Practical and theoretical aspects of applied image analysis

Koch fractals in physical optics and their Fraunhofer diffraction patterns

Process of assigning numbers to objects or events

"...a blend of erudition (fascinating and sometimes obscure historical minutiae abound), popularization (mathematical rigor is relegated to appendices) and exposition (the reader need have little knowledge of the fields involved) ...and the illustrations include many superb examples of computer graphics that are works of art in their own right." Nature

The Fractal Geometry of Nature

Scientific knowledge grows at a phenomenal pace--but few books have had as lasting an impact or played as important a role in our modern world as The Mathematical Theory of Communication, published originally as a paper on communication theory more than fifty years ago. Republished in book form shortly thereafter, it has since gone through four hardcover and sixteen paperback printings. It is a revolutionary work, astounding in its foresight and contemporaneity. The University of Illinois Press is pleased and honored to issue this commemorative reprinting of a classic.

The mathematical theory of communication

A Mathematical Theory Communication

This is the most extraordinarily beautiful book in thought and in form that I have read for many years, and that is all the more peculiar for its being a somewhat technically mathematical treatise. Fractals is a whole new field of mathematics that models the most interdisciplinary grab-bag of naturally occurring forms, such as coastlines and clouds, crystals, snowflakes and cosmological structures. This new English edition with its triking format and illustrations doe justice to the idio yncratic geniu of the author in a way that the parsimonious French ver ion did not. Mandelbrot, who ha had chairs in economics, engineering, physiology, as well as everal of the choice t plums of the world of mathematics, is a jack-of-all-mathematical trades to IBM. Both the term and the field of fractals are his invention and pet, though he is also reverently anecdotal about the' prior history of the concepts of wiggliness involved in Brownian motion and the work of Edmund Fournier D'Albe, Lewis Fry Richard on and the many cia ical mathematicians who hav contributed to this theory. The idea of fractals extend to both random and non-random sets, and is defined as a set for which the Hausdorff-Be icovitch dimension trictly exceeds the topologica] dimen ion. Both of the e dimensionalities lie between zero and the dimension of the Euclidean space in which one works. The topological dimension i always an integer for Brownian motion, for example, it is unity, whereas the Hausdorff-Besicovitch i of value two, and for other fractals its value is not necessarily integral. Mandelbrot gives an intere ting and simple illu tration of the way in which dimensionalities of thi art depend on an interaction between the object observed and the resolving power of the observer. Consider, he suggests, a ball 10 cm in diameter, wound of a thick thread 1mm in diameter. To an observer at a di tance of 10 m it appears as a zerodimensional point. At 10 cm it i perceived a a three-dimensional ball. At 10 mm it seems to be a one-dimensional mess of thread. At 0.1 mm each thread would be seen as a column which is again a three-dimensional figure. At 0.01 mm each column

Practical and theoretical aspects of applied image analysis

Citations

Koch fractals in physical optics and their Fraunhofer diffraction patterns

References

The Fractal Geometry of Nature

The mathematical theory of communication

A Mathematical Theory Communication

Fractals: Form, Chance and Dimension

Fractals: form, chance and dimension, by Benoit B. Mandelbrot. Pp xvi, 365. $14·95.1977. SBN 0 7167 0473 0 (Freeman)

Related Papers (5)

Recent Methods and Applications on Image Edge Detection

Image Analysis: Applications in Materials Engineering

Content analysis in document images: a scale space approach

Research advances and prospects of mathematical morphology in image processing

Fundamentals of Three-dimensional Digital Image Processing