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Journal of Dynamical Systems and Geometric Theories cover
Open Access ·Peer-reviewed·ISSN (Online): 2169-0057·ISSN (Print): 1726-037X

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Half-Yearly Journal: Publishes research on dynamical systems and geometry, including Random Dynamical Systems, hyperbolic behaviour, complex geometry and Ergodic theory.

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Open Access Original Articles

Wavelet Analysis of Self Similar Functions

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pp. 75–97Vol. 9Issue 1June 2013DOI: 10.1080/1726037X.2011.10698594XML
Published Online:
03 Jun 2013
Article type:
Original Articles
Language:
EN
Article no.:
1726037X.2011.10698594
Pages:
75–97

Abstract

The self-similarity property of some kind of fractals is studied by using Harmonic Wavelets. The scale invariance of fractals is compared with the scale dependence of wavelets. Harmonic wavelets are complex values wavelets, with sharp compact support in frequency domain, which show some kind of self-similarity with respect to scale changes. Due to their self similarity property and scale dependence, harmonic wavelets can offer an expedient tool for a good approximation and analysis of a suitable class of deterministic (finite energy) fractals. It is shown that (localized, deterministic) fractals are characterized by their wavelet coefficients. In particular, the Riemann-Weirstrass and Riemann-Cellérier function can be easily represented in terms of harmonic wavelets, in the sense that their wavelet coefficients can be easily (and analytically) computed. Some equations for generating self-similar functions are eventually given as well.

Subject Classifications

: Harmonic WaveletsScale InvarianceFractals

References

  1. Abry, P., Goncalves, P. and Lévy-Véhel, J.2002 . , Paris: Hermes .
  2. Arnéodo, A., Grasseau, G. and Holschneider, M.1988 . Wavelet Transform of Multifractals . , 61 ( 20 ) : 2281 – 2284 .
  3. Borgnat, P. and Flandrin, P.2003 . On the chirp decomposition of Weierstrass-Mandelbrot functions, and their time-frequency interpretation . , 15 : 134 – 146 .
  4. Cattani, C.2005 . Harmonic Wavelets towards Solution of Nonlinear PDE . , 50 ( 8-9 ) : 1191 – 1210 .
  5. Cattani, C.2009 . Wavelet Based Approach to Fractals and Fractal Signal Denoising . , 5730 : 143 – 162 .
  6. Cattani, C.2008 . Shannon Wavelets Theory . , 2008 : 24 Article ID 164808
  7. Cattani, C.2009 . Harmonic Wavelet Approximation of Random, Fractal and High Frequency Signals . , : 207 – 217 .
  8. Cattani, C. and Rushchitsky, J.J.2007 . , Series on Advances in Mathematics for Applied Sciences Vol. 74 , Singapore: World Scientific .
  9. Cellérier, M. Ch.1890 . Note sur les principes fondamentaux de l’analyse . , 14 : 142 – 160 . SIAM J. Numer. Anal., 30, 507–537 (1993)
  10. Daubechies, I.1992 . , Philadelphia: SIAM .
  11. Dutkay, D. E. and Jorgensen, P. E. T.2006 . Wavelets on Fractals . , 22 ( 1 ) : 131 – 180 .
  12. Falconer, K.1977 . , New York: John Wiley .
  13. Jorgensen, P.E.T.2006 . , Graduate Texts in Mathematics Vol. 234 , Springer .
  14. Hardin, D.P., Kessler, B. and Massopust, P.1992 . Multiresolution Analysis based on Fractal Functions . , 71 : 104 – 120 .
  15. Hardin, D.P. and Massopust, P.1986 . The capacity for a class of Fractal Functions . , 105 : 455 – 460 .
  16. Mallat, S.1998 . , Academic Press .
  17. Mandelbrot, B. B.1977 . , San Francisco: W. H. Freeman .
  18. Muniandy, S.V. and Moroz, I.M.1997 . Galerkin modelling of the Burgers equation using harmonic wavelets . , 235 : 352 – 356 .
  19. Newland, D.E.1993 . Harmonic wavelet analysis . , 443 : 203 – 222 .
  20. Weierstrass, K.July 18 1872 . , July 18 , 71 – 74 . Berlin: Akad. der Wissenschaften . Reprinted in: K. Weierstrass, Mathematische Werke II, Johnson, New York, (1967)
  21. Wornell, G.1996 . , Prentice Hall .
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