DocumentCode :
1653445
Title :
Quotient Space Theory about An Irreducible Iterated Function System
Author :
Ling, Zhang ; Yanping, Zhang ; Hongbin, Fang ; Hang, Zhang
Author_Institution :
Anhui Univ., Hefei
fYear :
2007
Firstpage :
190
Lastpage :
192
Abstract :
In this paper, we use the relations of quotient space theory and martingale theory to research the iterated function system that is fractal geometry images, and propose these conclusions: Given an irreducible iterated function system {X, wi, pij; i, j = 1, 2, ..., n} , then exists a corresponding chain of quotient space {Wk = (Xk, muk, Fk); k = 1, 2, ...} and a martingale {(muk, Fk); k = 1, 2, ...} on the chain, therefore there are: 1) Assume Pk is a invariant subsets of Wk, P is a invariant subsets of W, then exists limkrarrinfin Pk = P and the convergence is according to Hausdorff distance. 2) Assume muk is a invariant measure of Fk, mu is a invariant measure of F, then exists limkrarrinfin muk = mu. 3) Pk is a support set of muk, P is a support set of mu. Namely we present the quotient approximation theorem about fractal geometry images, and build relations among chain of quotient space, martingale , fractal geometry images and Markovian process.
Keywords :
Markov processes; approximation theory; computational geometry; fractals; image processing; iterative methods; set theory; Hausdorff distance; Markovian process; fractal geometry images; invariant subsets; irreducible iterated function system; martingale theory; quotient approximation theorem; quotient space theory; Computational geometry; Convergence; Extraterrestrial measurements; Fractals; Fuzzy systems; Laboratories; Signal processing; chain of quotient space; fractal geometry; irreducible iterated function system; martingale;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Control Conference, 2007. CCC 2007. Chinese
Conference_Location :
Hunan
Print_ISBN :
978-7-81124-055-9
Electronic_ISBN :
978-7-900719-22-5
Type :
conf
DOI :
10.1109/CHICC.2006.4347432
Filename :
4347432
Link To Document :
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