function is determined by finding a membership function such that the corresponding fuzzy event has maximum entropy. The membership of brightness can be represented by an S-function, whose shape can be determined by the parameters a, b, and c. The problem becomes to find a best parameter combination (a(opt), b(opt), c(opt)), which is a combinatorial optimization problem. The simulated annealing algorithm is used to solve this problem in this paper. We have done the experiments on several images. The results have shown that the proposed method can automatically and effectively find the brightness membership function for images. The robustness of the proposed algorithm is also proved by the experiments. Though we used image processing as the application domain of the proposed approach, the basic idea can be extended to other applications easily. (C) Elsevier Science Inc. 1997
引用
收藏
页码:163 / 182
页数:20
相关论文
共 50 条
  • [1] The luminosity function of quasars by the Principle of Maximum Entropy
    Andrei, Alexandre
    Coelho, Bruno
    Guedes, Leandro L. S.
    Lyra, Alexandre
    [J]. MONTHLY NOTICES OF THE ROYAL ASTRONOMICAL SOCIETY, 2019, 488 (01) : 183 - 190
  • [2] Speed Distribution Analysis Based on Maximum Entropy Principle and Weibull Distribution Function
    Shoaib, Muhammad
    Siddiqui, Imran
    Rehman, Shafiqur
    Rehman, Saif Ur
    Khan, Shamim
    [J]. ENVIRONMENTAL PROGRESS & SUSTAINABLE ENERGY, 2017, 36 (05) : 1480 - 1489
  • [3] Function Point Distribution Using Maximum Entropy Principle
    Patel, Sanjeev
    [J]. 2013 IEEE SECOND INTERNATIONAL CONFERENCE ON IMAGE INFORMATION PROCESSING (ICIIP), 2013, : 684 - 689
  • [4] MORPHOLOGIC EQUATIONS BASED ON THE PRINCIPLE OF MAXIMUM ENTROPY
    DENG Zhiqiang
    ZHANG Kaiquan
    [J]. International Journal of Sediment Research, 1994, (01) : 31 - 46
  • [5] A clustering algorithm based on maximum entropy principle
    Zhao, Yang
    Liu, Fangai
    [J]. 2ND ANNUAL INTERNATIONAL CONFERENCE ON INFORMATION SYSTEM AND ARTIFICIAL INTELLIGENCE (ISAI2017), 2017, 887
  • [6] Scale Detection Based on Maximum Entropy Principle
    Zhang, Xiaochun
    Duan, Qing
    Yang, Hongji
    [J]. 2018 24TH IEEE INTERNATIONAL CONFERENCE ON AUTOMATION AND COMPUTING (ICAC' 18), 2018, : 448 - 453
  • [7] THE MAXIMUM ENTROPY PRINCIPLE: A GENERALIZED CONSTRAINT-BASED ENTROPY
    Chakrabarti, C. G.
    Chakrabarty, I.
    Ghosh, Koyel
    [J]. MODERN PHYSICS LETTERS B, 2009, 23 (13): : 1715 - 1721
  • [8] A Clustering Method Based on the Maximum Entropy Principle
    Aldana-Bobadilla, Edwin
    Kuri-Morales, Angel
    [J]. ENTROPY, 2015, 17 (01) : 151 - 180
  • [9] Color image segmentation based on the principle of maximum degree of membership
    Liang, YM
    Zhai, HC
    Chang, SJ
    Zhang, SY
    [J]. ACTA PHYSICA SINICA, 2003, 52 (11) : 2655 - 2659
  • [10] Wind energy analysis based on maximum entropy principle (MEP)-type distribution function
    Akpinar, S.
    Akpinar, E. Kavak
    [J]. ENERGY CONVERSION AND MANAGEMENT, 2007, 48 (04) : 1140 - 1149