A. Reisman, M. Berkenblit, et al.
JES
Mandelbrot's fractal geometry provides both a description and a mathematical model for many of the seemingly complex shapes found in nature. Such shapes often possess a remarkable invariance under changes of magnification. This statistical self-similarity may be characterized by a fractal dimension D, a number that agrees with our intuitive notion of dimension but need not be an integer. A brief mathematical characterization of random fractals is presented with emphasis on variations of Mandelbrot’s fractional Brownian motion. The important concepts of fractal dimension and exact and statisical self-similarity and self-affinity will be reviewed. The various methods and difficulties of estimating the fractal dimension and lacunarity from experimental images or point sets are summarized. © 1986 IOP Publishing Ltd.
A. Reisman, M. Berkenblit, et al.
JES
Sharee J. McNab, Richard J. Blaikie
Materials Research Society Symposium - Proceedings
Xikun Hu, Wenlin Liu, et al.
IEEE J-STARS
Oliver Schilter, Alain Vaucher, et al.
Digital Discovery